WO2006050638A1 - The method for preparation of hollow spheres and composite hollow spheres with template - Google Patents

The method for preparation of hollow spheres and composite hollow spheres with template Download PDF

Info

Publication number
WO2006050638A1
WO2006050638A1 PCT/CN2004/001382 CN2004001382W WO2006050638A1 WO 2006050638 A1 WO2006050638 A1 WO 2006050638A1 CN 2004001382 W CN2004001382 W CN 2004001382W WO 2006050638 A1 WO2006050638 A1 WO 2006050638A1
Authority
WO
WIPO (PCT)
Prior art keywords
solution
hollow sphere
concentration
hollow
polymer
Prior art date
Application number
PCT/CN2004/001382
Other languages
French (fr)
Chinese (zh)
Inventor
Zhenzhong Yang
Mu Yang
Jin Ma
Original Assignee
Institute Of Chemistry, Chinese Academy Of Science
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Institute Of Chemistry, Chinese Academy Of Science filed Critical Institute Of Chemistry, Chinese Academy Of Science
Publication of WO2006050638A1 publication Critical patent/WO2006050638A1/en

Links

Classifications

    • BPERFORMING OPERATIONS; TRANSPORTING
    • B01PHYSICAL OR CHEMICAL PROCESSES OR APPARATUS IN GENERAL
    • B01JCHEMICAL OR PHYSICAL PROCESSES, e.g. CATALYSIS OR COLLOID CHEMISTRY; THEIR RELEVANT APPARATUS
    • B01J13/00Colloid chemistry, e.g. the production of colloidal materials or their solutions, not otherwise provided for; Making microcapsules or microballoons
    • B01J13/02Making microcapsules or microballoons

Definitions

  • the invention belongs to the field of hollow structural materials, and particularly relates to a method for preparing inorganic materials, metal, organic hollow spheres and composite structural hollow spheres by using polymer hollow spheres as a template. Background technique
  • the hollow structure sphere is a functional material with special structure.
  • the hollow sphere has great application prospects in the fields of catalysis, drug delivery, artificial cells, lightweight fillers, insulating materials, low dielectric materials, photonic crystals and the like.
  • the preparation of such materials by core-shell structured colloidal particles is a common method.
  • a shell of another (or several) substances is coated or reacted on the surface of one particle to impart new properties to the particle.
  • the shell material can change the surface charge of the colloidal particles, the surface reaction characteristics, and enhance its stability and dispersibility.
  • charged, magnetic, catalytic, optically active, and electrically conductive substances may be introduced on the surface of the colloidal particles as needed to impart functionality to the particles.
  • the method for preparing the core-shell structure mainly includes the following two aspects: (1) surface reaction; (2) surface deposition.
  • American Matijevi0 et al. prepared a core-shell colloidal particle of polydivinylbenzene coated inorganic material by adding a dicobenzene and a free radical initiator to the surface of the inorganic particle (HT Oyama, R. Sprycha, A. Zelenev, E. Mati jevic, "Coating of Uniform Inorganic Particles with Polymers", J. Colloid Polym. Sci. 1993, 160, 298-303; R. Sprycha, HT Oyama, A.
  • Layer adsorption of polyelectrolytes is a very effective method for preparing core-shell structure colloidal particles.
  • the polyelectrolyte-coated colloidal particles can be prepared by adsorbing the oppositely charged polyelectrolyte layer to the surface of the colloidal particles and repeating it a plurality of times.
  • Germany Caruso et al. used monomeric polystyrene colloidal particles as a template to prepare colloidal particles coated with polyvinyl ammonium chloride and polystyrene b: sodium sulfonate by layer-by-layer electrostatic self-assembly. 5 nm ⁇ The average diameter of the colloidal particles increased by about 1. 5 nm.
  • the thickness of the polymer layer can be finely adjusted according to the number of adsorbed layers; colloidal particles of different sizes and shapes can be used as templates for polymerization
  • the layer assembly of the electrolyte The disadvantages are: the residual polyelectrolyte in the system must be removed by repeated centrifugation; the polymer layer of a certain thickness must undergo multiple self-assembly; the uncharged polymer cannot be assembled. Yang Zhenzhong et al.
  • the advantage of this method is to control sulfonation.
  • the thickness of the layer can simultaneously adjust the size of the cavity and the thickness of the shell, and the sulfonated layer provides a hydrophilic layer.
  • the hollow spheres prepared by the template method are obtained by using colloidal particles as a template, and the core-shell composite particles are obtained by surface deposition reaction or layer-by-layer alternating adsorption, and hollow spheres are obtained after enucleation. Summary of the invention
  • One of the objects of the present invention is to provide a method for preparing hollow spheres of inorganic, metal and/or organic composite structures using polymeric hollow spheres as a template.
  • a further object of the present invention is to provide a method for preparing hollow spheres of inorganic, metal and/or organic composite structures by a composite process.
  • Still another object of the present invention is to provide the use of hollow spheres and composite structural hollow spheres.
  • the invention utilizes a polymer hollow sphere as a template, uses a shell as a forced interface, a cavity as a raw material warehouse of a reaction component, and another reaction component is placed outside the sphere, and a hollow sphere or a composite structure thereof is prepared by the reaction.
  • the invention prepares a series of hollow structure colloidal particles by using a polymer hollow sphere as a template.
  • Various forms of composite hollow spheres were prepared by sol-gel, sedimentation reaction, redox chemistry or polymerization.
  • the reaction rate is controlled by selecting the reactants, and the morphology of the composite hollow sphere can be controlled by adjusting the feeding mode, the concentration of the reactants, and the reaction conditions.
  • High temperature sintering or solvent selective extraction removes the template polymer to obtain inorganic, metal or organic hollow spheres.
  • the invention uses a polymer hollow sphere as a template to prepare hollow spheres or composites of inorganic substances, metals and organic substances.
  • Inorganic hollow sphere or hollow sphere composite comprising: a metal oxide or hydroxide composite hollow spheres or hollow spheres, such as Ti0 2, Si0 2, Sn0 2 , Zr0 2, A1 2 0 3, V 2 0 5, Zn0 , W0 3 , Mo0 3 , Al (0H) 3 or M g (0H) 2 ; hollow spheres or composite hollow spheres of biomineralized materials, such as CaC0 3 , Ca l0 (P0 4 ) e (0H) 2 , BaS0 4 Or CaS0 4; hollow spheres or composite hollow spheres of semiconductor materials, such as CdS, ZnS, PbS, CuS, CoS, FeS, CdTe, CdSe or ZnSe; hollow spheres or composite hollow spheres of magnetic compounds, such as
  • a hollow sphere of a metal or a composite hollow sphere such as a hollow sphere of a Au, Ag, yttrium, Pd, Pb, Ni, Co, Cu or Fe or a composite hollow sphere.
  • Hollow spheres or composite hollow spheres of organic matter include: hollow spheres or composite hollow spheres of conductive polymers, such as polyaniline, polypyrrole, polythiophene or polyparaphenylene acetylene and derivatives thereof; hollow spheres or composite hollows of sensitive gels
  • a ball such as poly-N-isopropylacrylamide, polyacrylic acid or polymethacrylic acid.
  • Swelling polymerization can be used to prepare high performance polymer hollow spheres or composite hollow spheres, such as crosslinked polystyrene, polyurethane, polyacrylate, phenolic resin, unsaturated polyester, epoxy resin, polyimide, polyether Ketone or polyether sulfones.
  • the method for preparing a hollow sphere and a composite hollow sphere by using a template adopts a commercially available or self-made polymer hollow sphere as a template (diameter is 0.02 ⁇ 4 ⁇ ! ⁇ 10 ⁇ , and the cavity volume is 10 to 95% of the entire microsphere).
  • the polymer hollow spherical shell is composed of two layers of inner and outer materials, the inner layer is a hydrophilic polymer, the outer layer is a lipophilic polymer skeleton, and a hydrophilic channel connects the cavity and the outer environment of the particle.
  • Steps for preparing the growth material in the inner layer of the polymer hollow sphere template shell :
  • the reactant is divided into two reaction components, and there is no reaction between the raw materials in each component.
  • the polymer hollow sphere shell is used as a forced interface, and the cavity is used as a reaction group.
  • another reaction component is placed outside the ball, and a composite hollow sphere of the polymer hollow sphere inner layer growth material can be prepared by the reaction.
  • the resulting polymer hollow sphere containing the inorganic precursor solution is then added to the aqueous solution of the reaction component with stirring.
  • the concentration of the template particles in the reaction solution is maintained at 0. lwt% ⁇ 40. Owt%, the reaction temperature is 0 ° C ⁇ 100 ° C, the reaction time is 0. 5 ⁇ 24 hours or so, the reaction is completed, centrifugal cleaning, the polymer is obtained
  • the chemical solution containing the aqueous solution of the reaction vessel is infiltrated into the polymer hollow sphere template particle cavity, and then the obtained polymer hollow sphere containing the reaction component aqueous solution is added to a concentration of 10. 0wt% ⁇ 60.
  • the concentration of the template particles in the reaction solution is maintained at 0. lwt% ⁇ 40. 0wt%, the reaction temperature is 0 ° C ⁇ 100 ° C, the reaction time is 0. 5 ⁇ 24 hours, the reaction is completed, centrifugal cleaning
  • a composite hollow sphere in which an inorganic substance is grown in the inner layer of the polymer hollow spherical shell is also obtained.
  • the inner layer product of the prepared inorganic composite hollow sphere can be from a single dispersed nanoparticle to a nanoparticle network until Forming a dense shell of different thicknesses. or Lwt% ⁇ 40. Owt%, so that the polymer spheroidal slabs are immersed in a 0. lwt% ⁇ 40.
  • the metal ion salt solution penetrates into the cavity of the polymer hollow sphere template, and after reaching equilibrium, the solution which has not penetrated into the cavity of the polymer hollow sphere template is centrifuged and washed away. 0 ⁇ % ⁇
  • the polymer hollow ball containing the metal ion salt solution was then added to 0. 01wt% ⁇ 60.
  • a composite hollow sphere of metal is grown in the inner layer of the hollow spherical shell.
  • the resulting inner layer product of the metal composite hollow sphere can be from a single dispersed nanoparticle to a nanoparticle network until a dense shell of different thickness is formed.
  • the polymer hollow sphere template particles were soaked at a concentration of 0. 01wt ° /. ⁇ 0. 0wt% of the polymer monomer solution, the template particles in the solution to maintain a concentration of 0. lwt% ⁇ 40. 0wt ° / » the polymer monomer solution penetrates into the cavity of the polymer hollow sphere template, After the equilibrium is reached, the solution that has not penetrated into the cavity of the hollow polymer template is centrifuged and washed away. The polymer hollow cell containing the polymer monomer solution is then added to 0. 01wt% ⁇ 30. 0% of the initiator solution in a stirred solution.
  • the reaction time is 0. 5 ⁇ 24 hours or so, the reaction time is 0. 5 ⁇ 24 hours or so, the reaction time is 0. 5 ⁇ 24 hours, the reaction time is 0. 5 ⁇ 24 hours, the reaction time is 0. After completion, centrifugal cleaning, that is, a composite hollow sphere in which organic matter is grown in the inner layer of the polymer hollow spherical
  • the singularity of the singularity of the singularity of the singularity of the singularity of the singularity of the singularity of the singularity of the present invention is increased to 300 ⁇ 700 ° C (preferably 450 ° C) and the ignition is about 0.2 to 3 hours, respectively, to obtain inorganic or metal hollow spheres;
  • the polymer template obtained by the step (1.1), the step (1.2), the step (1.3), and the hollow sphere compounded with the inorganic substance, the metal or the organic substance are respectively extracted by using a selective solvent to remove the template polymerization. Objects, respectively, get inorganic, metal or organic hollow spheres.
  • Step (1. 1), step (1.2), and step (1. 3) may be repeated a plurality of times before proceeding to step (2).
  • Step (1.1), step (1.2), and step (1.3) respectively the composite hollow spheres are used as templates, and steps (1.1), steps (1.2), and steps (1. 3), performing a cyclic reaction, when two or more cycles of the reaction to form the same substance, the shell thickness of the composite hollow sphere can be increased, that is, the thickness of the hollow spherical shell can be controlled by controlling the concentration of the reactants and the number of cycles of the reaction; or
  • the composite hollow sphere obtained in the step (1.2) or the step (1.3) is used as a template particle of the step (1.1) to carry out a cyclic reaction; or
  • the composite hollow sphere obtained in the step (1.1) or the step (1.3) is used as a template particle of the step (1.2) to carry out a cyclic reaction; or
  • the composite hollow sphere obtained in the step (1.1) or the step (1.2) is used as a template particle of the step (1.3) to carry out a cyclic reaction.
  • composite hollow spheres of various materials can be obtained.
  • the polymer template first forms titanium dioxide in the inner layer of the shell, and then forms silica in the inner layer of the shell to obtain a polymer.
  • a composite hollow sphere of template and titanium dioxide and silicon dioxide; or a polymer template first generates ferroferric oxide in the inner layer of the shell, and then forms polyaniline in the inner layer of the shell to obtain a composite of the polymer template and triiron tetroxide and polyaniline. Hollow ball.
  • the composite hollow sphere with the surface of the burr-like substance can be obtained, and the polymer hollow sphere template
  • the inner layer of the shell creates a continuous material whose hydrophilic channels are reshaped, expanded, and even extended out of the sphere.
  • the aqueous solution of the reaction component is infiltrated into the cavity of the hollow polymer template of the polymer to reach a concentration of the polymer hollow sphere template particles in the solution After the equilibration, the solution that has not penetrated into the cavity of the hollow polymer template is centrifuged and washed away. The weight of the aqueous solution of the inorganic precursor is maintained at 0. 01wt ° / by the continuous replenishment.
  • the reaction time is 0. 5 ⁇ 24 hours, the reaction time is 0. 5 ⁇ 24 hours or so, the reaction time is 0. lwt% ⁇ 40. 0wt%, reaction temperature 0O ⁇ 100 ° C, reaction time 0.
  • the reducing agent solution is infiltrated into the polymer.
  • the weight of the template is kept in the solution.
  • the cavity of the hollow sphere template is centrifuged to remove the solution that has not penetrated into the cavity of the polymer hollow sphere template. 01wt°/ ⁇
  • the polymer ionic salt was added to the metal ion salt solution with agitation. 5 ⁇ 24 ⁇
  • the reaction time is 0. lwt% ⁇ 40. 0wt%, reaction temperature 0 ° C ⁇ 100 ° C, reaction time 0. 5 ⁇ 24 hours or so , the reaction is completed, and the centrifugal cleaning is performed to obtain the surface band.
  • the polymer template of the ranunculus-like material and the hollow sphere of the metal composite, the hydrophilic channel of which is shaped, expanded or even protruded from the sphere, and the inner layer of the shell generates a continuous material; or
  • the polymer hollow sphere template particles were immersed in the reaction composition concentration of 0. 01wt% ⁇ 30. 0wt°/ ⁇
  • the template particles are kept at a concentration of 0. lwt% ⁇ 40. (kt%, the initiator solution is infiltrated into the cavity of the polymer hollow sphere template, and after reaching equilibrium, the polymer hollow sphere template is not infiltrated.
  • the weight of the polymer monomer is maintained at 0. 01wt% ⁇ 10.
  • the concentration of the template particles in the reaction solution is maintained at 0. lwt% ⁇ 40. (kt%, reaction temperature 0°C ⁇ 100°C, reaction time) 0.
  • the polymer template obtained in the step (1) and the inorganic material, metal composite hollow spheres are placed in a sintering furnace, and air is passed, and the temperature is raised to a temperature of 0.1 to 10 ° C / minute to 300 ⁇ 700 ° C (preferably 450 ⁇ ) burning 0. 2 ⁇ 3 hours, obtaining an inorganic or metallic hollow sphere with a burr surface; or
  • the hollow template obtained by mixing the polymer template obtained in the step (1) with an inorganic material, a metal or an organic substance is extracted with a selective solvent to remove the template polymer to obtain a surface-burred inorganic material, metal or organic hollow sphere.
  • the hollow sphere of the burr-type hollow sphere is formed by growing a material in the inner layer of the casing, and the burr is formed by the growth and expansion of the material in the hydrophilic passage.
  • the polymer hollow sphere is used as a template, which is dispersed in a solution, and two reaction components of the inorganic substance, the metal or the organic substance are added to the solution to control a certain concentration, and the reaction product can be deposited and grown on the outer surface of the hollow shell of the polymer. And no reaction product particles are formed in the solution.
  • the final concentration is 0. lwt% ⁇ 50wt%
  • the concentration of the template particles is 0. lwt ° /. ⁇ 40wt%
  • reaction temperature 0 ° C ⁇ 100 ° C reaction time 0. 5 ⁇ 24 hours
  • the reaction product is deposited on the outer surface of the polymer hollow spherical shell to form a continuous shell.
  • the mixture is centrifuged to obtain a composite hollow sphere which grows inorganic substances on the outer surface of the hollow shell of the polymer; the polymer template is removed to obtain an inorganic hollow sphere; or
  • the weight of the metal ion salt is 0.11% by weight to 30% by weight, and the reducing agent concentration is 0.11% by weight to 30% by weight.
  • the concentration of the template particles is 0. lwt% ⁇ 40wt%
  • the reaction temperature is 0 ° C ⁇ : L00 ° C
  • the reaction time is 0. 5 ⁇ 24 hours
  • the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell Floor.
  • centrifugal cleaning is performed to obtain a composite hollow sphere which grows metal on the outer surface of the hollow shell of the polymer; the polymer template is removed to obtain a hollow metal sphere; or
  • the reaction temperature is 0°.
  • the concentration of the template particles is 0. lwt% ⁇ 40wt%
  • the reaction temperature is 0°
  • the concentration of the initiator is 0. 01wt% ⁇ 20wt%
  • the concentration of the template particles is 0. lwt% ⁇ 40wt%
  • the reaction temperature is 0°. C ⁇ 100 ° C, reaction time 0. 5 ⁇ 24 hours
  • the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell; after the reaction is completed, centrifugal cleaning, the outer surface of the hollow shell of the polymer is obtained.
  • the hollow sphere of the polymer and the organic compound; the template polymer is removed to obtain an organic hollow sphere.
  • the reactant is divided into two reaction components, and there is no reaction between the raw materials in each component.
  • the polymer hollow sphere shell is used as a forced interface, and the cavity is used as a reaction group.
  • another reaction component is placed outside the ball, and a composite hollow sphere of the inner growth material of the polymer hollow spherical shell is prepared by the reaction.
  • the resulting polymer hollow sphere containing the inorganic precursor solution is then added to the aqueous solution of the reaction component with stirring.
  • the concentration of the template particles in the reaction solution is maintained at 0. lwt% ⁇ 40. 0wt%, the reaction temperature is 0 ° C ⁇ 100 ° C, the reaction time is 0. 5 ⁇ 24 hours or so, the reaction is completed, centrifugal cleaning, the polymer is obtained
  • the inorganic material of the present invention is added to the inorganic material having a concentration of 10. 0 wt% to 60. 03 ⁇ 4 ⁇ %.
  • the concentration of the template particles in the reaction solution is maintained at 0. rt% ⁇ 40. 0wt%, reaction temperature 0 ° C; ⁇ 100 ° C, reaction time 0. 5 ⁇ 24 hours, the reaction is completed, centrifugal cleaning, the same polymerization
  • the template particles are kept at a concentration of 0. lwt e /, in the solution of the metal ion salt solution. ⁇ 40. 0wt%, the metal ion salt solution is infiltrated into the cavity of the polymer hollow sphere template, and after reaching equilibrium, the solution not penetrating into the cavity of the polymer hollow sphere template is centrifuged and washed away. 0 ⁇ % ⁇ The polymer hollow sphere containing the metal ion salt solution was then added to 0. 01wt% ⁇ 60. 0 ⁇ % of the reducing agent solution. The concentration of the template particles in the reaction solution is maintained at 0. lwt% ⁇ 40.
  • the reaction temperature is 0 ° C ⁇ 100 ° C
  • the reaction time is 0. 5 ⁇ 24 hours
  • the reaction is completed, centrifuged, clear, that is A composite hollow sphere of metal is grown in the inner layer of the polymer hollow spherical shell.
  • 0wt% initiator solution is infiltrated into the hollow cavity template particle cavity of the polymer, and then the obtained polymer hollow sphere containing the initiator solution is added to the concentration of 5 ⁇ % ⁇ 4 under stirring.
  • the inert gas is introduced into the reaction vessel, and the concentration of the template particles in the reaction solution is kept at 0. lwt% ⁇ 40wt%, the reaction temperature is 0°C ⁇ 100°C, and the reaction time is 0. 5 ⁇ 24 hours, the reaction is completed, and the mixture is centrifuged to obtain a composite hollow sphere in which the organic layer of the polymer hollow sphere is grown.
  • the outer surface of the spherical shell can obtain a multi-layer composite hollow sphere which grows materials on both the outer surface and the inner layer of the polymer hollow spherical shell, and removes the polymer template to obtain a double-layer hollow sphere, that is, the hollow sphere contains a hollow sphere therein.
  • the hollow sphere can move within the outer hollow sphere.
  • the final concentration of the inorganic precursor in the reaction liquid is 0. 01wt%
  • the final concentration of the inorganic precursor in the reaction liquid is 0. 01wt% Lwt°/ ⁇
  • the final concentration of the aqueous solution of the reaction component is 0. lwt ° /. ⁇ 50wt%
  • the concentration of the template particles is 0. lwt% ⁇ 40wt%
  • the reaction temperature is 0 ° C ⁇ 100 V
  • the reaction time is 0. 5 ⁇ 24 hours
  • the reaction product is deposited on the outer surface of the polymer hollow spherical shell, forming a continuous Shell layer.
  • a composite hollow sphere in which inorganic substances are grown on the outer surface and the inner layer of the hollow shell of the polymer is obtained.
  • the polymer template is removed to obtain a two-layer inorganic hollow sphere, that is, the hollow sphere contains a hollow sphere, and the hollow sphere obtained in the two-layer structure can move in the outer hollow sphere; or
  • the concentration of the template particles is 0. lwt% ⁇ 40wt ° /.
  • the reaction temperature is 0 ° C to 100 ° C, and the reaction time is 0.5 to 24 hours, and the reaction product is deposited on the outer surface of the hollow hollow spherical shell to form a continuous shell layer.
  • the mixture is centrifuged to obtain a composite hollow sphere in which metal and inner layer growth inorganic substances are grown on the outer surface of the polymer hollow spherical shell.
  • the polymer template is removed to obtain a double-layered metal-inorganic hollow sphere, that is, the hollow metal sphere contains an inorganic hollow sphere, and the obtained inorganic hollow sphere can move in the hollow metal sphere; or
  • the initiator concentration is 0. 01wt% ⁇ 20wt%
  • the concentration of the template particles is 0. lwt% ⁇ 40wt%
  • the reaction temperature is 0'C ⁇ 100°C
  • the reaction time was 0.5 to 24 hours, and the reaction product was deposited on the outer surface of the hollow shell of the polymer to form a continuous shell layer.
  • the mixture is centrifuged to obtain a composite hollow sphere in which an organic substance and an inner layer of inorganic substances are grown on the outer surface of the hollow shell of the polymer.
  • the concentration of the inorganic precursor in the reaction solution is 0. 01wt% ⁇ 5 ⁇ 24 ⁇
  • the reaction time is 0. 5 ⁇ 24 hours, the reaction time is 0. 5 ⁇ 24 hours, the reaction time is 0. 5 ⁇ 24 hours, the reaction time is 0. 5 ⁇ 24 hours
  • the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell.
  • centrifugal cleaning is performed to obtain a composite hollow sphere in which an inorganic substance and an inner layer growing metal are grown on the outer surface of the polymer hollow spherical shell.
  • the polymer template is removed to obtain a two-layer inorganic-metal hollow sphere, that is, the inorganic hollow sphere contains a hollow metal sphere, and the obtained hollow metal sphere can move in the inorganic sphere; or
  • Rt% ⁇ 30wt%, reducing agent, the metal ion salt concentration in the reaction liquid is controlled to 0. 0 rt% ⁇ 30wt%, reducing agent, the metal hollow salt solution and the reducing agent solution are added to the reaction liquid.
  • the concentration of the template is 0. 01wt% ⁇ 30wt%
  • the concentration of the template particles is 0. lwt% ⁇ 40wt%
  • the reaction temperature is 0 ° C ⁇ 100 ° C
  • the reaction time is 0. 5 ⁇ 24 hours
  • the reaction product is deposited in the polymer hollow sphere
  • the outer surface of the casing forms a continuous shell.
  • centrifugal washing is carried out to obtain a composite hollow sphere in which metal is grown on the outer surface and the inner layer of the hollow shell of the polymer. Removing the polymer template to obtain a two-layer structure metal hollow sphere, that is, the metal hollow sphere contains a metal hollow sphere, and the obtained inner metal hollow sphere can move in the outer metal sphere; or
  • the concentration of the initiator is 0. 01wt% ⁇ 20wt%
  • the concentration of the template particles is 0. lwt% ⁇ 40wt%
  • the reaction temperature is 0 ° C ⁇ 100 ° C
  • the reaction time is 0. 5 ⁇ 24 hours
  • the reaction product is deposited in the polymerization
  • the outer surface of the hollow spherical shell forms a continuous shell.
  • the mixture is centrifuged to obtain a composite hollow sphere in which an organic substance and an inner layer of metal are grown on the outer surface of the hollow shell of the polymer.
  • the concentration of the inorganic precursor in the reaction solution is 0. 01wt% ⁇ 5 ⁇ 24 ⁇ ,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,
  • the concentration of the template particles is 0. lwt% ⁇ 40wt%
  • the reaction temperature is 0°C
  • the concentration of the template is 0. 01wt% ⁇ 30wt%
  • the concentration of the template particles is 0. lwt% ⁇ 40wt%
  • the reaction temperature is 0°C. ⁇ 10 (TC, reaction time 0. 5 ⁇ 24 hours
  • the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell.
  • centrifugal cleaning is performed to obtain metal on the outer surface of the hollow shell of the polymer.
  • a composite hollow sphere with an inner layer of organic matter The polymer template is removed to obtain a double-layered metal-organic hollow sphere, that is, the hollow sphere of the metal contains an organic hollow sphere, and the obtained hollow hollow sphere can move in the hollow sphere of the metal;
  • the concentration of the template particles is 0. lwt% ⁇ 40wt%
  • the reaction temperature is 0 ° C ⁇ 100 ° C
  • the reaction time is 0. 5 ⁇ 24 hours
  • the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell .
  • the aqueous solution of the reaction solution is immersed in the aqueous solution of the reaction solution.
  • the template particles are kept at a concentration of 0. lwt% ⁇ 40. 0wt%, the aqueous solution of the reaction component is infiltrated into the polymer hollow sphere template.
  • the cavity is centrifuged and the solution that has not penetrated into the cavity of the hollow balloon template is centrifuged. 01 ⁇ % ⁇ 10. (1 ⁇ 21% ⁇ constant)
  • the polymer hollow spheres containing the aqueous solution of the reaction component are added to the alcohol solution of the inorganic precursors, and the inorganic precursor is maintained at 0. 01wt% ⁇ 10.
  • the concentration of the template is maintained at 0. lwt% ⁇ 40.
  • the reaction temperature is 0 ° C ⁇ 100 ° C
  • the reaction time is 0. 5 ⁇ 24 hours
  • the reaction is completed, centrifugal cleaning, the surface is obtained.
  • a hollow sphere of a polymer template with a burr-like substance and an inorganic material, the hydrophilic channel of which is shaped, expanded, or even protruded from the sphere, and the inner layer of the shell generates a continuous material;
  • the concentration of the template particles is maintained at 0. lwt% ⁇ 40. 0wt%, the reaction temperature is 0°C ⁇ 100°C, the reaction time is 0. 5 ⁇ 24 hours, the reaction is completed, and the centrifugal cleaning is performed to obtain the surface burr-like substance.
  • the polymer template is a composite hollow sphere of metal, the hydrophilic channel of which is complexed, expanded, and even extended out of the sphere.
  • the inner layer of the casing generates a continuous material; or
  • the initiator solution is infiltrated into the cavity of the polymer hollow sphere template, and after reaching equilibrium, the solution that has not penetrated into the cavity of the polymer hollow sphere template is centrifuged and washed away. 01% ⁇ 10. 0%% of a constant concentration; in a constant concentration of 0. 01% ⁇ 10. 0%%; The reaction is completed.
  • the reaction temperature is 0. 5 ⁇ 24 hours, the reaction time is 0. 5 ⁇ 24 hours or so, the reaction is completed.
  • the reaction temperature is 0. lwt% ⁇ 40.
  • Centrifugal cleaning that is, a hollow sphere in which a polymer template having a burr-like substance on the surface is combined with an organic substance, the hydrophilic passage is reshaped, expanded, and even protruded from the sphere, and the inner layer of the casing generates a continuous material.
  • a double-layer hollow sphere is obtained, that is, the hollow sphere contains a hollow sphere, but the two hollow spheres are connected by a column, and the inner hollow sphere cannot move in the outer hollow sphere, and the two hollow spheres are concentric.
  • the inner hollow layer obtained by the step (1.1) and the composite hollow sphere of the channel growth inorganic substance are dispersed in the alcohol solution, and the inorganic precursor solution and the aqueous solution of the reaction component are added to control the concentration of the inorganic precursor in the reaction liquid.
  • 01 ⁇ % ⁇ 40wt% The concentration of the template particles is 0. lwt% ⁇ 40wt%, the reaction temperature is 0 °C ⁇ 100 °C, the reaction time is 0. 5 ⁇ 24 hours, the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell.
  • the mixture is centrifuged to obtain a composite hollow sphere in which the inorganic body is grown on the outer surface, the inner layer and the channel of the hollow shell of the polymer.
  • the polymer template is removed to obtain a double-layered inorganic hollow sphere, that is, the hollow sphere contains a hollow sphere, and the obtained inorganic hollow sphere has an inorganic column connected between the two hollow spheres, and the inner hollow sphere cannot move in the outer hollow sphere, Hollow ball concentric; or
  • the concentration of the metal ion salt in the reaction solution is 0. 01wt% ⁇ 30wt%, the concentration of the metal ion salt in the reaction solution is 0. 01wt% ⁇ 30wt%, 5 ⁇ 24 ⁇ ,
  • the reaction product is deposited on the polymer.
  • the concentration of the template is 0. 01wt% ⁇ 30wt%, the concentration of the template particles is 0. lwt% ⁇ 40wt%, the reaction temperature is 0'C ⁇ 100 °C, the reaction time is 0. 5 ⁇ 24 hours, the reaction product is deposited on the polymer.
  • the outer surface of the hollow spherical shell forms a continuous shell.
  • the mixture is centrifuged to obtain a composite hollow sphere in which a metal and an inner layer and a channel-grown inorganic substance are grown on the outer surface of the polymer hollow spherical shell.
  • the polymer template is removed to obtain a double-layered metal-inorganic hollow sphere, that is, the hollow metal sphere contains an inorganic hollow sphere, and the obtained double-layer hollow sphere has an inorganic column connected between the two hollow spheres, and the inorganic hollow sphere Can't move in the hollow metal ball, the two hollow balls are concentric; or
  • the concentration of the template particles is 0. lwt% ⁇ 40wt%
  • the reaction temperature is 0°C ⁇ 100 ° C
  • reaction time 0. 5 ⁇ 24 hours
  • the reaction product is deposited on the outer surface of the polymer hollow spherical shell to form a continuous shell.
  • the mixture is centrifuged to obtain a composite hollow sphere in which an organic substance and an inner layer and a channel-grown inorganic substance are grown on the outer surface of the polymer hollow spherical shell.
  • the polymer template is removed to obtain a two-layer organic-inorganic hollow sphere, that is, the organic hollow sphere contains an inorganic hollow sphere, and the obtained double-layer hollow sphere has an inorganic column connected between the two hollow spheres, and the inorganic hollow sphere Cannot move in the hollow sphere of organic matter, the two hollow spheres are concentric; or
  • the weight of the inorganic precursor in the reaction solution is 0. 01wt.
  • the weight of the inorganic precursor in the reaction solution is 0. 01wt % ⁇ 3( rt%, the final concentration of the aqueous solution of the reaction component is 0. lwt% ⁇ 50wt%, the concentration of the template particles is 0. lwt% ⁇ 40wt ° /., the reaction temperature 0 ° C ⁇ 100 ° C, reaction time 0. 5 ⁇ 24 hours, the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell. After the reaction is completed, centrifugal cleaning is performed to obtain inorganic and inner layers and channel growth on the outer surface of the hollow shell of the polymer hollow shell. Metal composite hollow sphere.
  • the polymer template is removed to obtain a two-layer structure inorganic-metal hollow sphere, that is, the inorganic hollow sphere contains a metal hollow sphere, and the obtained double-layer hollow sphere has two metal spheres connected by a hollow column. , the hollow metal sphere cannot move in the inorganic sphere, and the two hollow spheres are concentric; or
  • the ionic salt concentration of the metal ionic salt in the reaction liquid is 0.11% by weight to 30% by weight. 5 ⁇ 24 ⁇ ,
  • the reaction product is deposited in the polymerization.
  • the concentration of the template is 0. 01wt% ⁇ 30wt%, the concentration of the template particles is 0. lwt% ⁇ 40wt%, the reaction temperature is 0°C ⁇ 100°C, the reaction time is 0. 5 ⁇ 24 hours, the reaction product is deposited in the polymerization.
  • the outer surface of the hollow spherical shell forms a continuous shell. After the reaction is completed, the mixture is centrifuged to obtain a composite hollow sphere in which metal and inner layer and channel growth metal are grown on the outer surface of the polymer hollow spherical shell.
  • the polymer template is removed to obtain a double-layered metal hollow sphere, that is, the metal hollow sphere contains a metal hollow sphere, and the obtained double-layer hollow sphere has a metal column connected between the two hollow spheres, and the inner metal hollow sphere cannot be in the outer hollow sphere. Movement, two hollow balls concentric; or
  • the polymer template is removed to obtain a two-layer structure organic-metal hollow sphere, that is, the organic hollow sphere contains a metal hollow sphere, and the obtained double-layer hollow sphere has a metal column connected between the two hollow spheres, and the metal hollow sphere cannot be hollow in the organic matter.
  • the concentration of the inorganic precursor in the reaction liquid is 0. 01wt /. 5 ⁇ 24 ⁇
  • the reaction time is 0. 5 ⁇ 24, the reaction time is 0. 5 ⁇ 24 Hours, the reaction product is deposited on the outer surface of the polymer hollow sphere shell to form Continuous shell. After the reaction is completed, the mixture is centrifuged to obtain a composite hollow sphere in which an inorganic substance, an inner layer and a channel-growing organic substance are grown on the outer surface of the hollow sphere of the polymer.
  • the polymer template is removed to obtain a two-layer structure inorganic-organic hollow sphere, that is, the inorganic hollow sphere contains an organic hollow sphere, and the obtained double-layer hollow sphere has an organic column connected between the two hollow spheres, and the organic hollow sphere cannot be Intra-spherical ball movement, two hollow balls concentric; or
  • the double-layered metal-organic hollow sphere that is, the hollow sphere of the metal contains an organic hollow sphere, and the obtained double-layer hollow sphere has an organic column connected between the two hollow spheres, and the organic hollow sphere cannot move in the hollow sphere of the metal, and the hollow Ball concentric; or
  • the mixture is centrifuged to obtain a composite hollow sphere in which organic matter is grown on the outer surface of the hollow shell of the polymer and the inner layer and the channel.
  • the polymer template is removed to obtain a double-layered organic hollow sphere, that is, the organic hollow sphere contains an organic hollow sphere, and the obtained double-layer hollow sphere has an organic column connected between the two hollow spheres, and the inner hollow sphere cannot move in the outer hollow sphere. , the two hollow balls are concentric.
  • the outer surface of the hollow sphere of the polymer also becomes a hydrophilic surface, that is, the intermediate layer is oleophilic, and the inner layer and the outer surface are three-layer shell which is ice-friendly, and the surface modification polymerization is performed.
  • the hollow sphere replaces the polymer hollow sphere template to carry out the reaction, and the composite hollow sphere of a multi-layer structure can be produced in one step. By removing the template polymer with a selective solvent, a two-layer hollow sphere can be obtained.
  • the inorganic polymer precursors are immersed in a concentration of 0. 01wt% ⁇ 60. 0wt% of the inorganic precursor solution, the template particles in the solution to maintain a concentration of 0. lwt% ⁇ 40. 0wt%, make inorganic substances
  • the precursor solution penetrates into the cavity and hydrophilic layer of the modified polymer hollow sphere template, and after reaching equilibrium, the solution that has not penetrated into the cavity is centrifuged and washed away.
  • the obtained modified polymer hollow sphere containing the inorganic precursor solution is then added to the aqueous solution of the reaction component with stirring. ⁇ 40.
  • the double-layered inorganic hollow sphere can be obtained by removing the template polymer with a selective solvent; or 01wt% ⁇ 60.
  • the weight of the modified polymer hollow spheres containing the aqueous solution of the reaction mixture was added to a concentration of 0. 01wt% ⁇ 60. Owt% in the inorganic precursor solution.
  • the temperature of the modified polymer hollow sphere is controlled to be 0. lw « ⁇ 40. 0wt%, the reaction temperature is 0 ° C ⁇ 100.
  • the reaction time is about 0.5 to 24 hours, the reaction is completed, and the mixture is centrifuged to obtain a multilayer composite hollow sphere of a polymer and an inorganic material.
  • a two-layer inorganic hollow sphere can be obtained.
  • reaction temperature 0°C ⁇ 100°C
  • reaction time 0. 01wt% ⁇ 60. 0%% of the reducing agent solution.
  • the reaction is completed and centrifuged to obtain a multi-layer composite hollow sphere of polymer and metal.
  • the double-structured metal hollow sphere can be obtained by removing the template polymer with a selective solvent;
  • 0. 01wt% ⁇ 60. 0wt% of the reducing agent solution is infiltrated into the hollow cavity of the modified polymer hollow sphere particles and the hydrophilic layer, and then the obtained modified polymer hollow sphere containing the reducing agent solution is added under stirring.
  • a concentration of 0. 01wt% ⁇ 60. 0wt% of the metal ion salt solution is maintained at 0. lwt% ⁇ 40. 0wt%
  • the reaction temperature is 0 ° C ⁇ 10 (TC, reaction time 0. 5 ⁇ 24 hours or so, the reaction is completed, centrifugal cleaning, the same polymer Multi-layer composite hollow sphere with metal.
  • the double-structured metal hollow sphere can be obtained by removing the template polymer with a selective solvent.
  • the polymer monomer solution is infiltrated into the cavity and hydrophilic layer of the modified polymer hollow sphere, and after reaching equilibrium, the solution not infiltrated into the hollow cavity of the modified polymer hollow is centrifuged and washed.
  • the modified polymer hollow spheres of the monomer solution are added to 0. 01wt% ⁇ 30. 0wt% in the initiator solution.
  • the inert gas is introduced into the reaction vessel to control the concentration of the template particles in the reaction solution to be kept at 0. Lwt% ⁇ 40.
  • reaction temperature 0 °C ⁇ 100 ° C
  • reaction time 0. 5 ⁇ 24 hours or so
  • the reaction is completed, centrifugal cleaning, that is, a multi-layer composite hollow sphere of polymer and organic matter is obtained.
  • the solvent removes the template polymer to produce a two-layer organic hollow sphere.
  • the initiator solution is infiltrated into the cavity of the modified polymer hollow sphere and the hydrophilic layer, and then the modified polymer hollow sphere containing the initiator solution is added to a concentration of 0. 01 ⁇ /. ⁇ 4 (1 ⁇ 2 «)
  • the polymer monomer solution The inert gas is introduced into the reaction vessel, and the concentration of the template particles in the reaction solution is kept at 0. lwt ° / . ⁇ 40 wt%, the reaction temperature is 0 ° C ⁇ 100 ° C, The reaction time is about 0.5 to 24 hours, the reaction is completed, and the mixture is centrifuged to obtain a multilayer composite hollow sphere of polymer and organic matter.
  • the template polymer can be removed by a selective solvent to obtain a two-layer organic hollow sphere.
  • Preparation method of polymer composite hollow sphere by swelling polymerization method Steps: Dispersing the polymer hollow sphere template particles in water, adding a monomer and a crosslinking agent, or a monomer and a crosslinking agent and an organic solvent, swelling the polymer hollow sphere template shell by a monomer or an organic solvent, and Lwt% ⁇ 20wt% ⁇
  • the body and the initiator is introduced into the polymer hollow spherical shell layer, and then the polycondensation, polycondensation or ring-opening polymerization, the inert gas is introduced into the reaction vessel, the concentration of the template particles in the reaction solution is 0.
  • the reaction The monomer concentration is 0. lwt% ⁇ 20wt%, the initiator concentration is 0.01wt% ⁇ 10wt%, the organic solvent concentration is 0wt% ⁇ 20wt%, the swelling time is 0.5 ⁇ 24 hours, and the reaction temperature is 20 °C ⁇ 250° C, reaction time 0.5 to 48 hours.
  • a composite hollow sphere of a polymer hollow sphere and an organic substance can be obtained.
  • the outer diameter of the polymer hollow sphere template particles is 0.02Mm ⁇ 10to, and the cavity volume is 10 ⁇ 95% of the whole microsphere.
  • the synthetic methods used are spray drying method, block copolymer self-assembly method, acid Alkali swelling method, dynamic swelling method, multiphase emulsion polymerization method.
  • the inner hydrophilic polymer of the polymer hollow sphere template comprises polystyrenesulfonic acid, polymethacrylic acid, polyacrylic acid, polyvinyl alcohol, polyamide, polyvinylpyrrole, poly(2-vinylpyrrolidone). Precipitate), poly(4-vinylpyridine), polyhydroxyethyl methacrylate, polyvinyl ester, polyoxyethylene or polyvinyl ammonium chloride.
  • the outer lipophilic polymer of the polymeric hollow sphere template comprises polystyrene, polymethyl methacrylate, polyethyl methacrylate, polybutyl methacrylate, polybutyl methacrylate, polymethyl Acrylic acid cinnamic acid ethyl ester, polymethyl acrylate, polyethyl acrylate, polybutyl acrylate, polybutyl acrylate, polyoxypropylene, polydimethylsilyl, polyvinyl butyrate or polyisobutylene.
  • the selective solvent for removing the polymer template is chloroform, toluene, tetrahydrofuran or N,N-dimethylformamide or the like.
  • the hydrophilic modification of the polymer hollow sphere is carried out by hydrophilic modification of a commercially available or self-made polymer hollow sphere (having a diameter of 0.02 m to 10 Mm and a cavity size of 10 to 95% of the entire microsphere size).
  • the modification methods include electrostatic adsorption, sulfonation treatment, hydrolysis reaction, surface grafting and the like.
  • the inorganic precursor solution is Si (0CH 3 ) 4 , Si (0CH 2 C3 ⁇ 4), Si ⁇ 0CH(C3 ⁇ 4) 2 ⁇ 4 , Si(0CH 2 C CH 2 CH 3 ) 4 , an alcohol solution of Na 2 SiO 3 ;
  • the aqueous solution of the reaction component is an alcoholic solution of water (0. lwt ° / ⁇ 100 wt%), and its P H is adjusted with 35 % concentrated hydrochloric acid or 25 w « concentrated ammonia water The value is 1 ⁇ 13.
  • the inorganic precursor solution is TiCl 4 , Ti(0CH 3 ) 4 , Ti(0C C ) 4 , Ti ⁇ 0CH(CH 3 ) 2 ⁇ 4 , Ti (0CH 2 CH 2 CH 2 C ) 4 , T alcohol 0 4 alcohol solution;
  • the reaction component aqueous solution is water alcohol solution (0. lwt% ⁇ 100 wt%), with 35 % concentrated hydrochloric acid or 25 wt% concentrated ammonia water to adjust its pH It is 1 to 13.
  • the inorganic precursor solution is SnCl 4 , Sn(0C3 ⁇ 4) 4 , Sn(0CH 2 CH 3 ) 4 , Sn ⁇ 0CH(CH 3 ) 2 ⁇ Sn
  • an aqueous solution of the reaction component is an alcoholic solution of water (0.1 wt% to 100 wt%), using 35 % concentrated hydrochloric acid or 25 wt ° /. Concentrated ammonia water adjusts its pH to 1 ⁇ 13.
  • the inorganic precursor solution is ZrCl 4 , Zr(0CH 3 ) 4 , Zr (0C CH 3 ) 4 , Zr ⁇ 0CH(C3 ⁇ 4) 2 ⁇ 4 , Zr (0C C CH 2 C3 ⁇ 4) 4 , Zr (S0 4 ) 2 alcohol solution;
  • the reaction component aqueous solution is water alcohol solution (0. Lwt% ⁇ 10 (kt%), the pH is adjusted to 1 ⁇ 13 with 35wt% concentrated hydrochloric acid or 25wt%/concentrated ammonia water.
  • the inorganic precursor solution is A1C1 3 , A1 (0CH 3 ) 3 , A1 (0CH 2 CH 3 ) 3 , A1 ⁇ 0CH(C ) 2 ⁇ 3 , Al (0CH 2 CH 2 C CH 3 ) 3 , Al 2 (S0 4 ) 3 alcohol solution;
  • the reaction component aqueous solution is water alcohol solution (0. lwt% ⁇ 100wt%), with 35wt% hydrochloric acid or 25wt
  • the concentrated ammonia water is adjusted to have a pH of 1 to 13.
  • the inorganic precursor solution is V0 (0CH 3 ) 3 , V0(0CH 2 C ) 3 , VO ⁇ 0CH(CH 3 ) 2 ⁇ 3 , V0 (0CH 2 C C3 ⁇ 4C3 ⁇ 4) 3 alcohol solution;
  • the aqueous solution of the reaction component is an alcoholic solution of water (0. lwt ° / ⁇ ⁇ 100 wt%), with 35 ⁇ « concentrated hydrochloric acid or 25wt ° /. Concentrated ammonia water adjusts its pH to 1 ⁇ 13.
  • the inorganic precursor solution is an alcohol solution of Zn(N0 3 ) 2 , Zn (00CCH 3 ) 2 , ZnCl 2 , Zn (CI ) 2 ; It is a water or alcohol solution of alkali (0. 01wt ° / a ⁇ 30wtt), such as sodium hydroxide, potassium hydroxide or ammonia.
  • the inorganic precursor solution is an aqueous solution of (NH 4 ) 6 H 2 W 12 0 41 , NaW0 3 ; ⁇ 100wt%), the pH is adjusted to 1 ⁇ 13 with 35% concentrated hydrochloric acid or 25% concentrated ammonia water.
  • the inorganic precursor solution is an aqueous solution of Mo 0 3 2 0;
  • the aqueous solution of the reaction component is an aqueous alcohol solution (0. lwt% to 100 wt%), with a concentration of 35 % Hydrochloric acid or 25 wt% concentrated aqueous ammonia is adjusted to have a pH of 1 to 13.
  • the inorganic precursor solution is an aqueous solution of soluble aluminum, magnesium chloride or sulfate; the aqueous solution of the reaction component is alkali Aqueous solution (0.11% by weight to 30% by weight) such as sodium hydroxide, potassium hydroxide or ammonia.
  • the inorganic precursor solution is Ca(0H) 2 , CaCl 2 , Ba(0H) 2 , or BaCl 2 ⁇ ;
  • the aqueous solution of the reaction component is a solution of C0 3 2 —, P0—, SO—Na+, or K + salt or H 2 C0 3 , H 3 P0 4 , 3 ⁇ 450 4 (0. 01wt°/. ⁇ 30wt%).
  • the inorganic precursor solution is an aqueous solution of a soluble salt of a corresponding metal cation, such as a chloride, a nitrate, or a sulfate; the aqueous solution of the reaction component is sodium sulfide, sulfur An aqueous solution of urea (0. 01wt ° / ⁇ ⁇ 30wt%).
  • the inorganic precursor solution is an aqueous solution of a soluble salt of a metal cation such as chloride, nitrate or sulfate; and the aqueous solution of the reaction component is selenized.
  • An aqueous solution of sodium or sodium hydride (0.11% by weight to 30% by weight). .
  • the inorganic precursor solution is Fe 2
  • An aqueous solution of an alkali 0.11% by weight to 30% by weight, such as sodium hydroxide, potassium hydroxide or aqueous ammonia, or a hydrazine hydrate solution (hrt% ⁇ 6 (kt%)).
  • the metal ion salt solution is an aqueous solution of a corresponding metal ion soluble salt, such as perchlorate. , chloride, nitrate, sulfate;
  • the reducing agent solution is an aqueous solution of a reducing agent, such as an aqueous solution of NaB, LiB (C 2 H 5 ) 3 H, N 2 .
  • the polymer monomer solution is a water or alcohol solution of the corresponding monomer;
  • the solution is an aqueous solution of potassium persulfate, ammonium persulfate or ferric chloride.
  • the polymer monomer solution is a monomeric N-isopropylacrylamide, Acrylic acid, methyl decenoic acid or its water or alcohol solution;
  • the initiator solution is an aqueous solution of potassium persulfate or ammonium persulfate.
  • the composite includes inorganic, metal, organic composites such as Ti0 2 and SiO 2 , Ti0 ⁇ n SnO 2 , TiO 2 and ZnO, gold and silver, palladium and nickel, and the like. Also included are inorganic, metal and organic complexes such as titanium dioxide and triiron tetroxide, polyaniline and ferric oxide, polyacrylic acid and silver.
  • the inert gas is nitrogen or argon or the like.
  • the alcohol solution is methanol, ethanol, propanol, isopropanol, butanol or the like.
  • the shell swelling polymerization method can be used to prepare high performance polymer hollow spheres or composite hollow spheres, such as crosslinked polystyrene, polyacrylate, polyurethane, phenolic resin, unsaturated polyester, epoxy resin, polyacyl. Imine, polyether ketone or polyether sulfone hollow sphere or composite hollow sphere.
  • the cross-linking agent for preparing cross-linked polystyrene, polyacrylate hollow sphere or composite hollow sphere is azobisisobutyronitrile, azobisisoheptanenitrile, dibenzoyl peroxide, peroxydicarbonate Isopropyl ester, potassium persulfate or ammonium persulfate; the monomer is styrene, divinylbenzene, methyl acrylate, ethyl acrylate, propyl acrylate or butyl acrylate;
  • the crosslinking agent for preparing the polyurethane hollow sphere or the composite hollow sphere is polyether diol, polyester diol or 1, 4-butanediol; the monomer is hexamethylene diisocyanate or toluene diisocyanate;
  • the crosslinking agent for preparing the phenolic resin hollow sphere or the composite hollow sphere is phenol, o-cresol, p-cresol, resorcin or bisphenol A; the monomer is formaldehyde, trioxane, acetaldehyde, trimer Acetaldehyde or furfural;
  • the crosslinking agent for preparing the unsaturated polyester hollow sphere or the composite hollow sphere is ethylene glycol, propylene glycol, 1, 3-butanediol, polyether diol or polyester diol; the monomer is bismuth maleate ;
  • the crosslinking agent for preparing the epoxy resin hollow sphere or the composite hollow sphere is hexamethylene diisodecanoate, toluene diisocyanate, phthalic anhydride, phthalic anhydride, maleic anhydride, ethylenediamine, and hexan An amine or trimethyltetramine; the monomer is bisphenol A epoxy or phenolic epoxy;
  • the crosslinking agent for preparing the polyimide hollow sphere or the composite hollow sphere is p-phenylenediamine or hexamethylenediamine; the monomer is bismaleic anhydride or pyromellitic anhydride;
  • the crosslinking agent for preparing the polyether ketone or the polyether sulfone hollow sphere or the composite hollow sphere is 4,4-difluorobenzophenone or 4,4-dichlorodiphenyl sulfone; the monomer is hydroquinone Or tetramethylbiphenyldiol.
  • the organic solvent used to swell the polymer hollow spherical shell is chloroform, benzene, toluene, xylene, tetrahydrofuran, hydrazine, hydrazine-dimethylformamide, hydrazine, hydrazine-dimethylacetamide, dimethyl Sulfone, acetone, cyclohexane.
  • the composite hollow spheres and hollow spheres prepared by the invention have wide applications -
  • a high-performance catalyst can be prepared to form a hollow sphere of a catalyst material.
  • the catalyst hollow sphere is composed of nanoparticles, and the large specific surface area also ensures the liquidity of the liquid gas.
  • Semiconductors such as zinc oxide and cadmium sulfide can be used as solar cell materials by utilizing their ultraviolet light absorption and photoelectric conversion properties, and can also be used as photocatalytic materials, which are widely used in antibacterial deodorization, sewage treatment, and purification of exhaust gas. , Photolysis water, etc., can also be used as gas sensors, dielectric ceramics.
  • an electrode active material an electrochemical catalytic active material, a metal anticorrosive material, a chemical or electrochemically adjustable gas separation membrane, an electrochromic element, a living body can be prepared. Sensors, etc.
  • Functional materials can also be used as insulating materials, thermal insulation materials, sound absorbing materials, conductive materials, ordered magnetic materials, photoelectric functional materials, and the like.
  • the preparation method and product features of the invention are as follows:
  • the preparation method of the invention has wide adaptability, and can prepare a series of hollow spheres and composite hollow spheres of different materials and forms;
  • the hollow sphere and the composite hollow sphere of the present invention not only have good dispersibility, but also have good strength and dimensional stability;
  • the size of the prepared hollow sphere and composite hollow sphere can be adjusted within the range of 10 1 to 10 4 ;
  • the shape of the hollow sphere and the composite hollow sphere is adjustable, and the composition and thickness of the casing are controllable;
  • Figure 1 Schematic diagram of a polymer hollow sphere template applied in an embodiment of the present invention.
  • FIG. 1 Transmission electron micrograph of a polystyrene-polypropylene/titanium oxide composite hollow sphere of Example 1 of the present invention.
  • Fig. 3 Transmission electron micrograph of a titanium dioxide hollow sphere of Example 1 of the present invention.
  • Fig. 4 Scanning electron micrograph of a titanium oxide tetragonal iron oxide composite hollow sphere of Example 8 of the present invention.
  • Figure 5 is a scanning electron micrograph of a burr type titanium dioxide/polystyrene-polyacrylic composite hollow sphere of Example 10 of the present invention.
  • the polystyrene-polyacrylic hollow sphere template has a polystyrene outer layer of polystyrene and an inner layer of polyacrylic acid having an outer diameter of 500 rai and a shell thickness of 100 nm. 0. lg template particles were dispersed in lg tetrabutyl titanate, saturated adsorption for 4 hours, the hollow spheres adsorbed tetrabutyl titanate were sedimented by a high-speed centrifuge, and 10 g of water in ethanol (40 wt%) was added.
  • the hydrolysis reaction was carried out for 4 hours to obtain a composite hollow sphere in which titanium dioxide was grown in the inner layer of the shell using polystyrene-polyacrylic acid hollow spheres as a template.
  • the hollow sphere of this composite structure was removed from polystyrene and polyacrylic acid with chloroform to obtain hollow spheres of titanium dioxide.
  • the results of transmission electron microscopy showed that the hollow titania sphere consisted of 30 50 nm particles with a shell thickness of 60 nm and the size of the cavity. 250nm
  • the prepared composite hollow spheres are sintered at 45 CTC for 2 hours to obtain hollow spheres of crystalline titania, and the XRD results indicate that the crystal form is anatase; the composite hollow spheres are sintered at 600 ° C for 2 hours to obtain crystalline titanium dioxide. Hollow spheres, XRD results show that the crystal form is anatase and rutile composite.
  • Example 2 Preparation of polystyrene-polymethacrylic acid/magnetic ferroferric oxide composite hollow spheres and ferroferric oxide hollow spheres O.
  • polystyrene-polymethacrylic acid hollow structure emulsion particles the outer diameter of which is lOOOran, the thickness of the shell layer is 150nm, dispersed in lg of 25 « ferric chloride and 19%% ferrous chloride mixed solution, saturated adsorption for 4 hours, the polymer hollow spheres with adsorbed solution are centrifuged by high-speed centrifuge , redispersed in 10g of 15wt ° /. Ammonia water was hydrolyzed for 4 hours to obtain a composite hollow sphere in which polystyrene-polymethacrylic acid hollow spheres were used as a template and ferroferric oxide was grown in the inner layer of the shell.
  • the hollow sphere of this composite structure was subjected to removal of polystyrene and polymethacrylic acid with chloroform to obtain a hollow sphere of triiron tetroxide.
  • the results of transmission electron microscopy showed that the hollow triiron tetroxide consisted of 50-100 nm particles with a shell thickness of 200 nm and a cavity size of 400.
  • Example 3 Polymethyl methacrylate-polyacrylic acid/calcium carbonate composite hollow sphere And preparation of calcium carbonate hollow spheres O.
  • polymethyl methacrylate-polyacrylic acid hollow structure emulsion particles the outer diameter of which is 100nm, the thickness of the shell layer is 20nm, dispersed in 15wt% calcium chloride solution, saturated adsorption for 4 hours, will be adsorbed
  • the hollow spheres of the calcium chloride solution were centrifuged by a high-speed centrifuge, dispersed in 10 g of a 15 wt% aqueous solution of sodium carbonate, and the pH was adjusted to 9 with 25 wt% of ammonia water for 4 hours to obtain polymethyl methacrylate-poly.
  • the acrylic hollow sphere is a composite hollow sphere in which the template calcium carbonate is grown in the inner layer of the shell.
  • the composite hollow spheres were subjected to removal of polymethyl methacrylate and polyacrylic acid with chloroform to obtain hollow spheres of calcium carbonate.
  • the results of transmission electron microscopy showed that the hollow calcium carbonate sphere consisted of 20 nm particles with a shell thickness of 20 nm and a cavity size of 20 nra.
  • 'Example 4 Preparation of polystyrene-polyacrylic acid/cadmium sulfide composite hollow spheres and cadmium sulfide hollow spheres
  • polystyrene-polyacrylic acid hollow structure emulsion particles the outer diameter of 300nm, the thickness of the shell layer is 60nm, dispersed into 2 (kt% cadmium nitrate aqueous solution, saturated adsorption for 24 hours, will adsorb the solution
  • the hollow spheres were centrifugally sedimented by a high-speed centrifuge, dispersed in 10 g of a 20 wt% aqueous solution of sodium sulfide, and reacted for 4 hours to obtain a composite hollow sphere in which cadmium sulfide was grown in the inner layer of the shell by using polystyrene-polyacrylic acid hollow spheres as a template.
  • polystyrene-poly 2 vinyl pyridine hollow structure emulsion particles 0. lg polystyrene-poly 2 vinyl pyridine hollow structure emulsion particles, the outer diameter of 100 dishes, the thickness of the shell layer is 20nm, dispersed in 15wt% silver nitrate solution, saturated adsorption for 4 hours, will adsorb
  • the polymer hollow spheres of the silver nitrate solution were sedimented by a high-speed centrifuge, dispersed in 10 g of 20 t% hydrazine hydrate, and hydrolyzed for 4 hours to obtain a polystyrene-poly-2-vinylpyridine hollow sphere as a template.
  • the polystyrene-polyacrylic acid/titanium dioxide composite hollow sphere was prepared according to Example 1, and the composite particles were dispersed in lg of 25% iron chloride and 19% ferrous chloride mixed solution, and saturated for 4 hours.
  • the polymer hollow spheres to which the solution was adsorbed were sedimented by a high-speed centrifuge, dispersed in 10 g of 15 wt% aqueous ammonia, and hydrolyzed for 4 hours to obtain a polystyrene-polyacrylic acid/titanium dioxide magnetic tetraoxide composite hollow sphere.
  • the hollow sphere of this composite structure was subjected to removal of polystyrene and polyacrylic acid with chloroform to obtain a composite hollow sphere of titanium oxide and triiron tetroxide.
  • Lg The polystyrene-polyacrylic acid/titanium dioxide composite hollow spheres, the composite particles 0. lg
  • the aniline was added to the mixture.
  • the ocyanamine was added to the mixture.
  • the ocyanamine was added to the mixture.
  • the reaction was carried out for 24 hours in an ice water bath to obtain a polystyrene-polyacrylic acid/titanium oxide polyaniline composite hollow sphere.
  • Example 10 Preparation of burr type titanium dioxide/polystyrene-polymethacrylic acid composite hollow sphere and edgy type titanium dioxide hollow sphere
  • the hollow spheres of the composite structure were removed with polystyrene and polymethacrylic acid by chloroform to obtain burred titanium dioxide hollow spheres.
  • the results of transmission electron microscopy showed that the hollow titanium dioxide spheres were composed of 50-100 nm particles with a shell thickness of 100 nm.
  • the size of the cavity is 600 nm.
  • the titanium dioxide burr is 50 to 200 nm long, 20 to 100 nm wide, and 10 to 150 nm high.
  • Example 11 Preparation of burr-type silver/polystyrene-poly 4-vinylpyridine composite hollow spheres and burr-type silver hollow spheres An emulsion containing O.
  • polystyrene-poly-4-vinylpyridine polymer hollow spheres having an outer diameter of 300 nm, a shell layer thickness of 60 nm, dispersed in 10 g of a 20 wt% hydrazine hydrate solution, and immersed for 24 hours.
  • the hollow polymer spheres adsorbed with the hydrazine hydrate solution were centrifuged and sedimented by a high-speed centrifuge, and then dispersed in 20 g of a lwt% silver nitrate solution for 4 hours to obtain a hollow sphere of polystyrene-poly-4-vinylpyridine polymer.
  • Example 12 Preparation of a blister-type polyaniline/polystyrene-polyacrylic composite hollow sphere and a burr-type polyaniline hollow sphere
  • the thickness of the shell layer is 80 nm, dispersed in 5 g of 20% aqueous solution of ferric chloride, and saturated for 24 hours.
  • the polymer composite hollow spheres to which the solution has been adsorbed are centrifugally sedimented by a high-speed centrifuge, dispersed in 10 g of water, and stirred. 0.
  • the polystyrene-polyacrylic acid polymer hollow sphere was used as a template, and polyaniline was grown in the inner layer and channel of the shell. And protruding from the surface to form a donkey.
  • the hollow sphere of this composite structure was subjected to removal of polystyrene and polyacrylic acid with chloroform to obtain a burred polyaniline hollow sphere.
  • Example 13 The outer surface of the shell was grown to form a silica/polystyrene-polyacrylic composite hollow sphere and a silica hollow sphere.
  • Example 14 The shell surface was grown on the outer surface of the shell to prepare a gold/polystyrene-polyoxyethylene composite hollow sphere and a gold hollow sphere.
  • the lg polystyrene-polyoxyethylene polymer hollow spheres having an outer diameter of 40 nra, a thickness of the shell layer of lOnm, dispersed in 10 g of water, adding lg of 5% hydrazine hydrate and 0.5 g of chloroauric acid, reacting for 2 hours
  • a composite hollow sphere in which gold is grown on the outer surface of the shell is obtained by using a polystyrene-polyoxyethylene hollow sphere as a template.
  • the composite hollow sphere was removed from polystyrene and polyoxyethylene by chloroform to obtain a gold hollow sphere.
  • the hollow gold sphere consisted of 5 ⁇ 10 nm particles with a shell thickness of 20 nm and the size of the cavity was 40nm.
  • Example 15 Growth of shell layer on outer surface of shell, preparation of polyaniline/polystyrene-polymethacrylic acid composite hollow sphere and polyaniline hollow sphere
  • polystyrene-polymethacrylic acid hollow structure emulsion particles having an outer diameter of 400 nm, a shell layer having a thickness of 80 nm, and dispersed in 10 g of water.
  • Put nitrogen in the reaction vessel add 2g of 22.8% aqueous ammonium persulfate solution, stir After mixing for 30 minutes, another 0.5 g of aniline was added and reacted in an ice water bath for 24 hours to obtain a composite hollow sphere in which polyaniline was grown on the outer surface of the shell by using polystyrene jf_polymethacrylic acid hollow sphere as a template.
  • the hollow sphere of this composite structure was subjected to removal of polystyrene and polymethacrylic acid with tetrahydrofuran to obtain a polyaniline hollow sphere having a cavity size of 400 nm.
  • Example 16 Preparation of Silica/Titanium Dioxide Multilayer Composite Hollow Sphere and Its Double-Stranded Hollow Sphere
  • the polystyrene-polyacrylic acid/ceria composite hollow sphere was prepared according to Example 1, and the composite particles were dispersed in 10 g of ethanol, and lg ethyl silicate and lg25% aqueous ammonia were added thereto, and the reaction temperature was 40 ° C.
  • a silica/polystyrene-polyacrylic acid/titanium dioxide composite hollow sphere was prepared, which was grown in the inner layer of the polymer hollow sphere shell, and silica was grown on the outer surface of the shell.
  • polystyrene-polymethacrylic acid hollow structure emulsion particles the outer diameter of which is lOOnm, the thickness of the shell layer is 20nm, dispersed to lg of 5 (kt% tetraethyl silicate in ethanol solution, saturated adsorption After 24 hours, the polymer hollow spheres with adsorbed solution were sedimented by high-speed centrifuge, dispersed in 10 g of 15 wt% ammonia water, and hydrolyzed for 4 hours to obtain polystyrene-polymethacrylic acid hollow spheres as a template for dioxide oxidation.
  • the composite particles are redispersed into 10 g of an aqueous solution, and 6 ⁇ 30% of the chloroauric acid solution and 4 g of 5 (hrt% hydrazine hydrate solution are added, the reaction temperature is 40 Torr, and the reaction time is 4 h. That is, a gold/polystyrene-polyacrylic acid/silica composite hollow sphere is prepared, and the silica is grown in the inner layer of the polymer hollow sphere shell, and gold is grown on the outer surface of the shell. Polystyrene and polymethyl are removed by using tetrahydrofuran.
  • polymethyl methacrylate-polyacrylic acid hollow structure emulsion particles the outer diameter of 300nm, the thickness of the shell layer is 60nm, dispersed in lg 20wt% silver nitrate aqueous solution, saturated adsorption for 24 hours, will adsorb
  • the polymer hollow spheres of the solution were sedimented by a high-speed centrifuge, dispersed in 10 g of a 15 wt% hydrazine hydrate solution, and reacted for 4 hours to obtain a polymethyl methacrylate-polyacrylic acid hollow sphere as a template, and silver was grown in the shell.
  • a composite hollow sphere of the inner layer The polymer hollow spheres of the solution were sedimented by a high-speed centrifuge, dispersed in 10 g of a 15 wt% hydrazine hydrate solution, and reacted for 4 hours to obtain a polymethyl methacrylate-polyacrylic acid hollow sphere as a template, and
  • the composite particles were redispersed into 10 g of an aqueous solution, and nitrogen gas was introduced thereto, and 0.5 g of aniline and 3 g of a 30 wt% aqueous solution of ammonium persulfate were added, and the mixture was placed in an ice water bath for 24 hours to obtain polyaniline/polymethyl methacrylate.
  • a polyaniline/silver double-layer hollow sphere is obtained, that is, a hollow sphere containing one silver in the polyaniline hollow sphere.
  • Example 19 Preparation of Silica/Titanium Dioxide Multilayer Composite Hollow Sphere and Concentric Double Layer Hollow Sphere 0. Ig polystyrene-if polymethacrylic acid hollow structure emulsion particles, the outer diameter of which is 400 letters, the thickness of the shell layer is 80nm, centrifuged with ethanol to remove the outer surface water, and then dispersed in 10g of ethanol, 4 times added 0.
  • a hollow sphere of silica titania double-layer structure is obtained, that is, a hollow sphere containing a titanium dioxide in a silica hollow sphere, and a hollow titanium dioxide column is connected between the two hollow spheres, and the hollow is hollow.
  • the ball cannot move in the outer hollow sphere, and the two hollow spheres are concentric.
  • polystyrene-polymethacrylic acid hollow structure emulsion particles having an outer diameter of 200 ⁇ , a shell layer having a thickness of 50 nm, and dispersed at 1 g 20 wt ° /.
  • the sodium borohydride aqueous solution was immersed for 24 hours, and the outer surface solution was removed by centrifugation, and then dispersed in 10 g of water, and 4 mL of 20 wt/ was added in 4 portions.
  • Chloroplatinic acid one hour at a time, the reaction is continued for 8 hours, and the reaction temperature is 20 ° C.
  • the polystyrene-polymethacrylic acid hollow sphere is used as a template to obtain a composite burr of platinum grown in the inner layer and the channel of the shell. Hollow ball. Dispersing the composite particles into 10 g of ethanol, adding 2 g of tetrabutyl titanate and lg water, the reaction temperature is 40 Torr, and the reaction time is 4 h, thereby preparing a titanium dioxide/polystyrene-polymethacrylic acid/platinum composite hollow sphere, the platinum It grows in the inner layer and channel of the polymer hollow sphere shell, while titanium dioxide grows on the outer surface of the shell.
  • a hollow sphere of ruthenium dioxide platinum double-layer structure is obtained, that is, a hollow sphere containing platinum in a hollow sphere of titanium dioxide, and a platinum metal column is connected between the two hollow spheres, and the inner hollow sphere is connected. Can not move in the outer hollow ball, the two hollow balls are concentric.
  • the burr-like polyaniline/polystyrene-polyacrylic composite hollow sphere was prepared according to Example 12, and the composite particles were dispersed in 10 g of ethanol, and lg tetrabutyl titanate and lg water were added thereto, and the reaction temperature was 60 ° C.
  • the reaction time was 4 h, that is, a titanium dioxide/polystyrene-polyacrylic acid/polyaniline composite hollow sphere was prepared, and the polyaniline was grown in the inner layer and the channel of the polymer hollow sphere shell, and the titanium dioxide was grown on the outer surface of the shell.
  • a hollow sphere of titanium dioxide polyaniline double-layer structure is obtained, that is, a hollow sphere containing a polyaniline in a hollow sphere of titanium dioxide, and a polyaniline column is connected between the two hollow spheres, and the inner hollow sphere cannot be outside.
  • the hollow ball moves, and the two hollow balls are concentric.
  • the modified polymer hollow sphere was immersed in 1 g of 50% tetrabutylammonate titanate solution, soaked for 24 hours, centrifuged, and then added to 10 g of 40% water in butanol solution, 40 ° C After reacting for 6 hours, a titanium dioxide/polystyrene-polyacrylic multilayer composite hollow sphere was obtained, and titanium dioxide was grown on the inner layer, the channel and the outer layer of the polymer hollow spherical shell.
  • the hollow sphere of this composite structure was sintered at 45 CTC for 2 hours to remove polystyrene and polyacrylic acid, thereby obtaining a hollow sphere of titanium dioxide double-layer structure.
  • Example 23 Preparation of Silver Multilayer Composite Hollow Sphere and Concentric Double Layer Hollow Sphere
  • the polymer hollow sphere has a three-layer structure in which the outer layer is sulfonated polystyrene, the intermediate layer is polystyrene, and the inner layer is polymethacrylic acid, so that the inner layer and the outer layer of the shell are hydrophilic, and there is Hydrophilic channel.
  • the modified polymer hollow sphere was immersed in 1 g of 20% silver nitrate aqueous solution, soaked for 24 hours, centrifuged, and then added to 10 g of 30% hydrazine hydrate solution, and reacted at 20 ° C for 6 hours to obtain silver/poly.
  • a styrene-polymethacrylic multilayer composite hollow sphere, silver is grown in the inner layer, the channel and the outer layer of the polymeric hollow sphere shell.
  • the hollow sphere of this composite structure was subjected to removal of polystyrene and polymethacrylic acid with N, N-dimethylformamide to obtain a silver double-layer hollow sphere.
  • Example 24 Preparation of polyaniline multilayer composite hollow spheres and concentric double-layer hollow spheres
  • the ball has a three-layer structure in which the outer layer is sulfonated polystyrene, the intermediate layer is polystyrene, and the inner layer is polyacrylic acid. Therefore, the inner layer and the outer layer of the shell are hydrophilic, and there is a hydrophilic passage in the middle.
  • the modified polymer hollow sphere was immersed in 1 g of 30% ferric chloride solution, soaked for 24 hours, centrifuged, and then added to 10 g of water, added with 0.5 g of aniline, and the pH of the reaction solution was adjusted with concentrated hydrochloric acid. The value was 1-2, and the reaction was carried out in an ice water bath for 24 hours to obtain a polyaniline/polystyrene-polyacrylic multilayer composite hollow sphere, and the polyaniline was grown in the inner layer, the channel and the outer layer of the polymer hollow sphere shell.
  • the hollow sphere of this composite structure was subjected to removal of polystyrene and polyacrylic acid with N, N-dimethylformamide to obtain a polyaniline bilayer hollow sphere.
  • Example 25 Polybutyl acrylate was swelled and polymerized in a shell layer to prepare a polymer composite hollow sphere
  • the octadecyl group contains 0.2% of dodecyl group in water, and is filled with nitrogen.
  • Sodium sulfonate adding 0. 2g of butyl acrylate and 2mg of azobisisobutyronitrile, swelled by magnetic stirring at room temperature for 8 hours, and heated at 80 ° C for 18 hours to obtain a polystyrene-polymethacrylic hollow sphere as a template. , a polymer composite hollow sphere of polybutyl acrylate grown in a shell.

Landscapes

  • Chemical & Material Sciences (AREA)
  • Organic Chemistry (AREA)
  • Dispersion Chemistry (AREA)
  • Chemical Kinetics & Catalysis (AREA)
  • Manufacturing Of Micro-Capsules (AREA)
  • Chemically Coating (AREA)

Abstract

The present invention relates to hollow structured materials, particularly, relates to the preparation of inorganic, metal, organic hollow spheres and composite hollow spheres with polymer hollow spheres as template, and to the method for preparing hollow spheres having photic, electric, magnetic, catalytic characteristics and composite structure thereof. With polymer hollow spheres as template, as well as sol-gel method, sedimentation, redox process, the composite hollow spheres were prepared by forced interface method or surface settling process, after the template polymer were eliminated by high temperature sintering or solvent selectively extraction, the inorganic, metal, organic hollow spheres were obtained. By controlling the reactivity of reactants, charging manner, the concentration of reactants and recycle reactive method, the control of the structure and size of the hollow spheres could be realized, and at the same time, the composition of numeral materials could also be realized. The hollow spheres of the invention not only have good dispersibility, but also have excellent strength and size stability. The present invention also relates to the applications of those hollow structured materials.

Description

用模板法制备中空球和复合中空球的方法  Method for preparing hollow sphere and composite hollow sphere by template method
技术领域 Technical field
本发明属于中空结构材料领域,特别涉及以聚合物中空球为模板来制备无机物、金属、 有机物中空球和复合结构中空球的方法。 背景技术  The invention belongs to the field of hollow structural materials, and particularly relates to a method for preparing inorganic materials, metal, organic hollow spheres and composite structural hollow spheres by using polymer hollow spheres as a template. Background technique
中空结构球体是一种具有特殊结构的功能材料, 中空球在催化、药物输送、人造细胞、 轻质填料、 绝缘材料、 低介电材料、 光子晶体等领域都有极大的应用前景。 通过核壳结构 胶体粒子来制备这类材料是一种常用的方法。 在一种粒子表面包覆或反应上另一种 (或几 种)物质的壳, 从而赋予粒子新的特性。 例如, 壳物质可以改变胶体粒子的表面电荷、 表 面反应特性以及增强其稳定性和分散性。另外,根据需要可以在胶体粒子表面引入带电的、 磁性的、 有催化特性的、 光学活性的、 导电的物质, 从而赋予粒子以功能性。  The hollow structure sphere is a functional material with special structure. The hollow sphere has great application prospects in the fields of catalysis, drug delivery, artificial cells, lightweight fillers, insulating materials, low dielectric materials, photonic crystals and the like. The preparation of such materials by core-shell structured colloidal particles is a common method. A shell of another (or several) substances is coated or reacted on the surface of one particle to impart new properties to the particle. For example, the shell material can change the surface charge of the colloidal particles, the surface reaction characteristics, and enhance its stability and dispersibility. Further, charged, magnetic, catalytic, optically active, and electrically conductive substances may be introduced on the surface of the colloidal particles as needed to impart functionality to the particles.
目前, 制备核壳结构的方法主要包括以下两个方面: (1)表面反应; (2)表面沉积。 美 国 Matijevi0 等人通过对无机粒子表面进行偶联剂处理后, 再加入二乙烯基苯和自由基 引发剂,制备了聚二乙烯基苯包覆无机物的核壳结构的胶体粒子(H. T. Oyama, R. Sprycha, A. Zelenev, E. Mati jevic , "Coating of Uniform Inorganic Particles with Polymers" , J. Colloid Polym. Sci. 1993, 160, 298-303 ; R. Sprycha, H. T. Oyama, A. Zelenev, E. Mati jevic, "Characterization of Polymer-coated Silica Particles by Microelectrophoresis", Colloid Polym. Sci. 1995, 273, 693 - 670)。 英国 Armes的 研究小组制备了导电聚吡咯、 导电聚苯胺包覆聚苯乙烯的胶体粒子 (C. Barthet, S. P. Armes, S. F. Lascelles, S. Y. Luk, H. M. E. Stanley, "Synthesis and Characterization of Micrometer-Sized Polyani line-Coated Polystyrene Latexs " , Langmuir 1998, 14, 2032-2041)。 当聚吡咯或聚苯胺的含量在 8wt %左右的时候就能达到 和本体相当的导电率。 聚电解质的层层吸附是制备核壳结构胶体粒子的一种非常有效的方 法。 把相反电荷的聚电解质层层吸附至胶体粒子表面, 重复多次, 就可以制备聚电解质包 覆的胶体粒子。 德国 Caruso等用单体散聚苯乙烯胶体粒子为模板, 通过层层静电自组装, 制备了聚乙烯基氯化铵和聚苯乙 j:希磺酸钠包覆的胶体粒子, 其中每吸附一层聚电解质, 胶 体粒子的平均直径约增加 1. 5 nm。 他们还通过静电吸附作用将带有电荷的二氧化硅、 二氧 化钛、 四氧化三铁以及金属银、 金纳米粒子组装到聚苯乙烯胶体粒子的表面, 制备了核壳 结构的胶体粒子 ( F. Caruso, "Hollow Capsules Processing through Colloidal Tempi at ing and Self—Assembly" , Chera. Eur. J. 2000, 6, 413-419 ; F. Caruso, M. Spasova, A. Susha, M. Giersig, R. A. Caruso, "Magnetic Nanocomposite Particles and Hollow Spheres Constructed by a Sequential Layering Approach" , Chem. Mater. 2001, 13, 109-116 ; F. Caruso, X. Y. Shi, R. A. Caruso, A. Susha, "Hollow Titania Spheres From Layered Precursor Deposition on Sacrificial Colloidal Core Particles " , Adv. Mater. 2001, 13, 740-744)。 层层自组装的优点: 聚合物层的厚度可以根据吸附层 的数目进行精细调节; 不同大小和形状的胶体粒子都可作为模板进行聚电解质的层层组 装。 缺点是: 必须反复离心清洗将体系中残余的聚电解质除去; 要得到一定厚度的聚合物 层必须经过多次的自组装; 对于不带电荷的聚合物不能进行组装。 中国杨振忠等利用部分 磺化单分散聚苯乙烯小球为模板, 通过溶胶凝胶、 表面聚合得到核壳微球, 去核处理得到 无机、 有机或其复合中空微球, 该方法优点在于通过控制磺化层厚度可同时调节空腔大小 和壳层厚度, 另外磺化层提供了一个亲水层和正电荷, 利于无机前体、 带电单体及聚合物 在磺化层吸附和反应, 有利于形成连续光滑壳体, 并提高了前体的利用率(Z. Z. Yang, Z. W. Niu, Y. F. Lu, Z. B. Hu, C. C. Han, "Templated sysnthesis of inorganic hollow spheres with a tunable cavity size onto core-shell gel particles ", Angew. Chem. Int. Ed. Engl. 2003, 42, 1943-194; Z. W. Niu, Z. Z. Yang, Z. B. Hu, Y. F. Lu, C. C. Han, "Polyani line-silica composite conductive capsules and hollow spheres", Adv. Funct. Mater. 2003, 13, 949-954)。 At present, the method for preparing the core-shell structure mainly includes the following two aspects: (1) surface reaction; (2) surface deposition. American Matijevi0 et al. prepared a core-shell colloidal particle of polydivinylbenzene coated inorganic material by adding a dicobenzene and a free radical initiator to the surface of the inorganic particle (HT Oyama, R. Sprycha, A. Zelenev, E. Mati jevic, "Coating of Uniform Inorganic Particles with Polymers", J. Colloid Polym. Sci. 1993, 160, 298-303; R. Sprycha, HT Oyama, A. Zelenev, E Mati jevic, "Characterization of Polymer-coated Silica Particles by Microelectrophoresis", Colloid Polym. Sci. 1995, 273, 693-670). The Arms research team in the United Kingdom prepared colloidal particles of conductive polypyrrole and conductive polyaniline coated polystyrene (C. Barthet, SP Armes, SF Lascelles, SY Luk, HME Stanley, "Synthesis and Characterization of Micrometer-Sized Polyani line- Coated Polystyrene Latexs " , Langmuir 1998, 14, 2032-2041). When the content of polypyrrole or polyaniline is about 8 wt%, the conductivity equivalent to that of the bulk can be achieved. Layer adsorption of polyelectrolytes is a very effective method for preparing core-shell structure colloidal particles. The polyelectrolyte-coated colloidal particles can be prepared by adsorbing the oppositely charged polyelectrolyte layer to the surface of the colloidal particles and repeating it a plurality of times. Germany Caruso et al. used monomeric polystyrene colloidal particles as a template to prepare colloidal particles coated with polyvinyl ammonium chloride and polystyrene b: sodium sulfonate by layer-by-layer electrostatic self-assembly. 5 nm。 The average diameter of the colloidal particles increased by about 1. 5 nm. They also assembled charged silica particles, titanium dioxide, triiron tetroxide, and metallic silver and gold nanoparticles onto the surface of polystyrene colloidal particles by electrostatic adsorption to prepare colloidal particles with core-shell structure (F. Caruso). , "Hollow Capsules Processing through Colloidal Tempi at ing and Self-Assembly", Chera. Eur. J. 2000, 6, 413-419; F. Caruso, M. Spasova, A. Susha, M. Giersig, RA Caruso, " Magnetic Nanocomposite Particles Hollow Titania Spheres From Layered Precursor Deposition on Sacrificial Colloidal Core Particles " , Adv. Mater. 2001, 13, 740-744). Advantages of layer self-assembly: The thickness of the polymer layer can be finely adjusted according to the number of adsorbed layers; colloidal particles of different sizes and shapes can be used as templates for polymerization The layer assembly of the electrolyte. The disadvantages are: the residual polyelectrolyte in the system must be removed by repeated centrifugation; the polymer layer of a certain thickness must undergo multiple self-assembly; the uncharged polymer cannot be assembled. Yang Zhenzhong et al. used partially sulfonated monodisperse polystyrene beads as templates to obtain core-shell microspheres by sol-gel, surface polymerization, and denuclearization to obtain inorganic, organic or composite hollow microspheres. The advantage of this method is to control sulfonation. The thickness of the layer can simultaneously adjust the size of the cavity and the thickness of the shell, and the sulfonated layer provides a hydrophilic layer. And positive charge, which facilitates the adsorption and reaction of inorganic precursors, charged monomers and polymers in the sulfonated layer, which facilitates the formation of a continuous smooth shell and improves the utilization of precursors (ZZ Yang, ZW Niu, YF Lu, ZB Hu , CC Han, "Templated sysnthesis of inorganic hollow spheres with a tunable cavity size onto core-shell gel particles", Angew. Chem. Int. Ed. Engl. 2003, 42, 1943-194; ZW Niu, ZZ Yang, ZB Hu , YF Lu, CC Han, "Polyani line-silica composite conductive capsules and hollow spheres", Adv. Funct. Mater. 2003, 13, 949-954).
目前利用模板法制备的中空球都是以胶体粒子为模板, 通过表面沉积反应或逐层交替 吸附制得核壳结构复合粒子, 去核后得到中空球。 发明内容  At present, the hollow spheres prepared by the template method are obtained by using colloidal particles as a template, and the core-shell composite particles are obtained by surface deposition reaction or layer-by-layer alternating adsorption, and hollow spheres are obtained after enucleation. Summary of the invention
本发明的目的之一是提供以聚合物中空球为模板来制备无机物、 金属和 /或有机物复 合结构的中空球的方法。  One of the objects of the present invention is to provide a method for preparing hollow spheres of inorganic, metal and/or organic composite structures using polymeric hollow spheres as a template.
本发明的再一目的是提供通过复合方法来制备无机物、 金属和 /或有机物复合结构的 中空球的方法。  A further object of the present invention is to provide a method for preparing hollow spheres of inorganic, metal and/or organic composite structures by a composite process.
本发明的还一目的是提供中空球和复合结构中空球的用途。  Still another object of the present invention is to provide the use of hollow spheres and composite structural hollow spheres.
本发明利用聚合物中空球为模板, 利用其壳体为强制界面, 空腔作为一反应组份原料 仓库, 球外投放另一反应组份, 通过反应来制备中空球或其复合结构。  The invention utilizes a polymer hollow sphere as a template, uses a shell as a forced interface, a cavity as a raw material warehouse of a reaction component, and another reaction component is placed outside the sphere, and a hollow sphere or a composite structure thereof is prepared by the reaction.
本发明通过以聚合物中空球为模板制备了一系列中空结构的胶体粒子。 通过溶胶-凝 胶、 沉降反应、 氧化还原化学或聚合反应, 制备了多种形态的复合中空球。 通过选择反应 物来控制反应速度, 通过调节加料方式、 反应物的浓度、 反应条件, 可以控制复合中空球 的形态结构。 高温烧结或溶剂选择性抽提将模板聚合物除去后得到无机物、 金属或有机物 中空球。  The invention prepares a series of hollow structure colloidal particles by using a polymer hollow sphere as a template. Various forms of composite hollow spheres were prepared by sol-gel, sedimentation reaction, redox chemistry or polymerization. The reaction rate is controlled by selecting the reactants, and the morphology of the composite hollow sphere can be controlled by adjusting the feeding mode, the concentration of the reactants, and the reaction conditions. High temperature sintering or solvent selective extraction removes the template polymer to obtain inorganic, metal or organic hollow spheres.
本发明使用聚合物中空球为模板, 可用来制备无机物、 金属和有机物的中空球或复合 中空球。 无机物的中空球或复合中空球包括: 金属氧化物或氢氧化物的中空球或复合中空 球, 如 Ti02、 Si02、 Sn02、 Zr02、 A1203、 V205、 Zn0、 W03、 Mo03、 Al (0H) 3或 Mg (0H) 2; 生物矿 化材料的中空球或复合中空球, 如 CaC03、 Cal0 (P04) e (0H) 2, BaS04或 CaS04; 半导体材料的 中空球或复合中空球, 如 CdS、 ZnS、 PbS、 CuS、 CoS、 FeS、 CdTe、 CdSe或 ZnSe; 磁性化 合物的中空球或复合中空球, 如 Fe304、 Fe203或含锌、 锰、钴的铁氧体。金属的中空球或复 合中空球, 如 Au、 Ag、 Ρΐ、 Pd、 Pb、 Ni、 Co、 Cu或 Fe的中空球或复合中空球。 有机物的 中空球或复合中空球包括: 导电聚合物的中空球或复合中空球, 如聚苯胺、 聚吡咯、 聚噻 吩或聚对苯乙炔及其衍生物;敏感性凝胶的中空球或复合中空球,如聚 N-异丙基丙烯酰胺、 聚丙烯酸或聚甲基丙烯酸。 溶胀聚合法可用来制备高性能聚合物的中空球或复合中空球, 如交联聚苯乙烯、 聚氨酯、 聚丙烯酸酯、 酚醛树脂、 不饱和聚酯、 环氧树脂、 聚酰亚胺、 聚醚酮或聚醚砜类。 The invention uses a polymer hollow sphere as a template to prepare hollow spheres or composites of inorganic substances, metals and organic substances. Hollow ball. Inorganic hollow sphere or hollow sphere composite comprising: a metal oxide or hydroxide composite hollow spheres or hollow spheres, such as Ti0 2, Si0 2, Sn0 2 , Zr0 2, A1 2 0 3, V 2 0 5, Zn0 , W0 3 , Mo0 3 , Al (0H) 3 or M g (0H) 2 ; hollow spheres or composite hollow spheres of biomineralized materials, such as CaC0 3 , Ca l0 (P0 4 ) e (0H) 2 , BaS0 4 Or CaS0 4; hollow spheres or composite hollow spheres of semiconductor materials, such as CdS, ZnS, PbS, CuS, CoS, FeS, CdTe, CdSe or ZnSe; hollow spheres or composite hollow spheres of magnetic compounds, such as Fe 3 0 4 , Fe 2 0 3 or ferrite containing zinc, manganese and cobalt. A hollow sphere of a metal or a composite hollow sphere, such as a hollow sphere of a Au, Ag, yttrium, Pd, Pb, Ni, Co, Cu or Fe or a composite hollow sphere. Hollow spheres or composite hollow spheres of organic matter include: hollow spheres or composite hollow spheres of conductive polymers, such as polyaniline, polypyrrole, polythiophene or polyparaphenylene acetylene and derivatives thereof; hollow spheres or composite hollows of sensitive gels A ball such as poly-N-isopropylacrylamide, polyacrylic acid or polymethacrylic acid. Swelling polymerization can be used to prepare high performance polymer hollow spheres or composite hollow spheres, such as crosslinked polystyrene, polyurethane, polyacrylate, phenolic resin, unsaturated polyester, epoxy resin, polyimide, polyether Ketone or polyether sulfones.
本发明用模板制备中空球和复合中空球的方法, 采用市售或自制的聚合物中空球为模 板(直径为 0. 02ΐ·4ι!〜 10μω, 空腔体积为整个微球的 10〜95%), 此聚合物中空球壳体由内 外两层物质组成, 内层为亲水性聚合物, 外层为亲油性聚合物骨架, 并有亲水性通道连接 空腔和粒子外环境。 通过控制加料方式和反应速度, 可以控制材料在聚合物中空球壳体外 表面、 内层和 /或亲水通道的生长, 从而制得多种形态的中空结构材料。 一. 在聚合物中空球模板壳体内层生长材料的制备方法步骤:  The method for preparing a hollow sphere and a composite hollow sphere by using a template adopts a commercially available or self-made polymer hollow sphere as a template (diameter is 0.02 ΐ·4ι!~10μω, and the cavity volume is 10 to 95% of the entire microsphere). The polymer hollow spherical shell is composed of two layers of inner and outer materials, the inner layer is a hydrophilic polymer, the outer layer is a lipophilic polymer skeleton, and a hydrophilic channel connects the cavity and the outer environment of the particle. By controlling the feeding mode and the reaction speed, it is possible to control the growth of the material on the outer surface, the inner layer and/or the hydrophilic channel of the hollow shell of the polymer, thereby producing a variety of hollow structural materials. 1. Steps for preparing the growth material in the inner layer of the polymer hollow sphere template shell:
(1) .以聚合物中空球为模板,将反应物分成两反应组份,各组份内的原料之间无反应, 利用聚合物中空球壳体为强制界面, 其空腔作为一反应组份原料仓库, 再在球外投放另一 反应组份, 通过反应可制备聚合物中空球内层生长材料的复合中空球。  (1). Using the polymer hollow sphere as a template, the reactant is divided into two reaction components, and there is no reaction between the raw materials in each component. The polymer hollow sphere shell is used as a forced interface, and the cavity is used as a reaction group. In the raw material warehouse, another reaction component is placed outside the ball, and a composite hollow sphere of the polymer hollow sphere inner layer growth material can be prepared by the reaction.
(1. 1)将聚合物中空球模板粒子浸泡在 0. 01^%〜60. 0^%的无机物前体溶液中, 模板 粒子在这些溶液中保持浓度为 0. lwt%〜40. Owt%, 使无机物前体溶液渗入聚合物中空球模 板的空腔, 达到平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去。 然后将得到的 含无机物前体溶液的聚合物中空球在搅拌下加入到反应组份水溶液中。 控制反应液中模板 粒子的浓度保持在 0. lwt%〜40. Owt%,反应温度 0°C〜100°C,反应时间 0. 5〜24小时左右, 反应完毕, 离心清洗, 即得到聚合物中空球壳体内层生长无机物的复合中空球。 或  Lwt%〜40. Owt 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 %, the inorganic precursor solution is infiltrated into the cavity of the polymer hollow sphere template, and after reaching equilibrium, the solution not infiltrated into the hollow cavity template cavity is centrifuged and washed away. The resulting polymer hollow sphere containing the inorganic precursor solution is then added to the aqueous solution of the reaction component with stirring. The concentration of the template particles in the reaction solution is maintained at 0. lwt% ~ 40. Owt%, the reaction temperature is 0 ° C ~ 100 ° C, the reaction time is 0. 5 ~ 24 hours or so, the reaction is completed, centrifugal cleaning, the polymer is obtained A composite hollow sphere in which an inorganic substance is grown in the inner layer of the hollow spherical shell. Or
先将反应组份水溶液渗入聚合物中空球模板粒子空腔, 然后将得到的含反应组份水溶 液的聚合物中空球在搅拌下加入到浓度为 10. 0wt%〜60. (^ %的无机物前体溶液中。控制反 应液中模板粒子的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0°C〜100°C, 反应时间 0. 5~ 24小时左右, 反应完毕, 离心清洗, 同样得到聚合物中空球壳体内层生长无机物的复合中 空球。 通过控制反应物浓度, 所制得的无机物复合中空球的内层生成物可由单个分散的纳 米颗粒到纳米颗粒网络, 直到形成不同厚度的密实壳层。 或 (1. 2)将聚合物中空球模板粒子浸泡在 0. 01wt%〜60. 0wt%的金属离子盐溶液中, 模板 粒子在这些溶液中保持浓度为 0. lwt%〜40. Owt%, 使金属离子盐溶液渗入聚合物中空球模 板的空腔, 达到平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去。 然后将得到的 含金属离子盐溶液的聚合物中空球在搅拌下加入到 0. 01wt%〜60. 0wt%的还原剂溶液中。控 制反应液中模板粒子的浓度保持在 0. lwt%〜40. 0wt°/。, 反应温度(TC〜10(TC, 反应时间 0. 5〜24小时左右, 反应完毕, 离心清洗, 即得到聚合物中空球壳体内层生长金属的复合 中空球。 或 0重量的质量物。 The chemical solution containing the aqueous solution of the reaction vessel is infiltrated into the polymer hollow sphere template particle cavity, and then the obtained polymer hollow sphere containing the reaction component aqueous solution is added to a concentration of 10. 0wt%~60. In the precursor solution, the concentration of the template particles in the reaction solution is maintained at 0. lwt%~40. 0wt%, the reaction temperature is 0 ° C ~ 100 ° C, the reaction time is 0. 5 ~ 24 hours, the reaction is completed, centrifugal cleaning A composite hollow sphere in which an inorganic substance is grown in the inner layer of the polymer hollow spherical shell is also obtained. By controlling the concentration of the reactant, the inner layer product of the prepared inorganic composite hollow sphere can be from a single dispersed nanoparticle to a nanoparticle network until Forming a dense shell of different thicknesses. or Lwt%~40. Owt%, so that the polymer spheroidal slabs are immersed in a 0. lwt%~40. The metal ion salt solution penetrates into the cavity of the polymer hollow sphere template, and after reaching equilibrium, the solution which has not penetrated into the cavity of the polymer hollow sphere template is centrifuged and washed away. 0重量%的还原剂溶液。 The polymer hollow ball containing the metal ion salt solution was then added to 0. 01wt% ~ 60. 0wt% of the reducing agent solution. Lwt°/. 0wt°/. The concentration of the template particles in the reaction solution is maintained at 0. lwt%~40. 0wt ° /. , reaction temperature (TC ~ 10 (TC, reaction time 0. 5 ~ 24 hours or so, the reaction is completed, centrifugal cleaning, that is, the composite hollow sphere of the metal inner layer of the polymer hollow spherical shell is obtained. or
先将 0. 01wt%〜60. 0^%的还原剂溶液渗入聚合物中空球模板粒子空腔中,然后将得到 的含还原剂溶液的聚合物中空球在搅拌下加入到浓度为 10. 0wt%〜60. Owt%的金属离子盐 溶液中。 控制反应液中模板粒子的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0°C~100°C, 反应时间 0. 5〜24小时左右, 反应完毕, 离心清洗, 同样得到聚合物中空球壳体内层生长 金属的复合中空球。 通过控制反应条件, 所制得的金属复合中空球的内层生成物可由单个 分散的纳米颗粒到纳米颗粒网络, 直到形成不同厚度的密实壳层。 或  0wt 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 %~60. Owt% of metal ion salt solution. The concentration of the template particles in the reaction solution is maintained at 0. lwt%~40. 0wt%, the reaction temperature is 0 ° C ~ 100 ° C, the reaction time is 0. 5~24 hours, the reaction is completed, centrifugal cleaning, the same polymer is obtained. A composite hollow sphere of metal is grown in the inner layer of the hollow spherical shell. By controlling the reaction conditions, the resulting inner layer product of the metal composite hollow sphere can be from a single dispersed nanoparticle to a nanoparticle network until a dense shell of different thickness is formed. Or
(1. 3)将聚合物中空球模板粒子浸泡在浓度为 0. 01wt°/。〜40. 0rt%的聚合物单体溶液 中, 模板粒子在这些溶液中保持浓度为 0. lwt%〜40. 0wt°/», 使聚合物单体溶液渗入聚合物 中空球模板的空腔, 达到平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去。 然后 将得到的含聚合物单体溶液的聚合物中空球在搅拌下加入到 0. 01wt%〜30. 0^%引发剂溶 液中。 在反应容器中通入惰性气体, 控制反应液中模板粒子的浓度保持在 0. 1wt%〜 40. 0wt%, 反应温度 0°C〜100°C , 反应时间 0. 5〜24小时左右, 反应完毕, 离心清洗, 即 得到聚合物中空球壳体内层生长有机物的复合中空球。 或  01wt°/。 The polymer hollow sphere template particles were soaked at a concentration of 0. 01wt ° /. 〜0. 0wt% of the polymer monomer solution, the template particles in the solution to maintain a concentration of 0. lwt% ~ 40. 0wt ° /», the polymer monomer solution penetrates into the cavity of the polymer hollow sphere template, After the equilibrium is reached, the solution that has not penetrated into the cavity of the hollow polymer template is centrifuged and washed away. The polymer hollow cell containing the polymer monomer solution is then added to 0. 01wt%~30. 0% of the initiator solution in a stirred solution. The reaction time is 0. 5~24 hours or so, the reaction time is 0. 5~24 hours or so, the reaction time is 0. 5~24 hours, the reaction time is 0. After completion, centrifugal cleaning, that is, a composite hollow sphere in which organic matter is grown in the inner layer of the polymer hollow spherical shell. Or
先将 0. 01wt%〜30. (kt%引发剂溶液渗入聚合物中空球模板粒子空腔,然后将得到的含 引发剂溶液的聚合物中空球在搅拌下加入到浓度为 5^%〜40^%的聚合物单体溶液中。 在 反应容器中通入惰性气体, 控制反应液中模板粒子的浓度保持在 0. lw«〜40wt%, 反应温 度 0°C〜100°C, 反应时间 0. 5〜24小时左右, 反应完毕, 离心清洗, 同样得到聚合物中空 球内层生长有机物的复合中空球。 通过控制反应条件, 所制得的有机物复合中空球的内层 生成物可由单个分散的纳米颗粒到纳米颗粒网络, 直到形成不同厚度的密实壳层。  0. 01wt%~30. (kt% initiator solution is infiltrated into the hollow cavity template particle cavity of the polymer, and then the obtained polymer hollow sphere containing the initiator solution is added to the concentration of 5^%~40 under stirring. Lw«〜40wt%, reaction temperature 0°C~100°C, reaction time 0, the inert gas is introduced into the reaction vessel, and the concentration of the template particles in the reaction solution is controlled to be maintained at 0. lw «~40wt%, reaction temperature 0 ° C ~ 100 ° C, reaction time 0 5~24 hours, the reaction is completed, centrifugal cleaning, and the composite hollow sphere of the organic matter in the inner layer of the polymer hollow sphere is also obtained. By controlling the reaction conditions, the inner layer product of the prepared organic composite hollow sphere can be individually dispersed. Nanoparticles to the nanoparticle network until a dense shell of different thickness is formed.
(2) .将步骤 (1. 1)、 步骤 (1. 2)得到的聚合物模板与无机物或金属复合的中空球分别置 于烧结炉内, 并通空气, 以 0. 1〜10°C/分钟的速度升温至 300〜700°C (优选 450°C )灼烧 0. 2〜3小时左右, 分别得到无机物或金属中空球;  1〜10°。 The singularity of the singularity of the singularity of the singularity of the singularity of the singularity of the present invention. The temperature of C/min is increased to 300~700 ° C (preferably 450 ° C) and the ignition is about 0.2 to 3 hours, respectively, to obtain inorganic or metal hollow spheres;
或者将步骤 (1. 1)、 步骤 (1. 2)、 步骤 (1. 3)得到的聚合物模板与无机物、 金属或有机 物复合的中空球分别使用选择性溶剂进行抽提, 除去模板聚合物, 分别得到无机物、 金属 或有机物中空球。  Alternatively, the polymer template obtained by the step (1.1), the step (1.2), the step (1.3), and the hollow sphere compounded with the inorganic substance, the metal or the organic substance are respectively extracted by using a selective solvent to remove the template polymerization. Objects, respectively, get inorganic, metal or organic hollow spheres.
(3) .在进行步骤 (2)之前, 可进一步多次重复步骤(1. 1)、 步骤 (1. 2)、 步骤(1. 3)。 以 步骤(1. 1)、 步骤(1. 2)、 步骤 (1. 3)分别得到的复合中空球为模板, 分别进一步重复步骤 (1. 1)、 步骤 (1. 2)和步骤(1. 3) , 进行循环反应, 当两次或两次以上循环反应生成同一物 质时, 可以增加复合中空球的生成物壳厚, 即通过控制反应物浓度和循环反应次数可以控 制中空球壳的厚度; 或 (3). Step (1. 1), step (1.2), and step (1. 3) may be repeated a plurality of times before proceeding to step (2). Take Step (1.1), step (1.2), and step (1.3) respectively, the composite hollow spheres are used as templates, and steps (1.1), steps (1.2), and steps (1. 3), performing a cyclic reaction, when two or more cycles of the reaction to form the same substance, the shell thickness of the composite hollow sphere can be increased, that is, the thickness of the hollow spherical shell can be controlled by controlling the concentration of the reactants and the number of cycles of the reaction; or
将步骤 (1. 2)或步骤 (1. 3)得到的复合中空球作为步骤 (1. 1)的模板粒子, 进行循环反 应; 或  The composite hollow sphere obtained in the step (1.2) or the step (1.3) is used as a template particle of the step (1.1) to carry out a cyclic reaction; or
将步骤(1. 1)或步骤(1. 3)得到的复合中空球作为步骤 (1. 2)的模板粒子, 进行循环反 应; 或  The composite hollow sphere obtained in the step (1.1) or the step (1.3) is used as a template particle of the step (1.2) to carry out a cyclic reaction; or
将步骤 (1. 1)或步骤(1. 2)得到的复合中空球作为步骤 (1. 3)的模板粒子, 进行循环反 应。  The composite hollow sphere obtained in the step (1.1) or the step (1.2) is used as a template particle of the step (1.3) to carry out a cyclic reaction.
当两次或两次以上循环反应生成不同种物质时, 可得到多种物质的复合中空球, 如聚 合物模板先在壳体内层生成二氧化钛, 再在壳体内层生成二氧化硅即得到聚合物模板与二 氧化钛和二氧化硅的复合中空球; 或者聚合物模板先在壳体内层生成四氧化三铁, 再在壳 体内层生成聚苯胺即得到聚合物模板与四氧化三铁和聚苯胺的复合中空球。 二. 在聚合物中空球模板壳体内层和亲水通道生长材料的制备方法步骤:  When two or more cycles are reacted to form different kinds of substances, composite hollow spheres of various materials can be obtained. For example, the polymer template first forms titanium dioxide in the inner layer of the shell, and then forms silica in the inner layer of the shell to obtain a polymer. a composite hollow sphere of template and titanium dioxide and silicon dioxide; or a polymer template first generates ferroferric oxide in the inner layer of the shell, and then forms polyaniline in the inner layer of the shell to obtain a composite of the polymer template and triiron tetroxide and polyaniline. Hollow ball. 2. Preparation steps for the inner layer of the polymer hollow sphere template shell and the hydrophilic channel growth material:
(1) .利用聚合物中空球模板亲水通道和壳体内层的反应性或催化性能, 选择适当的反 应物和加料顺序, 可得到表面带毛刺状物质的复合中空球, 聚合物中空球模板壳体内层生 成连续的材料, 其亲水通道被复型、 扩张甚至伸出球体。  (1). Using the reactivity or catalytic performance of the hydrophilic channel of the polymer hollow sphere template and the inner layer of the shell, selecting the appropriate reactants and feeding sequence, the composite hollow sphere with the surface of the burr-like substance can be obtained, and the polymer hollow sphere template The inner layer of the shell creates a continuous material whose hydrophilic channels are reshaped, expanded, and even extended out of the sphere.
将聚合物中空球模板粒子浸泡在反应组份水溶液中, 模板粒子在这些溶液中保持浓度 为 0. lwt%〜40. Owt%, 使反应组份水溶液渗入聚合物中空球模板的空腔, 达到平衡后将未 渗入聚合物中空球模板空腔中的溶液离心洗去。 然后将得到的含反应组份水溶液的聚合物 中空球在搅拌下加入到无机物前体的醇溶液中, 无机物前体醇溶液通过不断补充维持在 0. 01wt°/。〜10. (^%的一恒定浓度。控制反应液中模板粒子的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0O〜100°C, 反应时间 0. 5〜24小时左右, 反应完毕, 离心清洗, 得到表面带毛 剌状物质的聚合物模板与无机物复合的中空球, 其亲水通道被复型、 扩张甚至伸出球体, 壳体内层生成连续的材料; 或  Lwt%〜40. Owt%, the aqueous solution of the reaction component is infiltrated into the cavity of the hollow polymer template of the polymer to reach a concentration of the polymer hollow sphere template particles in the solution After the equilibration, the solution that has not penetrated into the cavity of the hollow polymer template is centrifuged and washed away. The weight of the aqueous solution of the inorganic precursor is maintained at 0. 01wt ° / by the continuous replenishment. The reaction time is 0. 5~24 hours, the reaction time is 0. 5~24 hours or so, the reaction time is 0. lwt%~40. 0wt%, reaction temperature 0O~100 ° C, reaction time 0. 5~24 hours or so, reaction After completion, centrifugal cleaning is performed to obtain a hollow sphere in which a polymer template having a ruthenium-like substance is combined with an inorganic substance, and the hydrophilic channel is multiplexed, expanded, and even protruded from the sphere, and the inner layer of the shell generates a continuous material;
将聚合物中空球模板粒子浸泡在 0. 01wt%〜60. 0wt%的还原剂溶液中,模板粒子在这些 溶液中保持浓度为 0. lwt%〜40. 0wt%, 使还原剂溶液渗入聚合物中空球模板的空腔, 达到 平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去。 然后将得到的含还原剂溶液的 聚合物中空球在搅拌下加入到金属离子盐溶液中, 金属离子盐通过不断补充维持在 0. 01wt°/。〜10. (½1%的一恒定浓度;控制反应液中模板粒子的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0°C〜100°C, 反应时间 0. 5〜24小时左右, 反应完毕, 离心清洗, 即得到表面带 毛剌状物质的聚合物模板与金属复合的中空球, 其亲水通道被复型、 扩张甚至伸出球体, 壳体内层生成连续的材料; 或 Lwt%~40. 0wt%, the reducing agent solution is infiltrated into the polymer. The weight of the template is kept in the solution. The cavity of the hollow sphere template is centrifuged to remove the solution that has not penetrated into the cavity of the polymer hollow sphere template. 01wt°/。 The polymer ionic salt was added to the metal ion salt solution with agitation. 5〜24小时左右左右。 The reaction time is 0. lwt%~40. 0wt%, reaction temperature 0 ° C ~ 100 ° C, reaction time 0. 5~24 hours or so , the reaction is completed, and the centrifugal cleaning is performed to obtain the surface band. The polymer template of the ranunculus-like material and the hollow sphere of the metal composite, the hydrophilic channel of which is shaped, expanded or even protruded from the sphere, and the inner layer of the shell generates a continuous material; or
将聚合物中空球模板粒子浸泡在反应组份浓度为 0. 01wt%~30. 0wt°/。引发剂溶液中,模 板粒子在这些溶液中保持浓度为 0. lwt%〜40. (kt%, 使引发剂溶液渗入聚合物中空球模板 的空腔, 达到平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去。 然后将得到的含 引发剂溶液的聚合物中空球在搅拌下加入到聚合物单体溶液中, 聚合物单体通过不断补充 维持在 0. 01wt%〜10. 0^%的一恒定浓度; 在反应容器中通入惰性气体, 控制反应液中模板 粒子的浓度保持在 0. lwt%〜40. (kt%,反应温度 0°C〜100°C,反应时间 0. 5〜24小时左右, 反应完毕, 离心清洗, 即得到表面带毛刺状物质的聚合物模板与有机物复合的中空球, 其 亲水通道被复型、 扩张甚至伸出球体, 壳体内层生成连续的材料。  01wt%~30. 0wt°/。 The polymer hollow sphere template particles were immersed in the reaction composition concentration of 0. 01wt%~30. 0wt ° /. In the initiator solution, the template particles are kept at a concentration of 0. lwt%~40. (kt%, the initiator solution is infiltrated into the cavity of the polymer hollow sphere template, and after reaching equilibrium, the polymer hollow sphere template is not infiltrated. The weight of the polymer monomer is maintained at 0. 01wt%~10. The concentration of the template particles in the reaction solution is maintained at 0. lwt%~40. (kt%, reaction temperature 0°C~100°C, reaction time) 0. 5~24 hours, after the reaction is completed, centrifugal cleaning, the hollow template of the polymer template with the burr-like substance on the surface and the organic material is obtained, and the hydrophilic channel is duplicated, expanded or even protruded from the sphere, and the inner layer of the shell is formed. Continuous material.
(¾ .将步骤 (1)得到的聚合物模板与无机物、金属复合的中空球置于烧结炉内,并通空 气, 以 0. 1〜10°C/分钟的速度升温至 300〜700°C (优选 450Ό ) 灼烧 0. 2〜3小时, 得到 表面带毛刺的无机或金属中空球; 或  (3⁄4. The polymer template obtained in the step (1) and the inorganic material, metal composite hollow spheres are placed in a sintering furnace, and air is passed, and the temperature is raised to a temperature of 0.1 to 10 ° C / minute to 300 ~ 700 ° C (preferably 450 Ό) burning 0. 2~3 hours, obtaining an inorganic or metallic hollow sphere with a burr surface; or
将步骤 (1)得到的聚合物模板与无机物、金属、有机物复合的中空球使用选择性溶剂进 行抽提, 除去模板聚合物, 得到表面带毛刺的无机物、 金属或有机物中空球。 这种毛刺型 中空球的中空球体由材料在壳体内层生长复型而成,毛刺由材料在亲水通道生长扩张而成。 三. 在聚合物中空球模板壳体外表面生长材料的制备方法步骤:  The hollow template obtained by mixing the polymer template obtained in the step (1) with an inorganic material, a metal or an organic substance is extracted with a selective solvent to remove the template polymer to obtain a surface-burred inorganic material, metal or organic hollow sphere. The hollow sphere of the burr-type hollow sphere is formed by growing a material in the inner layer of the casing, and the burr is formed by the growth and expansion of the material in the hydrophilic passage. 3. Preparation method of growing material on the outer surface of the polymer hollow sphere template shell:
用聚合物中空球为模板, 将其分散在溶液中, 在溶液中加入同时无机物、 金属或有机 物的两反应组份, 控制一定浓度, 可使反应产物在聚合物中空球壳体外表面沉积生长, 而 在溶液中无反应产物颗粒生成。  The polymer hollow sphere is used as a template, which is dispersed in a solution, and two reaction components of the inorganic substance, the metal or the organic substance are added to the solution to control a certain concentration, and the reaction product can be deposited and grown on the outer surface of the hollow shell of the polymer. And no reaction product particles are formed in the solution.
将聚合物中空球模板粒子分散在醇溶液中, 加入无机物前体溶液和反应组份水溶液, 控制反应液中无机物前体的在最终浓度 0. 01wt%〜30wt%, 反应组份水溶液的最终浓度为 0. lwt%〜50wt%,模板粒子的浓度为 0. lwt°/。〜40wt%,反应温度 0°C〜100°C,反应时间 0. 5〜 24小时, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层。 反应完毕, 离心清 洗, 即得到在聚合物中空球壳体外表面生长无机物的复合中空球; 除去聚合物模板, 得到 无机物中空球; 或  01重量%〜30重量%的反应的水溶液的水溶液Lwt°/。 The final concentration is 0. lwt%~50wt%, the concentration of the template particles is 0. lwt ° /. 〜40wt%, reaction temperature 0 ° C ~ 100 ° C, reaction time 0. 5~ 24 hours, the reaction product is deposited on the outer surface of the polymer hollow spherical shell to form a continuous shell. After the reaction is completed, the mixture is centrifuged to obtain a composite hollow sphere which grows inorganic substances on the outer surface of the hollow shell of the polymer; the polymer template is removed to obtain an inorganic hollow sphere; or
将聚合物中空球模板粒子分散在水中, 加入金属离子盐溶液和还原剂溶液, 控制反应 液中金属离子盐浓度 0. 01wt%〜30wt%, 还原剂浓度 0. 01wt%〜30wt°/。, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜: L00°C, 反应时间 0. 5〜24小时, 使反应产物沉积在聚合 物中空球壳体外表面, 形成连续壳层。 反应完毕, 离心清洗, 即得到在聚合物中空球壳体 外表面生长金属的复合中空球; 除去聚合物模板, 得到金属中空球; 或  The weight of the metal ion salt is 0.11% by weight to 30% by weight, and the reducing agent concentration is 0.11% by weight to 30% by weight. The concentration of the template particles is 0. lwt% ~ 40wt%, the reaction temperature is 0 ° C ~: L00 ° C, the reaction time is 0. 5~24 hours, the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell Floor. After the reaction is completed, centrifugal cleaning is performed to obtain a composite hollow sphere which grows metal on the outer surface of the hollow shell of the polymer; the polymer template is removed to obtain a hollow metal sphere; or
将聚合物中空球模板粒子分散在水中, 在反应容器中通入惰性气体, 加入聚合物单体 和引发剂溶液, 控制反应液中聚合物单体浓度 0. 01wt%〜20wt%, 引发剂浓度 0. 01wt%〜 20wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜100°C, 反应时间 0. 5〜24小 时, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离心清洗, 即得到在聚合物中空球壳体外表面生长的聚合物与有机物的复合中空球; 除去模板聚合 物, 得到有机物中空球。 四. 偏心结构的双层结构空心球的制备方法步骤: Dispersing the polymer hollow sphere template particles in water, introducing an inert gas into the reaction vessel, and adding the polymer monomer Lwt%〜40wt%, The reaction temperature is 0°. The concentration of the template particles is 0. lwt%~40wt%, the reaction temperature is 0°, and the concentration of the initiator is 0. 01wt%~20wt%, the concentration of the template particles is 0. lwt%~40wt%, the reaction temperature is 0°. C~100 ° C, reaction time 0. 5~24 hours, the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell; after the reaction is completed, centrifugal cleaning, the outer surface of the hollow shell of the polymer is obtained. The hollow sphere of the polymer and the organic compound; the template polymer is removed to obtain an organic hollow sphere. The preparation method of the double-layer hollow sphere with eccentric structure steps:
(1) .以聚合物中空球为模板,将反应物分成两反应组份,各组份内的原料之间无反应, 利用聚合物中空球壳体为强制界面, 其空腔作为一反应组份原料仓库, 再在球外投放另一 反应组份, 通过反应制备聚合物中空球壳体内层生长材料的复合中空球。  (1). Using the polymer hollow sphere as a template, the reactant is divided into two reaction components, and there is no reaction between the raw materials in each component. The polymer hollow sphere shell is used as a forced interface, and the cavity is used as a reaction group. In the raw material warehouse, another reaction component is placed outside the ball, and a composite hollow sphere of the inner growth material of the polymer hollow spherical shell is prepared by the reaction.
(1. 1)将聚合物中空球模板粒子浸泡在 0. 01^%〜60. 0 %的无机物前体溶液中, 模板 粒子在这些溶液中保持浓度为 0. lwt%〜40. 0rt°/。, 使无机物前体溶液渗入聚合物中空球模 板的空腔, 达到平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去。 然后将得到的 含无机物前体溶液的聚合物中空球在搅拌下加入到反应组份水溶液中。控制反应液中模板 粒子的浓度保持在 0. lwt%〜40. 0wt%,反应温度 0°C〜100°C,反应时间 0. 5〜24小时左右, 反应完毕, 离心清洗, 即得到聚合物中空球壳体内层生长无机物的复合中空球。 或  Lwt°〜40. 0rt° 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 /. The inorganic precursor solution is infiltrated into the cavity of the hollow polymer template of the polymer, and after reaching equilibrium, the solution which has not penetrated into the cavity of the hollow polymer template is centrifuged and washed away. The resulting polymer hollow sphere containing the inorganic precursor solution is then added to the aqueous solution of the reaction component with stirring. The concentration of the template particles in the reaction solution is maintained at 0. lwt% ~ 40. 0wt%, the reaction temperature is 0 ° C ~ 100 ° C, the reaction time is 0. 5 ~ 24 hours or so, the reaction is completed, centrifugal cleaning, the polymer is obtained A composite hollow sphere in which an inorganic substance is grown in the inner layer of the hollow spherical shell. Or
先将反应组份水溶液渗入聚合物中空球模板粒子空腔, 然后将得到的含反应组份水溶 液的聚合物中空球在搅拌下加入到浓度为 10. 0wt%〜60. 0¾^%的无机物前体溶液中。控制反 应液中模板粒子的浓度保持在 0. rt%〜40. 0wt%, 反应温度 0°C;〜 100°C, 反应时间 0. 5〜 24小时左右, 反应完毕, 离心清洗, 同样得到聚合物中空球壳体内层生长无机物的复合中 空球。 或  The inorganic material of the present invention is added to the inorganic material having a concentration of 10. 0 wt% to 60. 03⁄4^%. In the precursor solution. The concentration of the template particles in the reaction solution is maintained at 0. rt%~40. 0wt%, reaction temperature 0 ° C; ~ 100 ° C, reaction time 0. 5~ 24 hours, the reaction is completed, centrifugal cleaning, the same polymerization A composite hollow sphere in which an inorganic substance is grown in the inner layer of the hollow spherical shell. Or
(1. 2)将聚合物中空球模板粒子浸泡在 0. 01^%〜60. 0^%的金属离子盐溶液中, 模板 粒子在这些溶液中保持浓度为 0. lwte/。〜40. 0wt%, 使金属离子盐溶液渗入聚合物中空球模 板的空腔, 达到平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去。 然后将得到的 含金属离子盐溶液的聚合物中空球在搅拌下加入到 0. 01wt%〜60. 0^%的还原剂溶液中。控 制反应液中模板粒子的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0°C〜100°C, 反应时间 0. 5〜24小吋左右, 反应完毕, 离心清冼, 即得到聚合物中空球壳体内层生长金属的复合 中空球。 或 Lwt e /. The template particles are kept at a concentration of 0. lwt e /, in the solution of the metal ion salt solution. 〜40. 0wt%, the metal ion salt solution is infiltrated into the cavity of the polymer hollow sphere template, and after reaching equilibrium, the solution not penetrating into the cavity of the polymer hollow sphere template is centrifuged and washed away. 0重量%的还原剂溶液。 The polymer hollow sphere containing the metal ion salt solution was then added to 0. 01wt% ~ 60. 0 ^% of the reducing agent solution. The concentration of the template particles in the reaction solution is maintained at 0. lwt% ~ 40. 0wt%, the reaction temperature is 0 ° C ~ 100 ° C, the reaction time is 0. 5 ~ 24 hours, the reaction is completed, centrifuged, clear, that is A composite hollow sphere of metal is grown in the inner layer of the polymer hollow spherical shell. or
先将 0. 01wt%〜60. (½1%的还原剂溶液渗入聚合物中空球模板粒子空腔中,然后将得到 的含还原剂溶液的聚合物中空球在搅拌下加入到浓度为 10. 0wt%〜60. 0wt%的金属离子盐 溶液中。 控制反应液中模板粒子的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0°C〜100°C, 反应时间 0. 5〜24小时左右, 反应完毕, 离心清洗, 同样得到聚合物中空球壳体内层生长 金属的复合中空球。 或 (1. 3)将聚合物中空球模板粒子浸泡在浓度为 0. 01wt%〜40. 0wt%的聚合物单体溶液 中, 模板粒子在这些溶液中保持浓度为 0. lwt%〜40. (kt%, 使聚合物单体溶液渗入聚合物 中空球模板的空腔, 达到平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去。 然后 将得到的含聚合物单体溶液的聚合物中空球在搅拌下加入到 0. 01wt%~30. 0^%引发剂溶 液中。 在反应容器中通入惰性气体, 控制反应液中模板粒子的浓度保持在 0. 1wt%〜 40. 0wt%, 反应温度 0°C〜100°C, 反应时间 0. 5〜24小时左右, 反应完毕, 离心清洗, 即 得到聚合物中空球壳体内层生长有机物的复合中空球。 或 0wt。 The weight of the polymer hollow ball containing the reducing agent solution was added to a concentration of 10. 0wt 5〜24。 The reaction time 0. lwt%~40. 0wt%, reaction temperature 0 ° C ~ 100 ° C, reaction time 0. 5~24 After about an hour, the reaction is completed, and the mixture is centrifuged to obtain a composite hollow sphere in which the inner layer of the polymer hollow spherical shell grows metal. Lwt%~40. (1wt%~40. ( Kt%, the polymer monomer solution is infiltrated into the cavity of the polymer hollow sphere template, and after reaching equilibrium, the solution not penetrating into the cavity of the polymer hollow sphere template is centrifugally washed away. Then the obtained polymer-containing monomer solution is obtained. 1wt%〜 40. The concentration of the template particles in the reaction solution is maintained at 0. 1wt%~ 40. 0wt%, reaction temperature 0 ° C ~ 100 ° C, reaction time 0. 5 ~ 24 hours or so, the reaction is completed, centrifugal cleaning, that is, a composite hollow sphere of organic matter grown in the inner layer of the polymer hollow spherical shell.
先将 0. 01wt%~30. 0wt%引发剂溶液渗入聚合物中空球模板粒子空腔,然后将得到的含 引发剂溶液的聚合物中空球在搅拌下加入到浓度为 5^%〜4(½1%的聚合物单体溶液中。 在 反应容器中通入惰性气体, 控制反应液中模板粒子的浓度保持在 0. lwt%〜40wt%, 反应温 度 0°C〜100°C, 反应时间 0. 5〜24小时左右, 反应完毕, 离心清洗, 同样得到聚合物中空 球内层生长有机物的复合中空球。  01重量%~30. 0wt% initiator solution is infiltrated into the hollow cavity template particle cavity of the polymer, and then the obtained polymer hollow sphere containing the initiator solution is added to the concentration of 5^%~4 under stirring. Lwt%~40wt%, reaction temperature 0°C~100°C, reaction time 0. 1⁄21% of the polymer monomer solution. The inert gas is introduced into the reaction vessel, and the concentration of the template particles in the reaction solution is kept at 0. lwt%~40wt%, the reaction temperature is 0°C~100°C, and the reaction time is 0. 5~24 hours, the reaction is completed, and the mixture is centrifuged to obtain a composite hollow sphere in which the organic layer of the polymer hollow sphere is grown.
(2) .将步骤 (1)得到的内层生长材料的复合中空球分散在溶液中, 同时加入无机物、 金属或有机物的两反应组份,控制反应物浓度,反应产物沉积在聚合物中空球壳体外表面, 可得到在聚合物中空球壳体外表面和内层都生长材料的多层复合中空球, 除去聚合物模 板, 得到双层结构中空球, 即中空球中含有中空球, 其内中空球可在外中空球内运动。  (2) Dispersing the composite hollow sphere of the inner layer growth material obtained in the step (1) in a solution, simultaneously adding two reaction components of an inorganic substance, a metal or an organic substance, controlling the concentration of the reactant, and depositing the reaction product in the hollow of the polymer The outer surface of the spherical shell can obtain a multi-layer composite hollow sphere which grows materials on both the outer surface and the inner layer of the polymer hollow spherical shell, and removes the polymer template to obtain a double-layer hollow sphere, that is, the hollow sphere contains a hollow sphere therein. The hollow sphere can move within the outer hollow sphere.
将步骤 (1. 1)得到的内层生长无机物的复合中空球分散在醇溶液中, 加入无机物前体 和反应组份水溶液, 控制反应液中无机物前体的最终浓度 0. 01wt%〜30wt%, 反应组份水溶 液的最终浓度为 0. lwt°/。〜50wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜100 V,反应时间 0. 5〜24小时,使反应产物沉积在聚合物中空球壳体外表面,形成连续壳层。 反应完毕,离心清洗,即得到在聚合物中空球壳体外表面和内层生长无机物的复合中空球。 除去聚合物模板, 得到双层结构无机中空球, 即中空球中含有中空球, 得到的双层结构内 中空球可在外中空球内运动; 或  01wt% The final concentration of the inorganic precursor in the reaction liquid is 0. 01wt%, the final concentration of the inorganic precursor in the reaction liquid is 0. 01wt% Lwt°/。 The final concentration of the aqueous solution of the reaction component is 0. lwt ° /. 〜50wt%, the concentration of the template particles is 0. lwt% ~ 40wt%, the reaction temperature is 0 ° C ~ 100 V, the reaction time is 0. 5~24 hours, the reaction product is deposited on the outer surface of the polymer hollow spherical shell, forming a continuous Shell layer. After the completion of the reaction and centrifugation, a composite hollow sphere in which inorganic substances are grown on the outer surface and the inner layer of the hollow shell of the polymer is obtained. The polymer template is removed to obtain a two-layer inorganic hollow sphere, that is, the hollow sphere contains a hollow sphere, and the hollow sphere obtained in the two-layer structure can move in the outer hollow sphere; or
将步骤 (1. 1)得到的内层生长无机物的复合中空球分散在水中, 加入金属离子盐溶液 和还原剂溶液, 控制反应液中金属离子盐浓度 0. 01wt%〜30vrt%, 还原剂浓度 0. 01wt%〜 30wt%, 模板粒子的浓度为 0. lwt%〜40wt°/。, 反应温度 0°C〜100'C, 反应时间 0. 5〜24小 时, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层。 反应完毕, 离心清洗, 即得到在聚合物中空球壳体外表面生长金属和内层生长无机物的复合中空球。 除去聚合物 模板, 得到双层结构金属-无机物中空球, 即金属中空球中含有一个无机物中空球, 得到 的无机物中空球可在金属中空球内运动; 或  01wt%〜30vrt%, reducing agent, the concentration of the metal ion salt in the reaction solution is 0. 01wt%~30vrt%, reducing agent, the metal ion salt salt concentration in the reaction liquid is 0. 01wt%~30vrt%, reducing agent Lwt%〜40wt°/。 The concentration of the template particles is 0. lwt% ~ 40wt ° /. The reaction temperature is 0 ° C to 100 ° C, and the reaction time is 0.5 to 24 hours, and the reaction product is deposited on the outer surface of the hollow hollow spherical shell to form a continuous shell layer. After the completion of the reaction, the mixture is centrifuged to obtain a composite hollow sphere in which metal and inner layer growth inorganic substances are grown on the outer surface of the polymer hollow spherical shell. The polymer template is removed to obtain a double-layered metal-inorganic hollow sphere, that is, the hollow metal sphere contains an inorganic hollow sphere, and the obtained inorganic hollow sphere can move in the hollow metal sphere; or
将步骤 (1. 1)得到的内层生长无机物的复合中空球分散在水中, 在反应容器中通入惰 性气体, 加入聚合物单体和引发剂溶液, 控制反应液中聚合物单体浓度 0. 01wt%〜20wt%, 引发剂浓度 0. 01wt%〜20wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0'C〜100°C, 反应时间 0. 5〜24小时, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层。 反 应完毕, 离心清洗, 即得到在聚合物中空球壳体外表面生长有机物和内层生长无机物的复 合中空球。 除去聚合物模板, 得到双层结构有机物 -无机物中空球, 即有机物中空球中含 有一个无机物中空球, 得到的无机物中空球可在有机物中空球内运动; 或 Dissolving the inner hollow inorganic composite hollow sphere obtained in the step (1.1) in water, introducing an inert gas into the reaction vessel, adding the polymer monomer and the initiator solution, and controlling the concentration of the polymer monomer in the reaction liquid. 01重量%〜20wt%, The initiator concentration is 0. 01wt%~20wt%, the concentration of the template particles is 0. lwt%~40wt%, the reaction temperature is 0'C~100°C, The reaction time was 0.5 to 24 hours, and the reaction product was deposited on the outer surface of the hollow shell of the polymer to form a continuous shell layer. After the completion of the reaction, the mixture is centrifuged to obtain a composite hollow sphere in which an organic substance and an inner layer of inorganic substances are grown on the outer surface of the hollow shell of the polymer. Removing the polymer template to obtain a two-layer structure organic-inorganic hollow sphere, that is, the organic hollow sphere contains an inorganic hollow sphere, and the obtained inorganic hollow sphere can move in the organic hollow sphere; or
将步骤 (1. 2)得到的内层生长金属的复合中空球分散在醇溶液中, 加入无机物前体溶 液和反应组份水溶液, 控制反应液中无机物前体的浓度 0. 01wt%〜30wt%, 反应组份水溶液 的最终浓度为 0. lwt%〜50wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜100°C, 反应时间 0. 5〜24小时, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层。 反 应完毕, 离心清洗, 即得到在聚合物中空球壳体外表面生长无机物和内层生长金属的复合 中空球。 除去聚合物模板, 得到双层结构无机物-金属中空球, 即无机物中空球中含有一 个金属中空球, 得到的金属中空球可在无机物球内运动; 或  01wt%~ The concentration of the inorganic precursor in the reaction solution is 0. 01wt%~ 5〜24小时。 The reaction time is 0. 5~24 hours, the reaction time is 0. 5~24 hours, the reaction time is 0. 5~24 hours, the reaction time is 0. 5~24 hours The reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell. After the reaction is completed, centrifugal cleaning is performed to obtain a composite hollow sphere in which an inorganic substance and an inner layer growing metal are grown on the outer surface of the polymer hollow spherical shell. The polymer template is removed to obtain a two-layer inorganic-metal hollow sphere, that is, the inorganic hollow sphere contains a hollow metal sphere, and the obtained hollow metal sphere can move in the inorganic sphere; or
将步骤 (1. 2)得到的内层生长金属的复合中空球分散在水中, 加入金属离子盐溶液和 还原剂溶液,控制反应液中金属离子盐浓度 0. 0 rt%〜30wt%,还原剂浓度 0. 01wt%〜30wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜100°C, 反应时间 0. 5〜24小时, 使反 应产物沉积在聚合物中空球壳体外表面, 形成连续壳层。 反应完毕, 离心清洗, 即得到在 聚合物中空球壳体外表面和内层生长金属的复合中空球。 除去聚合物模板, 得到双层结构 金属中空球, 即金属中空球中含有一个金属中空球, 得到的内金属中空球可在外金属球内 运动; 或  Rt%〜30wt%, reducing agent, the metal ion salt concentration in the reaction liquid is controlled to 0. 0 rt%~30wt%, reducing agent, the metal hollow salt solution and the reducing agent solution are added to the reaction liquid. The concentration of the template is 0. 01wt%~30wt%, the concentration of the template particles is 0. lwt% ~ 40wt%, the reaction temperature is 0 ° C ~ 100 ° C, the reaction time is 0. 5~24 hours, the reaction product is deposited in the polymer hollow sphere The outer surface of the casing forms a continuous shell. After the completion of the reaction, centrifugal washing is carried out to obtain a composite hollow sphere in which metal is grown on the outer surface and the inner layer of the hollow shell of the polymer. Removing the polymer template to obtain a two-layer structure metal hollow sphere, that is, the metal hollow sphere contains a metal hollow sphere, and the obtained inner metal hollow sphere can move in the outer metal sphere; or
将步骤 (1. 2)得到的内层生长金属的复合中空球分散在水中, 在反应容器中通入惰性 气体, 加入聚合物单体和引发剂溶液, 控制反应液中聚合物单体浓度 0. 01wt%〜20wt°/。, 引 发剂浓度 0. 01wt%〜20wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C~100°C, 反 应时间 0. 5〜24小时, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层。 反应 完毕, 离心清洗, 即得到在聚合物中空球壳体外表面生长有机物和内层生长金属的复合中 空球。 除去聚合物模板, 得到双层结构有机物-金属中空球, 即有机物中空球中含有一个 金属中空球, 得到的金属中空球可在有机物中空球内运动; 或  Dissolving the inner hollow metal composite hollow sphere obtained in the step (1.2) in water, introducing an inert gas into the reaction vessel, adding the polymer monomer and the initiator solution, and controlling the concentration of the polymer monomer in the reaction liquid. 01wt%~20wt°/. The concentration of the initiator is 0. 01wt%~20wt%, the concentration of the template particles is 0. lwt%~40wt%, the reaction temperature is 0 ° C ~ 100 ° C, the reaction time is 0. 5~24 hours, the reaction product is deposited in the polymerization The outer surface of the hollow spherical shell forms a continuous shell. After the reaction is completed, the mixture is centrifuged to obtain a composite hollow sphere in which an organic substance and an inner layer of metal are grown on the outer surface of the hollow shell of the polymer. Removing the polymer template to obtain a two-layer structure organic-metal hollow sphere, that is, the organic hollow sphere contains a metal hollow sphere, and the obtained metal hollow sphere can move in the organic hollow sphere; or
将步骤 (1. 3)得到的内层生长有机物的复合中空球分散在醇溶液中, 加入无机物前体 溶液和反应组份水溶液,控制反应液中无机物前体的浓度 0. 01wt%〜30wt%, 反应组份水溶 液的最终浓度为 0. lwt%〜50wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C~100 V, 反应时间 0. 5〜24小时,使反应产物沉积在聚合物中空球壳体外表面,形成连续壳层。 反应完毕, 离心清洗, 即得到在聚合物中空球壳体外表面生长无机物和内层生长有机物的 复合中空球。 除去聚合物模板, 得到双层结构无机物 -有机物中空球, 即无机物中空球中 含有一个有机物中空球, 得到的有机物中空球可在无机物球内运动; 或  01wt%~ The concentration of the inorganic precursor in the reaction solution is 0. 01wt%~ 5〜24小时,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,, The reaction product is deposited on the outer surface of the polymeric hollow sphere shell to form a continuous shell. After completion of the reaction, centrifugal washing is carried out to obtain a composite hollow sphere in which an inorganic substance and an inner layer-grown organic substance are grown on the outer surface of the polymer hollow spherical shell. The polymer template is removed to obtain a two-layer structure inorganic-organic hollow sphere, that is, the inorganic hollow sphere contains an organic hollow sphere, and the obtained organic hollow sphere can move in the inorganic sphere; or
将步骤 (1. 3)得到的内层生长有机物的复合中空球分散在水中, 加入金属离子盐溶液 和还原剂溶液, 控制反应液中金属离子盐浓度 0. 01wt%〜30wt%, 还原剂浓度 0. 01wt%〜 30wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜10(TC, 反应时间 0. 5〜24小 时, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层。 反应完毕, 离心清洗, 即得到在聚合物中空球壳体外表面生长金属和内层生长有机物的复合中空球。 除去聚合物 模板, 得到双层结构金属-有机物中空球, 即金属中空球中含有一个有机物中空球, 得到 的有机物中空球可在金属中空球内运动; 或 Dispersing the composite hollow sphere of the inner layer growing organic body obtained in the step (1.3) in water, adding the metal ion salt solution And the concentration of the template particles is 0. lwt%~40wt%, the reaction temperature is 0°C, and the concentration of the template is 0. 01wt%~ 30wt%, the concentration of the template particles is 0. lwt%~40wt%, the reaction temperature is 0°C. 〜10 (TC, reaction time 0. 5~24 hours, the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell. After the reaction is completed, centrifugal cleaning is performed to obtain metal on the outer surface of the hollow shell of the polymer. And a composite hollow sphere with an inner layer of organic matter. The polymer template is removed to obtain a double-layered metal-organic hollow sphere, that is, the hollow sphere of the metal contains an organic hollow sphere, and the obtained hollow hollow sphere can move in the hollow sphere of the metal;
将步骤(1. 3)得到的内层生长有机物的复合中空球分散在水中, 在反应容器中通入惰 性气体, 加入聚合物单体和引发剂溶液, 控制反应液中聚合物单体浓度 0. 01wt%〜20wt%, 引发剂浓度 0. 01wt%〜20wt°/。, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜100°C, 反应时间 0. 5〜24小时, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层。 反 应完毕, 离心清洗, 即得到在聚合物中空球壳体外表面和内层生长有机物的复合中空球。 除去聚合物模板,得到双层结构有机物中空球,即有机物中空球中含有一个有机物中空球, 得到的内有机物中空球可在外有机物球内运动。 五. 同心结构的双层结构空心球的制备方法步骤:  Dissolving the composite hollow sphere of the inner layer growing organic body obtained in the step (1.3) in water, introducing an inert gas into the reaction vessel, adding the polymer monomer and the initiator solution, and controlling the concentration of the polymer monomer in the reaction liquid. 01重量%〜20wt°/。 01wt%〜20wt%, initiator concentration 0. 01wt%~20wt ° /. , the concentration of the template particles is 0. lwt% ~ 40wt%, the reaction temperature is 0 ° C ~ 100 ° C, the reaction time is 0. 5~24 hours, the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell . After the reaction is completed, centrifugal cleaning is performed to obtain a composite hollow sphere in which organic matter is grown on the outer surface and the inner layer of the polymer hollow spherical shell. The polymer template is removed to obtain a two-layer organic hollow sphere, that is, the organic hollow sphere contains an organic hollow sphere, and the obtained inner organic hollow sphere can move in the outer organic sphere. V. Preparation method of two-layer hollow spheres with concentric structure Steps:
(1) .利用聚合物中空球亲水通道和壳体内层的反应性或催化性能, 选择适当的反应物 和加料顺序, 可得到表面带毛刺状物质的复合中空球, 聚合物中空球壳体内层生成连续的 材料, 其亲水通道被复型、 扩张甚至伸出球体。  (1). Using the reactivity or catalytic performance of the hydrophilic channel of the polymer hollow sphere and the inner layer of the shell, selecting the appropriate reactants and feeding sequence, a composite hollow sphere with a burr-like substance on the surface can be obtained, and the polymer hollow sphere shell is The layer creates a continuous material whose hydrophilic channels are replicated, expanded, and even extended out of the sphere.
(1. 1)将聚合物中空球模板粒子浸泡在反应组份水溶液中, 模板粒子在这些溶液中保 持浓度为 0. lwt%〜40. 0wt%, 使反应组份水溶液渗入聚合物中空球模板的空腔, 达到平衡 后将未渗入 合物中空球模板空腔中的溶液离心洗去。 然后将得到的含反应组份水溶液的 聚合物中空球在搅拌下加入到无机物前体的醇溶液中, 无机物前体通过不断补充维持在 0. 01wt%~10. (½1%的一恒定浓度。控制反应液中模板粒子的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0°C〜100°C, 反应时间 0. 5〜24小时左右, 反应完毕, 离心清洗, 得到表面带毛 刺状物质的聚合物模板与无机物复合的中空球, 其亲水通道被复型、 扩张甚至伸出球体, 壳体内层生成连续的材料; 或  (1) The aqueous solution of the reaction solution is immersed in the aqueous solution of the reaction solution. The template particles are kept at a concentration of 0. lwt%~40. 0wt%, the aqueous solution of the reaction component is infiltrated into the polymer hollow sphere template. The cavity is centrifuged and the solution that has not penetrated into the cavity of the hollow balloon template is centrifuged. 01重量%~10. (1⁄21%的一一 constant) The polymer hollow spheres containing the aqueous solution of the reaction component are added to the alcohol solution of the inorganic precursors, and the inorganic precursor is maintained at 0. 01wt%~10. The concentration of the template is maintained at 0. lwt%~40. 0wt%, the reaction temperature is 0 ° C ~ 100 ° C, the reaction time is 0. 5~24 hours, the reaction is completed, centrifugal cleaning, the surface is obtained. a hollow sphere of a polymer template with a burr-like substance and an inorganic material, the hydrophilic channel of which is shaped, expanded, or even protruded from the sphere, and the inner layer of the shell generates a continuous material;
(1. 2)将聚合物中空球模板粒子浸泡在 0. 01wt%~60. 0 %的还原剂溶液中, 模板粒子 在这些溶液中保持浓度为 0. lwt%〜40. 0wt%,使还原剂溶液渗入聚合物中空球模板的空腔, 达到平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去。 然后将得到的含还原剂溶 液的聚合物中空球在搅拌下加入到金属离子盐溶液中, 金属离子盐通过不断补充维持在 0. 01wt%〜10. (½ %的一恒定浓度;控制反应液中模板粒子的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0°C〜100°C, 反应时间 0. 5〜24小时左右, 反应完毕, 离心清洗, 即得到表面带 毛刺状物质的聚合物模板与金属复合的中空球, 其亲水通道被复型、 扩张甚至伸出球体, 壳体内层生成连续的材料; 或 Lwt%~40. 0wt%, to restore the polymer hollow sphere template particles immersed in a 0. 01wt%~60. 0% reducing agent solution, the template particles in the solution to maintain a concentration of 0. lwt%~40. 0wt%, to restore The solution penetrates into the cavity of the polymer hollow sphere template, and after reaching equilibrium, the solution that has not penetrated into the cavity of the hollow polymer template is centrifuged and washed away. 01重量%〜10. (1⁄2 % of a constant concentration; control of the reaction solution, the polymer hollow ball containing the reducing agent solution is added to the metal ion salt solution under stirring, the metal ion salt is continuously replenished at 0. 01wt%~10. The concentration of the template particles is maintained at 0. lwt%~40. 0wt%, the reaction temperature is 0°C~100°C, the reaction time is 0. 5~24 hours, the reaction is completed, and the centrifugal cleaning is performed to obtain the surface burr-like substance. The polymer template is a composite hollow sphere of metal, the hydrophilic channel of which is complexed, expanded, and even extended out of the sphere. The inner layer of the casing generates a continuous material; or
(1. 3)将聚合物中空球模板粒子浸泡在反应组份浓度为 0. 01wt%〜30. Owt%引发剂溶液 中, 模板粒子在这些溶液中保持浓度为 0. lwt%〜40. 0wt%, 使引发剂溶液渗入聚合物中空 球模板的空腔, 达到平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去。 然后将得 到的含引发剂溶液的聚合物中空球在搅拌下加入到聚合物单体溶液中, 聚合物单体通过不 断补充维持在0. 01 %〜10. 0^%的一恒定浓度; 在反应容器中通入惰性气体, 控制反应液 中模板粒子的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0°C〜100°C, 反应时间 0. 5〜24小 时左右, 反应完毕, 离心清洗, 即得到表面带毛刺状物质的聚合物模板与有机物复合的中 空球, 其亲水通道被复型、 扩张甚至伸出球体, 壳体内层生成连续的材料。  Lwt%〜40. 0wt 0. lwt%~40. 0wt 0. lwt%~40. 0wt 0. lwt%~40. 0wt %, the initiator solution is infiltrated into the cavity of the polymer hollow sphere template, and after reaching equilibrium, the solution that has not penetrated into the cavity of the polymer hollow sphere template is centrifuged and washed away. 01%〜10. 0%% of a constant concentration; in a constant concentration of 0. 01%~10. 0%%; The reaction is completed. The reaction temperature is 0. 5~24 hours, the reaction time is 0. 5~24 hours or so, the reaction is completed. The reaction temperature is 0. lwt%~40. 0wt%, the reaction temperature is 0°C~100°C, the reaction time is 0. 5~24 hours, the reaction is completed. Centrifugal cleaning, that is, a hollow sphere in which a polymer template having a burr-like substance on the surface is combined with an organic substance, the hydrophilic passage is reshaped, expanded, and even protruded from the sphere, and the inner layer of the casing generates a continuous material.
(2) . 将步骤 (1)得到的内层和通道生长材料的复合中空球分散在醇或水溶液中, 同时 加入无机物、 金属或有机物两反应组份, 控制反应物浓度, 反应产物沉积在聚合物中空球 壳体外表面, 得到在聚合物中空球壳体外表面、 内层和通道都生长材料的复合中空球。 除 去聚合物模板, 得到双层结构中空球, 即中空球中含有中空球, 但两中空球间有柱状物相 连, 内中空球不能在外中空球内运动, 两中空球同心。  (2) Dispersing the composite hollow spheres of the inner layer and the channel growth material obtained in the step (1) in an alcohol or an aqueous solution, and simultaneously adding two reaction components of an inorganic substance, a metal or an organic substance, controlling the concentration of the reactants, and depositing the reaction product in the reaction product. The outer surface of the hollow shell of the polymer obtains a composite hollow sphere in which the material is grown on the outer surface, the inner layer and the channel of the hollow shell of the polymer. In addition to the polymer template, a double-layer hollow sphere is obtained, that is, the hollow sphere contains a hollow sphere, but the two hollow spheres are connected by a column, and the inner hollow sphere cannot move in the outer hollow sphere, and the two hollow spheres are concentric.
将步骤 (1. 1)得到的内层和通道生长无机物的复合中空球分散在醇溶液中, 加入无机 物前体溶液和反应组份水溶液,控制反应液中无机物前体的浓度 0. 01wt%〜30wt%, 反应组 份水溶液的最终浓度为 0. lwt%〜50wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0 °C〜100°C, 反应时间 0. 5〜24小时, 使反应产物沉积在聚合物中空球壳体外表面, 形成 连续壳层。 反应完毕, 离心清洗, 即得到在聚合物中空球壳体外表面、 内层和通道生长无 机物的复合中空球。 除去聚合物模板, 得到双层结构无机物中空球, 即中空球中含有中空 球,得到的无机物中空球中两中空球间有无机物柱相连, 内中空球不能在外中空球内运动, 两中空球同心; 或  The inner hollow layer obtained by the step (1.1) and the composite hollow sphere of the channel growth inorganic substance are dispersed in the alcohol solution, and the inorganic precursor solution and the aqueous solution of the reaction component are added to control the concentration of the inorganic precursor in the reaction liquid. 01重量%〜40wt%, The concentration of the template particles is 0. lwt%~40wt%, the reaction temperature is 0 °C~100 °C, the reaction time is 0. 5 ~24 hours, the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell. After the reaction is completed, the mixture is centrifuged to obtain a composite hollow sphere in which the inorganic body is grown on the outer surface, the inner layer and the channel of the hollow shell of the polymer. The polymer template is removed to obtain a double-layered inorganic hollow sphere, that is, the hollow sphere contains a hollow sphere, and the obtained inorganic hollow sphere has an inorganic column connected between the two hollow spheres, and the inner hollow sphere cannot move in the outer hollow sphere, Hollow ball concentric; or
将步骤 (1. 1)得到的内层和通道生长无机物的复合中空球分散在水中, 加入金属离子 盐溶液和还原剂溶液, 控制反应液中金属离子盐浓度 0. 01wt%〜30wt%, 还原剂浓度 0. 01wt%〜30wt%,模板粒子的浓度为 0. lwt%〜40wt%,反应温度 0'C~100°C,反应时间 0. 5〜 24小时, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层。 反应完毕, 离心清 洗, 即得到在聚合物中空球壳体外表面生长金属和内层、 通道生长无机物的复合中空球。 除去聚合物模板, 得到双层结构金属-无机物中空球, 即金属中空球中含有一个无机物中 空球, 得到的双层结构中空球中两中空球间有无机物柱相连, 无机物中空球不能在金属中 空球内运动, 两中空球同心; 或  01wt%〜30重量%, The concentration of the metal ion salt in the reaction solution is 0. 01wt%~30wt%, the concentration of the metal ion salt in the reaction solution is 0. 01wt%~30wt%, 5〜24小时, The reaction product is deposited on the polymer. The concentration of the template is 0. 01wt%~30wt%, the concentration of the template particles is 0. lwt%~40wt%, the reaction temperature is 0'C~100 °C, the reaction time is 0. 5~ 24 hours, the reaction product is deposited on the polymer. The outer surface of the hollow spherical shell forms a continuous shell. After the completion of the reaction, the mixture is centrifuged to obtain a composite hollow sphere in which a metal and an inner layer and a channel-grown inorganic substance are grown on the outer surface of the polymer hollow spherical shell. The polymer template is removed to obtain a double-layered metal-inorganic hollow sphere, that is, the hollow metal sphere contains an inorganic hollow sphere, and the obtained double-layer hollow sphere has an inorganic column connected between the two hollow spheres, and the inorganic hollow sphere Can't move in the hollow metal ball, the two hollow balls are concentric; or
将步骤(1. 1)得到的内层和通道生长无机物的复合中空球分散在水中, 在反应容器中 通入惰性气体, 加入聚合物单体和引发剂溶液, 控制反应液中聚合物单体浓度 0. 01wt%〜 20wt%, 引发剂浓度 0. 01wt%〜20wt。/。, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜 100 °C , 反应时间 0. 5〜24 小时, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续 壳层。 反应完毕, 离心清洗, 即得到在聚合物中空球壳体外表面生长有机物和内层、 通道 生长无机物的复合中空球。 除去聚合物模板, 得到双层结构有机物 -无机物中空球, 即有 机物中空球中含有一个无机物中空球, 得到的双层结构中空球中两中空球间有无机物柱相 连, 无机物中空球不能在有机物中空球内运动, 两中空球同心; 或 Dispersing the inner layer and the channel-forming inorganic composite hollow sphere obtained in the step (1.1) in water, introducing an inert gas into the reaction vessel, adding the polymer monomer and the initiator solution, and controlling the polymer single in the reaction liquid. 01重量%〜20重量。 Body concentration 0. 01wt% ~ 20wt%, the initiator concentration of 0. 01wt% ~ 20wt. /. The concentration of the template particles is 0. lwt%~40wt%, the reaction temperature is 0°C~ 100 ° C, reaction time 0. 5~24 hours, the reaction product is deposited on the outer surface of the polymer hollow spherical shell to form a continuous shell. After the reaction is completed, the mixture is centrifuged to obtain a composite hollow sphere in which an organic substance and an inner layer and a channel-grown inorganic substance are grown on the outer surface of the polymer hollow spherical shell. The polymer template is removed to obtain a two-layer organic-inorganic hollow sphere, that is, the organic hollow sphere contains an inorganic hollow sphere, and the obtained double-layer hollow sphere has an inorganic column connected between the two hollow spheres, and the inorganic hollow sphere Cannot move in the hollow sphere of organic matter, the two hollow spheres are concentric; or
将步骤 (1. 2)得到的内层和通道生长金属的复合中空球分散在醇溶液中, 加入无机物 前体溶液和反应组份水溶液, 控制反应液中无机物前体的浓度 0. 01wt%〜3( rt%, 反应组份 水溶液的最终浓度为 0. lwt%〜50wt%,模板粒子的浓度为 0. lwt%〜40wt°/。, 反应温度 0°C〜 100°C, 反应时间 0. 5〜24 小时, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续 壳层。 反应完毕, 离心清洗, 即得到在聚合物中空球壳体外表面生长无机物和内层、 通道 生长金属的复合中空球。 除去聚合物模板, 得到双层结构无机物-金属中空球, 即无机物 中空球中含有一个金属中空球, 得到的双层结构中空球中两中空球间有金属柱相连, 金属 中空球不能在无机物球内运动, 两中空球同心; 或  The weight of the inorganic precursor in the reaction solution is 0. 01wt. The weight of the inorganic precursor in the reaction solution is 0. 01wt %〜3( rt%, the final concentration of the aqueous solution of the reaction component is 0. lwt% ~ 50wt%, the concentration of the template particles is 0. lwt% ~ 40wt ° /., the reaction temperature 0 ° C ~ 100 ° C, reaction time 0. 5~24 hours, the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell. After the reaction is completed, centrifugal cleaning is performed to obtain inorganic and inner layers and channel growth on the outer surface of the hollow shell of the polymer hollow shell. Metal composite hollow sphere. The polymer template is removed to obtain a two-layer structure inorganic-metal hollow sphere, that is, the inorganic hollow sphere contains a metal hollow sphere, and the obtained double-layer hollow sphere has two metal spheres connected by a hollow column. , the hollow metal sphere cannot move in the inorganic sphere, and the two hollow spheres are concentric; or
将步骤 (1. 2)得到的内层和通道生长金属的复合中空球分散在水中, 加入金属离子盐 溶液和还原剂溶液,控制反应液中金属离子盐浓度 0. 01wt%〜30wt/。,还原剂浓度 0. 01wt%〜 30wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜100°C, 反应时间 0. 5〜24小 时, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层。 反应完毕, 离心清洗, 即得到在聚合物中空球壳体外表面生长金属和内层、 通道生长金属的复合中空球。 除去聚 合物模板, 得到双层结构金属中空球, 即金属中空球中含有一个金属中空球, 得到的双层 结构中空球中两中空球间有金属柱相连, 内金属中空球不能在外中空球内运动, 两中空球 同心; 或  The ionic salt concentration of the metal ionic salt in the reaction liquid is 0.11% by weight to 30% by weight. 5〜24小时, The reaction product is deposited in the polymerization. The concentration of the template is 0. 01wt%~ 30wt%, the concentration of the template particles is 0. lwt%~40wt%, the reaction temperature is 0°C~100°C, the reaction time is 0. 5~24 hours, the reaction product is deposited in the polymerization. The outer surface of the hollow spherical shell forms a continuous shell. After the reaction is completed, the mixture is centrifuged to obtain a composite hollow sphere in which metal and inner layer and channel growth metal are grown on the outer surface of the polymer hollow spherical shell. The polymer template is removed to obtain a double-layered metal hollow sphere, that is, the metal hollow sphere contains a metal hollow sphere, and the obtained double-layer hollow sphere has a metal column connected between the two hollow spheres, and the inner metal hollow sphere cannot be in the outer hollow sphere. Movement, two hollow balls concentric; or
将步骤 (1. 2)得到的内层和通道生长金属的复合中空球分散在水中, 在反应容器中通 入惰性气体, 加入聚合物单体和引发剂溶液, 控制反应液中聚合物单体浓度 0. 01w«〜 20wt%, 引发剂浓度 0. 01wt%〜20wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜 100Ό , 反应时间 0. 5〜24小时, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续 壳层。 反应完毕, 离心清洗, 即得到在聚合物中空球壳体外表面生长有机物和内层、 通道 生长金属的复合中空球。 除去聚合物模板, 得到双层结构有机物-金属中空球, 即有机物 中空球中含有一个金属中空球, 得到的双层结构中空球中两中空球间有金属柱相连, 金属 中空球不能在有机物中空球内运动, 两中空球同心; 或  Dispersing the composite hollow sphere of the inner layer and the channel growth metal obtained in the step (1.2) in water, introducing an inert gas into the reaction vessel, adding the polymer monomer and the initiator solution, and controlling the polymer monomer in the reaction liquid. 5〜24小时, The reaction time is 0. 5~24 hours, the reaction time is 0. 5~24 hours, the reaction time is 0. 5~24 hours, the reaction time is 0. 5~24 hours, The reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell. After the completion of the reaction, the mixture is centrifuged to obtain a composite hollow sphere in which an organic substance and an inner layer and a channel are grown on the outer surface of the hollow shell of the polymer. The polymer template is removed to obtain a two-layer structure organic-metal hollow sphere, that is, the organic hollow sphere contains a metal hollow sphere, and the obtained double-layer hollow sphere has a metal column connected between the two hollow spheres, and the metal hollow sphere cannot be hollow in the organic matter. In-ball movement, two hollow balls concentric; or
将步骤 (1. 3)得到的内层和通道生长有机物的复合中空球分散在醇溶液中, 加入无机 物前体溶液和反应组份水溶液, 控制反应液中无机物前体的浓度 0. 01wt/。〜30wt%, 反应组 份水溶液的最终浓度为 0. lwt%〜50wt%, 模板粒子的浓度为 0. lwt%~40wt%, 反应温度 0 °C〜100°C, 反应时间 0. 5〜24小时, 使反应产物沉积在聚合物中空球壳体外表面, 形成 连续壳层。 反应完毕, 离心清洗, 即得到在聚合物中空球外表面生长无机物、 内层和通道 生长有机物的复合中空球。 除去聚合物模板, 得到双层结构无机物-有机物中空球, 即无 机物中空球中含有一个有机物中空球, 得到的双层结构中空球中两中空球间有有机物柱相 连, 有机物中空球不能在无机物球内运动, 两中空球同心; 或 0重量。 The concentration of the inorganic precursor in the reaction liquid is 0. 01wt /. 5〜24。 The reaction time is 0. 5~24, the reaction time is 0. 5~24 Hours, the reaction product is deposited on the outer surface of the polymer hollow sphere shell to form Continuous shell. After the reaction is completed, the mixture is centrifuged to obtain a composite hollow sphere in which an inorganic substance, an inner layer and a channel-growing organic substance are grown on the outer surface of the hollow sphere of the polymer. The polymer template is removed to obtain a two-layer structure inorganic-organic hollow sphere, that is, the inorganic hollow sphere contains an organic hollow sphere, and the obtained double-layer hollow sphere has an organic column connected between the two hollow spheres, and the organic hollow sphere cannot be Intra-spherical ball movement, two hollow balls concentric; or
将步骤 (1. 3)得到的内层和通道生长物质的有机物复合中空球分散在水中, 加入金属 离子盐溶液和还原剂溶液, 控制反应液中金属离子盐浓度 0. 01wt%〜3(kt%, 还原剂浓度 0. 01wt%〜30wt%,模板粒子的浓度为 0. lwt%〜40wt%,反应温度 0°C〜100°C ,反应时间 0. 5〜 24小时, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层。 反应完毕, 离心清 洗,即得到在聚合物中空球壳体外表面生长金属和内层、通道生长的有机物的复合中空球。 除去聚合物模板, 得到双层结构金属 -有机物中空球, 即金属中空球中含有一个有机物中 空球, 得到的双层结构中空球中两中空球间有有机物柱相连, 有机物中空球不能在金属中 空球内运动, 两中空球同心; 或  01wt%〜3(kt) The concentration of the metal ion salt in the reaction solution is 0. 01wt%~3(kt), the metal ion salt concentration in the reaction solution is 0. 01wt%~3(kt % 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约 约The outer surface of the hollow shell of the polymer forms a continuous shell. After the reaction is completed, centrifugal cleaning is performed to obtain a composite hollow sphere in which metal and inner layer and channel-grown organic matter are grown on the outer surface of the polymer hollow sphere shell. The double-layered metal-organic hollow sphere, that is, the hollow sphere of the metal contains an organic hollow sphere, and the obtained double-layer hollow sphere has an organic column connected between the two hollow spheres, and the organic hollow sphere cannot move in the hollow sphere of the metal, and the hollow Ball concentric; or
将步骤 (1. 3)得到的内层和通道生长有机物的复合中空球分散在水中, 在反应容器中 通入惰性气体, 加入聚合物单体和引发剂溶液, 控制反应液中聚合物单体浓度 0. 01wt%〜 20wt%, 引发剂浓度 0. 01wt%〜20wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C~ 100°C , 反应时间 0. 5〜24小时, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续 壳层。 反应完毕, 离心清洗, 即得到在聚合物中空球壳体外表面和内层、 通道生长有机物 的复合中空球。 除去聚合物模板, 得到双层结构有机物中空球, 即有机物中空球中含有一 个有机物中空球, 得到的双层结构中空球中两中空球间有有机物柱相连, 内中空球不能在 外中空球内运动, 两中空球同心。 六.双层结构空心球的制备方法步骤:  Dispersing the composite hollow sphere of the inner layer and the channel growth organic material obtained in the step (1.3) in water, introducing an inert gas into the reaction vessel, adding the polymer monomer and the initiator solution, and controlling the polymer monomer in the reaction liquid. 5〜24。 The concentration of 0. 01wt%~ 20wt%, the concentration of the template is 0. lwt%~40wt%, the reaction temperature 0 ° C ~ 100 ° C, the reaction time 0. 5~24 In an hour, the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell. After the reaction is completed, the mixture is centrifuged to obtain a composite hollow sphere in which organic matter is grown on the outer surface of the hollow shell of the polymer and the inner layer and the channel. The polymer template is removed to obtain a double-layered organic hollow sphere, that is, the organic hollow sphere contains an organic hollow sphere, and the obtained double-layer hollow sphere has an organic column connected between the two hollow spheres, and the inner hollow sphere cannot move in the outer hollow sphere. , the two hollow balls are concentric. 6. Preparation method of double-layer structure hollow sphere Steps:
通过表面亲水改性, 使聚合物中空球外表面也变成亲水性表面, 即得到中间层亲油, 而内层、 外表面亲氷的三层壳体, 以此种表面改性聚合物中空球代替聚合物中空球模板, 进行反应, 可一步法制得多层结构的复合中空球。 用选择性溶剂除去模板聚合物, 可制得 双层结构空心球。  Through the surface hydrophilic modification, the outer surface of the hollow sphere of the polymer also becomes a hydrophilic surface, that is, the intermediate layer is oleophilic, and the inner layer and the outer surface are three-layer shell which is ice-friendly, and the surface modification polymerization is performed. The hollow sphere replaces the polymer hollow sphere template to carry out the reaction, and the composite hollow sphere of a multi-layer structure can be produced in one step. By removing the template polymer with a selective solvent, a two-layer hollow sphere can be obtained.
将改性聚合物中空球浸泡在浓度为 0. 01wt%〜60. 0wt%的无机物前体溶液中,模板粒子 在这些溶液中保持浓度为 0. lwt%〜40. 0wt%, 使无机物前体溶液渗入改性聚合物中空球模 板的空腔和亲水层, 达到平衡后将未渗入空腔中的溶液离心洗去。 然后将得到的含无机物 前体溶液的改性聚合物中空球在搅拌下加入到反应组份水溶液中。 控制反应液中模板粒子 的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0°C〜100°C, 反应时间 0. 5〜24小时左右, 反 应完毕, 离心清洗, 即得到聚合物与无机物的多层复合中空球。 用选择性溶剂除去模板聚 合物, 可制得双层结构无机空心球; 或 先将反应组份水溶液渗入改性聚合物中空球的空腔和亲水层, 然后将得到含反应组份 水溶液的改性聚合物中空球在搅拌下加入到浓度为 0. 01wt%〜60. Owt%的无机物前体溶液 中。 控制反应液中改性聚合物中空球的浓度保持在 0. lw«〜40. 0wt%, 反应温度 0°C〜100 。C, 反应时间 0. 5〜24小时左右, 反应完毕, 离心清洗, 同样得到聚合物与无机物的多层 复合中空球。 用选择性溶剂除去模板聚合物, 可制得双层结构无机空心球。 或 Lwt%~40. 0wt%, making inorganic substances, the inorganic polymer precursors are immersed in a concentration of 0. 01wt%~60. 0wt% of the inorganic precursor solution, the template particles in the solution to maintain a concentration of 0. lwt% ~ 40. 0wt%, make inorganic substances The precursor solution penetrates into the cavity and hydrophilic layer of the modified polymer hollow sphere template, and after reaching equilibrium, the solution that has not penetrated into the cavity is centrifuged and washed away. The obtained modified polymer hollow sphere containing the inorganic precursor solution is then added to the aqueous solution of the reaction component with stirring.约约约40. 0wt%, reaction temperature 0 ° C ~ 100 ° C, reaction time 0. 5~24 hours or so, the reaction is completed, centrifugal cleaning, the polymer is obtained Multi-layer composite hollow sphere with inorganic matter. The double-layered inorganic hollow sphere can be obtained by removing the template polymer with a selective solvent; or 01wt%〜60. The weight of the modified polymer hollow spheres containing the aqueous solution of the reaction mixture was added to a concentration of 0. 01wt%~60. Owt% in the inorganic precursor solution. The temperature of the modified polymer hollow sphere is controlled to be 0. lw «~40. 0wt%, the reaction temperature is 0 ° C ~ 100. C, The reaction time is about 0.5 to 24 hours, the reaction is completed, and the mixture is centrifuged to obtain a multilayer composite hollow sphere of a polymer and an inorganic material. By removing the template polymer with a selective solvent, a two-layer inorganic hollow sphere can be obtained. or
将改性聚合物中空球浸泡在 0. 01wt%〜60. (^ %的金属离子盐溶液中,改性聚合物中空 球在这些溶液中保持浓度为 0. lwt%〜40. Owt%, 使金属离子盐溶液渗入改性聚合物中空球 的空腔和亲水层, 达到平衡后将未渗入的溶液离心洗去。 然后将得到的含金属离子盐溶液 的改性聚合物中空球在搅拌下加入到 0. 01wt%〜60. 0^%的还原剂溶液。控制反应液中模板 粒子的浓度保持在 0. lwt%〜40. 0wt%,反应温度 0°C〜100°C,反应时间 0. 5〜24小时左右, 反应完毕, 离心清洗, 即得到聚合物与金属的多层复合中空球。 用选择性溶剂除去模板聚 合物, 可制得双层结构金属空心球; 或  Lwt%〜40. Owt%, so that the modified polymer hollow spheres in the solution of the metal ion salt solution, the modified polymer hollow spheres in the solution to maintain a concentration of 0. lwt% ~ 40. Owt%, so The metal ion salt solution penetrates into the cavity and the hydrophilic layer of the modified polymer hollow sphere, and after centrifugation, the uninfiltrated solution is centrifuged and washed away. Then, the obtained modified polymer hollow sphere containing the metal ion salt solution is stirred. 0wt%〜40. 0wt%, reaction temperature 0°C~100°C, reaction time 0. 0wt%~40. 0wt%, reaction temperature 0°C~100°C, reaction time 0. 01wt%~60. 0%% of the reducing agent solution. After 5~24 hours, the reaction is completed and centrifuged to obtain a multi-layer composite hollow sphere of polymer and metal. The double-structured metal hollow sphere can be obtained by removing the template polymer with a selective solvent;
先将 0. 01wt%〜60. 0wt%的还原剂溶液渗入改性聚合物中空球粒子空腔和亲水层中,然 后将得到的含还原剂溶液的改性聚合物中空球在搅拌下加入到浓度为 0. 01wt%~60. 0wt% 的金属离子盐溶液中。 控制反应液中模板粒子的浓度保持在 0. lwt%~40. 0wt%, 反应温度 0°C〜10(TC, 反应时间 0. 5〜24小时左右, 反应完毕, 离心清洗, 同样得到聚合物与金属 的多层复合中空球。 用选择性溶剂除去模板聚合物, 可制得双层结构金属空心球。 或  0. 01wt%~60. 0wt% of the reducing agent solution is infiltrated into the hollow cavity of the modified polymer hollow sphere particles and the hydrophilic layer, and then the obtained modified polymer hollow sphere containing the reducing agent solution is added under stirring. To a concentration of 0. 01wt% ~ 60. 0wt% of the metal ion salt solution. The concentration of the template particles in the reaction solution is maintained at 0. lwt% ~ 40. 0wt%, the reaction temperature is 0 ° C ~ 10 (TC, reaction time 0. 5 ~ 24 hours or so, the reaction is completed, centrifugal cleaning, the same polymer Multi-layer composite hollow sphere with metal. The double-structured metal hollow sphere can be obtained by removing the template polymer with a selective solvent.
将改性聚合物中空球浸泡在浓度为 0. 01wt%〜40. (^ %的聚合物单体溶液中, 改性聚合 物中空球在这些溶液中保持浓度为 0. lwt%〜40. 0wt%, 使聚合物单体溶液渗入改性聚合物 中空球的空腔和亲水层, 达到平衡后将未渗入改性聚合物中空球空腔中的溶液离心洗去。 然后将得到的含聚合物单体溶液的改性聚合物中空球在搅拌下加入到 0. 01wt%〜30. 0wt% 引发剂溶液中。 在反应容器中通入惰性气体, 控制反应液中模板粒子的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0°C〜100°C, 反应时间 0. 5〜24小时左右, 反应完毕, 离心 清洗, 即得到聚合物与有机物的多层复合中空球。 用选择性溶剂除去模板聚合物, 可制得 双层结构有机空心球。 或  Lwt%~40. 0wt 0. lwt%~40. 0wt 0. lwt%~40. 0wt 0. lwt%~40. 0wt %, the polymer monomer solution is infiltrated into the cavity and hydrophilic layer of the modified polymer hollow sphere, and after reaching equilibrium, the solution not infiltrated into the hollow cavity of the modified polymer hollow is centrifuged and washed. The modified polymer hollow spheres of the monomer solution are added to 0. 01wt%~30. 0wt% in the initiator solution. The inert gas is introduced into the reaction vessel to control the concentration of the template particles in the reaction solution to be kept at 0. Lwt%~40. 0wt%, reaction temperature 0 °C ~ 100 ° C, reaction time 0. 5~24 hours or so, the reaction is completed, centrifugal cleaning, that is, a multi-layer composite hollow sphere of polymer and organic matter is obtained. The solvent removes the template polymer to produce a two-layer organic hollow sphere.
先将 0. 01wt%〜30. 0wt°/。引发剂溶液渗入改性聚合物中空球的空腔和亲水层,然后将得 到的含引发剂溶液的改性聚合物中空球在搅拌下加入到浓度为 0. 01^/。〜4(½«的聚合物 单体溶液中。在反应容器中通入惰性气体, 控制反应液中模板粒子的浓度保持在 0. lwt°/。〜 40wt%, 反应温度 0°C〜100°C, 反应时间 0. 5〜24小时左右, 反应完毕, 离心清洗, 同样 得到聚合物与有机物的多层复合中空球。 用选择性溶剂除去模板聚合物, 可制得双层结构 有机空心球。 七. 溶胀聚合法制备聚合物复合中空球的制备方法步骤: 将聚合物中空球模板粒子分散在水中, 加入单体和交联剂, 或单体和交联剂和有机溶 剂, 通过单体或有机溶剂对聚合物中空球模板壳体进行溶胀, 并将单体和引发剂引进聚合 物中空球壳层, 然后进行加聚、 缩聚或开环聚合, 在反应容器中通入惰性气体, 控制反应 液中模板粒子的浓度为 0. lwt%〜20wt%,反应物单体浓度为 0. lwt%〜20wt%, 引发剂浓度为 0.01wt%〜10wt%, 有机溶剂浓度为 0wt%〜20wt%, 溶胀时间为 0.5〜24小时, 反应温度 20 °C〜250°C, 反应时间 0.5〜48小时。 反应完毕, 离心清洗, 可制得聚合物中空球与有机物 的复合中空球。 所述聚合物中空球模板粒子的外径为 0.02Mm〜10to,空腔体积为整个微球的 10〜95%, 所釆用的合成方法有喷雾干燥法、 嵌段共聚物自组装法、 酸碱溶胀法、 动态溶胀法、 复相 乳液聚合法。 01wt%〜30. 0wt°/. 01^/。 The initiator solution is infiltrated into the cavity of the modified polymer hollow sphere and the hydrophilic layer, and then the modified polymer hollow sphere containing the initiator solution is added to a concentration of 0. 01 ^ /. 〜4 (1⁄2«) The polymer monomer solution. The inert gas is introduced into the reaction vessel, and the concentration of the template particles in the reaction solution is kept at 0. lwt ° / . ~ 40 wt%, the reaction temperature is 0 ° C ~ 100 ° C, The reaction time is about 0.5 to 24 hours, the reaction is completed, and the mixture is centrifuged to obtain a multilayer composite hollow sphere of polymer and organic matter. The template polymer can be removed by a selective solvent to obtain a two-layer organic hollow sphere. VII. Preparation method of polymer composite hollow sphere by swelling polymerization method Steps: Dispersing the polymer hollow sphere template particles in water, adding a monomer and a crosslinking agent, or a monomer and a crosslinking agent and an organic solvent, swelling the polymer hollow sphere template shell by a monomer or an organic solvent, and Lwt%〜20wt%的反应的反应。 The body and the initiator is introduced into the polymer hollow spherical shell layer, and then the polycondensation, polycondensation or ring-opening polymerization, the inert gas is introduced into the reaction vessel, the concentration of the template particles in the reaction solution is 0. lwt%~20wt%, the reaction The monomer concentration is 0. lwt%~20wt%, the initiator concentration is 0.01wt%~10wt%, the organic solvent concentration is 0wt%~20wt%, the swelling time is 0.5~24 hours, and the reaction temperature is 20 °C~250° C, reaction time 0.5 to 48 hours. After the reaction is completed and centrifuged, a composite hollow sphere of a polymer hollow sphere and an organic substance can be obtained. The outer diameter of the polymer hollow sphere template particles is 0.02Mm~10to, and the cavity volume is 10~95% of the whole microsphere. The synthetic methods used are spray drying method, block copolymer self-assembly method, acid Alkali swelling method, dynamic swelling method, multiphase emulsion polymerization method.
所述聚合物中空球模板的内层亲水性聚合物包括聚苯乙烯磺酸、 聚甲基丙烯酸、 聚丙 烯酸、 聚乙烯醇、 聚酰胺类、 聚乙烯基吡咯、 聚 (2-乙烯基吡淀)、 聚 (4-乙烯基吡啶)、 聚 甲基丙烯酸羟乙酯、 聚乙烯基酯、 聚氧乙烯或聚乙烯基氯化铵。  The inner hydrophilic polymer of the polymer hollow sphere template comprises polystyrenesulfonic acid, polymethacrylic acid, polyacrylic acid, polyvinyl alcohol, polyamide, polyvinylpyrrole, poly(2-vinylpyrrolidone). Precipitate), poly(4-vinylpyridine), polyhydroxyethyl methacrylate, polyvinyl ester, polyoxyethylene or polyvinyl ammonium chloride.
所述聚合物中空球模板的外层亲油性聚合物包括聚苯乙烯、 聚甲基丙烯酸甲酯、 聚甲 基丙烯酸乙酯、 聚甲基丙烯酸丁酯、 聚甲基丙烯酸叔丁酯、 聚甲基丙烯酸肉桂酸乙基酯、 聚丙烯酸甲酯、 聚丙烯酸乙酯、 聚丙烯酸丁酯、 聚丙烯酸叔丁酯、 聚氧丙烯、 聚二甲基硅 垸、 聚乙烯基丁酯或聚异丁烯。  The outer lipophilic polymer of the polymeric hollow sphere template comprises polystyrene, polymethyl methacrylate, polyethyl methacrylate, polybutyl methacrylate, polybutyl methacrylate, polymethyl Acrylic acid cinnamic acid ethyl ester, polymethyl acrylate, polyethyl acrylate, polybutyl acrylate, polybutyl acrylate, polyoxypropylene, polydimethylsilyl, polyvinyl butyrate or polyisobutylene.
所述用来去除聚合物模板的选择性溶剂是氯仿、 甲苯、 四氢呋喃或 N,N-二甲基甲酰胺 等。  The selective solvent for removing the polymer template is chloroform, toluene, tetrahydrofuran or N,N-dimethylformamide or the like.
所述聚合物中空球亲水改性是对市售或自制的聚合物中空球(直径为 0.02 m~10Mm, 空腔尺寸为整个微球尺寸的 10〜95%)外表面进行亲水改性, 改性方法有静电吸附、 磺化 处理、 水解反应、 表面接枝等。 ,  The hydrophilic modification of the polymer hollow sphere is carried out by hydrophilic modification of a commercially available or self-made polymer hollow sphere (having a diameter of 0.02 m to 10 Mm and a cavity size of 10 to 95% of the entire microsphere size). The modification methods include electrostatic adsorption, sulfonation treatment, hydrolysis reaction, surface grafting and the like. ,
在制备 Si02中空球或复合中空球时,所述的无机物前体溶液为 Si (0CH3) 4、Si (0CH2C¾)、 Si{0CH(C¾)2}4、 Si(0CH2C CH2CH3)4、 Na2Si03的醇溶液; 反应组份水溶液为水的醇溶液 (0. lwt°/。〜100wt%), 用 35 %浓盐酸或 25w«浓氨水调节其 PH值为 1~13。 In the preparation of the SiO 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is Si (0CH 3 ) 4 , Si (0CH 2 C3⁄4), Si{0CH(C3⁄4) 2 } 4 , Si(0CH 2 C CH 2 CH 3 ) 4 , an alcohol solution of Na 2 SiO 3 ; the aqueous solution of the reaction component is an alcoholic solution of water (0. lwt ° / ~ 100 wt%), and its P H is adjusted with 35 % concentrated hydrochloric acid or 25 w « concentrated ammonia water The value is 1~13.
在制备 Ti02中空球或复合中空球时, 所述的无机物前体溶液为 TiCl4、 Ti(0CH3)4、 Ti(0C C )4、 Ti{0CH(CH3)2}4、 Ti(0CH2CH2CH2C )4、 TiOS04的醇溶液; 反应组份水溶液为水 的醇溶液(0. lwt%〜100wt%), 用 35 %浓盐酸或 25wt%浓氨水调节其 pH值为 1〜13。 In the preparation of the Ti0 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is TiCl 4 , Ti(0CH 3 ) 4 , Ti(0C C ) 4 , Ti{0CH(CH 3 ) 2 } 4 , Ti (0CH 2 CH 2 CH 2 C ) 4 , T alcohol 0 4 alcohol solution; the reaction component aqueous solution is water alcohol solution (0. lwt% ~ 100 wt%), with 35 % concentrated hydrochloric acid or 25 wt% concentrated ammonia water to adjust its pH It is 1 to 13.
在制备 Sn02中空球或复合中空球时, 所述的无机物前体溶液为 SnCl4、 Sn(0C¾)4、 Sn(0CH2CH3)4、 Sn{0CH(CH3)2}^ Sn(0CH2CH2CH2CH3)4的醇溶液; 反应组份水溶液为水的醇溶液 (0. lwt/。〜100wt%), 用 35^%浓盐酸或 25wt°/。浓氨水调节其 pH值为 1〜13。 In the preparation of the Sn0 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is SnCl 4 , Sn(0C3⁄4) 4 , Sn(0CH 2 CH 3 ) 4 , Sn{0CH(CH 3 ) 2 }^ Sn An alcohol solution of (0CH 2 CH 2 CH 2 CH 3 ) 4 ; an aqueous solution of the reaction component is an alcoholic solution of water (0.1 wt% to 100 wt%), using 35 % concentrated hydrochloric acid or 25 wt ° /. Concentrated ammonia water adjusts its pH to 1~13.
在制备 Zr02中空球或复合中空球时, 所述的无机物前体溶液为 ZrCl4、 Zr(0CH3)4、 Zr (0C CH3) 4、 Zr {0CH(C¾) 2}4、 Zr (0C C CH2C¾)4、 Zr (S04) 2的醇溶液; 反应组份水溶液为 水的醇溶液 (0. lwt%〜10(kt%), 用 35wt%浓盐酸或 25wt°/。浓氨水调节其 pH值为 1〜13。 When preparing a Zr0 2 hollow sphere or a composite hollow sphere, the inorganic precursor solution is ZrCl 4 , Zr(0CH 3 ) 4 , Zr (0C CH 3 ) 4 , Zr {0CH(C3⁄4) 2 } 4 , Zr (0C C CH 2 C3⁄4) 4 , Zr (S0 4 ) 2 alcohol solution; the reaction component aqueous solution is water alcohol solution (0. Lwt%~10 (kt%), the pH is adjusted to 1~13 with 35wt% concentrated hydrochloric acid or 25wt%/concentrated ammonia water.
在制备 A1203中空球或复合中空球时, 所述的无机物前体溶液为 A1C13、 A1 (0CH3) 3、 A1 (0CH2CH3) 3、 A1 {0CH(C ) 2}3、 Al (0CH2CH2C CH3) 3、 Al2 (S04) 3的醇溶液; 反应组份水溶液为 水的醇溶液 (0. lwt%〜100wt%), 用 35wt% 盐酸或 25wt%浓氨水调节其 pH值为 1〜13。 In the preparation of the A1 2 0 3 hollow sphere or the composite hollow sphere, the inorganic precursor solution is A1C1 3 , A1 (0CH 3 ) 3 , A1 (0CH 2 CH 3 ) 3 , A1 {0CH(C ) 2 } 3 , Al (0CH 2 CH 2 C CH 3 ) 3 , Al 2 (S0 4 ) 3 alcohol solution; the reaction component aqueous solution is water alcohol solution (0. lwt% ~ 100wt%), with 35wt% hydrochloric acid or 25wt The concentrated ammonia water is adjusted to have a pH of 1 to 13.
在制备 V205中空球或复合中空球时,所述的无机物前体溶液为 V0 (0CH3) 3、 V0(0CH2C ) 3、 VO{0CH(CH3) 2} 3、 V0(0CH2C C¾C¾) 3的醇溶液; 反应组份水溶液为水的醇溶液 (0. lwt°/。〜 100wt%), 用 35¥«浓盐酸或 25wt°/。浓氨水调节其 pH值为 1〜13。 In the preparation of a V 2 0 5 hollow sphere or a composite hollow sphere, the inorganic precursor solution is V0 (0CH 3 ) 3 , V0(0CH 2 C ) 3 , VO{0CH(CH 3 ) 2 } 3 , V0 (0CH 2 C C3⁄4C3⁄4) 3 alcohol solution; the aqueous solution of the reaction component is an alcoholic solution of water (0. lwt ° / ~ ~ 100 wt%), with 35 ¥ « concentrated hydrochloric acid or 25wt ° /. Concentrated ammonia water adjusts its pH to 1~13.
在制备 ZnO中空球或复合中空球时, 所述的无机物前体溶液为 Zn (N03) 2、 Zn (00CCH3) 2、 ZnCl2、 Zn (CI ) 2的醇溶液; 反应组份水溶液为碱的水或醇溶液 (0. 01wt°/a〜30wtt), 如氢 氧化钠、 氢氧化钾或氨水。 In the preparation of the ZnO hollow sphere or the composite hollow sphere, the inorganic precursor solution is an alcohol solution of Zn(N0 3 ) 2 , Zn (00CCH 3 ) 2 , ZnCl 2 , Zn (CI ) 2 ; It is a water or alcohol solution of alkali (0. 01wt ° / a ~ 30wtt), such as sodium hydroxide, potassium hydroxide or ammonia.
在制备 TO3中空球或复合中空球时, 所述的无机前体溶液为 (NH4) 6H2W12041、 NaW03的水 溶液; 反应组份水溶液为水的醇溶液(0. 1wt〜100wt%),用 35^%浓盐酸或 25^%浓氨水调 节其 pH值为 1〜13。 In the preparation of the TO 3 hollow spheres or the composite hollow spheres, the inorganic precursor solution is an aqueous solution of (NH 4 ) 6 H 2 W 12 0 41 , NaW0 3 ; ~100wt%), the pH is adjusted to 1~13 with 35% concentrated hydrochloric acid or 25% concentrated ammonia water.
在制备 Mo03中空球或复合中空球时, 所述的无机物前体溶液为 Mo03 2 0水溶液; 反 应组份水溶液为水的醇溶液(0. lwt%〜100wt%), 用 35 %浓盐酸或 25wt%浓氨水调节其 pH 值为 1〜13。 In the preparation of the Mo0 3 hollow sphere or the composite hollow sphere, the inorganic precursor solution is an aqueous solution of Mo 0 3 2 0; the aqueous solution of the reaction component is an aqueous alcohol solution (0. lwt% to 100 wt%), with a concentration of 35 % Hydrochloric acid or 25 wt% concentrated aqueous ammonia is adjusted to have a pH of 1 to 13.
在制备 Al (OH) 3或 Mg (OH) 2中空球或复合中空球时,所述的无机物前体溶液为可溶性铝、 镁的氯化物或硫酸盐的水溶液; 反应组份水溶液为碱的水溶液(0. 01wt%〜30wt%), 如氢氧 化钠、 氢氧化钾或氨水。 In the preparation of Al (OH) 3 or Mg (OH) 2 hollow spheres or composite hollow spheres, the inorganic precursor solution is an aqueous solution of soluble aluminum, magnesium chloride or sulfate; the aqueous solution of the reaction component is alkali Aqueous solution (0.11% by weight to 30% by weight) such as sodium hydroxide, potassium hydroxide or ammonia.
在制备生物矿化材料 CaC03、 Cai。(P04)e(0H) 2、 CaS04, 或 BaS04中空球或复合中空球时, 所述的无机物前体溶液为 Ca(0H) 2、 CaCl2、 Ba(0H) 2、 或 BaCl2的水溶液; 反应组份水溶液 为含 C03 2—、 P0—、 SO—的 Na+、 或 K+盐或者 H2C03、 H3P04、 ¾504的水溶液(0. 01wt°/。〜30wt%)。 In the preparation of biomineralized materials CaC0 3 , C ai . (P0 4 ) e (0H) 2 , CaS0 4 , or BaS0 4 hollow sphere or composite hollow sphere, the inorganic precursor solution is Ca(0H) 2 , CaCl 2 , Ba(0H) 2 , or BaCl 2的水溶液; The aqueous solution of the reaction component is a solution of C0 3 2 —, P0—, SO—Na+, or K + salt or H 2 C0 3 , H 3 P0 4 , 3⁄450 4 (0. 01wt°/.~ 30wt%).
在制备半导体硫化物中空球或复合中空球时, 所述的无机物前体溶液为相应金属阳离 子的可溶性盐的水溶液, 如氯化物、 硝酸盐、 硫酸盐; 反应组份水溶液为硫化钠、 硫脲的 水溶液(0. 01wt°/。〜30wt%)。  In the preparation of a semiconductor sulfide hollow sphere or a composite hollow sphere, the inorganic precursor solution is an aqueous solution of a soluble salt of a corresponding metal cation, such as a chloride, a nitrate, or a sulfate; the aqueous solution of the reaction component is sodium sulfide, sulfur An aqueous solution of urea (0. 01wt ° / ~ ~ 30wt%).
在制备半导体硒化物或碲化物中空球或复合中空球时, 所述的无机物前体溶液为金属 阳离子的可溶性盐的水溶液, 如氯化物、 硝酸盐、 硫酸盐; 反应组份水溶液为硒化钠或碲 化钠的水溶液 (0. 01wt%〜30wt°/。)。 .  In the preparation of a semiconductor selenide or telluride hollow sphere or a composite hollow sphere, the inorganic precursor solution is an aqueous solution of a soluble salt of a metal cation such as chloride, nitrate or sulfate; and the aqueous solution of the reaction component is selenized. An aqueous solution of sodium or sodium hydride (0.11% by weight to 30% by weight). .
在制备磁性化合物如 Fe304、 Fe203和含锌、 锰、 钴、 镍、 铜、 镁的铁氧体中空球或复合 中空球时, 所述的无机物前体溶液为 Fe2+、 Fe3+、 Zn2\ Mn2+、 Co2\ Ni2+、 Cu2+、 Mg2+的可溶盐 的水溶液(如氯化物、硝酸盐、硫酸盐);反应组份水溶液为碱的水溶液(0. 01wt%~30wt%), 如氢氧化钠、 氢氧化钾或氨水, 或为水合肼溶液 (hrt%〜6(kt%)。 在制备金属如 Au、 Ag、 Pt、 Pd、 Pb、 Ni、 Co、 Cu、 Fe中空球或复合中空球时, 所述的 金属离子盐溶液为相应金属离子可溶性盐的水溶液, 如高氯酸盐、 氯化物、 硝酸盐、 硫酸 盐; 还原剂溶液为还原剂的水溶液, 如 NaB 、 LiB (C2H5) 3H、 N2 的水溶液。 In the preparation of magnetic compounds such as Fe 3 0 4 , Fe 2 0 3 and ferrite hollow spheres or composite hollow spheres containing zinc, manganese, cobalt, nickel, copper, magnesium, the inorganic precursor solution is Fe 2 An aqueous solution of a soluble salt of + , Fe 3+ , Zn 2 \ Mn 2+ , Co 2 \ Ni 2+ , Cu 2+ , Mg 2+ (such as chloride, nitrate, sulfate); An aqueous solution of an alkali (0.11% by weight to 30% by weight), such as sodium hydroxide, potassium hydroxide or aqueous ammonia, or a hydrazine hydrate solution (hrt%~6 (kt%)). In the preparation of a metal such as Au, Ag, Pt, Pd, Pb, Ni, Co, Cu, Fe hollow spheres or composite hollow spheres, the metal ion salt solution is an aqueous solution of a corresponding metal ion soluble salt, such as perchlorate. , chloride, nitrate, sulfate; the reducing agent solution is an aqueous solution of a reducing agent, such as an aqueous solution of NaB, LiB (C 2 H 5 ) 3 H, N 2 .
在制备导电聚合物如聚苯胺、 聚吡咯、 聚噻吩、 聚对苯乙炔及其衍生物中空球或复合 中空球时, 所述的聚合物单体溶液为相应单体的水或醇溶液; 引发剂溶液为过硫酸钾、 过 硫酸铵、 三氯化铁的水溶液。  In the preparation of a conductive polymer such as polyaniline, polypyrrole, polythiophene, polyparaphenylene acetylene and its derivative hollow sphere or composite hollow sphere, the polymer monomer solution is a water or alcohol solution of the corresponding monomer; The solution is an aqueous solution of potassium persulfate, ammonium persulfate or ferric chloride.
在制备敏感性凝胶如聚 N -异丙基丙烯酰胺、 聚丙烯酸、 聚甲基丙烯酸中空球或复合 中空球时, 所述的聚合物单体溶液为单体 N -异丙基丙烯酰胺、 丙烯酸、 甲基芮烯酸或者 其水或醇溶液; 引发剂溶液为过硫酸钾、 过硫酸铵的水溶液。  In the preparation of a sensitive gel such as poly N-isopropylacrylamide, polyacrylic acid, polymethacrylic hollow spheres or composite hollow spheres, the polymer monomer solution is a monomeric N-isopropylacrylamide, Acrylic acid, methyl decenoic acid or its water or alcohol solution; the initiator solution is an aqueous solution of potassium persulfate or ammonium persulfate.
在制备多物质复合中空球时, 所述的复合包括无机物、 金属、 有机物内的复合如 Ti02 和 Si02、 Ti0^n Sn02、 Ti02和 ZnO、 金和银、 钯和镍等, 也包括无机物、金属和有机物之间 的复合如二氧化钛和四氧化三铁、 聚苯胺和三氧化二铁、 聚丙烯酸和银。 In the preparation of the multi-material composite hollow sphere, the composite includes inorganic, metal, organic composites such as Ti0 2 and SiO 2 , Ti0^n SnO 2 , TiO 2 and ZnO, gold and silver, palladium and nickel, and the like. Also included are inorganic, metal and organic complexes such as titanium dioxide and triiron tetroxide, polyaniline and ferric oxide, polyacrylic acid and silver.
所述的惰性气体是氮气或氩气等。  The inert gas is nitrogen or argon or the like.
所述的醇溶液是甲醇、 乙醇、 丙醇、 异丙醇、 丁醇等。  The alcohol solution is methanol, ethanol, propanol, isopropanol, butanol or the like.
所述的壳体溶胀聚合法可用来制备高性能聚合物的中空球或复合中空球, 如交联聚苯 乙烯、 聚丙烯酸酯、 聚氨酯、 酚醛树脂、 不饱和聚酯、 环氧树脂、 聚酰亚胺、 聚醚酮或聚 醚砜类中空球或复合中空球。  The shell swelling polymerization method can be used to prepare high performance polymer hollow spheres or composite hollow spheres, such as crosslinked polystyrene, polyacrylate, polyurethane, phenolic resin, unsaturated polyester, epoxy resin, polyacyl. Imine, polyether ketone or polyether sulfone hollow sphere or composite hollow sphere.
所述的制备交联聚苯乙烯、聚丙烯酸酯中空球或复合中空球的交联剂为偶氮二异丁腈、 偶氮二异庚腈、 过氧化二苯甲酰、 过氧化二碳酸二异丙酯、 过硫酸钾或过硫酸铵; 单体为 苯乙烯、 二乙烯基苯、 丙烯酸甲酯、 丙烯酸乙酯、 丙烯酸丙酯或丙烯酸丁酯;  The cross-linking agent for preparing cross-linked polystyrene, polyacrylate hollow sphere or composite hollow sphere is azobisisobutyronitrile, azobisisoheptanenitrile, dibenzoyl peroxide, peroxydicarbonate Isopropyl ester, potassium persulfate or ammonium persulfate; the monomer is styrene, divinylbenzene, methyl acrylate, ethyl acrylate, propyl acrylate or butyl acrylate;
所述的制备聚氨酯中空球或复合中空球的交联剂为聚醚二醇、 聚酯二醇或 1, 4-丁二 醇; 单体为六亚甲基二异氰酸酯或甲苯二异氰酸酯;  The crosslinking agent for preparing the polyurethane hollow sphere or the composite hollow sphere is polyether diol, polyester diol or 1, 4-butanediol; the monomer is hexamethylene diisocyanate or toluene diisocyanate;
所述的制备酚醛树脂中空球或复合中空球的交联剂为苯酚、 邻甲酚、 对甲酚、 间苯二 酚或双酚 A; 单体为甲醛、 三聚甲醛、 乙醛、 三聚乙醛或糠醛;  The crosslinking agent for preparing the phenolic resin hollow sphere or the composite hollow sphere is phenol, o-cresol, p-cresol, resorcin or bisphenol A; the monomer is formaldehyde, trioxane, acetaldehyde, trimer Acetaldehyde or furfural;
所述的制备不饱和聚酯中空球或复合中空球的交联剂为乙二醇、丙二醇、 1, 3 -丁二醇、 聚醚二醇或聚酯二醇; 单体为马来酸酑;  The crosslinking agent for preparing the unsaturated polyester hollow sphere or the composite hollow sphere is ethylene glycol, propylene glycol, 1, 3-butanediol, polyether diol or polyester diol; the monomer is bismuth maleate ;
所述的制备环氧树脂中空球或复合中空球的交联剂为六亚甲基二异氤酸酯、 甲苯二异 氰酸酯、 邻苯二甲酸酐、 苯酐、 马来酸酐、 乙二胺、 己二胺或三甲基四胺; 单体为双酚 A 环氧或酚醛环氧;  The crosslinking agent for preparing the epoxy resin hollow sphere or the composite hollow sphere is hexamethylene diisodecanoate, toluene diisocyanate, phthalic anhydride, phthalic anhydride, maleic anhydride, ethylenediamine, and hexan An amine or trimethyltetramine; the monomer is bisphenol A epoxy or phenolic epoxy;
所述的制备聚酰亚胺中空球或复合中空球的交联剂为对苯二胺或己二胺; 单体为双马 来酸酐或均苯四甲酸酐;  The crosslinking agent for preparing the polyimide hollow sphere or the composite hollow sphere is p-phenylenediamine or hexamethylenediamine; the monomer is bismaleic anhydride or pyromellitic anhydride;
所述的制备聚醚酮或聚醚砜类中空球或复合中空球的交联剂为 4, 4-二氟二苯酮或 4, 4 -二氯二苯砜; 单体为对苯二酚或四甲基联苯二酚。 所述用来对聚合物中空球壳体进行溶胀的有机溶剂是氯仿、 苯、 甲苯、 二甲苯、 四氢 呋喃、 Ν, Ν-二甲基甲酰胺、 Ν, Ν-二甲基乙酰胺、 二甲基亚砜、 丙酮、 环己烷。 本发明制备的复合中空球和中空球具有广泛的用途-The crosslinking agent for preparing the polyether ketone or the polyether sulfone hollow sphere or the composite hollow sphere is 4,4-difluorobenzophenone or 4,4-dichlorodiphenyl sulfone; the monomer is hydroquinone Or tetramethylbiphenyldiol. The organic solvent used to swell the polymer hollow spherical shell is chloroform, benzene, toluene, xylene, tetrahydrofuran, hydrazine, hydrazine-dimethylformamide, hydrazine, hydrazine-dimethylacetamide, dimethyl Sulfone, acetone, cyclohexane. The composite hollow spheres and hollow spheres prepared by the invention have wide applications -
(1) .利用银、 铂、 钯、 镍等的催化性能, 制备高性能催化剂, 可制成催化剂材料空心 球。 催化剂空心球由纳米颗粒组成,.有大的比表面积也保证了液体气体的流通性。 (1). Using a catalytic property of silver, platinum, palladium, nickel, etc., a high-performance catalyst can be prepared to form a hollow sphere of a catalyst material. The catalyst hollow sphere is composed of nanoparticles, and the large specific surface area also ensures the liquidity of the liquid gas.
(2) .利用其空腔可作为胶囊材料, 应用于各个领域的物质传输和缓释性控制, 利用磁 性材料和敏感性凝胶, 可得到智能性胶囊; 可作为微反应器, 研究物质的受限反应或控制 其条件反应性来制备响应性材料。  (2). Using its cavity as a capsule material, it can be applied to various fields of material transport and sustained release control, using magnetic materials and sensitive gels to obtain intelligent capsules; as a microreactor, researching substances Responsive materials are prepared by limiting the reaction or controlling their conditional reactivity.
(3) .由于壳层物质之间及其与空气之间较高的折光指数差, 可作为增白剂; 利用二氧 化钛、 氧化铁等氧化物的颜料和紫外线吸收性, 可作为防紫外线添加剂和色母粒; 利用其 密度低的特点可作为轻质填料, 广泛用于塑料、 涂料、 油墨、 打印材料、 造纸和化妆品行 业。 '  (3). It can be used as a whitening agent due to the high refractive index difference between the shell materials and the air; using pigments such as titanium oxide and iron oxide and ultraviolet absorption, it can be used as an anti-UV additive and Masterbatch; It can be used as a lightweight filler due to its low density. It is widely used in the plastics, coatings, inks, printing materials, paper and cosmetics industries. '
(4) .氧化锌、 硫化镉等半导体利用其紫外光强吸收性和光电转换特性, 可用作太阳能 电池材料, 还可用作光催化材料, 广泛用在抗菌除臭、 污水处理、 净化废气、 光解水等方 面, 还可用作气体传感器、 介电陶瓷。  (4) Semiconductors such as zinc oxide and cadmium sulfide can be used as solar cell materials by utilizing their ultraviolet light absorption and photoelectric conversion properties, and can also be used as photocatalytic materials, which are widely used in antibacterial deodorization, sewage treatment, and purification of exhaust gas. , Photolysis water, etc., can also be used as gas sensors, dielectric ceramics.
(5) .可用来制备可控聚合物胶囊。 通过静电吸附和聚合反应, 可在聚合物模板孔通道 复合敏感性功能物质, 如水凝胶、 光敏物质、 磷脂分子和蛋白质分子, 从而实现智能开关 过程。  (5). Can be used to prepare controllable polymer capsules. Through electrostatic adsorption and polymerization, complex sensing functional substances such as hydrogels, photosensitizers, phospholipid molecules and protein molecules can be combined in the polymer template pore channel to achieve intelligent switching processes.
(6) .利用导电高聚物的导电性和氧化还原可逆性, 可制备电极活性材料、 电化学催化 活性材料、金属防腐材料、化学或电化学可调气体分离膜、 电致变色元件、生物传感器等。  (6). Using the conductivity and redox reversibility of the conductive polymer, an electrode active material, an electrochemical catalytic active material, a metal anticorrosive material, a chemical or electrochemically adjustable gas separation membrane, an electrochromic element, a living body can be prepared. Sensors, etc.
(7) .功能性材料还可用作绝缘材料、绝热材料、 吸音材料、 导电材料、有序磁性材料、 光电功能材料等。 本发明的制备方法及产品特点如下:  (7) Functional materials can also be used as insulating materials, thermal insulation materials, sound absorbing materials, conductive materials, ordered magnetic materials, photoelectric functional materials, and the like. The preparation method and product features of the invention are as follows:
(1) .本发明的制备方法具有广泛的适应性, 可制备一系列不同材质和形态的中空球和 复合中空球;  (1) The preparation method of the invention has wide adaptability, and can prepare a series of hollow spheres and composite hollow spheres of different materials and forms;
(2) . 本发明的中空球和复合中空球不仅具有良好的分散性, 还具有很好的强度禾口尺 寸稳定性;  (2) The hollow sphere and the composite hollow sphere of the present invention not only have good dispersibility, but also have good strength and dimensional stability;
(3) . 所制的中空球和复合中空球的尺寸可在 101〜104ΓΜ范围内调节; (3) The size of the prepared hollow sphere and composite hollow sphere can be adjusted within the range of 10 1 to 10 4 ;;
(4) . 中空球和复合中空球的形态可调, 组成和壳体厚度可控;  (4) The shape of the hollow sphere and the composite hollow sphere is adjustable, and the composition and thickness of the casing are controllable;
(5) . 制备工艺简单, 原料转化率高。 下面结合实施例及附图详述本发明: (5) . The preparation process is simple and the conversion rate of raw materials is high. The present invention will be described in detail below with reference to the embodiments and the accompanying drawings:
附图说明 DRAWINGS
图 1. 本发明实施例应用的聚合物中空球模板示意图。  Figure 1. Schematic diagram of a polymer hollow sphere template applied in an embodiment of the present invention.
图 2. 本发明实施例 1的聚苯乙烯-聚丙烯 /二氧化钛酸复合中空球的透射电镜照片。 图 3. 本发明实施例 1的二氧化钛中空球的透射电镜照片。  Figure 2. Transmission electron micrograph of a polystyrene-polypropylene/titanium oxide composite hollow sphere of Example 1 of the present invention. Fig. 3. Transmission electron micrograph of a titanium dioxide hollow sphere of Example 1 of the present invention.
图 4. 本发明实施例 8的二氧化钛四氧化三铁复合中空球的扫描电镜照片。  Fig. 4. Scanning electron micrograph of a titanium oxide tetragonal iron oxide composite hollow sphere of Example 8 of the present invention.
图 5.本发明实施例 10的毛刺型二氧化钛 /聚苯乙烯 -聚丙烯酸复合中空球的扫描电镜 照片。  Figure 5 is a scanning electron micrograph of a burr type titanium dioxide/polystyrene-polyacrylic composite hollow sphere of Example 10 of the present invention.
图 6. 本发明实施例 19的二氧化硅 /二氧化钛双层结构中空球的透射电镜照片。 具体实施方式  Figure 6. Transmission electron micrograph of a silica/titania double-layer hollow sphere of Example 19 of the present invention. detailed description
实施例 1聚苯乙烯-聚丙烯酸 /二氧化钛复合中空球及二氧化钛中空球的制备 Example 1 Preparation of Polystyrene-Polyacrylic Acid/Titanium Dioxide Composite Hollow Sphere and Titanium Dioxide Hollow Sphere
聚苯乙烯-聚丙烯酸中空球模板, 中空球壳体外层为聚苯乙烯, 内层为聚丙烯酸, 其 外径为 500rai, 壳层的厚度为 100nm。 取 0. lg模板粒子分散到 lg钛酸四丁酯中, 饱和吸 附 4小时, 将吸附了钛酸四丁酯的中空球用高速离心机沉降下来, 加入 10g水的乙醇溶液 (40wt%), 水解反应 4小时, 得到以聚苯乙烯 -聚丙烯酸中空球为模板, 二氧化钛生长在 壳体内层的复合中空球。 将此复合结构的中空球用氯仿除去聚苯乙烯和聚丙烯酸后, 得到 二氧化钛的中空球, 透射电镜的结果表明, 此中空的二氧化钛球由 30 50nm颗粒组成, 壳厚为 60nm, 空腔的大小为 250nm  The polystyrene-polyacrylic hollow sphere template has a polystyrene outer layer of polystyrene and an inner layer of polyacrylic acid having an outer diameter of 500 rai and a shell thickness of 100 nm. 0. lg template particles were dispersed in lg tetrabutyl titanate, saturated adsorption for 4 hours, the hollow spheres adsorbed tetrabutyl titanate were sedimented by a high-speed centrifuge, and 10 g of water in ethanol (40 wt%) was added. The hydrolysis reaction was carried out for 4 hours to obtain a composite hollow sphere in which titanium dioxide was grown in the inner layer of the shell using polystyrene-polyacrylic acid hollow spheres as a template. The hollow sphere of this composite structure was removed from polystyrene and polyacrylic acid with chloroform to obtain hollow spheres of titanium dioxide. The results of transmission electron microscopy showed that the hollow titania sphere consisted of 30 50 nm particles with a shell thickness of 60 nm and the size of the cavity. 250nm
或将制得的复合中空球在 45CTC烧结 2小时, 得到结晶二氧化钛的中空球, XRD的结 果表明其晶型为锐钛矿型; 将复合中空球在 600'C烧结 2小时, 得到结晶二氧化钛的中空 球, XRD的结果表明其晶型为锐钛矿和金红石复合型。 实施例 2聚苯乙烯-聚甲基丙烯酸 /磁性四氧化三铁复合中空球及四氧化三铁中空球的制备 O. lg聚苯乙烯-聚甲基丙烯酸中空结构的乳液颗粒, 其外径为 lOOOran, 壳层的厚度为 150nm, 分散到 lg的 25 «氯化铁和 19^%氯化亚铁混和溶液中, 饱和吸附 4小时, 将吸 附了溶液的聚合物中空球用高速离心机离心沉降, 再分散于 10g的 15wt°/。氨水, 水解反应 4小时,得到以聚苯乙烯-聚甲基丙烯酸中空球为模板, 四氧化三铁生长在壳体内层的复合 中空球。 将此复合结构的中空球用氯仿除去聚苯乙烯和聚甲基丙烯酸后, 得到四氧化三铁 的中空球。 透射电镜的结果表明, 此中空的四氧化三铁球由 50~100nm颗粒组成, 壳厚为 200nm, 空腔的大小为 400 实施例 3聚甲基丙烯酸甲酯-聚丙烯酸 /碳酸钙复合中空球及碳酸钙中空球的制备 O. lg聚甲基丙烯酸甲酯-聚丙烯酸中空结构的乳液颗粒, 其外径为 100nm, 壳层的厚 度为 20nm, 分散到 15wt%的氯化钙溶液中, 饱和吸附 4小时, 将吸附了氯化钙溶液的中空 球用高速离心机离心沉降, 分散到 10g 15wt%的碳酸钠水溶液中, 用 25wt %的氨水调节 pH 值至 9, 反应 4小时, 得到以聚甲基丙烯酸甲酯-聚丙烯酸中空球为模板碳酸钙生长在壳体 内层的复合中空球。 将此复合中空球用氯仿除去聚甲基丙烯酸甲酯和聚丙烯酸后, 得到碳 酸钙的中空球。透射电镜的结果表明, 此中空的碳酸钙球由 20nm颗粒组成, 壳厚为 20nm, 空腔的大小为 20nra。 ' 实施例 4聚苯乙烯-聚丙烯酸 /硫化镉复合中空球及硫化镉中空球的制备 Or the prepared composite hollow spheres are sintered at 45 CTC for 2 hours to obtain hollow spheres of crystalline titania, and the XRD results indicate that the crystal form is anatase; the composite hollow spheres are sintered at 600 ° C for 2 hours to obtain crystalline titanium dioxide. Hollow spheres, XRD results show that the crystal form is anatase and rutile composite. Example 2 Preparation of polystyrene-polymethacrylic acid/magnetic ferroferric oxide composite hollow spheres and ferroferric oxide hollow spheres O. lg polystyrene-polymethacrylic acid hollow structure emulsion particles, the outer diameter of which is lOOOran, the thickness of the shell layer is 150nm, dispersed in lg of 25 « ferric chloride and 19%% ferrous chloride mixed solution, saturated adsorption for 4 hours, the polymer hollow spheres with adsorbed solution are centrifuged by high-speed centrifuge , redispersed in 10g of 15wt ° /. Ammonia water was hydrolyzed for 4 hours to obtain a composite hollow sphere in which polystyrene-polymethacrylic acid hollow spheres were used as a template and ferroferric oxide was grown in the inner layer of the shell. The hollow sphere of this composite structure was subjected to removal of polystyrene and polymethacrylic acid with chloroform to obtain a hollow sphere of triiron tetroxide. The results of transmission electron microscopy showed that the hollow triiron tetroxide consisted of 50-100 nm particles with a shell thickness of 200 nm and a cavity size of 400. Example 3 Polymethyl methacrylate-polyacrylic acid/calcium carbonate composite hollow sphere And preparation of calcium carbonate hollow spheres O. lg polymethyl methacrylate-polyacrylic acid hollow structure emulsion particles, the outer diameter of which is 100nm, the thickness of the shell layer is 20nm, dispersed in 15wt% calcium chloride solution, saturated adsorption for 4 hours, will be adsorbed The hollow spheres of the calcium chloride solution were centrifuged by a high-speed centrifuge, dispersed in 10 g of a 15 wt% aqueous solution of sodium carbonate, and the pH was adjusted to 9 with 25 wt% of ammonia water for 4 hours to obtain polymethyl methacrylate-poly. The acrylic hollow sphere is a composite hollow sphere in which the template calcium carbonate is grown in the inner layer of the shell. The composite hollow spheres were subjected to removal of polymethyl methacrylate and polyacrylic acid with chloroform to obtain hollow spheres of calcium carbonate. The results of transmission electron microscopy showed that the hollow calcium carbonate sphere consisted of 20 nm particles with a shell thickness of 20 nm and a cavity size of 20 nra. 'Example 4 Preparation of polystyrene-polyacrylic acid/cadmium sulfide composite hollow spheres and cadmium sulfide hollow spheres
O. lg聚苯乙烯-聚丙烯酸中空结构的乳液颗粒,其外径为 300nm, 壳层的厚度为 60nm, 分散到 2(kt%的硝酸镉水溶液中,饱和吸附 24小时,将吸附了溶液的中空球用高速离心机 离心沉降, 分散到 10g 20wt%的硫化钠水溶液中, 反应 4小时, 得到以聚苯乙烯-聚丙烯酸 中空球为模板硫化镉生长在壳体内层的复合中空球。 将此复合中空球用四氢呋喃除去聚苯 乙烯和聚丙烯酸后,得到硫化痛的中空球。透射电镜的结果表明,此中空的碳酸钙球由 30nm 颗粒组成, 壳厚为 40nm, 空腔的大小为 120醒。 实施例 5聚苯乙烯-聚 2-乙烯基吡啶 /银复合中空球及银中空球的制备  O. lg polystyrene-polyacrylic acid hollow structure emulsion particles, the outer diameter of 300nm, the thickness of the shell layer is 60nm, dispersed into 2 (kt% cadmium nitrate aqueous solution, saturated adsorption for 24 hours, will adsorb the solution The hollow spheres were centrifugally sedimented by a high-speed centrifuge, dispersed in 10 g of a 20 wt% aqueous solution of sodium sulfide, and reacted for 4 hours to obtain a composite hollow sphere in which cadmium sulfide was grown in the inner layer of the shell by using polystyrene-polyacrylic acid hollow spheres as a template. After the composite hollow spheres were removed from polystyrene and polyacrylic acid with tetrahydrofuran, a hollow sphere of sulfidation pain was obtained. The results of transmission electron microscopy showed that the hollow calcium carbonate sphere consisted of 30 nm particles with a shell thickness of 40 nm and a cavity size of 120 awake. Example 5 Preparation of Polystyrene-Poly-2-vinylpyridine/Silver Composite Hollow Sphere and Silver Hollow Sphere
0. lg聚苯乙烯-聚 2-乙烯基吡啶中空结构的乳液颗粒, 其外径为 100皿, 壳层的厚度 为 20nm, 分散到 15wt%的硝酸银溶液中, 饱和吸附 4小时, 将吸附了硝酸银溶液的聚合物 中空球用高速离心机离心沉降, 再分散于 10g 20 t %的水合肼, 水解反应 4小时, 得到以 聚苯乙烯-聚 2-乙烯基吡啶中空球为模板, 银颗粒生长在壳体内表面的复合中空球。 将此 复合结构的中空球用四氢呋喃除去聚苯乙烯和聚 2-乙烯基吡啶后, 得到 lOnm的银颗粒。 增加硝酸银溶液的浓度,可使银颗粒在内层形成连续的壳层,除去模板后可得到由银颗粒 组成的空心球。 此银中空球由 lOnm颗粒组成, 壳厚为 20nm, 空腔的大小为 40nm。 实施例 6聚甲基丙烯酸甲酯-聚丙烯酸 /聚 N-异丙基丙烯酰胺复合中空球及聚 N-异丙基丙 烯酰胺中空球的制备 0. lg polystyrene-poly 2 vinyl pyridine hollow structure emulsion particles, the outer diameter of 100 dishes, the thickness of the shell layer is 20nm, dispersed in 15wt% silver nitrate solution, saturated adsorption for 4 hours, will adsorb The polymer hollow spheres of the silver nitrate solution were sedimented by a high-speed centrifuge, dispersed in 10 g of 20 t% hydrazine hydrate, and hydrolyzed for 4 hours to obtain a polystyrene-poly-2-vinylpyridine hollow sphere as a template. A composite hollow sphere of silver particles grown on the inner surface of the shell. After removing the polystyrene and the poly-2-vinylpyridine from the hollow sphere of this composite structure with tetrahydrofuran, silver particles of lOnm were obtained. Increasing the concentration of the silver nitrate solution allows the silver particles to form a continuous shell layer in the inner layer, and after removing the template, a hollow sphere composed of silver particles can be obtained. The silver hollow sphere is composed of lOnm particles having a shell thickness of 20 nm and a cavity size of 40 nm. Example 6 Preparation of polymethyl methacrylate-polyacrylic acid/poly N-isopropylacrylamide composite hollow spheres and poly N-isopropylacrylamide hollow spheres
O. lg聚甲基丙烯酸甲酯-聚丙烯酸中空结构的乳液颗粒, 其外径为 5000nm, 壳层的厚 度为 500nm, 分散到 10g水中, 加入 0. 5g的 N-异丙基丙烯酰胺, 0. 05gN, N-二甲基双丙烯 酰胺。 充入氮气 30min后, 加入 0. 1 %的过硫酸铵水溶液 0. 01g。 升温至 70Ό, 搅拌下反 应 8 h, 得到聚甲基丙烯酸甲酯-聚丙烯酸和聚 N-丙基丙烯酰胺的复合中空球。 将此复合 中空球用氯仿除去聚甲基丙烯酸甲酯和聚丙烯酸后,得到中空的温敏性的聚 N-异丙基丙烯 酰胺中空球。 实施例 7聚苯乙烯-聚丙烯酸 /聚苯胺复合中空球及聚苯胺中空球的制备 Og isopropyl amide, 0. 5g of N-isopropyl acrylamide, 0. 5g of N-isopropyl acrylamide, 0. 5g of N-isopropyl acrylamide, 0 . 05gN, N-dimethylbisacrylamide. 0克。 After adding 0. 01g. The temperature was raised to 70 Torr, and the reaction was carried out for 8 hours with stirring to obtain a composite hollow sphere of polymethyl methacrylate-polyacrylic acid and poly-N-propyl acrylamide. This composite hollow sphere was subjected to removal of polymethyl methacrylate and polyacrylic acid with chloroform to obtain a hollow temperature-sensitive poly N-isopropylacrylamide hollow sphere. Example 7 Preparation of Polystyrene-Polyacrylic Acid/Polyaniline Composite Hollow Sphere and Polyaniline Hollow Sphere
O. lg聚苯乙烯 -聚丙烯酸中空结构的乳液颗粒, 其外径为 400nm, 壳层的厚度为 80nm, 加入 lg 22. 8%的过硫酸铵水溶液, 搅拌 4小时, 离心清洗再分散到 10g水中, 加入 0. 8g 苯胺。 室温下反应 24小时, 得到聚苯乙烯 -聚丙烯酸 /聚苯胺复合中空球。 将此复合结构 的中空球用氯仿除去聚苯乙烯和聚丙烯酸后, 得到聚苯胺中空球。 实施例 8聚苯乙烯-聚丙烯酸 /二氧化钛磁性四氧化三铁复合中空球及二氧化钛四氧化三铁 复合中空球的制备  O. lg polystyrene-polyacrylic acid hollow structure emulsion particles, the outer diameter of which is 400nm, the thickness of the shell layer is 80nm, adding lg 22.8% aqueous ammonium persulfate solution, stirring for 4 hours, centrifuging and then dispersing to 10g 0克苯胺。 In water, 0. 8g aniline. The reaction was carried out at room temperature for 24 hours to obtain a polystyrene-polyacrylic acid/polyaniline composite hollow sphere. The hollow sphere of this composite structure was subjected to removal of polystyrene and polyacrylic acid with chloroform to obtain a polyaniline hollow sphere. EXAMPLE 8 Preparation of Polystyrene-Polyacrylic Acid/TiO2 Magnetic Tetrahydrate Composite Hollow Ball and Titanium Dioxide Tetraoxide Composite Hollow Ball
按实施例 1制备聚苯乙烯-聚丙烯酸 /二氧化钛复合中空球, 将此复合粒子 0. lg分散 到 lg的 25^%氯化铁和 19^%氯化亚铁混和溶液中, 饱和吸附 4小时, 将吸附了溶液的聚 合物中空球用高速离心机离心沉降, 再分散于 10g 15wt%的氨水中, 水解反应 4小时, 得 到聚苯乙烯-聚丙烯酸 /二氧化钛磁性四氧化三铁复合中空球。 将此复合结构的中空球用氯 仿除去聚苯乙烯和聚丙烯酸后, 得到二氧化钛和四氧化三铁复合中空球。 实施例 9聚苯乙烯-聚丙烯酸 /二氧化钛聚苯胺复合中空球及聚苯胺二氧化硅中空球的制备 按实施例 1制备聚苯乙烯 -聚丙烯酸 /二氧化钛复合中空球, 将此复合粒子 0. lg分散 到 5g 22. 8 %的过硫酸铵水溶液中, 饱和吸附 24小时, 将吸附了溶液的聚合物复合中空球 用高速离心机离心沉降, 再分散于 10g水中, 搅拌下加入 0. 5g苯胺。 在冰水浴中反应 24 小时, 得到聚苯乙烯一聚丙烯酸 /二氧化钛聚苯胺复合中空球。 将此复合结构的中空球用 氯仿除去聚苯乙烯和聚丙烯酸后, 得到二氧化钛和聚苯胺复合中空球。 实施例 10毛刺型二氧化钛 /聚苯乙烯-聚甲基丙烯酸复合中空球及毛剌型二氧化钛中空球 的制备  The polystyrene-polyacrylic acid/titanium dioxide composite hollow sphere was prepared according to Example 1, and the composite particles were dispersed in lg of 25% iron chloride and 19% ferrous chloride mixed solution, and saturated for 4 hours. The polymer hollow spheres to which the solution was adsorbed were sedimented by a high-speed centrifuge, dispersed in 10 g of 15 wt% aqueous ammonia, and hydrolyzed for 4 hours to obtain a polystyrene-polyacrylic acid/titanium dioxide magnetic tetraoxide composite hollow sphere. The hollow sphere of this composite structure was subjected to removal of polystyrene and polyacrylic acid with chloroform to obtain a composite hollow sphere of titanium oxide and triiron tetroxide. Lg。 The polystyrene-polyacrylic acid/titanium dioxide composite hollow spheres, the composite particles 0. lg The aniline was added to the mixture. The ocyanamine was added to the mixture. The ocyanamine was added to the mixture. The reaction was carried out for 24 hours in an ice water bath to obtain a polystyrene-polyacrylic acid/titanium oxide polyaniline composite hollow sphere. The hollow sphere of this composite structure was subjected to removal of polystyrene and polyacrylic acid with chloroform to obtain a composite hollow sphere of titanium dioxide and polyaniline. Example 10 Preparation of burr type titanium dioxide/polystyrene-polymethacrylic acid composite hollow sphere and edgy type titanium dioxide hollow sphere
取含 O. lg聚苯乙烯-聚甲基丙烯酸聚合物中空球的乳液, 其外径为 ΙΟΟΟΓΜ, 壳层的厚 度为 150nm, 分散到 10g乙醇中, 分两次加入 lg钛酸四丁酯间隔 1小时, 加料完毕继续水 解反应 4小时, 得到以聚苯乙烯-聚甲基丙烯酸聚合物中空球为模板, 二氧化钛生长在壳 体内层及通道并伸出表面形成毛剌。 将此复合结构的中空球用氯仿除去聚苯乙烯和聚甲基 丙烯酸后, 得到带毛刺的二氧化钛中空球, 透射电镜的结果表明, 此中空的二氧化钛球由 50〜100nm颗粒组成, 壳厚为 lOOnm, 空腔的大小为 600nm。 二氧化钛毛刺长 50〜200nm, 宽 20〜100nm, 高 10〜150nm。 实施例 11毛刺型银 /聚苯乙烯-聚 4-乙烯基吡啶复合中空球及毛刺型银中空球的制备 取含 O. lg聚苯乙烯-聚 4-乙烯基吡啶聚合物中空球的乳液, 其外径为 300nm, 壳层的 厚度为 60nm, 分散到 10g 20wt %的水合肼溶液中, 浸泡 24小时, 将吸附了水合肼溶液的 聚合物中空球用高速离心机离心沉降, 再分散到 20g lwt%的硝酸银溶液中, 反应 4小时, 得到以聚苯乙烯-聚 4-乙烯基吡啶聚合物中空球为模板, 银生长在壳体内层及通道并伸出 表面形成毛刺。将此复合结构的中空球用四氢呋喃除去聚苯乙烯和聚 4-乙烯基吡啶后, 得 到带毛刺的银中空球。 实施例 12毛剌型聚苯胺 /聚苯乙烯-聚丙烯酸复合中空球及毛刺型聚苯胺中空球的制备 取含 O. lg聚苯乙烯 -聚丙烯酸聚合物中空球的乳液, 其外径为 400nm, 壳层的厚度为 80nm, 分散到 5g 20%的氯化铁水溶液中, 饱和吸附 24小时, 将吸附了溶液的聚合物复合 中空球用高速离心机离心沉降, 再分散于 10g水中, 搅拌下分 4次加入 0. 8g苯胺, 每次 间隔 1小时, 反应温度 25°C, 反应时间 24小时, 得到以聚苯乙烯-聚丙烯酸聚合物中空球 为模板, 聚苯胺生长在壳体内层及通道并伸出表面形成毛剌。 将此复合结构的中空球用氯 仿除去聚苯乙烯和聚丙烯酸后, 得到带毛刺的聚苯胺中空球。 实施例 13壳体外表面生长壳层, 制备二氧化硅 /聚苯乙烯-聚丙烯酸复合中空球及二氧化 硅中空球 Taking an emulsion containing O. lg polystyrene-polymethacrylic polymer hollow spheres, the outer diameter of which is ΙΟΟΟΓΜ, the thickness of the shell layer is 150 nm, dispersed in 10 g of ethanol, and the addition of lg tetrabutyl titanate is divided twice. After 1 hour, the hydrolysis reaction was continued for 4 hours, and a hollow sphere of polystyrene-polymethacrylic acid polymer was used as a template. Titanium dioxide was grown on the inner layer of the shell and the channel and extended to form a burr. The hollow spheres of the composite structure were removed with polystyrene and polymethacrylic acid by chloroform to obtain burred titanium dioxide hollow spheres. The results of transmission electron microscopy showed that the hollow titanium dioxide spheres were composed of 50-100 nm particles with a shell thickness of 100 nm. The size of the cavity is 600 nm. The titanium dioxide burr is 50 to 200 nm long, 20 to 100 nm wide, and 10 to 150 nm high. Example 11 Preparation of burr-type silver/polystyrene-poly 4-vinylpyridine composite hollow spheres and burr-type silver hollow spheres An emulsion containing O. lg polystyrene-poly-4-vinylpyridine polymer hollow spheres having an outer diameter of 300 nm, a shell layer thickness of 60 nm, dispersed in 10 g of a 20 wt% hydrazine hydrate solution, and immersed for 24 hours. The hollow polymer spheres adsorbed with the hydrazine hydrate solution were centrifuged and sedimented by a high-speed centrifuge, and then dispersed in 20 g of a lwt% silver nitrate solution for 4 hours to obtain a hollow sphere of polystyrene-poly-4-vinylpyridine polymer. As a template, silver grows on the inner layer of the casing and the passage and protrudes from the surface to form a burr. The hollow sphere of this composite structure was subjected to removal of polystyrene and poly-4-vinylpyridine with tetrahydrofuran to obtain a burred silver hollow sphere. Example 12 Preparation of a blister-type polyaniline/polystyrene-polyacrylic composite hollow sphere and a burr-type polyaniline hollow sphere An emulsion containing 0.1 g of polystyrene-polyacrylic polymer hollow spheres having an outer diameter of 400 nm The thickness of the shell layer is 80 nm, dispersed in 5 g of 20% aqueous solution of ferric chloride, and saturated for 24 hours. The polymer composite hollow spheres to which the solution has been adsorbed are centrifugally sedimented by a high-speed centrifuge, dispersed in 10 g of water, and stirred. 0. 8g aniline was added in 4 times, each time interval was 1 hour, the reaction temperature was 25 ° C, and the reaction time was 24 hours. The polystyrene-polyacrylic acid polymer hollow sphere was used as a template, and polyaniline was grown in the inner layer and channel of the shell. And protruding from the surface to form a donkey. The hollow sphere of this composite structure was subjected to removal of polystyrene and polyacrylic acid with chloroform to obtain a burred polyaniline hollow sphere. Example 13 The outer surface of the shell was grown to form a silica/polystyrene-polyacrylic composite hollow sphere and a silica hollow sphere.
取 0. lg聚苯乙烯-聚丙烯酸聚合物中空球, 其外径为 8000nm, 壳层的厚度为 200nm, 分散到 10g乙醇中, 加入 lgl5%氨水和 2g硅酸四乙酯, 水解反应 4小时, 得到以聚苯乙烯 -聚丙烯酸中空球为模板, 二氧化硅生长在壳体外表面的复合中空球。 将此复合中空球用 氯仿除去聚苯乙烯和聚丙烯酸后, 得到二氧化硅中空球, 透射电镜的结果表明, 此中空的 二氧化硅球由 30皿颗粒组成, 壳厚为 200nm, 空腔的大小为 8000nm。  0. lg polystyrene-polyacrylic acid polymer hollow sphere, the outer diameter of 8000nm, the thickness of the shell layer is 200nm, dispersed into 10g of ethanol, adding llg5% ammonia water and 2g tetraethyl silicate, hydrolysis reaction for 4 hours A composite hollow sphere in which silica is grown on the outer surface of the shell by using a polystyrene-polyacrylic hollow sphere as a template. After the composite hollow sphere was removed from polystyrene and polyacrylic acid with chloroform, a silica hollow sphere was obtained. The results of transmission electron microscopy showed that the hollow silica sphere consisted of 30 particles with a shell thickness of 200 nm. The size is 8000 nm.
实施例 14壳体外表面生长壳层, 制备金 /聚苯乙烯 -聚氧乙烯复合中空球及金中空球 Example 14 The shell surface was grown on the outer surface of the shell to prepare a gold/polystyrene-polyoxyethylene composite hollow sphere and a gold hollow sphere.
取 0. lg聚苯乙烯-聚氧乙烯聚合物中空球, 其外径为 40nra, 壳层的厚度为 lOnm, 分 散到 10g水中, 加入 lgl5%水合肼和 0. 5g氯金酸, 反应 2小时, 得到以聚苯乙烯-聚氧乙 烯中空球为模板, 金生长在壳体外表面的复合中空球。 将此复合中空球用氯仿除去聚苯乙 烯和聚氧乙烯后, 得到金中空球, 透射电镜的结果表明, 此中空的金球由 5〜10nm颗粒组 成, 壳厚为 20nm, 空腔的大小为 40nm。 实施例 15壳体外表面生长壳层, 制备聚苯胺 /聚苯乙烯-聚甲基丙烯酸复合中空球及聚苯 胺中空球的制备  The lg polystyrene-polyoxyethylene polymer hollow spheres having an outer diameter of 40 nra, a thickness of the shell layer of lOnm, dispersed in 10 g of water, adding lg of 5% hydrazine hydrate and 0.5 g of chloroauric acid, reacting for 2 hours A composite hollow sphere in which gold is grown on the outer surface of the shell is obtained by using a polystyrene-polyoxyethylene hollow sphere as a template. The composite hollow sphere was removed from polystyrene and polyoxyethylene by chloroform to obtain a gold hollow sphere. The results of transmission electron microscopy showed that the hollow gold sphere consisted of 5~10 nm particles with a shell thickness of 20 nm and the size of the cavity was 40nm. Example 15 Growth of shell layer on outer surface of shell, preparation of polyaniline/polystyrene-polymethacrylic acid composite hollow sphere and polyaniline hollow sphere
O. lg聚苯乙烯-聚甲基丙烯酸中空结构的乳液颗粒, 其外径为 400nm, 壳层的厚度为 80nm, 分散到 10g水中。 在反应容器中通人氮气, 加入 2g 22. 8 %的过硫酸铵水溶液, 搅 拌 30min后, 再加入 0. 5g苯胺, 冰水浴中反应 24小时, 得到以聚苯乙 jf_聚甲基丙烯酸 中空球为模板, 聚苯胺生长在壳体外表面的复合中空球。 将此复合结构的中空球用四氢呋 喃除去聚苯乙烯和聚甲基丙烯酸后, 得到聚苯胺中空球, 空腔的大小为 400nm。 实施例 16二氧化硅 /二氧化钛多层复合中空球及其双层结构中空球的制备 O. lg polystyrene-polymethacrylic acid hollow structure emulsion particles having an outer diameter of 400 nm, a shell layer having a thickness of 80 nm, and dispersed in 10 g of water. Put nitrogen in the reaction vessel, add 2g of 22.8% aqueous ammonium persulfate solution, stir After mixing for 30 minutes, another 0.5 g of aniline was added and reacted in an ice water bath for 24 hours to obtain a composite hollow sphere in which polyaniline was grown on the outer surface of the shell by using polystyrene jf_polymethacrylic acid hollow sphere as a template. The hollow sphere of this composite structure was subjected to removal of polystyrene and polymethacrylic acid with tetrahydrofuran to obtain a polyaniline hollow sphere having a cavity size of 400 nm. Example 16 Preparation of Silica/Titanium Dioxide Multilayer Composite Hollow Sphere and Its Double-Stranded Hollow Sphere
按实施例 1制备聚苯乙烯 -聚丙烯酸 /二氧化钕复合中空球, 将此复合粒子 0. lg分散 到 10g乙醇中, 加入 lg硅酸乙酯和 lg25%氨水, 反应温度 40°C, 反应时间 4h, 即制得二 氧化硅 /聚苯乙烯一聚丙烯酸 /二氧化钛复合中空球, 此二氧化钛生长在聚合物中空球壳体 内层, 而二氧化硅生长在壳体外表面。 用氯仿除去聚苯乙烯和聚丙烯酸后, 得到二氧化硅 二氧化钛双层结构中空球, 即二氧化硅中空球中含有一个二氧化钕的中空球。 实施例 17金 /二氧化硅多层复合中空球及其双层结构中空球的制备  The polystyrene-polyacrylic acid/ceria composite hollow sphere was prepared according to Example 1, and the composite particles were dispersed in 10 g of ethanol, and lg ethyl silicate and lg25% aqueous ammonia were added thereto, and the reaction temperature was 40 ° C. At 4 h, a silica/polystyrene-polyacrylic acid/titanium dioxide composite hollow sphere was prepared, which was grown in the inner layer of the polymer hollow sphere shell, and silica was grown on the outer surface of the shell. After removing polystyrene and polyacrylic acid with chloroform, a hollow sphere of silica titania double-layer structure, that is, a hollow sphere containing one cerium oxide in a silica hollow sphere, is obtained. Example 17 Preparation of Gold/Silica Multilayer Composite Hollow Sphere and Its Double-Stranded Hollow Sphere
0. lg聚苯乙烯-聚甲基丙烯酸中空结构的乳液颗粒, 其外径为 lOOnm, 壳层的厚度为 20nm, 分散到 lg的 5(kt%硅酸四乙酯的乙醇溶液中, 饱和吸附 24小时, 将吸附了溶液的 聚合物中空球用高速离心机离心沉降, 再分散于 10g的 15wt%氨水, 水解反应 4小时, 得 到以聚苯乙烯-聚甲基丙烯酸中空球为模板, 二氧化硅生长在壳体内层的复合中空球。 将 此复合粒子再分散到 10g水溶液中, 加入 6§30^%的氯金酸溶液和 4g5(hrt%水合肼溶液, 反应温度 40Ό, 反应时间 4h, 即制得金 /聚苯乙烯一聚丙烯酸 /二氧化硅复合中空球, 此 二氧化硅生长在聚合物中空球壳体内层, 而金生长在壳体外表面。 用四氢呋喃除去聚苯乙 烯和聚甲基丙烯酸后, 得到金 /二氧化硅双层结构中空球, 即金中空球中含有一个二氧化 硅的中空球。 实施例 18聚苯胺 /银多层复合中空球及其双层结构中空球的制备 0. lg polystyrene-polymethacrylic acid hollow structure emulsion particles, the outer diameter of which is lOOnm, the thickness of the shell layer is 20nm, dispersed to lg of 5 (kt% tetraethyl silicate in ethanol solution, saturated adsorption After 24 hours, the polymer hollow spheres with adsorbed solution were sedimented by high-speed centrifuge, dispersed in 10 g of 15 wt% ammonia water, and hydrolyzed for 4 hours to obtain polystyrene-polymethacrylic acid hollow spheres as a template for dioxide oxidation. A composite hollow sphere in which silicon is grown in the inner layer of the shell. The composite particles are redispersed into 10 g of an aqueous solution, and 6 § 30% of the chloroauric acid solution and 4 g of 5 (hrt% hydrazine hydrate solution are added, the reaction temperature is 40 Torr, and the reaction time is 4 h. That is, a gold/polystyrene-polyacrylic acid/silica composite hollow sphere is prepared, and the silica is grown in the inner layer of the polymer hollow sphere shell, and gold is grown on the outer surface of the shell. Polystyrene and polymethyl are removed by using tetrahydrofuran. After the acrylic acid, a hollow sphere of gold/silica double-layer structure, that is, a hollow sphere containing one silica in a gold hollow sphere is obtained. Example 18 Preparation of polyaniline/silver multilayer composite hollow sphere and double-layer hollow sphere thereof
0. lg聚甲基丙烯酸甲酯 -聚丙烯酸中空结构的乳液颗粒, 其外径为 300nm, 壳层的厚 度为 60nm, 分散到 lg的 20wt%硝酸银的水溶液中, 饱和吸附 24小时, 将吸附了溶液的聚 合物中空球用高速离心机离心沉降, 再分散于 10g的 15wt%水合肼溶液中, 反应 4小时, 得到以聚甲基丙烯酸甲酯-聚丙烯酸中空球为模板, 银生长在壳体内层的复合中空球。 将 此复合粒子再分散到 10g水溶液中,通入氮气,加入 0. 5g苯胺和 3g30wt%过硫酸氨水溶液, 放在冰水浴中反应 24h, 即制得聚苯胺 /聚甲基丙烯酸甲酯一聚丙烯酸 /银复合中空球, 此 银生长在聚合物中空球壳体内层, 而聚苯胺生长在壳体外表面。 用氯仿除去聚苯乙烯和聚 甲基丙烯酸后, 得到聚苯胺 /银双层结构中空球, 即聚苯胺中空球中含有一个银的中空球。 实施例 19二氧化硅 /二氧化钛多层复合中空球及同心双层结构中空球的制备 ,0. Ig聚苯乙 if-聚甲基丙烯酸中空结构的乳液颗粒, 其外径为 400函, 壳层的厚度为 80nm, 离心用乙醇清洗去外表面水, 再分散于 10g乙醇中, 分 4次加入 0. 5g钛酸四丁酯, 每次间隔一小时, 加料完毕继续反应 4小时, 反应温度 40'C, 得到以聚苯乙爆-聚甲基丙 烯酸中空球为模板, 二氧化钛生长在壳体内层和通道的复合毛刺状中空球。 将此复合粒子 分散到 10g乙醇中, 加入 2g硅酸乙酯和 lgl5%氨水, 反应温度 40'C, 反应时间 4h, 即制 得二氧化硅 /聚苯乙烯一聚甲基丙烯酸 /二氧化钛复合中空球, 此二氧化钛生长在聚合物中 空球壳体内层和通道, 而二氧化硅生长在壳体外表面。 用四氢呋喃除去聚苯乙烯和聚甲基 丙烯酸后, 得到二氧化硅二氧化钛双层结构中空球, 即二氧化硅中空球中含有一个二氧化 钛的中空球, 两空球之间有二氧化钛柱相连, 内中空球不能在外中空球内运动, 两中空球 同心。 实施例 20二氧化钛 /铂多层复合中空球及同心双层结构中空球的制备 0. lg polymethyl methacrylate-polyacrylic acid hollow structure emulsion particles, the outer diameter of 300nm, the thickness of the shell layer is 60nm, dispersed in lg 20wt% silver nitrate aqueous solution, saturated adsorption for 24 hours, will adsorb The polymer hollow spheres of the solution were sedimented by a high-speed centrifuge, dispersed in 10 g of a 15 wt% hydrazine hydrate solution, and reacted for 4 hours to obtain a polymethyl methacrylate-polyacrylic acid hollow sphere as a template, and silver was grown in the shell. A composite hollow sphere of the inner layer. The composite particles were redispersed into 10 g of an aqueous solution, and nitrogen gas was introduced thereto, and 0.5 g of aniline and 3 g of a 30 wt% aqueous solution of ammonium persulfate were added, and the mixture was placed in an ice water bath for 24 hours to obtain polyaniline/polymethyl methacrylate. Acrylic/silver composite hollow spheres, which are grown in the inner layer of the polymeric hollow sphere shell, while polyaniline is grown on the outer surface of the shell. After removing polystyrene and polymethacrylic acid with chloroform, a polyaniline/silver double-layer hollow sphere is obtained, that is, a hollow sphere containing one silver in the polyaniline hollow sphere. Example 19 Preparation of Silica/Titanium Dioxide Multilayer Composite Hollow Sphere and Concentric Double Layer Hollow Sphere 0. Ig polystyrene-if polymethacrylic acid hollow structure emulsion particles, the outer diameter of which is 400 letters, the thickness of the shell layer is 80nm, centrifuged with ethanol to remove the outer surface water, and then dispersed in 10g of ethanol, 4 times added 0. 5g tetrabutyl titanate, one hour apart, the reaction was continued for 4 hours, the reaction temperature was 40'C, and the polystyrene-polymethacrylic hollow sphere was used as a template, and the titanium dioxide was grown. A composite burr-like hollow sphere of the inner layer of the casing and the passage. Dispersing the composite particles into 10g of ethanol, adding 2g of ethyl silicate and lgl5% ammonia water, the reaction temperature is 40'C, and the reaction time is 4h, thereby preparing a silica/polystyrene-polymethacrylic acid/titanium dioxide composite hollow. The ball, the titanium dioxide is grown in the inner layer and the channel of the polymeric hollow sphere shell, and the silica is grown on the outer surface of the shell. After removing polystyrene and polymethacrylic acid with tetrahydrofuran, a hollow sphere of silica titania double-layer structure is obtained, that is, a hollow sphere containing a titanium dioxide in a silica hollow sphere, and a hollow titanium dioxide column is connected between the two hollow spheres, and the hollow is hollow. The ball cannot move in the outer hollow sphere, and the two hollow spheres are concentric. Example 20 Preparation of Titanium Dioxide/Platinum Multilayer Composite Hollow Sphere and Concentric Double Layer Hollow Sphere
O. lg聚苯乙烯-聚甲基丙烯酸中空结构的乳液颗粒, 其外径为 200匪, 壳层的厚度为 50nm,将其分散在 lg20wt°/。的硼氢化钠水溶液中,浸泡 24小时,离心清洗除去外表面溶液, 再分散于 10g水中, 分 4次加入 4mL20wt/。氯铂酸, 每次间隔一小时, 加料完毕继续反应 8 小时, 反应温度 20°C, 得到以聚苯乙烯-聚甲基丙烯酸中空球为模板, 铂生长在壳体内层 和通道的复合毛刺状中空球。 将此复合粒子分散到 10g乙醇中, 加入 2g钛酸四丁酯和 lg 水, 反应温度 40Ό, 反应时间 4h, 即制得二氧化钛 /聚苯乙烯一聚甲基丙烯酸 /铂复合中 空球, 此铂生长在聚合物中空球壳体内层和通道, 而二氧化钛生长在壳体外表面。 用四氢 呋喃除去聚苯乙烯和聚甲基丙烯酸后, 得到二氧化钕铂双层结构中空球, 即二氧化钛中空 球中含有一个铂的中空球,两空球之间有铂金属柱相连,内中空球不能在外中空球内运动, 两中空球同心。 实施例 21二氧化钛 /聚苯胺多层复合中空球及同心双层结构中空球的制备 O. lg polystyrene-polymethacrylic acid hollow structure emulsion particles having an outer diameter of 200 Å, a shell layer having a thickness of 50 nm, and dispersed at 1 g 20 wt ° /. The sodium borohydride aqueous solution was immersed for 24 hours, and the outer surface solution was removed by centrifugation, and then dispersed in 10 g of water, and 4 mL of 20 wt/ was added in 4 portions. Chloroplatinic acid, one hour at a time, the reaction is continued for 8 hours, and the reaction temperature is 20 ° C. The polystyrene-polymethacrylic acid hollow sphere is used as a template to obtain a composite burr of platinum grown in the inner layer and the channel of the shell. Hollow ball. Dispersing the composite particles into 10 g of ethanol, adding 2 g of tetrabutyl titanate and lg water, the reaction temperature is 40 Torr, and the reaction time is 4 h, thereby preparing a titanium dioxide/polystyrene-polymethacrylic acid/platinum composite hollow sphere, the platinum It grows in the inner layer and channel of the polymer hollow sphere shell, while titanium dioxide grows on the outer surface of the shell. After removing polystyrene and polymethacrylic acid with tetrahydrofuran, a hollow sphere of ruthenium dioxide platinum double-layer structure is obtained, that is, a hollow sphere containing platinum in a hollow sphere of titanium dioxide, and a platinum metal column is connected between the two hollow spheres, and the inner hollow sphere is connected. Can not move in the outer hollow ball, the two hollow balls are concentric. Example 21 Preparation of Titanium Dioxide/Polyaniline Multilayer Composite Hollow Sphere and Concentric Double Layer Hollow Sphere
按实施例 12制备毛刺状聚苯胺 /聚苯乙烯-聚丙烯酸复合中空球, 将此复合粒子 0. lg 分散到 10g乙醇中, 加入 lg钛酸四丁酯和 lg水, 反应温度 60°C, 反应时间 4h, 即制得 二氧化钛 /聚苯乙烯一聚丙烯酸 /聚苯胺复合中空球, 此聚苯胺生长在聚合物中空球壳体内 层和通道, 而二氧化钛生长在壳体外表面。 用四氢呋喃除去聚苯乙烯和聚丙烯酸后, 得到 二氧化钛聚苯胺双层结构中空球, 即二氧化钛中空球中含有一个聚苯胺的中空球, 两空球 之间有聚苯胺柱相连, 内中空球不能在外中空球内运动, 两中空球同心。 实施例 22二氧化钛多层复合中空球及同心双层结构中空球的制备  The burr-like polyaniline/polystyrene-polyacrylic composite hollow sphere was prepared according to Example 12, and the composite particles were dispersed in 10 g of ethanol, and lg tetrabutyl titanate and lg water were added thereto, and the reaction temperature was 60 ° C. The reaction time was 4 h, that is, a titanium dioxide/polystyrene-polyacrylic acid/polyaniline composite hollow sphere was prepared, and the polyaniline was grown in the inner layer and the channel of the polymer hollow sphere shell, and the titanium dioxide was grown on the outer surface of the shell. After removing polystyrene and polyacrylic acid with tetrahydrofuran, a hollow sphere of titanium dioxide polyaniline double-layer structure is obtained, that is, a hollow sphere containing a polyaniline in a hollow sphere of titanium dioxide, and a polyaniline column is connected between the two hollow spheres, and the inner hollow sphere cannot be outside. The hollow ball moves, and the two hollow balls are concentric. Example 22 Preparation of Titanium Dioxide Multilayer Composite Hollow Sphere and Concentric Double Layer Hollow Sphere
取 0. lg聚苯乙烯 -聚丙烯酸中空结构的干燥粉末, 其外径为 400nm, 壳层的厚度为 lOOnm, 分散到 5g浓硫酸中磺化处理 2小时, 离心清洗得到磺化改性聚合物中空球, 其壳 体是外层为磺化聚苯乙烯、 中间层为聚苯乙烯、 内层为聚丙烯酸的三层结构, 故壳体内层 和外层亲水, 中间还有亲水通道。 将改性聚合物中空球浸入 1 g 50%的钛酸四丁酯丁醇溶 液中, 浸泡.24小时, 离心清洗, 然后将其加入到 10 g 40%水的丁醇溶液中, 40°C反应 6 小时, 得到二氧化钛 /聚苯乙烯-聚丙烯酸多层复合中空球, 二氧化钛生长在聚合物中空球 壳体内层、 通道和外层。 将此复合结构的中空球在 45CTC烧结 2小时, 除去聚苯乙烯和聚 丙烯酸后, 得到二氧化钛双层结构中空球。 实施例 23银多层复合中空球及同心双层结构中空球的制备 Take a dry powder of lg polystyrene-polyacrylic acid hollow structure, the outer diameter of which is 400 nm, and the thickness of the shell layer is LOOnm, dispersed in 5g concentrated sulfuric acid for sulfonation treatment for 2 hours, centrifugal cleaning to obtain sulfonated modified polymer hollow sphere, the shell is the outer layer is sulfonated polystyrene, the middle layer is polystyrene, the inner layer is poly The three-layer structure of acrylic acid, so that the inner and outer layers of the shell are hydrophilic, and there are hydrophilic channels in the middle. The modified polymer hollow sphere was immersed in 1 g of 50% tetrabutylammonate titanate solution, soaked for 24 hours, centrifuged, and then added to 10 g of 40% water in butanol solution, 40 ° C After reacting for 6 hours, a titanium dioxide/polystyrene-polyacrylic multilayer composite hollow sphere was obtained, and titanium dioxide was grown on the inner layer, the channel and the outer layer of the polymer hollow spherical shell. The hollow sphere of this composite structure was sintered at 45 CTC for 2 hours to remove polystyrene and polyacrylic acid, thereby obtaining a hollow sphere of titanium dioxide double-layer structure. Example 23 Preparation of Silver Multilayer Composite Hollow Sphere and Concentric Double Layer Hollow Sphere
取 O. lg聚苯乙烯-聚甲基丙烯酸中空结构的干燥粉末, 其外径为 400nm, 壳层的厚度 为 lOOnm, 分散到 5g浓硫酸中磺化处理 2小时, 离心清洗得到磺化改性聚合物中空球, 其 壳体是外层为磺化聚苯乙烯、 中间层为聚苯乙烯、 内层为聚甲基丙烯酸的三层结构, 故壳 体内层和外层亲水, 中间还有亲水通道。 将改性聚合物中空球浸入 1 g 20%的硝酸银水溶 液中, 浸泡 24小时, 离心清洗, 然后将其加入到 10 g 30%水合肼溶液中, 20°C反应 6小 时, 得到银 /聚苯乙烯 -聚甲基丙烯酸多层复合中空球, 银生长在聚合物中空球壳体内层、 通道和外层。 将此复合结构的中空球用 N, N二甲基甲酰胺除去聚苯乙烯和聚甲基丙烯酸 后, 得到银双层结构中空球。 实施例 24聚苯胺多层复合中空球及同心双层结构中空球的制备  Take O. lg polystyrene-polymethacrylic acid hollow structure dry powder, the outer diameter is 400nm, the thickness of the shell layer is lOOnm, dispersed in 5g concentrated sulfuric acid for sulfonation treatment for 2 hours, centrifugal cleaning to obtain sulfonation modification The polymer hollow sphere has a three-layer structure in which the outer layer is sulfonated polystyrene, the intermediate layer is polystyrene, and the inner layer is polymethacrylic acid, so that the inner layer and the outer layer of the shell are hydrophilic, and there is Hydrophilic channel. The modified polymer hollow sphere was immersed in 1 g of 20% silver nitrate aqueous solution, soaked for 24 hours, centrifuged, and then added to 10 g of 30% hydrazine hydrate solution, and reacted at 20 ° C for 6 hours to obtain silver/poly. A styrene-polymethacrylic multilayer composite hollow sphere, silver is grown in the inner layer, the channel and the outer layer of the polymeric hollow sphere shell. The hollow sphere of this composite structure was subjected to removal of polystyrene and polymethacrylic acid with N, N-dimethylformamide to obtain a silver double-layer hollow sphere. Example 24 Preparation of polyaniline multilayer composite hollow spheres and concentric double-layer hollow spheres
取 0. lg聚苯乙烯 聚丙烯酸中空结构的干燥粉末, 其外径为 400nm, 壳层的厚度为 lOOnm, 分散到 5g浓硫酸中磺化处理 2小时, 离心清洗得到磺化改性聚合物中空球, 其壳 体是外层为磺化聚苯乙烯、 中间层为聚苯乙烯、 内层为聚丙烯酸的三层结构, 故壳体内层 和外层亲水, 中间还有亲水通道。 将改性聚合物中空球浸入 1 g 30%的三氯化铁溶液中, 浸泡 24小时, 离心清洗, 然后将其加入到 10 g水中, 加入 0. 5g苯胺, 用浓盐酸调节反 应溶液批 pH值 1-2, 冰水浴中反应 24小时, 得到聚苯胺 /聚苯乙烯-聚丙烯酸多层复合中 空球, 聚苯胺生长在聚合物中空球壳体内层、通道和外层。将此复合结构的中空球用 N, N 二甲基甲酰胺除去聚苯乙烯和聚丙烯酸后, 得到聚苯胺双层结构中空球。 实施例 25聚丙烯酸丁酯在壳层溶胀聚合制备聚合物复合中空球  0. lg polystyrene polyacrylic acid hollow structure dry powder, the outer diameter of 400nm, the thickness of the shell layer is lOOnm, dispersed in 5g concentrated sulfuric acid sulfonation treatment for 2 hours, centrifugal cleaning to obtain sulfonated modified polymer hollow The ball has a three-layer structure in which the outer layer is sulfonated polystyrene, the intermediate layer is polystyrene, and the inner layer is polyacrylic acid. Therefore, the inner layer and the outer layer of the shell are hydrophilic, and there is a hydrophilic passage in the middle. The modified polymer hollow sphere was immersed in 1 g of 30% ferric chloride solution, soaked for 24 hours, centrifuged, and then added to 10 g of water, added with 0.5 g of aniline, and the pH of the reaction solution was adjusted with concentrated hydrochloric acid. The value was 1-2, and the reaction was carried out in an ice water bath for 24 hours to obtain a polyaniline/polystyrene-polyacrylic multilayer composite hollow sphere, and the polyaniline was grown in the inner layer, the channel and the outer layer of the polymer hollow sphere shell. The hollow sphere of this composite structure was subjected to removal of polystyrene and polyacrylic acid with N, N-dimethylformamide to obtain a polyaniline bilayer hollow sphere. Example 25 Polybutyl acrylate was swelled and polymerized in a shell layer to prepare a polymer composite hollow sphere
取 0. lg聚苯乙烯-聚甲基丙烯酸聚合物中空球,其外径为 400nm,壳层的厚度为 80nm, 分散到 10g水中,充入氮气,水中含 0. 2%的十二烷基磺酸钠,加入 0. 2g丙烯酸丁酯和 2mg 偶氮二异丁腈, 室温下磁力搅拌溶胀 8小时, 升温 80°C聚合 18小时,得到以聚苯乙烯-聚 甲基丙烯酸中空球为模板, 聚丙烯酸丁酯生长在壳体中的聚合物复合中空球。  The octadecyl group contains 0.2% of dodecyl group in water, and is filled with nitrogen. Sodium sulfonate, adding 0. 2g of butyl acrylate and 2mg of azobisisobutyronitrile, swelled by magnetic stirring at room temperature for 8 hours, and heated at 80 ° C for 18 hours to obtain a polystyrene-polymethacrylic hollow sphere as a template. , a polymer composite hollow sphere of polybutyl acrylate grown in a shell.

Claims

权 利 要 求 书  Claims
1.一种用模板法制备中空球和复合中空球的方法, 其特征是, 在聚合物中空球模板壳 体内层生长材料的制备方法步骤: A method for preparing a hollow sphere and a composite hollow sphere by a template method, characterized in that the method for preparing a growth material in a polymer hollow sphere template shell is as follows:
(1. 1)将聚合物中空球模板粒子浸泡在 0. 01wt%〜60. 0wt%的无机物前体溶液中, 模板 粒子在溶液中保持浓度为 0. lwt%〜40. Owt%, 使无机物前体溶液渗入聚合物中空球模板的 空腔, 达到平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去; 然后将得到的含无 机物前体溶液的聚合物中空球在搅拌下加入到反应组份水溶液中; 控制反应液中模板粒子 的浓度保持在 0. lwt%〜40. Owt%, 反应温度 0°C〜100°C, 反应完毕, 离心清洗, 即得到聚 合物中空球壳体内层生长无机物的复合中空球; 或  Lwt%~40. Owt%, so that the polymer particles are immersed in the 0. lwt%~40. The inorganic precursor solution penetrates into the cavity of the hollow sphere template of the polymer, and after centrifugation, the solution not infiltrated into the hollow cavity of the polymer hollow sphere template is centrifugally washed away; and then the obtained polymer hollow sphere containing the inorganic precursor solution is obtained. The mixture is added to the aqueous solution of the reaction mixture under stirring; the concentration of the template particles in the reaction solution is kept at 0. lwt%~40. Owt%, the reaction temperature is 0 ° C to 100 ° C, the reaction is completed, and the mixture is centrifuged to obtain a polymerization. a composite hollow sphere in which an inorganic material is grown in the inner layer of the hollow spherical shell; or
先将反应组份水溶液渗入聚合物中空球模板粒子空腔, 然后将得到的含反应组份水溶 液的聚合物中空球在搅拌下加入到浓度为 10. 0wt%〜60. 0^%的无机物前体溶液中,控制反 应液中模板粒子的浓度保持在 0. hrt%〜40. (kt%, 反应温度 0°C〜100°C, 反应完毕, 离心 清洗, 得到聚合物中空球壳体内层生长无机物的复合中空球; 或  0重量%的无机物。 The aqueous solution of the reaction solution is infiltrated into the polymer hollow sphere template particle cavity, and then the polymer hollow sphere containing the reaction component aqueous solution is added to the concentration of 10. 0wt%~60. In the precursor solution, the concentration of the template particles in the reaction solution is kept at 0. hrt%~40. (kt%, reaction temperature 0°C~100°C, the reaction is completed, and the mixture is centrifuged to obtain the inner layer of the polymer hollow spherical shell. a composite hollow sphere that grows inorganic matter; or
(1. 2)将聚合物中空球模板粒子浸泡在 0. 01wt%〜60. 0wt%的金属离子盐溶液中, 模板 粒子在这些溶液中保持浓度为 0. lwt%〜40. (kt%, 使金属离子盐溶液渗入聚合物中空球模 板的空腔, 达到平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去; 然后将得到的 含金属离子盐溶液的聚合物中空球在搅拌下加入到 0. 01wt%~60. (kt%的还原剂溶液中,控 制反应液中模板粒子的浓度保持在 0. lwt%〜40. 0wt°/。, 反应温度 0°C〜10(TC, 反应完毕, 离心清洗, 即得到聚合物中空球壳体内层生长金属的复合中空球; 或  l 重量%〜40. (kt%, kt%~40. (kt%, kt%~40. The metal ion salt solution is infiltrated into the cavity of the polymer hollow sphere template, and after the equilibrium is reached, the solution not penetrating into the cavity of the hollow polymer template is centrifuged and washed; then the obtained polymer hollow sphere containing the metal ion salt solution is Lwt%~60. The temperature of the template particles in the reaction solution is kept at 0. lwt%~40. 0wt°/., the reaction temperature is 0°C~10 (in the kt% reducing agent solution). TC, the reaction is completed, and the centrifugal cleaning is performed to obtain a composite hollow sphere in which the inner layer of the polymer hollow spherical shell grows metal; or
先将 0. 01wt%〜60. 0^^%的还原剂溶液渗入聚合物中空球模板粒子空腔中,然后将得到 的含还原剂瘠液的聚合物中空球在搅拌下加入到浓度为 10. 0wt%〜60. (kt%的金属离子盐 溶液中, 控制反应液中模板粒子的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 (TC〜100°C, 反应完毕, 离心清洗, 得到聚合物中空球壳体内层生长金属的复合中空球; 或  First, 0.10%%~60. 0%^% of the reducing agent solution is infiltrated into the hollow cavity template particle cavity, and then the obtained polymer hollow ball containing the reducing agent sputum is added to the concentration of 10 under stirring. 0重量%〜60。 (kt% of the metal ion salt solution, the concentration of the template particles in the control solution is maintained at 0. lwt% ~ 40. 0wt%, reaction temperature (TC ~ 100 ° C, the reaction is completed, centrifugal cleaning , obtaining a composite hollow sphere of metal grown in the inner layer of the polymer hollow spherical shell; or
(1. 3)将聚合物中空球模板粒子浸泡在浓度为 0. 01^%〜40. 0^%的聚合物单体溶液中, 模 板粒子在这些溶液中保持浓度为 0. lwt%~40. 0wt%, 使聚合物单体溶液渗入聚合物中空球 模板的空腔, 达到平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去; 然后将得到 的含聚合物单体溶液的聚合物中空球在搅拌下加入到 0. 01wt%〜30. (½1%引发剂溶液中,在 反应容器中通入惰性气体, 控制反应液中模板粒子的浓度保持在 0. lwt%〜40. 0wt%, 反应 温度 0°C~10(TC, 反应完毕, 离心清洗, 即得到聚合物中空球壳体内层生长有机物的复合 中空球; 或 Lwt%~40 l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l 0wt%, the polymer monomer solution is infiltrated into the cavity of the polymer hollow sphere template, and after reaching equilibrium, the solution not infiltrated into the cavity of the polymer hollow sphere template is centrifugally washed away; and then the obtained polymer-containing monomer solution is obtained. Lwt%〜40。 The weight of the template is maintained at 0. lwt%~40 0wt%, reaction temperature 0 ° C ~ 10 (TC, the reaction is completed, centrifugal cleaning, that is, a composite hollow sphere obtained by growing organic matter in the inner layer of the polymer hollow spherical shell; or
先将 0. 01wt%〜30. 0wt%引发剂溶液渗入聚合物中空球模板粒子空腔,然后将得到的含 引发剂溶液的聚合物中空球在搅拌下加入到浓度为 5^%〜4(½«的聚合物单体溶液中, 在 反应容器中通入惰性气体, 控制反应液中模板粒子的浓度保持在 0. lwt%〜40wt%, 反应温 度 01:〜 100°C, 反应完毕, 离心清洗, 得到聚合物中空球内层生长有机物的复合中空球; (2).将步骤 (1.1)、 步骤 (1.2)得到的聚合物模板与无机物或金属复合的中空球分别置 于烧结炉内, 并通空气, 以 0.1〜10°C/分钟的速度升温至 300〜700°C灼烧, 分别得到无 机物或金属中空球; 01重量%〜30. 0wt% initiator solution is infiltrated into the hollow cavity template particle cavity of the polymer, and then the obtained polymer hollow sphere containing the initiator solution is added to the concentration of 5^%~4 under stirring. 1⁄2« of polymer monomer solution, in The inert gas is introduced into the reaction vessel, and the concentration of the template particles in the reaction solution is controlled to be maintained at 0. lwt%~40wt%, the reaction temperature is 01:~100°C, the reaction is completed, and the mixture is centrifuged to obtain the organic matter of the inner layer of the polymer hollow sphere. Composite hollow sphere; (2). The polymer template obtained by the step (1.1) and the step (1.2) and the hollow sphere of the inorganic or metal composite are respectively placed in a sintering furnace, and air is passed, 0.1 to 10 ° C /min the speed is raised to 300~700 °C to burn, respectively, to obtain inorganic or metal hollow spheres;
或者将步骤 (1.1)、 步骤 (1.2)、 步骤 (1.3)得到的聚合物模板与无机物、 金属或有机 物复合的中空球分别使用选择性溶剂进行抽提, 除去模板聚合物, 分别得到无机物、 金属 或有机物中空球; 所述聚合物中空球模板粒子的外径为 0.02WI!〜 lOMm,空腔体积为整个微球的 10〜95%; 所述聚合物中空球模板的内层亲水性聚合物包括聚苯乙烯磺酸、 聚甲基丙烯酸、 聚丙 烯酸、 聚乙烯醇、 聚酰胺类、 聚乙烯基吡咯、 聚 (2-乙烯基吡啶)、 聚 (4-乙烯基吡啶)、 聚 甲基丙烯酸羟乙酯、 聚乙烯基酯、 聚氧乙烯或聚乙烯基氯化铵;  Alternatively, the polymer template obtained by the step (1.1), the step (1.2), and the step (1.3) and the hollow spheres of the inorganic, metal or organic compound are respectively extracted by using a selective solvent to remove the template polymer, respectively, to obtain an inorganic substance. , metal or organic hollow sphere; the outer diameter of the polymer hollow sphere template particles is 0.02 WI! ~ lOMm, the cavity volume is 10 to 95% of the entire microsphere; the inner hydrophilic polymer of the polymer hollow sphere template comprises polystyrenesulfonic acid, polymethacrylic acid, polyacrylic acid, polyvinyl alcohol, Polyamides, polyvinylpyrrole, poly(2-vinylpyridine), poly(4-vinylpyridine), polyhydroxyethyl methacrylate, polyvinyl ester, polyoxyethylene or polyvinyl ammonium chloride ;
所述聚合物中空球模板的外层亲油性聚合物包括聚苯乙烯、 聚甲基丙烯酸甲酯、 聚甲 基丙烯酸乙酯、 聚甲基丙烯酸丁酯、 聚甲基丙烯酸叔丁酯、 聚甲基丙烯酸肉桂酸乙基酯、 聚丙烯酸甲酯、 聚丙烯酸乙酯、 聚丙烯酸丁酯、 聚丙烯酸叔丁酯、 聚氧丙烯、 聚二甲基硅 烷、 聚乙烯基丁酯或聚异丁烯;  The outer lipophilic polymer of the polymeric hollow sphere template comprises polystyrene, polymethyl methacrylate, polyethyl methacrylate, polybutyl methacrylate, polybutyl methacrylate, polymethyl Acrylic acid cinnamic acid ethyl ester, polymethyl acrylate, polyethyl acrylate, polybutyl acrylate, poly(tert-butyl acrylate), polyoxypropylene, polydimethylsilane, polyvinyl butyrate or polyisobutylene;
所述用来去除聚合物模板的选择性溶剂是氯仿、 甲苯、 四氢呋喃、 N,N-二甲基甲酰胺; 在制备 Si02中空球或复合中空球时,所述的无机物前体溶液为 Si (0CH3)4、Si (0CH2CH3)4、 Si{0CH(C¾)2}4、 Si(0CH2C CH2CH3)4、 N¾Si03的醇溶液; 反应组份水溶液为浓度 0. lwt%〜 100wt%水的醇溶液, 用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1~13; The selective solvent for removing the polymer template is chloroform, toluene, tetrahydrofuran, N,N-dimethylformamide; when preparing the SiO 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is An alcohol solution of Si (0CH 3 ) 4 , Si (0CH 2 CH 3 ) 4 , Si{0CH(C3⁄4) 2 } 4 , Si(0CH 2 C CH 2 CH 3 ) 4 , N3⁄4Si0 3 ; 0. lwt% ~ 100wt% water alcohol solution, with a concentration of 35wt% concentrated hydrochloric acid or a concentration of 25wt% concentrated ammonia water to adjust its pH value of 1~13;
在制备 Ti02中空球或复合中空球时, 所述的无机物前体溶液为 TiCl4、 Ti(0CH3)4、 Ti(0C¾C¾)4、 Ti{0CH(C¾)2}4、 Ti (0C職 CH2C )4、 TiOS04的醇溶 In the preparation of the Ti0 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is TiCl 4 , Ti(0CH 3 ) 4 , Ti(0C3⁄4C3⁄4) 4 , Ti{0CH(C3⁄4) 2 } 4 , Ti (0C) Mercury in CH 2 C ) 4 , TiOS 0 4
液; 反应组份水溶液为浓度 0. lwt°/。〜100wt%水的醇溶液, 用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1~13;  Lwt°/。 The liquid of the reaction component is a concentration of 0. lwt ° /. ~100wt% water alcohol solution, the concentration of 35wt% concentrated hydrochloric acid or a concentration of 25wt% concentrated ammonia water to adjust its pH value of 1~13;
在制备 Sn02中空球或复合中空球时, 所述的无机物前体溶液为 SnCl4、 Sn(0CH3)4、 Sn (0C¾CH3) 4、 Sn {OCH (CH3) J 4、 Sn (0CH2CH2CH2CH3) 4的醇溶液;反应组份水溶液为浓度 0. lwt%〜 100wt°/。水的醇溶液, 用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 PH值为 1〜13; In the preparation of the Sn0 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is SnCl 4 , Sn(0CH 3 ) 4 , Sn (0C3⁄4CH 3 ) 4 , Sn {OCH (CH 3 ) J 4 , Sn ( 0CH 2 CH 2 CH 2 CH 3 ) 4 in an alcohol solution; concentration of reaction components aqueous 0. lwt% ~ 100wt ° /. Water alcohol solution, with a concentration of 35wt% concentrated hydrochloric acid or a concentration of 25wt% concentrated ammonia water to adjust its P H value of 1~13;
在制备 Zr02中空球或复合中空球时, 所述的无机物前体溶液为 ZrCl4、 Zr(0C )4、 Zr(0C¾CH 、 Zr{0CH(CH3)2}4、 Zr (0CH2CH2CH2C¾)4 Zr (S04)2的醇溶液; 反应组份水溶液为 浓度 0. lwt%〜10(kt/。水的醇溶液, 用浓度 35wt°/。浓盐酸或浓度 25wt%浓氨水调节其 pH值为 :!〜 13; In the preparation of a Zr0 2 hollow sphere or a composite hollow sphere, the inorganic precursor solution is ZrCl 4 , Zr(0C ) 4 , Zr(0C3⁄4CH , Zr{0CH(CH 3 ) 2 } 4 , Zr (0CH 2 CH 2 CH 2 C3⁄4) 4 Zr (S0 4 ) 2 alcohol solution; the reaction component aqueous solution is a concentration of 0. lwt% ~ 10 (kt / water of alcohol solution, with a concentration of 35wt ° / concentrated hydrochloric acid or concentration of 25wt% thick Ammonia water adjusts its pH value:!~ 13;
在制备 A1203中空球或复合中空球时, 所述的无机物前体溶液为 A1C13、 A1(0CH3)3、 A1 (0CH2C¾) 3、 A1 {0CH(C¾) 2}3、 Al (0CH2CH2CH2C¾) 3、 A12(S04) 3的醇溶液; 反应组份水溶液为 浓度 0. lwt%〜100wt%水的醇溶液,用浓度 35wt%浓盐酸或浓度 25wt°/。浓氨水调节其 pH值为 1〜13; In the preparation of the A1 2 0 3 hollow sphere or the composite hollow sphere, the inorganic precursor solution is A1C1 3 , A1(0CH 3 ) 3 , A1 (0CH 2 C3⁄4) 3 , A1 {0CH(C3⁄4) 2 } 3 , Al (0CH 2 CH 2 CH 2 C3⁄4) 3 , A1 2 (S0 4 ) 3 alcohol solution; Alcohol solution of %~100wt% water, with a concentration of 35wt% concentrated hydrochloric acid or a concentration of 25wt ° /. Concentrated ammonia water adjusts its pH value to 1~13;
在制备 V205中空球或复合中空球时,所述的无机物前体溶液为 V0 (0C ) 3、V0(0CH2CH3) 3、 V0 {0CH(CH3) 2}„ VO(0CH2CH2CH2C¾) 3的醇溶液; 反应组份水溶液为浓度 0. lwt%〜100wt%水的 醇溶液, 用浓度 35rt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜13; In the preparation of a V 2 0 5 hollow sphere or a composite hollow sphere, the inorganic precursor solution is V0 (0C ) 3 , V0 (0CH 2 CH 3 ) 3 , V0 {0CH(CH 3 ) 2 } VO ( 0CH 2 CH 2 CH 2 C3⁄4) 3 alcohol solution; the reaction component aqueous solution is a concentration of 0. lwt% ~ 100wt% water in an alcohol solution, the concentration of 35rt% concentrated hydrochloric acid or a concentration of 25wt% concentrated ammonia water to adjust its pH value of 1~ 13 ;
在制备 ZnO中空球或复合中空球时, 所述的无机物前体溶液为 Zn (N03) 2、 Zn (00CCH3) 2、 ZnCl2、 Zn (C104) 2的醇溶液; 反应组份水溶液为浓度 0. 01wt%〜30wt%的氢氧化钠、 氢氧化 钾或氨水的水或醇溶液; In the preparation of the ZnO hollow sphere or the composite hollow sphere, the inorganic precursor solution is an alcohol solution of Zn(N0 3 ) 2 , Zn (00CCH 3 ) 2 , ZnCl 2 , Zn (C10 4 ) 2 ; The aqueous solution is a water or alcohol solution having a concentration of 0.1% by weight to 30% by weight of sodium hydroxide, potassium hydroxide or ammonia;
在制备 W03中空球或复合中空球时, 所述的无机前体溶液为 (M4) 6H2W12041、 NaW03的水 溶液;反应组份水溶液为浓度 0. Iw1:〜 100wt%水的醇溶液,用浓度 35wt%浓盐酸或浓度 25wt% 的浓氨水调节其 PH值为 1~13; In the preparation of the W0 3 hollow spheres or the composite hollow spheres, the inorganic precursor solution is an aqueous solution of (M 4 ) 6 H 2 W 12 0 41 , NaW0 3 ; the aqueous solution of the reaction component is a concentration of 0. Iw1: ~ 100wt% The alcoholic solution of water is adjusted to a pH of 1 to 13 with a concentration of 35 wt% concentrated hydrochloric acid or a concentration of 25 wt% concentrated ammonia water ;
在制备 Mo03中空球或复合中空球时, 所述的无机物前体溶液为 Mo03 2¾0水溶液; 反 应组份水溶液为浓度 0. lwt%〜100wt%水的醇溶液, 用浓度 35wt%浓盐酸或浓度 25wt%浓氨 水调节其 pH值为 1〜13; In the preparation of the Mo0 3 hollow sphere or the composite hollow sphere, the inorganic precursor solution is a Mo0 3 23⁄40 aqueous solution; the reaction component aqueous solution is an alcohol solution having a concentration of 0.1 wt% to 100 wt% water, and a concentration of 35 wt% concentrated hydrochloric acid. Or a concentration of 25wt% concentrated ammonia water to adjust its pH value of 1~13 ;
在制备 Al (0H) 或 Mg (OH) 2中空球或复合中空球时,所述的无机物前体溶液为可溶性铝、 镁的氯化物或硫酸盐的水溶液; 反应组份水溶液为浓度 0. 01wt%〜30wt%的氢氧化钠、氢氧 化钾或氨水; In the preparation of Al (0H) or Mg (OH) 2 hollow spheres or composite hollow spheres, the inorganic precursor solution is an aqueous solution of soluble aluminum, magnesium chloride or sulfate; the aqueous solution of the reaction component is a concentration of 0. 01wt%~30wt% sodium hydroxide, potassium hydroxide or ammonia water;
在制备生物矿化材料 CaC03、 Ca10(P04)e (OH) 2, CaS04、或 BaS04中空球或复合中空球时, 所述的无机物前体溶液为 Ca(0H) 2、 CaCl2、 Ba(0H〉2或 BaCl2的水溶液; 反应组份水溶液为 含 C03 2—、 P04 3—、 SO—的 Na+或 K+盐, 或者浓度为 0. 01wt%〜 When preparing the biomineralized material CaC0 3 , Ca 10 (P0 4 )e (OH) 2 , CaS0 4 , or BaS0 4 hollow sphere or composite hollow sphere, the inorganic precursor solution is C a (0H) 2 , CaCl 2, Ba (aq 0H> 2 or BaCl 2; the aqueous reaction components containing C0 3 2 -, P0 4 3 -, SO- of Na + or K + salt thereof, or a concentration of 0. 01wt% ~
30wt%¾C03、 P04、 H2S04的水溶液; An aqueous solution of 30 wt% 3⁄4 C0 3 , P0 4 , H 2 S0 4 ;
在制备半导体硫化物中空球或复合中空球时, 所述的无机物前体溶液为相应金属阳离 子的可溶性氯化物、 硝酸盐、 硫酸盐的水溶液; 反应组份水溶液为浓度为 0. 01wt%〜30wt% 硫化钠或硫脲的水溶液;  01wt%~ The concentration of the aqueous solution of the reaction solution is 0. 01wt%~ 30% by weight aqueous solution of sodium sulfide or thiourea;
在制备半导体硒化物或碲化物中空球或复合中空球时, 所述的无机物前体溶液为金属 阳离子的可溶性氯化物、硝酸盐、硫酸盐的水溶液;反应组份水溶液为浓度 0. 01wt%〜30wt% 硒化钠或碲化钠的水溶液;  01重量%。 The composition of the solution of the aqueous solution of the solution is 0.10% by weight of the aqueous solution of the solution of the metal cations of the soluble chloride, nitrate, sulfate; ~30wt% aqueous solution of sodium selenide or sodium telluride;
在制备磁性化合物 Fe304、 Fe203或含锌、锰、 钴、 镍、铜、 镁的铁氧体中空球或复合中 空球时, 所述的无机物前体溶液为 Fe2+、 Fe3+、 Zn2+、 Mn2+、 Co2\ Ni2+、 Cu2\ Mg2+的可溶性氯 化物、 硝酸盐、 硫酸盐的水溶液; 反应组份水溶液为浓度为 0. 01wt°/。〜3(kt/。的氢氧化钠、 氢氧化钾或氨水的水溶液, 或浓度为 lwt%〜60wte/oK合肼溶液; When the magnetic compound Fe 3 0 4 , Fe 2 0 3 or a ferrite hollow sphere or a composite hollow sphere containing zinc, manganese, cobalt, nickel, copper or magnesium is prepared, the inorganic precursor solution is Fe 2+ . 01wt°。 The concentration of the aqueous solution of the reaction component is 0. 01wt °, Fe 3+ , Zn 2+ , Mn 2+ , Co 2 \ Ni 2+ , Cu 2 \ Mg 2+ soluble chloride, nitrate, sulphate aqueous solution; /. ~3 (kt /. aqueous solution of sodium hydroxide, potassium hydroxide or ammonia, or a concentration of lwt% ~ 60wt e / oK combined solution;
在制备金属 Au、 Ag、 Pt、 Pd、 Pb、 Ni、 Co、 Cu、 Fe中空球或复合中空球时, 所述的金 属离子盐溶液为相应金属离子可溶性高氯酸盐、 氯化物、 硝酸盐、 硫酸盐的水溶液; 还原 剂溶液为 NaBH4、 LiB (C2H5) 3H或 N2H4的水溶液; In the preparation of metal Au, A g , Pt, Pd, Pb, Ni, Co, Cu, Fe hollow spheres or composite hollow spheres, the gold The ionic salt solution is an aqueous solution of the corresponding metal ion soluble perchlorate, chloride, nitrate, sulfate; the reducing agent solution is an aqueous solution of NaBH 4 , LiB (C 2 H 5 ) 3 H or N 2 H 4 ;
在制备导电聚合物聚苯胺、 聚吡咯、 聚噻吩、 聚对苯乙炔及其衍生物中空球或复合中 空球时, 所述的聚合物单体溶液为相应单体的水或醇溶液; 引发剂溶液为过硫酸钾、 过硫 酸铵或三氯化铁的水溶液;  In the preparation of a conductive polymer polyaniline, polypyrrole, polythiophene, polyparaphenylene acetylene and derivatives thereof hollow spheres or composite hollow spheres, the polymer monomer solution is a water or alcohol solution of the corresponding monomer; initiator The solution is an aqueous solution of potassium persulfate, ammonium persulfate or ferric chloride;
在制备敏感性凝胶聚 N -异丙基丙烯酰胺、 聚丙烯酸、 聚甲基丙烯酸中空球或复合中 空球时, 所述的聚合物单体溶液为 N -异丙基丙烯酰胺、 丙烯酸、 甲基丙烯酸或者其水或 醇溶液; 引发剂溶液为过硫酸钾或过硫酸铵的水溶液;  In preparing a sensitive gel poly-N-isopropylacrylamide, polyacrylic acid, polymethacrylic hollow sphere or composite hollow sphere, the polymer monomer solution is N-isopropylacrylamide, acrylic acid, A a base acrylic acid or a water or alcohol solution thereof; the initiator solution is an aqueous solution of potassium persulfate or ammonium persulfate;
所述的惰性气体是氮气或氩气;  The inert gas is nitrogen or argon;
所述的醇溶液是甲醇、 乙醇、 丙醇、 异丙醇、 丁醇。  The alcohol solution is methanol, ethanol, propanol, isopropanol, butanol.
2. 根据权利要求 1所述的方法, 其特征是: 所述的无机物的中空球或复合中空球包 括: Ti02、 Si02、 Sn02、 Zr02、 A1203、 V205、 ZnO、 W03、 Mo03、 Al (0H) 3或 Mg (0H) 2; 生物矿化 材料的中空球或复合中空球包括: CaC03、 Ca10 (P04) e (0H) 2, 8&504或 &504; 半导体材料的中 空球或复合中空球包括: CdS、 ZnS、 PbS、 CuS、 CoS、 FeS、 CdTe、 CdSe或 ZnSe; 磁性化 合物的中空球或复合中空球包括: Fe304、 Fe203或含锌、 锰、 钴的铁氧体; 金属的中空球或 复合中空球包括: Au、 Ag、 Pt、 Pd、 Pb、 Ni、 Co、 Cu或 Fe; 有机物的中空球或复合中空 球包括: 聚苯胺、 聚吡咯、 聚噻吩或聚对苯乙炔及其衍生物、 聚 N-异丙基丙烯酰胺、 聚丙 烯酸或聚甲基丙烯酸。 2. The method according to claim 1, characterized in that: the composite inorganic hollow spheres or hollow spheres comprising: Ti0 2, Si0 2, Sn0 2, Zr0 2, A1 2 0 3, V 2 0 5 , ZnO, W0 3 , Mo0 3 , Al (0H) 3 or Mg (0H) 2 ; hollow spheres or composite hollow spheres of biomineralized materials include: CaC0 3 , Ca 10 (P0 4 ) e (0H) 2 , 8&50 4 or & 4 4; hollow sphere or composite hollow sphere of semiconductor material comprises: CdS, ZnS, PbS, CuS, CoS, FeS, CdTe, CdSe or ZnSe; hollow sphere or composite hollow sphere of magnetic compound comprises: Fe 3 0 4 , Fe 2 0 3 or ferrite containing zinc, manganese or cobalt; hollow or composite hollow spheres of metal include: Au, Ag, Pt, Pd, Pb, Ni, Co, Cu or Fe; hollow sphere or composite of organic matter The hollow spheres include: polyaniline, polypyrrole, polythiophene or polyparaphenylene vinylene and derivatives thereof, poly N-isopropylacrylamide, polyacrylic acid or polymethacrylic acid.
3.根据权利要求 1所述的方法,其特征是:所述的在进行步骤 (2)之前, 以步骤 (1. 1)、 步骤 (1. 2)、 步骤 (1. 3)分别得到的复合中空球为模板, 分别进一步重复步骤 (1. 1)、 步骤 (1. 2)和步骤 (1. 3), 进行循环反应, 当两次或两次以上循环反应生成同一物质时, 增加复 合中空球的生成物壳厚; 或 The method according to claim 1, wherein the step (1), the step (1.2), and the step (1.3) are respectively performed before the step (2) is performed. The composite hollow sphere is used as a template, and the steps (1.1), the step (1.2) and the step (1.3) are further repeated, respectively, to carry out a cyclic reaction, and when two or more cycles of the reaction form the same substance, the compound is added. The shell of the hollow sphere is thick; or
将步骤 (1. 2)或步骤 (1. 3)得到的复合中空球作为步骤 (1. 1)的模板粒子, 进行循环反 应; 或  The composite hollow sphere obtained in the step (1.2) or the step (1.3) is used as a template particle of the step (1.1) to carry out a cyclic reaction; or
将步骤 (1. 1)或步骤 (1. 3)得到的复合中空球作为步骤 (1. 2)的模板粒子, 进行循环反 应; 或  The composite hollow sphere obtained in the step (1.1) or the step (1.3) is used as a template particle of the step (1.2) to carry out a cyclic reaction; or
将步骤 (1. 1)或步骤 (1. 2)得到的复合中空球作为步骤 (1. 3)的模板粒子, 进行循环反 应;  The composite hollow sphere obtained in the step (1.1) or the step (1.2) is used as a template particle of the step (1.3) to carry out a cyclic reaction;
当两次或两次以上循环反应生成不同种物质时, 得到多种物质的复合中空球。  When two or more cycles are reacted to form different kinds of substances, a composite hollow sphere of a plurality of substances is obtained.
4.一种用模板法制备中空球和复合中空球的方法, 其特征是, 在聚合物中空球模板 壳体内层和亲水通道生长材料的制备方法步骤: 4. A method for preparing a hollow sphere and a composite hollow sphere by a template method, characterized in that a hollow sphere template in a polymer Steps for preparing the inner layer of the shell and the hydrophilic channel growth material:
(1) .将聚合物中空球模板粒子浸泡在反应组份水溶液中, 模板粒子在反应组份水溶液 中保持浓度为 0. lwt%〜40. Owt%, 使反应组份水溶液渗入聚合物中空球模板的空腔, 达到 平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去, 然后将得到的含反应组份水溶 液的聚合物中空球在搅拌下加入到无机物前体的醇溶液中, 无机物前体通过不断补充维持 在 0. 0lwt%〜l0. 0w1:%的一恒定浓度; 控制反应液中模板粒子的浓度保持在 0. lwt%〜 40. Owt%, 反应温度 01:〜 100°C, 反应完毕, 离心清洗, 得到表面带毛刺状物质的聚合物 模板与无机物复合的中空球, 其亲水通道被复型、 扩张甚至伸出球体, 壳体内层生成连续 的材料; 或  Lwt%〜40. Owt%, the aqueous solution of the reaction component is infiltrated into the polymer hollow sphere. The polymer hollow sphere template particles are immersed in the aqueous solution of the reaction component, and the template particles are kept in the aqueous solution of the reaction component at a concentration of 0. lwt%~40. The cavity of the template is centrifuged to remove the solution that has not penetrated into the hollow cavity of the polymer hollow template, and then the obtained polymer hollow sphere containing the aqueous solution of the reaction component is added to the alcohol of the inorganic precursor under stirring. Lwt%〜40. Owt%,反应温度01 The reaction temperature is maintained at 0. 0wt%~l0. 0w1:% of a constant concentration; : ~ 100 ° C, the reaction is completed, centrifugal cleaning, the hollow template of the polymer template and the inorganic material with the surface of the burr-like substance is obtained, the hydrophilic channel is complexed, expanded and even protruded from the sphere, and the inner layer of the shell is continuously formed. Material; or
将聚合物中空球模板粒子浸泡在 0. 01wt%〜60. OwtS的还原剂溶液中,模板粒子在溶液中保 持浓度为 0. lwt%〜40. 0wt%, 使还原剂溶液渗入聚合物中空球模板的空腔, 达到平衡后将 未渗入聚合物中空球模板空腔中的溶液离心洗去; 然后将得到的含还原剂溶液的聚合物中 空球在撹拌下加入到金属离子盐溶液中, 金属离子盐通过不断补充维持在 0. 01wt%〜 10. 0^%的一恒定浓度; 控制反应液中模板粒子的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0°C〜10(TC, 反应完毕, 离心清洗, 即得到表面带毛剌状物质的聚合物模板与金属复合的 中空球, 其亲水通道被复型、 扩张甚至伸出球体, 壳体内层生成连续的材料; 或将聚合物 中空球模板粒子浸泡在反应组份浓度为 0. 01wt%〜30. 0^%引发剂溶液中,模板粒子在溶液 中保持浓度为 0. lwt%〜40. 0wt%, 使引发剂溶液渗入聚合物中空球模板的空腔, 达到平衡 后将未渗入聚合物中空球模板空腔中的溶液离心洗去; 然后将得到的含引发剂溶液的聚合 物中空球在搅拌下加入到聚合物单体溶液中, 聚合物单体通过不断补充维持在 0. 01wt%〜 10. 0^%的一恒定浓度; 在反应容器中通入惰性气体, 控制反应液中模板粒子的浓度保持 在 0. lwt%〜40. 0wt%, 反应温度 0°C〜100°C, 反应完毕, 离心清洗, 即得到表面带毛剌状 物质的聚合物模板与有机物复合的中空球, 其亲水通道被复型、 扩张甚至伸出球体, 壳体 内层生成连续的材料; Lwt%〜40. 0wt%, the reducing agent solution is infiltrated into the polymer hollow spheres. The weight of the template is kept in the solution of the reducing agent solution. The cavity of the template is centrifuged to remove the solution that has not penetrated into the hollow cavity of the polymer hollow template; then the obtained polymer hollow sphere containing the reducing agent solution is added to the metal ion salt solution under the mixing, metal The ionic salt is maintained at a constant concentration of 0. 01wt%~ 10. 0%%; the concentration of the template particles in the reaction solution is kept at 0. lwt%~40. 0wt%, the reaction temperature is 0 °C~10 ( TC, the reaction is completed, centrifugal cleaning, that is, a polymer template with a ruthenium-like substance and a hollow sphere compounded with a metal, the hydrophilic channel is multiplexed, expanded or even protruded from the sphere, and the inner layer of the shell generates a continuous material; Lwt%〜40. 0重量%的使剂剂。 In the initiator solution, the concentration of the template particles in the solution is maintained at 0. lwt%~40. 0wt%, the initiator Solution infiltrated into polymer hollow The cavity of the ball template is centrifuged to remove the solution that has not penetrated into the hollow cavity of the polymer hollow template; then the obtained polymer hollow sphere containing the initiator solution is added to the polymer monomer solution under stirring. Lwt%~40 The concentration of the template particles in the reaction solution is maintained at 0. lwt%~40, the concentration of the template particles in the reaction solution is maintained at 0. lwt%~40 0wt%, reaction temperature 0°C~100°C, after completion of the reaction, centrifugal cleaning, the hollow template of the polymer template with the organic material on the surface of the enamel-like substance is obtained, and the hydrophilic channel is reshaped, expanded or even stretched. Out of the sphere, the inner layer of the shell generates a continuous material;
(2) .将步骤 (1)得到的聚合物模板与无机物、金属复合的中空球置于烧结炉内,并通空 气, 以 0. 1~1(TC/分钟的速度升温至 300〜700°C灼烧,得到表面带毛刺的无机或金属中空 球; 或 (2) The polymer template obtained in the step (1) and the inorganic material, the metal composite hollow sphere is placed in a sintering furnace, and air is passed, and the temperature is raised to 0.1 to 1 (TC/min to 300~700). °C burning to obtain inorganic or metallic hollow spheres with burrs on the surface; or
将步骤 (1)得到的聚合物模板与无机物、金属、有机物复合的中空球使用选择性溶剂进 行抽提, 除去模板聚合物, 得到表面带毛刺的无机物、 金属或有机物中空球; 所述聚合物中空球模板粒子的外径为 0. 02Mn!〜 lOMffl,空腔体积为整个微球的 10〜95%; 所述聚合物中空球模板的内层亲水性聚合物包括聚苯乙烯磺酸、 聚甲基丙烯酸、 聚丙 烯酸、 聚乙烯醇、 聚酰胺类、 聚乙烯基吡咯、 聚 (2-乙烯基吡啶)、 聚 (4-乙烯基吡啶)、 聚 甲基丙烯酸羟乙酯、 聚乙烯基酯、 聚氧乙烯或聚乙烯基氯化铵; The hollow template of the polymer template obtained in the step (1) and the inorganic material, the metal and the organic compound are extracted by using a selective solvent to remove the template polymer, thereby obtaining a surface-burred inorganic, metal or organic hollow sphere; 02Mn! The outer diameter of the polymer hollow sphere template particles is 0. 02Mn! ~ lOMffl, the cavity volume is 10~95% of the entire microsphere; The inner hydrophilic polymer of the polymer hollow sphere template comprises polystyrenesulfonic acid, polymethacrylic acid, polyacrylic acid, polyvinyl alcohol, polyamide, polyvinylpyrrole, poly(2-vinylpyridine) ), poly(4-vinylpyridine), polyhydroxyethyl methacrylate, polyvinyl ester, polyoxyethylene or polyvinyl ammonium chloride;
所述聚合物中空球模板的外层亲油性聚合物包括聚苯乙烯、 聚甲基丙烯酸甲酯、 聚甲 基丙烯酸乙酯、 聚甲基丙烯酸丁酯、 聚甲基丙烯酸叔丁酯、 聚甲基丙烯酸肉桂酸乙基酯、 聚丙烯酸甲酯、 聚丙烯酸乙酯、 聚丙烯酸丁酯、 聚丙烯酸叔丁酯、 聚氧丙烯、 聚二甲基硅 烷、 聚乙烯基丁酯或聚异丁烯;  The outer lipophilic polymer of the polymeric hollow sphere template comprises polystyrene, polymethyl methacrylate, polyethyl methacrylate, polybutyl methacrylate, polybutyl methacrylate, polymethyl Acrylic acid cinnamic acid ethyl ester, polymethyl acrylate, polyethyl acrylate, polybutyl acrylate, poly(tert-butyl acrylate), polyoxypropylene, polydimethylsilane, polyvinyl butyrate or polyisobutylene;
所述用来去除聚合物模板的选择性溶剂是氯仿、甲苯、四氢呋喃或 N, N-二甲基甲酰胺; 在制备 Si02中空球或复合中空球时,所述的无机物前体溶液为 Si (0CH3)4、Si (0CH2CH3) 4、 Si{0CH(CH3)2}4、 S1(0CH2CH2CH2CH3)4或 N¾Si03的醇溶液; 反应组份水溶液为浓度 0. lwt%〜 100wt/。水的醇溶液, 用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜13; The selective solvent for removing the polymer template is chloroform, toluene, tetrahydrofuran or N, N-dimethylformamide; when preparing the SiO 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is An alcohol solution of Si (0CH 3 ) 4 , Si (0CH 2 CH 3 ) 4 , Si{0CH(CH 3 ) 2 } 4 , S1(0CH 2 CH 2 CH 2 CH 3 ) 4 or N3⁄4Si0 3 ; The concentration is 0. lwt%~ 100wt/. The alcoholic solution of water is adjusted to a pH of 1 to 13 with a concentration of 35 wt% concentrated hydrochloric acid or a concentration of 25 wt% concentrated ammonia water ;
在制备 Ti02中空球或复合中空球时, 所述的无机物前体溶液为 TiCl4、 Ti(0C¾)4、 Ti (0CH2CH3) 4、 Ti {OCH (CH3) J 4、 Ti (0C C¾CH2C¾) 4或 TiOS04的醇溶液; 反应组份水溶液为浓 度 0. lwt%〜100wt%水的醇溶液,用浓度 35wt%浓盐酸或浓度 25w1;%浓氨水调节其 pH值为 1〜 13; In the preparation of the Ti0 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is TiCl 4 , Ti(0C3⁄4) 4 , Ti (0CH 2 CH 3 ) 4 , Ti {OCH (CH 3 ) J 4 , Ti (0C C¾CH 2 C¾) alcoholic solution of TiOS0 4 or 4; aqueous reaction components at a concentration of 0. lwt% ~100wt% aqueous alcohol solution, concentrated hydrochloric acid with a concentration of 35wt% or concentration 25w1;% concentrated aqueous ammonia pH adjustment 1~ 13;
在制备 Sn02中空球或复合中空球时, 所述的无机物前体溶液为 SnCl4、 Sn(0C )4、 Sn (0CH2CH3) 4、Sn {OCH (CH3) 2} 4、Sn (0CH2CH2CH2CH3) 4的醇溶液;反应组份水溶液为浓度 0. lwt%〜 10(kt/。水的醇溶液, 用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜13; In the preparation of the Sn0 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is SnCl 4 , Sn(0C ) 4 , Sn (0CH 2 CH 3 ) 4 , Sn {OCH (CH 3 ) 2 } 4 , An alcohol solution of Sn (0CH 2 CH 2 CH 2 CH 3 ) 4 ; the aqueous solution of the reaction component is a concentration of 0. lwt% ~ 10 (kt / water) alcohol solution, adjusted with a concentration of 35wt% concentrated hydrochloric acid or a concentration of 25wt% concentrated ammonia water Its pH is 1~13 ;
在制备 Zr02中空球或复合中空球时, 所述的无机物前体溶液为 ZrCl4、 Zr(0CH3)4、 Zr(0CH2CH3)4、 Zr{0CH(CH3)J4、 Zr (0C CH2CH2C )4、 Zr(S04)2的醇溶液; 反应组份水溶液为 浓度 0. lwt%~100wt%水的醇溶液,用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1-13; In the preparation of the Zr0 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is ZrCl 4 , Zr(0CH 3 ) 4 , Zr(0CH 2 CH 3 ) 4 , Zr{0CH(CH 3 )J 4 , Zr (0C CH 2 CH 2 C ) 4 , Zr (S0 4 ) 2 alcohol solution; the reaction component aqueous solution is a concentration of 0. lwt% ~ 100wt% water alcohol solution, with a concentration of 35wt% concentrated hydrochloric acid or a concentration of 25wt% concentrated Ammonia water adjusts its pH to 1-13;
在制备 A1203中空球或复合中空球时, 所述的无机物前体溶液为 A1C13、 A1(0CH3)3、 A1(0C¾C )3、 A1{0CH(CH3)2}3、 Al (0CH2CH2CH2CH3) 3、 A12(S04)3的醇溶液; 反应组份水溶液为 浓度 0. lwt%〜100wt%水的醇溶液,用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1~13; In the preparation of the A1 2 0 3 hollow sphere or the composite hollow sphere, the inorganic precursor solution is A1C1 3 , A1(0CH 3 ) 3 , A1(0C3⁄4C ) 3 , A1{0CH(CH 3 ) 2 } 3 , Al (0CH 2 CH 2 CH 2 CH 3 ) 3 , A1 2 (S0 4 ) 3 alcohol solution; the reaction component aqueous solution is a concentration of 0. lwt% ~ 100wt% water in an alcohol solution, with a concentration of 35wt% concentrated hydrochloric acid or concentration 25wt% concentrated ammonia water adjusts its pH value to 1~13;
在制备 V205中空球或复合中空球时,所述的无机物前体溶液为 VO(OCH3)3、VO(OCH2C¾)3、 V0{0CH(CH3) 、 V0(0CH2CH2CH2CH3)3的醇溶液; 反应组份水溶液为浓度 0.1 %〜100 %水的 醇溶液, 用浓度 35wt°/。浓盐酸或浓度 25wt°/。浓氨水调节其 pH值为 1〜13; In the preparation of a V 2 0 5 hollow sphere or a composite hollow sphere, the inorganic precursor solution is VO(OCH 3 ) 3 , VO(OCH 2 C 3⁄4) 3 , V0{0CH(CH 3 ) , V0 (0CH 2 An alcohol solution of CH 2 CH 2 CH 3 ) 3 ; an aqueous solution of the reaction component is an alcohol solution having a concentration of 0.1% to 100% water, and a concentration of 35 wt%/. Concentrated hydrochloric acid or a concentration of 25wt ° /. Concentrated ammonia water adjusts its pH value to 1~13;
在制备 ZnO中空球或复合中空球时, 所述的无机物前体溶液为 Zn(N03)2、 Zn(O0CCH3)2、 ZnCl2、 Zn(C104)2的醇溶液; 反应组份水溶液为浓度 0.0brt%〜30wt%的氢氧化钠、 氢氧化 钾或氨水的水或醇溶液; In the preparation of the ZnO hollow sphere or the composite hollow sphere, the inorganic precursor solution is an alcohol solution of Zn(N0 3 ) 2 , Zn(O0CCH 3 ) 2 , ZnCl 2 , Zn(C10 4 ) 2 ; The aqueous solution is a water or alcohol solution having a concentration of 0.0 bt% to 30% by weight of sodium hydroxide, potassium hydroxide or ammonia;
在制备 W03中空球或复合中空球时, 所述的无机前体溶液为 (NH4) 611 20413的 水溶液; 反应组份水溶液为浓度 0. Iw1 100wt%水的醇溶液, 用浓度 35wt% 盐酸或浓度 25vrt%浓氨水调节其 pH值为 1 13 In the preparation of the W0 3 hollow sphere or the composite hollow sphere, the inorganic precursor solution is (NH 4 ) 6 11 2 0 41 or 3 . The aqueous solution of the reaction component is an alcohol solution having a concentration of 0. Iw1 100 wt% water, and the pH is adjusted to 1 13 by a concentration of 35 wt% hydrochloric acid or a concentration of 25 vrt% concentrated aqueous ammonia.
在制备 Mo03中空球或复合中空球时, 所述的无机物前体溶液为 Mo03 2H20水溶液; 反 应组份水溶液为浓度 0. lWt% 100wt%水的醇溶液, 用浓度 35wt%浓盐酸或浓度 25wt%浓氨 水调节其 pH值为 1 13; In the preparation of the Mo0 3 hollow sphere or the composite hollow sphere, the inorganic precursor solution is a Mo0 3 2H 2 0 aqueous solution; the reaction component aqueous solution is a concentration of 0.1 l W t% 100 wt% water in an alcohol solution, with a concentration of 35 wt. % concentrated hydrochloric acid or a concentration of 25wt% concentrated ammonia water to adjust its pH value to 13 ;
在制备 Al (OH) 3或 Mg (OH) 2中空球或复合中空球时,所述的无机物前体溶液为可溶性铝、 镁的氯化物或硫酸盐水溶液; 反应组份水溶液为浓度 0. 01wt% 30wt%的氢氧化钠、 氢氧化 钾或氨水的水溶液; In the preparation of Al (OH) 3 or Mg (OH) 2 hollow spheres or composite hollow spheres, the inorganic precursor solution is a soluble aluminum or magnesium chloride or sulfate aqueous solution; the reaction component aqueous solution is a concentration of 0. 01wt% 30wt% aqueous solution of sodium hydroxide, potassium hydroxide or ammonia;
在制备生物矿化材料 CaC03 CaI0(P04)6 (0H) 2, &504或 BaS04中空球或复合中空球时, 所述的无机物前体溶液为 Ca(0H) 2 CaCl2 Ba(0H) 2或 BaCl2的水溶液; 反应组份水溶液为 浓度 0. 01 30^%含 C03 2— P04 3— S04 2—的 Na+或 K+盐, 或者 H2C03 H3P04 H2S04的水溶液; 在制备半导体硫化物中空球或复合中空球时, 所述的无机物前体溶液为相应金属阳离 子的可溶性氯化物、硝酸盐或硫酸盐的水溶液; 反应组份水溶液为浓度 0. 0^1% 30 «硫 化钠或硫脲的水溶液; When preparing the biomineralized material CaC0 3 Ca I0 (P0 4 ) 6 (0H) 2 , &50 4 or BaS0 4 hollow sphere or composite hollow sphere, the inorganic precursor solution is Ca(0H) 2 CaCl 2 Ba (0H) 2 or an aqueous solution of BaCl 2 ; the aqueous solution of the reaction component is a concentration of 0. 01 30^% containing C0 3 2 - P0 4 3 - S0 4 2 - Na + or K + salt, or H 2 C0 3 H 3 P0 An aqueous solution of 4 H 2 S0 4 ; in the preparation of a semiconductor sulfide hollow sphere or a composite hollow sphere, the inorganic precursor solution is an aqueous solution of a soluble chloride, nitrate or sulfate of the corresponding metal cation; 0浓度1% 30 «Sodium sulfide or thiourea in water;
在制备半导体硒化物或碲化物中空球或复合中空球时, 所述的无机物前体溶液为相应 金属阳离子的可溶性氯化物、硝酸盐或硫酸盐的水溶液;反应组份水溶液为浓度 0. 01wt% 30^%硒化钠或碲化钠的水溶液;  _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ % 30%% aqueous solution of sodium selenide or sodium hydride;
在制备磁性化合物 Fe304 Fe203或含锌、 锰、 钴、 镍、 铜、 镁的铁氧体中空球或复合中 空球时, 所述的无机物前体溶液为 Fe2+ Fe3+ Zn2\ Mn2\ Co2\ Ni2+ Cu2\ Mg2+的可溶性氯 化物、 硝酸盐或硫酸盐的水溶液; 反应组份水溶液为浓度 0. 01wt»/ 3(kt%的氢氧化钠、 氢 氧化钾或氨水的水溶液, 或浓度为 1^« 60^%的水合肼溶液; In the preparation of the magnetic compound Fe 3 0 4 Fe 2 O 3 or a ferrite hollow sphere or a composite hollow sphere containing zinc, manganese, cobalt, nickel, copper or magnesium, the inorganic precursor solution is Fe 2+ Fe 3wt Zn 2 \ Mn 2 \ Co 2 \ Ni 2+ Cu 2 \ Mg 2+ soluble chloride, nitrate or sulphate aqueous solution; the reaction component aqueous solution is a concentration of 0. 01wt» / 3 (kt% hydrogen An aqueous solution of sodium oxide, potassium hydroxide or ammonia, or a hydrazine hydrate solution having a concentration of 1^« 60%;
在制备金属 Au Ag Pt Pd Pb Ni 'Co Cu Fe中空球或复合中空球时, 所述的金 属离子盐溶液为相应金属离子可溶性高氯酸盐、 氯化物、 硝酸盐、 硫酸盐的水溶液; 还原 剂溶液为 NaBH4 LiB (C2¾) 3H或 N2H4的氷溶液; In the preparation of a metal Au Ag Pt Pd Pb Ni 'Co Cu Fe hollow sphere or a composite hollow sphere, the metal ion salt solution is an aqueous solution of a corresponding metal ion soluble perchlorate, chloride, nitrate, sulfate; The solution is an ice solution of NaBH 4 LiB (C 2 3⁄4 ) 3 H or N 2 H 4 ;
在制备导电聚合物聚苯胺、 聚吡咯、 聚噻吩、 聚对苯乙炔及其衍生物中空球或复合中 空球时, 所述的聚合物单体溶液为相应单体的水或醇溶液; 引发剂溶液为过硫酸钾、 过硫 酸铵或三氯化铁的水溶液;  In the preparation of a conductive polymer polyaniline, polypyrrole, polythiophene, polyparaphenylene acetylene and derivatives thereof hollow spheres or composite hollow spheres, the polymer monomer solution is a water or alcohol solution of the corresponding monomer; initiator The solution is an aqueous solution of potassium persulfate, ammonium persulfate or ferric chloride;
在制备敏感性凝胶聚 N -异丙基丙烯酰胺、 聚丙烯酸、 聚甲基丙烯酸中空球^复合中 空球时, 所述的聚合物单体溶液为 N -异丙基丙烯酰胺、 丙烯酸、 甲基丙烯酸或者其水或 醇溶液; 引发剂溶液为过硫酸钾或过硫酸铵的水溶液;  In the preparation of the sensitive gel poly N-isopropyl acrylamide, polyacrylic acid, polymethacrylic hollow sphere composite hollow sphere, the polymer monomer solution is N-isopropyl acrylamide, acrylic acid, A a base acrylic acid or a water or alcohol solution thereof; the initiator solution is an aqueous solution of potassium persulfate or ammonium persulfate;
所述的惰性气体是氮气或氩气;  The inert gas is nitrogen or argon;
所述的醇溶液是甲醇、 乙醇、 丙醇、 异丙醇、 丁醇。 The alcohol solution is methanol, ethanol, propanol, isopropanol, butanol.
5.根据权利要求 4所述的方法,其特征是:所述的无机物的中空球或复合中空球包括: Ti02、 Si02、 Sn02、 Zr02、 A1203、 V205、 ZnO、 W03、 Mo03、 A1 (0H) 3或 Mg (0H) 2; 生物矿化材料 的中空球或复合中空球包括: CaC03、 Ca10 (P04)e (OH) 2, 8&304或 &304; 半导体材料的中空球 或复合中空球包括: CdS、 ZnS、 PbS、 CuS、 CoS、 FeS、 CdTe、 CdSe或 ZnSe; 磁性化合物的 中空球或复合中空球包括: Fe304、 Fe203或含锌、 锰、 钴的铁氧体; 金属的中空球或复合中 空球包括: Au、 Ag、 Pt、 Pd、 Pb、 Ni、 Co、 Cu或 Fe; 有机物的中空球或复合中空球包括: 聚苯胺、 聚吡咯、 聚噻吩或聚对苯乙炔及其衍生物、 聚 N-异丙基丙烯酰胺、 聚丙烯酸或聚 甲基丙烯酸。 The method according to claim 4, characterized in that: the composite inorganic hollow spheres or hollow spheres comprising: Ti0 2, Si0 2, Sn0 2, Zr0 2, A1 2 0 3, V 2 0 5 , ZnO, W0 3 , Mo0 3 , A1 (0H) 3 or Mg (0H) 2 ; hollow spheres or composite hollow spheres of biomineralized materials include: CaC0 3 , Ca 10 (P0 4 )e (OH) 2 , 8&30 4 or &304; semiconductor material hollow spheres or composite hollow sphere comprising: CdS, ZnS, PbS, CuS , CoS, FeS, CdTe, CdSe or the ZnSe; hollow sphere magnetic compound or composite hollow sphere comprising: Fe 3 0 4, Fe 2 0 3 or ferrite containing zinc, manganese or cobalt; hollow or composite hollow spheres of metal include: Au, Ag, Pt, Pd, Pb, Ni, Co, Cu or Fe; hollow sphere or composite of organic matter The hollow spheres include: polyaniline, polypyrrole, polythiophene or polyparaphenylene vinylene and derivatives thereof, poly N-isopropylacrylamide, polyacrylic acid or polymethacrylic acid.
6.—种用模板法制备中空球和复合中空球的方法, 其特征是, 在聚合物中空球模板壳 体外表面生长材料的制备方法步骤: 6. A method for preparing a hollow sphere and a composite hollow sphere by a template method, characterized in that the method for preparing a material for growing a surface of a polymer hollow sphere template shell is:
将聚合物中空球模板粒子分散在醇溶液中, 加入无机物前体溶液和反应组份水溶液, 控制反应液中无机物前体的浓度 0. 01vrt%〜30wt%,反应组份水溶液的最终浓度为 0. lwt%〜 50wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜100°C, 使反应产物沉积在聚 合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离心清洗, 即得到在聚合物中空球壳 体外表面生长无机物的复合中空球; 除去聚合物模板, 得到无机物中空球; 或  The polymer hollow sphere template particles are dispersed in an alcohol solution, the inorganic precursor solution and the aqueous solution of the reaction component are added, and the concentration of the inorganic precursor in the reaction liquid is controlled to be 0.01 Vrt% to 30 wt%, and the final concentration of the aqueous solution of the reaction component is determined. 0wt%〜50wt%, the concentration of the template particles is 0. lwt%~40wt%, the reaction temperature is 0 ° C ~ 100 ° C, the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell; After the reaction is completed, centrifugal cleaning is performed to obtain a composite hollow sphere in which an inorganic substance is grown on the outer surface of the hollow shell of the polymer; the polymer template is removed to obtain an inorganic hollow sphere; or
将聚合物中 球模板粒子分散在水中, 加入金属离子盐溶液和还原剂溶液, 控制反应 液中金属离子盐浓度 0. 01wt%〜30wt%, 还原剂浓度 0. 01wt%〜30wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜100°C, 使反应产物沉积在聚合物中空球壳体外表面, 形 成连续壳层; 反应完毕, 离心清洗, 即得到在聚合物中空球壳体外表面生长金属的复合中 空球; 除去聚合物模板, 得到金属中空球; 或  01wt%〜30wt%, template particles, the concentration of the metal ion salt in the reaction solution is 0. 01wt%~30wt%, the concentration of the reducing agent is 0. 01wt%~30wt%, the template particle is dispersed in the water, the metal ion salt solution and the reducing agent solution are added. The concentration is 0. lwt% ~ 40wt%, the reaction temperature is 0 ° C ~ 100 ° C, the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell; after the reaction is completed, centrifugal cleaning, that is, in the polymer a composite hollow sphere of metal grown on the outer surface of the hollow spherical shell; removing the polymer template to obtain a metal hollow sphere; or
将聚合物中空球模板粒子分散在水中, 在反应容器中通入惰性气体, 加入聚合物单体 和引发剂溶液, 控制反应液中聚合物单体浓度 0. 01wt%〜2(kt%, 引发剂浓度 0. 01wt%〜 20wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜100°C, 使反应产物沉积在聚 合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离心清洗, 即得到在聚合物中空球壳 体外表面生长的聚合物与有机物的复合中空球; 除去模板聚合物, 得到有机物中空球; 所述聚合物中空球模板粒子的外径为 0. 02Ρίΐ!〜 10Pm,空腔体积为整个微球的 10〜95%; 所述聚合物中空球模板的内层亲水性聚合物包括聚苯乙烯磺酸、 聚甲基丙烯酸、 聚丙 烯酸、 聚乙烯醇、 聚酰胺类、 聚乙烯基吡咯、 聚 (2-乙烯基吡啶)、 聚 (4 -乙烯基吡啶)、 聚 甲基丙烯酸羟乙酯、 聚乙烯基酯、 聚氧乙烯或聚乙烯基氯化铵。 01重量%〜2(kt%, 引 initiated, the polymerization of the polymer monomer monomer and the initiator solution is controlled. The concentration of the template is 0. 01wt%~ 20wt%, the concentration of the template particles is 0. lwt%~40wt%, the reaction temperature is 0°C~100°C, and the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell layer. After the reaction is completed, centrifugal cleaning is performed to obtain a composite hollow sphere of a polymer and an organic material grown on the outer surface of the hollow shell of the polymer; the template polymer is removed to obtain an organic hollow sphere; and the outer diameter of the hollow sphere template particle of the polymer is 0. 02Ρίΐ!~10Pm, the cavity volume is 10~95% of the whole microsphere ; the inner hydrophilic polymer of the polymer hollow sphere template includes polystyrenesulfonic acid, polymethacrylic acid, polyacrylic acid, Polyvinyl alcohol, polyamide, polyvinylpyrrole, poly(2-vinylpyridine), poly(4-vinylpyridine), polyhydroxyethyl methacrylate, polyvinyl ester, polyoxyethylene or polyethylene Ammonium chloride.
所述聚合物中空球模板的外层亲油性聚合物包括聚苯乙烯、 聚甲基丙烯酸甲酯、 聚甲 基丙烯酸乙酯、 聚甲基丙烯酸丁酯、 聚甲基丙烯酸叔丁酯、 聚甲基丙烯酸肉桂酸乙基酯、 聚丙烯酸甲酯、 聚丙烯酸乙酯、 聚丙烯酸丁酯、 聚丙烯酸叔丁酯、 聚氧丙烯、 聚二甲基硅 垸、 聚乙烯基丁酯或聚异丁烯; The outer lipophilic polymer of the polymeric hollow sphere template comprises polystyrene, polymethyl methacrylate, polyethyl methacrylate, polybutyl methacrylate, polybutyl methacrylate, polymethyl Acrylic acid cinnamic acid ethyl ester, Polymethyl acrylate, polyethyl acrylate, polybutyl acrylate, polybutyl acrylate, polyoxypropylene, polydimethylsilyl, polyvinyl butyrate or polyisobutylene;
所述用来去除聚合物模板的选择性溶剂是氯仿、甲苯、四氢呋喃或 N, N-二甲基甲酰胺; 在制备 Si02中空球或复合中空球时,所述的无机物前体溶液为 Si (0CH3)4、Si (0C¾CH 、The selective solvent for removing the polymer template is chloroform, toluene, tetrahydrofuran or N, N-dimethylformamide; when preparing the SiO 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is Si (0CH 3 ) 4 , Si (0C3⁄4CH ,
Si{0CH(C )2}4、 51(0 (¾(¾(¾)4或 N¾Si03的醇溶液; 反应组份水溶液为浓度 0. lwt%〜 Si {0CH (C) 2} 4, 51 (0 (¾ (¾ (¾) alcoholic solution of N¾Si0 3 or 4; aqueous reaction components at a concentration of 0. lwt% ~
100wt°/。水的醇溶液, 用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜13; 100wt°/. The alcoholic solution of water is adjusted to a pH of 1 to 13 with a concentration of 35 wt% concentrated hydrochloric acid or a concentration of 25 wt% concentrated aqueous ammonia;
在制备 Ti02中空球或复合中空球时, 所述的无机物前体溶液为 TiCl4、 Ti(0CH3)4In the preparation of the Ti0 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is TiCl 4 , Ti(0CH 3 ) 4 ,
Ti (0CH2CH3) 4、 Ti {OCH (CH3) J 4、 Ti (0CH2CH2CH2CH3) 4或 TiOS04的醇溶液; 反应组份水溶液为浓 度 0. lwt%〜 lOOwty。水的醇溶液,用浓度 35 %浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜 Ti (0CH 2 CH 3) 4 , Ti {OCH (CH 3) J 4, Ti (0CH 2 CH 2 CH 2 CH 3) 4 or alcoholic solution of TiOS0 4; aqueous reaction components at a concentration of 0. lwt% ~ lOOwty . The alcoholic solution of water is adjusted to a pH of 1~ with a concentration of 35 % concentrated hydrochloric acid or a concentration of 25 wt% concentrated ammonia water.
13; 13;
在制备 Sn02中空球或复合中空球时, 所述的无机物前体溶液为 SnCl4、 Sn(0CH3)4、 Sn (0CH2CH3) 、 Sn {OCH (CH3) 2} 4或 Sn (0CH2CH2CH2CH3) 4的醇溶液; 反应组份水溶液为浓度 0. lwt%〜100wt%水的醇溶液, 用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜 13; In the preparation of the Sn0 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is SnCl 4 , Sn(0CH 3 ) 4 , Sn (0CH 2 CH 3 ), Sn {OCH (CH 3 ) 2 } 4 or An alcohol solution of Sn (0CH 2 CH 2 CH 2 CH 3 ) 4 ; an aqueous solution of the reaction component is an alcohol solution having a concentration of 0.1 wt% to 100 wt% of water, and the pH is adjusted by a concentration of 35 wt% concentrated hydrochloric acid or a concentration of 25 wt% concentrated ammonia water. 1 to 13;
在制备 Zr02中空球或复合中空球时, 所述的无机物前体溶液为 ZrCl4、 Zr(0C¾)4、 Zr (0CH2CH3) 4、 Zr {OCH (CH3) 2} 4、 Zr (0CH2CH2CH2CH3) 4或 Zr (S04) 2的醇溶液; 反应组份水溶液为 浓度 0. lwt%〜100wt%水的醇溶液,用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜13; In the preparation of the Zr0 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is ZrCl 4 , Zr(0C3⁄4) 4 , Zr (0CH 2 CH 3 ) 4 , Zr {OCH (CH 3 ) 2 } 4 , Zr (0CH 2 CH 2 CH 2 CH 3 ) 4 or Zr (S0 4 ) 2 alcohol solution; the reaction component aqueous solution is a concentration of 0. lwt% ~ 100wt% water in an alcohol solution, with a concentration of 35wt% concentrated hydrochloric acid or a concentration of 25wt % concentrated ammonia water adjusts its pH value to 1~13;
在制备 A1A中空球或复合中空球时, 所述的无机物前体溶液为 A1C13、 A1(0CH3)3、 A1(0CH2CH3)3、 A1{0CH(CH3)2}3、 A1(0C C CH2CH3)3或 A12(S04)3的醇溶液; 反应组份水溶液为 浓度 0. lwt%〜100wt%水的醇溶液,用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜13; In the preparation of the A1A hollow sphere or the composite hollow sphere, the inorganic precursor solution is A1C1 3 , A1(0CH 3 ) 3 , A1(0CH 2 CH 3 ) 3 , A1{0CH(CH 3 ) 2 } 3 , A1 (0C C CH 2 CH 3 ) 3 or A1 2 (S0 4 ) 3 alcohol solution; the reaction component aqueous solution is a concentration of 0. lwt% ~ 100wt% water in an alcohol solution, with a concentration of 35wt% concentrated hydrochloric acid or a concentration of 25wt% Concentrated ammonia water adjusts its pH value to 1~13;
在制备 V205中空球或复合中空球时,所述的无机物前体溶液为 V0(0C¾)3、V0(0CH2CH3)3、 V0{0CH(CH3)J3或 V0(0CH2C¾CH2CH3)3的醇溶液; 反应组份水溶液为浓度 0. lwt%〜100Wt%水 的醇溶液, 用浓度 35w«浓盐酸或浓度 25wt¾¾氨水调节其 PH值为 1〜13; In the preparation of a V 2 0 5 hollow sphere or a composite hollow sphere, the inorganic precursor solution is V0(0C3⁄4) 3 , V0(0CH 2 CH 3 ) 3 , V0{0CH(CH 3 )J 3 or V0 ( 0CH 2 C3⁄4CH 2 CH 3 ) 3 alcohol solution; the reaction component aqueous solution is a concentration of 0. l w t% ~ 100 W t% water in an alcohol solution, the concentration of 35w « concentrated hydrochloric acid or a concentration of 25wt3⁄43⁄4 ammonia water to adjust its P H value 1 to 13;
在制备 ΖηΟ中空球或复合中空球时, 所述的无机物前体溶液为 Zn(N03)2、 Zn(00CC )2、 ZnCl2或 Zn(C104)2的醇溶液; 反应组份水溶液为浓度 0.0 rt%〜30wt%的氢氧化钠、 氢氧化 钾或氨水的水或醇溶液; In the preparation of the ΖηΟ hollow sphere or the composite hollow sphere, the inorganic precursor solution is an alcohol solution of Zn(N0 3 ) 2 , Zn(00CC ) 2 , ZnCl 2 or Zn(C10 4 ) 2 ; a water or alcohol solution having a concentration of 0.0 rt% to 30% by weight of sodium hydroxide, potassium hydroxide or ammonia;
在制备 W03中空球或复合中空球时, 所述的无机前体溶液为 (丽4) 6 12041或 NaTO3的 水溶液; 反应组份水溶液为浓度 0. lwt〜100Wt/_K的醇溶液, 用浓度 35wt%¾¾盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜13; W0 3 in the preparation of a composite hollow sphere or hollow sphere, the inorganic precursor solution is an aqueous solution (Li 4) 612 041 or NaTO 3; the concentration of the reaction solution as component 0. lwt~100 W t / _K of Alcohol solution, with a concentration of 35wt% 3⁄43⁄4 hydrochloric acid or a concentration of 25wt% concentrated ammonia water to adjust its pH value of 1~13;
在制备 Mo03中空球或复合中空球时, 所述的无机物前体溶液为 Mo032H20水溶液; 反 应组份水溶液为浓度 0. lwt°/。〜10(kt°/。水的醇溶液, 用浓度 35wt%浓盐酸或浓度 25wt%浓氨 水调节其 pH值为 1〜13; In the preparation of hollow spheres or Mo0 3 composite hollow sphere, the inorganic precursor solution of aqueous Mo0 3 2H 2 0; the concentration of the reaction solution as component 0. lwt ° /. ~10 (kt ° / water alcohol solution, with a concentration of 35wt% concentrated hydrochloric acid or a concentration of 25wt% concentrated ammonia Water adjustment pH value of 1~13;
在制备 A1 (0H) 3或 Mg (0H) 2中空球或复合中空球时,所述的无机物前体溶液为可溶性铝、 镁的氯化物、 硫酸盐的水溶液; 反应组份水溶液为浓度 0. 01wt%〜30wt%的氢氧化钠、 氢氧 化钾或氨水的水溶液; In the preparation of A1 (0H) 3 or Mg (0H) 2 hollow spheres or composite hollow spheres, the inorganic precursor solution is an aqueous solution of soluble aluminum, magnesium chloride, and sulfate; 01wt%~30wt% aqueous solution of sodium hydroxide, potassium hydroxide or ammonia;
在制备生物矿化材料 CaC03、 Cai。(P04) 6(0H) 2、 CaS04、 或 BaS04中空球或复合中空球时, 所述的无机物前体溶液为 Ca(0H) 2、 CaCl2、 Ba (0H) 2或 BaCl2的水溶液; 反应组份水溶液为 含 CO/—、 P0—、 SO 的 Na+或 Κ+盐, 或者浓度 0. 01wt%〜30wt»/^ ¾C03、 P04或 H2S04的水溶 液; In the preparation of biomineralized materials CaC0 3 , C ai . (P0 4 ) 6 (0H) 2 , CaS0 4 , or BaS0 4 hollow sphere or composite hollow sphere, the inorganic precursor solution is Ca(0H) 2 , CaCl 2 , Ba (0H) 2 or BaCl 2 The aqueous solution of the reaction component is a Na+ or Κ+ salt containing CO/—, P0—, SO, or an aqueous solution having a concentration of 0.01 wt% 〜30 wt»/^ 3⁄4 C0 3 , P0 4 or H 2 S0 4 ;
在制备半导体硫化物中空球或复合中空球时, 所述的无机物前体溶液为相应金属阳离 子的可溶性氯化物、硝酸盐或硫酸盐的水溶液; 反应组份水溶液为浓度 0. 0lwt%〜30w1:%的 硫化钠或硫脲的水溶液;  0lwt%〜30w1。 The solution of the aqueous solution of the solution is a solution of the corresponding metal cations of the soluble chloride, nitrate or sulphate; : % aqueous solution of sodium sulfide or thiourea;
在制备半导体硒化物或碲化物中空球或复合中空球时, 所述的无机物前体溶液为相应 金属阳离子的可溶性氯化物、硝酸盐、硫酸盐的水溶液;反应组份水溶液为浓度 0. 01wt%〜 30wt/M®化钠或碲化钠的水溶液;  01wtwt。 The solution of the aqueous solution of the solution is a concentration of 0. 01wt %~ 30wt/M® sodium or sodium hydride solution;
在制备磁性化合物 Fe304或 F 03或含锌、 锰、 钴、 镍、 铜、 镁的铁氧体中空球或复合 中空球时, 所述的无机物前体溶液为 Fe2+、 Fe3+、 Zn2+、 Mn2\ Co2\ Ni2 Cu2+或 Mg2+的可溶性 氯化物、 硝酸盐或硫酸盐的水溶液; 反应组份水溶液为浓度 0. 0lw1:%〜30wt%氢氧化钠、 氢 氧化钾或氨水的水溶液, 或浓度 lwt%〜60wt%的水合肼溶液; In the preparation of the magnetic compound Fe 3 0 4 or F 0 3 or a ferrite hollow sphere or a composite hollow sphere containing zinc, manganese, cobalt, nickel, copper or magnesium, the inorganic precursor solution is Fe 2+ , a solution of a soluble chloride, a nitrate or a sulfate of Fe 3+ , Zn 2+ , Mn 2 \ Co 2 \ Ni 2 Cu 2+ or Mg 2+ ; a concentration of the aqueous solution of the reaction component is 0. 0lw1: %~30wt% An aqueous solution of sodium hydroxide, potassium hydroxide or aqueous ammonia, or a hydrazine hydrate solution having a concentration of from 1% by weight to 60% by weight;
在制备金属 Au、 Ag、 Pt、 Pd、 Pb、 Ni、 Co、 Cu、 Fe中空球或复合中空球时, 所述的金 属离子盐溶液为相应金属离子可溶性高氯酸盐、 氯化物、 硝酸盐或硫酸盐的水溶液; 还原 剂溶液为 NaBH4、 LiB (C2 ) 3H或 N2H4的水溶液; . 在制备导电聚合物聚苯胺、 聚吡咯、 聚噻吩、 聚对苯乙炔及其衍生物中空球或复合中 空球时, 所述的聚合物单体溶液为相应单体的水或醇溶液; 引发剂溶液为过硫酸钾、 过硫 酸铵或三氯化铁的水溶液; In the preparation of metal Au, Ag, Pt, Pd, Pb, Ni, Co, Cu, Fe hollow spheres or composite hollow spheres, the metal ion salt solution is a corresponding metal ion soluble perchlorate, chloride, nitrate Or an aqueous solution of a sulfate; the reducing agent solution is an aqueous solution of NaBH 4 , LiB (C 2 ) 3 H or N 2 H 4 ; in preparing a conductive polymer polyaniline, polypyrrole, polythiophene, polyparaphenylene acetylene and its derivatives When the hollow sphere or the composite hollow sphere is used, the polymer monomer solution is a water or alcohol solution of the corresponding monomer; the initiator solution is an aqueous solution of potassium persulfate, ammonium persulfate or ferric chloride;
在制备敏感性凝胶聚 N -异丙基丙烯酰胺、 聚丙烯酸、 聚甲基丙烯酸中空球或复合中 空球时, 所述的聚合物单体溶液为单体 N -异丙基丙烯酰胺、 丙烯酸、 甲基丙烯酸或者其 水或醇溶液; 引发剂溶液为过硫酸钾或过硫酸铵的水溶液;  In the preparation of a sensitive gel poly-N-isopropylacrylamide, polyacrylic acid, polymethacrylic hollow sphere or composite hollow sphere, the polymer monomer solution is a monomer N-isopropyl acrylamide, acrylic acid , methacrylic acid or its water or alcohol solution; the initiator solution is an aqueous solution of potassium persulfate or ammonium persulfate;
所述的惰性气体是氮气或氩气。  The inert gas is nitrogen or argon.
所述的醇溶液是甲醇、 乙醇、 丙醇、 异丙醇、 丁醇。  The alcohol solution is methanol, ethanol, propanol, isopropanol, butanol.
7.根据权利要求 6所述的方法,其特征是:所述的无机物的中空球或复合中空球包括: Ti02、 Si02、 Sn02、 Zr02、 A1203、 V205、 Zn0、 W03、 Mo03、 Al (0H) 3或 Mg (0H)2; 生物矿化材料 的中空球或复合中空球包括: CaC03、 Ca10 (P04)6 (0H) 2, BaS04或 CaS04; 半导体材料的中空球 或复合中空球包括: CdS、 ZnS、 PbS、 CuS、 CoS、 FeS、 CdTe、 CdSe或 ZnSe; 磁性化合物的 中空球或复合中空球包括: Fe304、 Fe203或含锌、 锰、 钴的铁氧体; 金属的中空球或复合中 空球包括: Au、 Ag、 Pt、 Pd、 Pb、 Ni、 Co、 Cu或 Fe; 有机物的中空球或复合中空球包括: 聚苯胺、 聚吡咯、 聚噻吩或聚对苯乙炔及其衍生物、 聚 N-异丙基丙烯酰胺、 聚丙烯酸或聚 甲基丙烯酸。 7. The method according to claim 6, characterized in that: the composite inorganic hollow spheres or hollow spheres comprising: Ti0 2, Si0 2, Sn0 2, Zr0 2, A1 2 0 3, V 2 0 5 , Zn0, W0 3 , Mo0 3 , Al (0H) 3 or Mg (0H) 2 ; hollow spheres or composite hollow spheres of biomineralized materials include: C a C0 3 , Ca 10 (P04) 6 (0H) 2 , BaS0 4 or CaS0 4; hollow sphere of semiconductor material Or composite hollow spheres include: CdS, ZnS, PbS, CuS, CoS, FeS, CdTe, CdSe or ZnSe; hollow spheres or composite hollow spheres of magnetic compounds include: Fe 3 0 4 , Fe 2 0 3 or zinc, manganese, Cobalt ferrite; metal hollow sphere or composite hollow sphere includes: Au, Ag, Pt, Pd, Pb, Ni, Co, Cu or Fe ; organic hollow sphere or composite hollow sphere includes: polyaniline, polypyrrole, Polythiophene or polyparaphenylene vinylene and its derivatives, poly N-isopropylacrylamide, polyacrylic acid or polymethacrylic acid.
8.一种用模板法制备中空球和复合中空球的方法, 其特征是, 偏心结构的双层结构空 心球的制备方法步骤-A method for preparing a hollow sphere and a composite hollow sphere by a template method, characterized in that the method for preparing a double-layered hollow sphere of an eccentric structure -
(1. 1)将聚合物中空球模板粒子浸泡在 0. 01wt%〜60. 0^%的无机物前体溶液中,模板 粒子在溶液中保持浓度为 0. lwt%〜40. Owt%, 使无机物前体溶液渗入聚合物中空球模板的 空腔, 达到平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去; 然后将得到的含无 机物前体溶液的聚合物中空球在搅拌下加入到反应组份水溶液中, 控制反应液中模板粒子 的浓度保持在 0. lwt%〜40. (kt%, 反应温度 0°C〜100°C , 反应完毕, 离心清洗, 即得到聚 合物中空球壳体内层生长无机物的复合中空球; 或 Lwt%〜40. Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, Owt%, The inorganic precursor solution is infiltrated into the cavity of the hollow sphere template of the polymer, and after reaching equilibrium, the solution not infiltrated into the hollow cavity of the polymer hollow sphere is centrifuged; then the obtained polymer containing the inorganic precursor solution is hollow The weight of the template particles in the reaction solution is maintained at 0. lwt%~40. (kt%, reaction temperature 0 ° C ~ 100 ° C, the reaction is completed, centrifugal cleaning, ie Obtaining a composite hollow sphere in which an inorganic substance is grown in an inner layer of a polymer hollow spherical shell; or
先将反应组份水溶液渗入聚合物中空球模板粒子空腔, 然后将得到的含反应组份水溶 液的聚合物中空球在搅拌下加入到浓度为 10. 0wt%〜60. 0^%的无机物前体溶液中,控制反 应液中模板粒子的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0°C〜100°C, 反应完毕, 离心 清洗, 得到聚合物中空球壳体内层生长无机物的复合中空球; 或  0重量%的无机物。 The aqueous solution of the reaction solution is infiltrated into the polymer hollow sphere template particle cavity, and then the polymer hollow sphere containing the reaction component aqueous solution is added to the concentration of 10. 0wt%~60. In the precursor solution, the concentration of the template particles in the reaction solution is maintained at 0. lwt%~40. 0wt%, the reaction temperature is 0°C~100°C, the reaction is completed, and the centrifugal cleaning is performed to obtain the inner layer growth of the polymer hollow spherical shell. Composite hollow sphere of inorganic matter; or
(1. 2)将聚合物中空球模板粒子浸泡在 0. 01wt%〜60. 0wt%的金属离子盐溶液中, 模板 粒子在溶液中保持浓度为 0. lwt%〜40. 0wt%, 使金属离子盐溶液渗入聚合物中空球模板的 空腔, 达到平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去; 然后将得到的含金 属离子盐溶液的聚合物中空球在搅拌下加入到 0. 01wt%〜60. 0wt°/。的还原剂溶液中,控制反 应液中模板粒子的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0°C〜10(TC, 反应完毕, 离心 清洗, 即得到聚合物中空球壳体内层生长金属的复合中空球; 或  Lwt%~40. 0wt%, making metal, the metal particles are immersed in the 0. lwt%~40. 0wt%, the metal The ionic salt solution penetrates into the cavity of the hollow sphere template of the polymer, and after centrifuging, the solution that has not penetrated into the hollow cavity of the polymer hollow sphere is centrifuged and washed; then the obtained polymer hollow sphere containing the metal ion salt solution is stirred under stirring 0wt°/。 Add to 0. 01wt%~60. 0wt°/. In the reducing agent solution, the concentration of the template particles in the reaction solution is maintained at 0. lwt%~40. 0wt%, the reaction temperature is 0 ° C ~ 10 (TC, the reaction is completed, centrifugal cleaning, that is, the polymer hollow spherical shell is obtained a composite hollow sphere of metal growth; or
先将 0. 01wt%〜60. 0^%的还原剂溶液渗入聚合物中空球模板粒子空腔中,然后将得到 的含还原剂溶液的聚合物中空球在搅拌下加入到浓度为 10. 0wt%〜60. 0wt%的金属离子盐 溶液中, 控制反应液中模板粒子的浓度保持在 0. lwt%〜40. (kt%, 反应温度 0°C~100°C, 反应完毕, 离心清洗, 得到聚合物中空球壳体内层生长金属的复合中空球; 或  0wt 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 %wt0~40. (kt%, reaction temperature 0 ° C ~ 100 ° C, the reaction is completed, centrifugal cleaning, 0%% of the metal ion salt solution, the concentration of the template particles in the control solution is maintained at 0. lwt% ~ 40. (kt%, reaction temperature 0 ° C ~ 100 ° C, the reaction is completed, centrifugal cleaning, Obtaining a composite hollow sphere of metal grown in the inner layer of the polymer hollow spherical shell; or
(1. 3)将聚合物中空球模板粒子浸泡在浓度为 0. 0brt%〜40. 0w«的聚合物单体溶液 中, 模板粒子在这些溶液中保持浓度为 0. lwt%〜40. 0wt%, 使聚合物单体溶液渗入聚合物 中空球模板的空腔, 达到平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去; 然后 将得到的含聚合物单体溶液的聚合物中空球在搅泮下加入到 0. 01wt%〜30. 0^%引发剂溶 液中, 在反应容器中通入惰性气体, 控制反应液中模板粒子的浓度保持在 0. 1wt%~ Lwt%~40. 0wt 0. lwt%~40. 0wt 0. lwt%~40. 0wt 0. lwt%~40. 0wt %, the polymer monomer solution is infiltrated into the cavity of the polymer hollow sphere template, and after reaching equilibrium, the solution not infiltrated into the cavity of the hollow polymer template is centrifuged; then the polymerization of the obtained polymer-containing monomer solution is carried out; 1wt%~ The concentration of the template particles in the reaction solution is maintained at 0. 1wt%~
40. Owt%, 反应温度 0°C〜10(TC, 反应完毕, 离心清洗, 即得到聚合物中空球壳体内层生 长有机物的复合中空球; 或 40. Owt%, reaction temperature 0 ° C ~ 10 (TC, the reaction is completed, centrifugal cleaning, that is, a composite hollow sphere of the inner growth organic matter of the polymer hollow spherical shell; or
先将 0. 01wt%~30. 0wt%引发剂溶液渗入聚合物中空球模板粒子空腔,然后将得到的含 引发剂溶液的聚合物中空球在搅拌下加入到浓度为 5Wt%〜40Wi:%的聚合物单体溶液中; 在 反应容器中通入惰性气体, 控制反应液中模板粒子的浓度保持在 0. lwt%~40wt%, 反应温 度 0°C ~100°C, 反应完毕, 离心清洗, 得到聚合物中空球内层生长有机物的复合中空球; 01重量%~30. 0wt% initiator solution is infiltrated into the hollow cavity template particle cavity of the polymer, and then the obtained polymer hollow sphere containing the initiator solution is added to the concentration of 5 W t%~40 under stirring. W i:% polymer in a monomer solution; in the reaction vessel into an inert gas, controlling the concentration of particles in the reaction mixture is maintained at a template 0. lwt% ~ 40wt%, the reaction temperature of 0 ° C ~ 100 ° C, the reaction After completion, centrifugal cleaning, obtaining a composite hollow sphere of organic matter in the inner layer of the polymer hollow sphere;
(2) .将步骤 (1. 1)得到的内层生长无机物的复合中空球分散在醇溶液中, 加入无机物 前体和反应组份水溶液, 控制反应液中无机物前体的浓度 0. 01wt%〜30wt%, 反应组份水溶 液的最终浓度为 0. lwt%〜50wt°/», 模板粒子的浓度为 0. lwt%〜40wt°/。, 反应温度 0°C〜100 。C, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离心清洗, 即得到在聚合物中空球壳体外表面和内层生长无机物的复合中空球; 或 (2) Dispersing the composite hollow sphere of the inner layer-grown inorganic material obtained in the step (1.1) in an alcohol solution, adding the inorganic precursor and the aqueous solution of the reaction component, and controlling the concentration of the inorganic precursor in the reaction solution. Lwt%〜40wt°/. The concentration of the template particles is 0. lwt%~40wt°/. , the reaction temperature is 0 ° C ~ 100 。. C, the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell; after the reaction is completed, centrifugal cleaning is performed to obtain a composite hollow sphere which grows inorganic substances on the outer surface and the inner layer of the hollow shell of the polymer;
将步骤 (1. 1)得到的内层生长无机物的复合中空球分散在水中, 加入金属离子盐溶液 和还原剂溶液, 控制反应液中金属离子盐浓度 0. 01wt%〜3(kt%, 还原剂浓度 0. 01wt%〜 30wt%, 模板粒子的浓度为 0. lwt°/。〜40wt%, 反应温度 0°C〜100°C, 使反应产物沉积在聚 合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离心清洗, 即得到在聚合物中空球壳 体外表面生长金属和内层生长无机物的复合中空球; 或  01wt%〜3(kt%, kt%, kt%, kt%, 3%, kt%, 3% The concentration of the reducing agent is 0. 01wt%~ 30wt%, the concentration of the template particles is 0. lwt ° /. ~ 40wt%, the reaction temperature is 0 ° C ~ 100 ° C, the reaction product is deposited on the outer surface of the hollow shell of the polymer, forming Continuous shell; after completion of the reaction, centrifugal cleaning, that is, a composite hollow sphere in which metal and inner layer growth inorganic substances are grown on the outer surface of the polymer hollow spherical shell;
将步骤 (1. 1)得到的内层生长无机物的复合中空球分散在水中, 在反应容器中通入惰 性气体, 加入聚合物单体和引发剂溶液, 控制反应液中聚合物单体浓度 0. 01wt%〜20wt%, 引发剂浓度 0. 01wt%〜20wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜100°C, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离心清洗, 即得 到在聚合物中空球壳体外表面生长有机物和内层生长无机物的复合中空球; 或  Dissolving the inner hollow inorganic composite hollow sphere obtained in the step (1.1) in water, introducing an inert gas into the reaction vessel, adding the polymer monomer and the initiator solution, and controlling the concentration of the polymer monomer in the reaction liquid. 01重量%〜20重量%, The initiator concentration is 0. 01wt%~20wt%, the concentration of the template particles is 0. lwt%~40wt%, the reaction temperature is 0 °C~100 °C, the reaction product is deposited in the polymer hollow The outer surface of the spherical shell forms a continuous shell; after the reaction is completed, centrifugal cleaning is performed to obtain a composite hollow sphere in which an organic substance and an inner layer of inorganic substances are grown on the outer surface of the polymer hollow spherical shell;
将步骤 (1. 2)得到的内层生长金属的复合中空球分散在醇溶液中, 加入无机物前体溶 液和反应组份水溶液, 控制反应液中无机物前体的浓度 0. 01wt%〜30wt%, 反应组份水溶液 的最终浓度为 0. lwt%〜50wt%, 模板粒子的浓度为 0. lwt%~40wt%, 反应温度 0'C ~ 100°C, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离心清洗, 即得 到在聚合物中空球壳体外表面生长无机物和内层生长金属的复合中空球; 或  01wt%~ The concentration of the inorganic precursor in the reaction solution is 0. 01wt%~ 30wt%, the final concentration of the aqueous solution of the reaction component is 0. lwt%~50wt%, the concentration of the template particles is 0. lwt% ~ 40wt%, the reaction temperature is 0'C ~ 100 ° C, the reaction product is deposited in the polymer hollow The outer surface of the spherical shell forms a continuous shell layer; after the reaction is completed, centrifugal cleaning is performed to obtain a composite hollow sphere which grows inorganic substances and inner layer growing metal on the outer surface of the polymer hollow spherical shell;
将步骤 (1. 2)得到的内层生长金属的复合中空球分散在水中, 加入金属离子盐溶液和 还原剂溶液,控制反应液中金属离子盐浓度 0. 01wt%〜30wt%,还原剂浓度 0. 01wt%〜30wt%, 模板粒子的浓度为 0. lwt%〜40wt/。, 反应温度 0°C ~ 100°C, 使反应产物沉积在聚合物中空 球壳体外表面, 形成连续壳层; 反应完毕, 离心清洗, 即得到在聚合物中空球壳体外表面 和内层生长金属的复合中空球; 或  01重量%〜30重量%的再生剂浓度。 The concentration of the metal ion salt in the reaction solution is 0. 01wt%~30wt%, reducing agent concentration Lwt%〜40wt/。 The concentration of the template particles is 0. lwt% ~ 40wt /. , the reaction temperature is 0 ° C ~ 100 ° C, the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell; after the reaction is completed, centrifugal cleaning, the metal is grown on the outer surface and inner layer of the hollow shell of the polymer Composite hollow sphere; or
将步骤 (1. 2)得到的内层生长金属的复合中空球分散在水中, 在反应容器中通入惰性 气体, 加入聚合物单体和引发剂溶液, 控制反应液中聚合物单体浓度 0. 01wt%〜20wt%, 引 发剂浓度 0. 01wt°/。〜20wt%, 模板粒子的浓度为 0. lwt°/。〜40wt°/。, 反应温度 0°C〜100°C, 使 反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离心清洗, 即得到 在聚合物中空球壳体外表面生长有机物和内层生长金属的复合中空球; 或 Dispersing the inner hollow metal composite hollow sphere obtained in the step (1.2) in water, and introducing inertness into the reaction vessel O. 01wt°/. The concentration of the initiator is 0. 01wt%~20wt%, the concentration of the initiator is 0. 01wt ° /. Lwt°/。 The concentration of the template particles is 0. lwt ° /. ~40wt°/. , the reaction temperature is 0 ° C ~ 100 ° C, the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell; after the reaction is completed, centrifugal cleaning, the organic matter and the inner layer are grown on the outer surface of the hollow shell of the polymer a composite hollow sphere of growing metal; or
将步骤 (1. 3)得到的内层生长有机物的复合中空球分散在醇溶液中, 加入无机物前体 溶液和反应组份水溶液, 控制反应液中无机物前体的浓度 0. 01wt%〜30rt%, 反应组份水溶 液的最终浓度为 0. lrt%〜50wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0Ό〜100 。C , 使反应产物沉积在聚合物中空球壳体外表面,'形成连续壳层; 反应完毕, 离心清洗, 即得到在聚合物中空球壳体外表面生长无机物和内层生长有机物的复合中空球; 或  01wt%~ The concentration of the inorganic precursor in the reaction solution is 0. 01wt%~ 30重量%, The final concentration of the aqueous solution of the reaction component is 0. lrt% ~ 50wt%, the concentration of the template particles is 0. lwt% ~ 40wt%, the reaction temperature is 0 Ό ~ 100. C, the reaction product is deposited on the outer surface of the hollow shell of the polymer, 'forming a continuous shell layer; after the reaction is completed, centrifugal cleaning, that is, a composite hollow sphere for growing inorganic substances and inner layer growing organic matter on the outer surface of the hollow shell of the polymer; Or
将步骤 (1. 3)得到的内层生长有机物的复合中空球分散在水中, 加入金属离子盐溶液 和还原剂溶液, 控制反应液中金属离子盐浓度 0. 01wt%〜30wt%, 还原剂浓度 0. 01wt%〜 30wt%, 模板粒子的浓度为 0. lwt°/。〜40wt%, 反应温度 0°C~10(TC, 使反应产物沉积在聚 合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离心清洗, 即得到在聚合物中空球壳 体外表面生长金属和内层生长有机物的复合中空球; 或  01重量%〜30重量%, reducing agent concentration, the concentration of the metal ion salt in the reaction solution is controlled by the concentration of the metal ion salt in the reaction solution. 0wt°/。 The concentration of the template particles is 0. lwt ° /. 〜40wt%, reaction temperature 0°C~10(TC, the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell; after the reaction is completed, centrifugal cleaning, the metal is grown on the outer surface of the hollow shell of the polymer a composite hollow sphere with an inner layer of organic matter; or
将步骤 (1. 3)得到的内层生长有机物的复合中空球分散在水中, 在反应容器中通入惰 性气体, 加入聚合物单体和引发剂溶液, 控制反应液中聚合物单体浓度 0. 01wt%〜20wt%, 引发剂浓度 0. 01wt%-20wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜100°C, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离心清洗, 即得 到在聚合物中空球壳体外表面和内层生长有机物的复合中空球; 所述聚合物中空球模板粒子的外径为 0. 02Mm〜10f¾,空腔体积为整个微球的 10〜95%; 所述聚合物中空球模板的内层亲水性聚合物包括聚苯乙烯磺酸、 聚甲基丙烯酸、 聚丙 烯酸、 聚乙烯醇、 聚酰胺类、 聚乙烯基吡咯、 聚 (2-乙烯基吡啶)、 聚 (4 -乙烯基吡! ¾)、 聚 甲基丙烯酸羟乙酯、 聚乙烯基酯、 聚氧乙烯或聚乙烯基氯化铵; Dissolving the composite hollow sphere of the inner layer growing organic body obtained in the step (1.3) in water, introducing an inert gas into the reaction vessel, adding the polymer monomer and the initiator solution, and controlling the concentration of the polymer monomer in the reaction liquid. 01重量%〜20wt%, initiator concentration 0. 01wt%-20wt%, the concentration of the template particles is 0. lwt% ~ 40wt%, the reaction temperature is 0 ° C ~ 100 ° C, the reaction product is deposited in the polymer hollow sphere The singularity of the outer diameter of the polymer hollow sphere template is 0. 02Mm ~10f3⁄4, the cavity volume is 10~95% of the whole microsphere ; the inner hydrophilic polymer of the polymer hollow sphere template comprises polystyrenesulfonic acid, polymethacrylic acid, polyacrylic acid, polyvinyl alcohol, Polyamides, polyvinylpyrrole, poly(2-vinylpyridine), poly(4-vinylpyrene!3⁄4), polyhydroxyethyl methacrylate, polyvinyl ester, polyoxyethylene or polyvinyl chloride Ammonium
所述聚合物中空球模板的外层亲油性聚合物包括聚苯乙烯、 聚甲基丙烯酸甲酯、 聚甲 基丙烯酸乙酯、 聚甲基丙烯酸丁酯、 聚甲基丙烯酸叔丁酯、 聚甲基丙烯酸肉桂酸乙基酯、 聚丙烯酸甲酯、 聚丙烯酸乙酯、 聚丙烯酸丁酯、 聚丙烯酸叔丁酯、 聚氧丙烯、 聚二甲基硅 垸、 聚乙烯基丁酯或聚异丁烯;  The outer lipophilic polymer of the polymeric hollow sphere template comprises polystyrene, polymethyl methacrylate, polyethyl methacrylate, polybutyl methacrylate, polybutyl methacrylate, polymethyl Acrylic acid cinnamic acid ethyl ester, polymethyl acrylate, polyethyl acrylate, polybutyl acrylate, polybutyl acrylate, polyoxypropylene, polydimethylsilyl, polyvinyl butyrate or polyisobutylene;
所述用来去除聚合物模板的选择性溶剂是氯仿、甲苯、四氢呋喃或 N, N-二甲基甲酰胺; 在制备 Si02中空球或复合中空球时,所述的无机物前体溶液为 Si (0CH3)4、Si (0CH2CH3) 4、 Si {0CH (CH3) 2} 4、 Si (0CH2CH2C CH3) 4、 N¾Si03的醇溶液; 反应组份水溶液为浓度 0. lwt%〜 100wt%水的醇溶液, 用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 PH值为 1〜13; The selective solvent for removing the polymer template is chloroform, toluene, tetrahydrofuran or N, N-dimethylformamide; when preparing the SiO 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is An alcohol solution of Si (0CH 3 ) 4 , Si (0CH 2 CH 3 ) 4 , Si {0CH (CH 3 ) 2 } 4 , Si (0CH 2 CH 2 C CH 3 ) 4 , N3⁄4Si0 3 ; The concentration of 0. lwt% ~ 100wt% water alcohol solution, the concentration of 35wt% concentrated hydrochloric acid or a concentration of 25wt% concentrated ammonia water to adjust its P H value of 1~13;
在制备 Ti02中空球或复合中空球时, 所述的无机物前体溶液为 TiCl4、 Ti (0C¾)4、 Ti(0CH2CH3)4、 Ti{0CH(CH3)2}4、 Ti (0CH2CH2C CH3)4、 TiOS04的醇溶液; 反应组份水溶液为浓 度 0. lwt°/fl〜100wt°/。水的醇溶液,用浓度 35wt»/。浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜 13; In the preparation of the Ti0 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is TiCl 4 , Ti (0C3⁄4) 4 , Ti (0CH 2 CH 3) 4 , Ti {0CH (CH 3) 2} 4, Ti (0CH 2 CH 2 C CH 3) alcoholic solution of 4, TiOS0 4; the reaction components to an aqueous solution of a concentration of 0. lwt ° / fl ~100wt°/. Aqueous solution of water with a concentration of 35wt»/. Concentrated hydrochloric acid or a concentration of 25wt% concentrated ammonia water to adjust its pH value of 1~13;
在制备 Sn02中空球或复合中空球时, 所述的无机物前体溶液为 SnCl4、 Sn(0C¾)4、 Sn(0CH2C )4、Sn{0CH(CH3)2}4、Sn(0CH2CH2C¾CH3)4的醇溶液;反应组份水溶液为浓度 0. lwt%〜 100wt%水的醇溶液, 用浓度 35Wt%¾盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜13; In the preparation of the Sn0 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is SnCl 4 , Sn(0C3⁄4) 4 , Sn(0CH 2 C ) 4 , Sn{0CH(CH 3 ) 2 } 4 , Sn The alcohol solution of (0CH 2 CH 2 C3⁄4CH 3 ) 4 ; the aqueous solution of the reaction component is an alcohol solution having a concentration of 0.1 wt% to 100 wt% of water, and the pH is adjusted by a concentration of 35 W t% 3⁄4 hydrochloric acid or a concentration of 25 wt% concentrated ammonia water. 1 to 13;
在制备 Zr02中空球或复合中空球时, 所述的无机物前体溶液为 ZrCl4、 Zr(0C¾)4、 Zr(0C C )4、 Zr{0CH(CH3)2}4、 Zr (0CH2C CH2CH3)4、 Zr (S04) 2的醇溶液; 反应组份水溶液为 浓度 0. lwt%〜100wt%水的醇溶液,用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜13; In the preparation of the Zr0 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is ZrCl 4 , Zr(0C3⁄4) 4 , Zr(0C C ) 4 , Zr{0CH(CH 3 ) 2 } 4 , Zr ( 0CH 2 C CH 2 CH 3 ) 4 , Zr (S0 4 ) 2 alcohol solution; the reaction component aqueous solution is a concentration of 0. lwt% ~ 100wt% water alcohol solution, with a concentration of 35wt% concentrated hydrochloric acid or a concentration of 25wt% concentrated ammonia water Adjust its pH value to 1~13;
在制备 A1203中空球或复合中空球时, 所述的无机物前体溶液为 A1C13、 A1(0C¾)3、 A1(0CH2CH3)3、 A1{0CH(CH3)2}3、 Al (0CH2CH2C¾C )3、 A12(S04)3的醇溶液; 反应组份水溶液为 浓度 0. lwt%〜100vrty^J的醇溶液,用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜13; In the preparation of the A1 2 0 3 hollow sphere or the composite hollow sphere, the inorganic precursor solution is A1C1 3 , A1(0C3⁄4) 3 , A1(0CH 2 CH 3 ) 3 , A1{0CH(CH 3 ) 2 } 3 , Al (0CH 2 CH 2 C3⁄4C) 3 , A1 2 (S0 4 ) 3 alcohol solution; the reaction component aqueous solution is a concentration of 0. lwt% ~ 100vrty ^ J alcohol solution, with a concentration of 35wt% concentrated hydrochloric acid or a concentration of 25wt % concentrated ammonia water adjusts its pH value to 1~13;
在制备 V205中空球或复合中空球时,所述的无机物前体溶液为 V0(0CH3) 3、 V0(0C¾CH3) 3、 V0{0CH(CH3) 、 V0(0CH2CH2C C )3的醇溶液; 反应组份水溶液为浓度 0. lwt%〜100wt%水的 醇溶液, 用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 PH值为 1〜13; In the preparation of a V 2 0 5 hollow sphere or a composite hollow sphere, the inorganic precursor solution is V0(0CH 3 ) 3 , V0(0C3⁄4CH 3 ) 3 , V0{0CH(CH 3 ) , V0(0CH 2 CH 2 CC) alcoholic solution of 3; component of the reaction solution at a concentration of 0. lwt% ~100wt% aqueous alcohol solution, the adjusted value of P H 1~13 with concentrated hydrochloric acid concentration of 35wt% or 25wt% concentration of concentrated aqueous ammonia;
在制备 ZnO中空球或复合中空球时, 所述的无机物前体溶液为 Zn(N03)2、 Zn(00CC¾)2、 ZnCl2、 Zn(C104)2的醇溶液; 反应组份水溶液为浓度 0.01wt»/。〜30wt%的氢氧化钠、 氢氧化 钾或氨水的水或醇溶液; In the preparation of the ZnO hollow sphere or the composite hollow sphere, the inorganic precursor solution is an alcohol solution of Zn(N0 3 ) 2 , Zn(00CC3⁄4) 2 , ZnCl 2 , Zn(C10 4 ) 2 ; The concentration is 0.01wt»/. ~30% by weight of water or alcohol solution of sodium hydroxide, potassium hydroxide or ammonia;
在制备 W03中空球或复合中空球时, 所述的无机前体溶液为 (NH4) eH2W12041、 NaW03的水 溶液;反应组份水溶液为浓度 0. lwt〜100wt%水的醇溶液,用浓度 35wt°/。浓盐酸或浓度 25wt% 的浓氨水调节其 pH值为 1〜13; W0 3 in the preparation of a composite hollow sphere or hollow sphere, the inorganic precursor solution of (NH 4) an aqueous solution of 2 W 12 0 41, NaW0 3 of e H; reaction components at a concentration of 0. lwt~100wt% aqueous solution of water The alcohol solution was used at a concentration of 35 wt ° /. Concentrated hydrochloric acid or a concentration of 25wt% concentrated ammonia water to adjust its pH value of 1~13;
在制备 Mo03中空球或复合中空球时, 所述的无机物前体溶液为 Mo032H20水溶液; 反 应组份水溶液为浓度 0. lwt%~10(kt%水的醇溶液, 用浓度 35w1*浓盐酸或浓度 25w«浓氨 水调节其 pH值为 1〜13; In the preparation of the MoO 3 hollow sphere or the composite hollow sphere, the inorganic precursor solution is a Mo0 3 2H 2 0 aqueous solution; the reaction component aqueous solution is a concentration of 0. lwt%~10 (kt% water in an alcohol solution, using a concentration 35w1* concentrated hydrochloric acid or a concentration of 25w « concentrated ammonia water to adjust its pH value of 1~13;
在制备 Al (0H) 或 Mg (OH) 中空球或复合中空球时,所述的无机物前体溶液为可溶性铝、 镁的氯化物或硫酸盐的水溶液; 反应组份水溶液为浓度 0.01wt%~30wt%的氢氧化钠、氢氧 化钾或氨水;  In the preparation of Al (0H) or Mg (OH) hollow spheres or composite hollow spheres, the inorganic precursor solution is an aqueous solution of soluble aluminum or magnesium chloride or sulfate; the aqueous solution of the reaction component is 0.01 wt%. ~30wt% sodium hydroxide, potassium hydroxide or ammonia water;
在制备生物矿化材料 CaC03、 Ca10(P0 (0H)2, CaS04、 或 BaS04中空球或复合中空球时, 所述的无机物前体溶液为 Ca(0H)2、 CaCl2、 Ba(0H)2或 BaCl2的水溶液; 反应组份水溶液为 含 C03 2-、 P0 、 S04 2—的 Na+或 K+盐, 或者浓度为 0.01wt%~30wt%H2C03、 H3P04、 H2S04的水溶液; 在制备半导体硫化物中空球或复合中空球时, 所述的无机物前体溶液为相应金属阳离 子的可溶性氯化物、 硝酸盐、 硫酸盐的水溶液; 反应组份水溶液为浓度为 0. 01wt%〜30rt% 硫化钠或硫脲的水溶液; When preparing the biomineralized material CaC0 3 , Ca 10 (P0 (0H) 2 , CaS0 4 , or BaS0 4 hollow sphere or composite hollow sphere, the inorganic precursor solution is Ca(0H) 2 , CaCl 2 , An aqueous solution of Ba(0H) 2 or BaCl 2 ; the aqueous solution of the reaction component is a Na + or K + salt containing C0 3 2 -, P0, S0 4 2 - or a concentration of 0.01 wt% to 30 wt% H 2 C0 3 , An aqueous solution of H 3 P0 4 , H 2 S0 4 ; in the preparation of a semiconductor sulfide hollow sphere or a composite hollow sphere, the inorganic precursor solution is a corresponding metal cation An aqueous solution of sodium chloride or thiourea; a concentration of 0. 01wt%~30rt% of an aqueous solution of sodium sulfide or thiourea;
在制备半导体硒化物或碲化物中空球或复合中空球时, 所述的无机物前体溶液为金属 阳离子的可溶性氯化物、硝酸盐、硫酸盐的水溶液;反应组份水溶液为浓度 0. 01wt%〜30wt% 硒化钠或碲化钠的水溶液;  01重量%。 The composition of the solution of the aqueous solution of the solution is 0.10% by weight of the aqueous solution of the solution of the metal cations of the soluble chloride, nitrate, sulfate; ~30wt% aqueous solution of sodium selenide or sodium telluride;
在制备磁性化合物 Fe304、 Fe203或含锌、 锰、 钴、 镍、 铜、 镁的铁氧体中空球或复合中 空球时, 所述的无机物前体溶液为 Fe2 Fe3\ ZrT、 Mn2\ Co2\ Ni2 Cu2\ Mg2+的可溶性氯 化物、 硝酸盐、 硫酸盐的水溶液; 反应组份水溶液为浓度 0. 01wt/。〜30Wt%的氢氧化钠、 氢 氧化钾或氨水的水溶液, 或浓度为 lwt%〜60wt°/。水合肼溶液; In the preparation of the magnetic compound Fe 3 0 4 , Fe 2 0 3 or a ferrite hollow sphere or a composite hollow sphere containing zinc, manganese, cobalt, nickel, copper or magnesium, the inorganic precursor solution is Fe 2 Fe 3 \ ZrT, Mn 2 \ Co 2 \ Ni 2 Cu 2 \ Mg 2+ soluble chloride, nitrate, sulfate aqueous solution; concentration of the reaction components to an aqueous solution of 0. 01wt /. ~30 W t% aqueous solution of sodium hydroxide, potassium hydroxide or ammonia, or a concentration of lwt%~60wt ° /. Hydrazine hydrate solution;
在制备金属 Au、 Ag、 Pt、 Pd、 Pb、 Ni、 Co、 Cu、 Fe中空球或复合中空球时, 所述的金 属离子盐溶液为相应金属离子可溶性高氯酸盐、 氯化物、 硝酸盐、 硫酸盐的水溶液; 还原 剂溶液为 NaBH4、 LiB (C2H5) 3H或 N2H4的水溶液; In the preparation of metal Au, Ag, Pt, Pd, Pb, Ni, Co, Cu, Fe hollow spheres or composite hollow spheres, the metal ion salt solution is a corresponding metal ion soluble perchlorate, chloride, nitrate An aqueous solution of a sulfate; the reducing agent solution is an aqueous solution of NaBH 4 , LiB (C 2 H 5 ) 3 H or N 2 H 4 ;
在制备导电聚合物聚苯胺、 聚吡咯、 聚噻吩、 聚对苯乙炔及其衍生物中空球或复合中 空球时, 所述的聚合物单体溶液为相应单体的水或醇溶液; 引发剂溶液为过硫酸钾、 过硫 酸铵或三氯化铁的水溶液;  In the preparation of a conductive polymer polyaniline, polypyrrole, polythiophene, polyparaphenylene acetylene and derivatives thereof hollow spheres or composite hollow spheres, the polymer monomer solution is a water or alcohol solution of the corresponding monomer; initiator The solution is an aqueous solution of potassium persulfate, ammonium persulfate or ferric chloride;
在制备敏感性凝胶聚 N -异丙基丙烯酰胺、 聚丙烯酸、 聚甲基丙烯酸中空球或复合中 空球时, 所述的聚合物单体溶液为 N -异丙基丙烯酰胺、 丙烯酸、 甲基丙烯酸或者其水或 醇溶液; 引发剂溶液为过硫酸钾或过硫酸铵的水溶液;  In preparing a sensitive gel poly-N-isopropylacrylamide, polyacrylic acid, polymethacrylic hollow sphere or composite hollow sphere, the polymer monomer solution is N-isopropylacrylamide, acrylic acid, A a base acrylic acid or a water or alcohol solution thereof; the initiator solution is an aqueous solution of potassium persulfate or ammonium persulfate;
所述的惰性气体是氮气或氩气;  The inert gas is nitrogen or argon;
所述的醇溶液是甲醇、 乙醇、 丙醇、 异丙醇或丁醇。  The alcohol solution is methanol, ethanol, propanol, isopropanol or butanol.
9.根据权利要求 8所述的方法,其特征是:所述的无机物的中空球或复合中空球包括: Ti02、 Si02、 Sn02、 Zr02、 A1203、 V205、 Zn0、 W03、 Mo03、 Al (0H) 3或 Mg (0H) 2; 生物矿化材料 的中空球或复合中空球包括: CaC03、 Ca10(P04)e(OH) 2, BaS04或 CaS04; 半导体材料的中空球 或复合中空球包括: CdS、 ZnS、 PbS、 CuS、 CoS、 FeS、 CdTe、 CdSe或 ZnSe; 磁性化合物的 中空球或复合中空球包括: Fe304、 Fe203或含锌、 锰、 钴的铁氧体; 金属的中空球或复合中 空球包括: Au、 Ag、 Pt、 Pd、 Pb、 Ni、 Co、 Cu或 Fe; 有机物的中空球或复合中空球包括: 聚苯胺、 聚吡咯、 聚噻吩或聚对苯乙炔及其衍生物、 聚 N-异丙基丙烯酰胺、 聚丙烯酸或聚 甲基丙烯酸。 9. The method according to claim 8, characterized in that: the composite inorganic hollow spheres or hollow spheres comprising: Ti0 2, Si0 2, Sn0 2, Zr0 2, A1 2 0 3, V 2 0 5 , Zn0, W0 3 , Mo0 3 , Al (0H) 3 or Mg (0H) 2; hollow spheres or composite hollow spheres of biomineralized materials include: CaC0 3 , Ca 10 (P0 4 )e(OH) 2 , BaS0 4 or CaS0 4; the hollow sphere or composite hollow sphere of the semiconductor material comprises: CdS, ZnS, PbS, CuS, CoS, FeS, CdTe, CdSe or ZnSe; the hollow sphere or composite hollow sphere of the magnetic compound comprises: Fe 3 0 4 , Fe 2 0 3 or ferrite containing zinc, manganese or cobalt; hollow or composite hollow spheres of metal include: Au, A g , Pt, Pd, Pb, Ni, Co, Cu or Fe; hollow spheres of organic matter or The composite hollow spheres include: polyaniline, polypyrrole, polythiophene or polyparaphenylene vinylene and derivatives thereof, poly N-isopropylacrylamide, polyacrylic acid or polymethacrylic acid.
10.—种用模板法制备中空球和复合中空球的方法, 其特征是, 同心结构的双层结构 空心球的制备方法步骤-10. A method for preparing a hollow sphere and a composite hollow sphere by a template method, characterized in that the method for preparing a two-layer hollow sphere of concentric structure -
(1. 1)将聚合物中空球模板粒子浸泡在反应组份水溶液中, 模板粒子在溶液中保持浓 度为 0. lwt%〜40. 0wt%, 使反应组份水溶液渗入聚合物中空球模板的空腔, 达到平衡后将 未渗入聚合物中空球模板空腔中的溶液离心洗去; 然后将得到的含反应组份水溶液的聚合 物中空球在搅拌下加入到无机物前体的醇溶液中, 无机物前体通过不断补充维持在 0. 01wt%〜10. (½1%的一恒定浓度;控制反应液中模板粒子的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0°C〜10(TC, 反应完毕, 离心清洗, 得到表面带毛刺状物质的聚合物模板与无机 物复合的中空球; 或 (1. 1) Soaking the polymer hollow sphere template particles in the aqueous solution of the reaction component, the template particles are kept thick in the solution 0wt%〜40. 0wt%, the reaction component aqueous solution is infiltrated into the cavity of the polymer hollow sphere template, after reaching equilibrium, the solution not infiltrated into the hollow cavity template cavity is centrifuged and washed; 01重量%〜10. (1⁄21% of a constant concentration; control; the polymer hollow sphere containing the aqueous solution of the reaction component is added to the alcohol solution of the inorganic precursor, the inorganic precursor is maintained by a constant supplement at 0. 01wt%~10. The concentration of the template particles in the reaction solution is maintained at 0. lwt%~40. 0wt%, the reaction temperature is 0°C~10 (TC, the reaction is completed, and the mixture is centrifuged to obtain a polymer template with a surface of the burr-like substance and the inorganic compound. Hollow sphere; or
(1. 2)将聚合物中空球模板粒子浸泡在 0. 01wt%〜60. 0wt%的还原剂溶液中, 模板粒子 在溶液中保持浓度为 0. lwt%〜40. 使还原剂溶液渗入聚合物中空球模板的空腔, 达 到平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去, 然后将得到的含还原剂溶液 的聚合物中空球在搅拌下加入到金属离子盐溶液中, 金属离子盐通过不断补充维持在 0. 01wt%〜10. (^%的一恒定浓度;控制反应液中模板粒子的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0°C〜10(TC, 反应完毕, 离心清洗, 即得到表面带毛刺状物质的聚合物模板与金 属复合的中空球; 或  Lwt%〜40. The reducing agent solution is infiltrated into the polymerization. The concentration of the template particles in the solution is 0. lwt%~40. The cavity of the hollow sphere template is centrifuged to remove the solution that has not penetrated into the cavity of the hollow polymer template, and then the obtained polymer hollow sphere containing the reducing agent solution is added to the metal ion salt solution under stirring. Lwt%~40. 0wt%, reaction temperature 0°C, the concentration of the template particles in the reaction solution is maintained at 0. lwt%~40. 0wt%, reaction temperature 0°C, the constant concentration of the metal ion salt is maintained at 0. 01wt%~10. ~10 (TC, the reaction is completed, centrifugal cleaning, that is, the hollow template of the polymer template with the surface of the burr-like substance and the metal; or
(1. 3)将聚合物中空球模板粒子浸泡在反应组份浓度为 0. 01w«〜30. 0wt%引发剂溶液 中, 模板粒子在溶液中保持浓度为 0. lwt% 40. (kt%, 使引发剂溶液渗入聚合物中空球模 板的空腔, 达到平衡后将未渗入聚合物中空球模板空腔中的溶液离心洗去, 然后将得到的 含引发剂溶液的聚合物中空球在搅拌下加入到聚合物单体溶液中, 聚合物单体通过不断补 充维持在0. 01 %〜10. (½1 °/。的一恒定浓度; 在反应容器中通入惰性气体, 控制反应液中模 板粒子的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0°C〜100°C, 反应完毕, 离心清洗, 即 得到表面带毛刺状物质的聚合物模板与有机物复合的中空球;  Lwt% 40. (kt%) kt% 40. (kt%) kt% 40. (kt%) , the initiator solution is infiltrated into the cavity of the hollow polymer template of the polymer, after the equilibrium is reached, the solution not infiltrated into the cavity of the hollow polymer template is centrifuged, and then the obtained polymer hollow sphere containing the initiator solution is stirred. The catalyst monomer is added to the polymer monomer solution, and the polymer monomer is maintained at a constant concentration of 0.01%~10. (1⁄21 °/.); an inert gas is introduced into the reaction vessel to control the template in the reaction solution. The concentration of the particles is maintained at 0. lwt%~40. 0wt%, the reaction temperature is 0 ° C ~ 100 ° C, the reaction is completed, centrifugal cleaning, that is, the hollow template of the polymer template and the organic compound with the surface of the burr-like substance is obtained;
(2) . 将步骤 (1. 1)得到的内层和通道生长无机物的复合中空球分散在醇溶液中, 加入 无机物前体溶液和反应组份水溶液, 控制反应液中无机物前体的浓度 0. 01wt%〜30wt%, 反 应组份水溶液的最终浓度为 0. lwt°/。〜50wt%, 模板粒子的浓度为 0. lwt%〜4(kt%, 反应温 度 0°C〜10(TC, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离心清洗, 即得到在聚合物中空球壳体外表面、 内层和通道生长无机物的复合中空球; 除 去聚合物模板, 得到双层结构无机物中空球, 即中空球中含有中空球, 得到的无机物中空 球中两中空球间有无机物柱相连, 内中空球不能在外中空球内运动, 两中空球同心; 或 将步骤 (1. 1)得到的内层和通道生长无机物的复合中空球分散在水中, 加入金属离子 盐溶液和还原剂溶液, 控制反应液中金属离子盐浓度 0. 01wt%〜3C rt%, 还原剂浓度 0. 01wt°/。〜30wt%, 模板粒子的浓度为 0. 1wt%〜40wt°/。, 反应温度 0°C〜10(TC, 使反应产物 沉积在聚合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离心清洗, 即得到在聚合物 中空球壳体外表面生长金属和内层、 通道生长无机物的复合中空球; 除去聚合物模板, 得 到双层结构金属-无机物中空球, 即金属中空球中含有一个无机物中空球, 得到的双层结 构中空球中两中空球间有无机物柱相连, 无机物中空球不能在金属中空球内运动, 两中空 球同心; 或 (2) Dispersing the composite hollow spheres of the inner layer and the channel growth inorganic material obtained in the step (1.1) in an alcohol solution, adding an inorganic precursor solution and an aqueous solution of the reaction component, and controlling the inorganic precursor in the reaction liquid. Lwt°/. The final concentration of the aqueous solution of the reaction component is 0. lwt ° /. 〜50wt%, the concentration of the template particles is 0. lwt% ~ 4 (kt%, reaction temperature 0 ° C ~ 10 (TC, the reaction product deposited on the outer surface of the polymer hollow sphere shell, forming a continuous shell; reaction is completed, Centrifugal cleaning, that is, a composite hollow sphere in which an inorganic substance is grown on the outer surface, the inner layer and the channel of the hollow shell of the polymer; the polymer template is removed to obtain a double-layered inorganic hollow sphere, that is, the hollow sphere contains a hollow sphere, and the obtained In the inorganic hollow sphere, there is an inorganic column connected between the two hollow spheres, the inner hollow sphere cannot move in the outer hollow sphere, and the two hollow spheres are concentric; or the inner layer and the channel obtained by the step (1.1) are hollow composite hollow. The weight of the template particles is 0. 01wt%~3C rt%, the concentration of the reducing agent is 0. 01wt°/.~30wt%, and the concentration of the template particles is 0. 1wt%~40wt ° /., reaction temperature 0 ° C ~ 10 (TC, the reaction product is deposited on the outer surface of the polymer hollow spherical shell to form a continuous shell; after the reaction is completed, centrifugal cleaning, that is, in the polymer hollow ball a composite hollow sphere in which metal and inner layer and channel growth inorganic substance are grown on the outer surface of the casing; The double-layered metal-inorganic hollow sphere, that is, the hollow metal sphere contains an inorganic hollow sphere, and the obtained double-layer hollow sphere has an inorganic column connected between the two hollow spheres, and the inorganic hollow sphere cannot be in the hollow metal sphere. Internal movement, two hollow balls concentric; or
将步骤 (1. 1)得到的内层和通道生长无机物的复合中空球分散在水中, 在反应容器中 通入惰性气体, 加入聚合物单体和引发剂溶液, 控制反应液中聚合物单体浓度 0. 01wt%〜 20wt%, 引发剂浓度 0. 01wt%〜20wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜 100Ό , 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离心清 洗,即得到在聚合物中空球壳体外表面生长有机物和内层、通道生长无机物的复合中空球; 除去聚合物模板, 得到双层结构有机物 -无机物中空球, 即有机物中空球中含有一个无机 物中空球, 得到的双层结构中空球中两中空球间有无机物柱相连, 无机物中空球不能在有 机物中空球内运动, 两中空球同心; 或  Dispersing the inner layer and the channel-forming inorganic composite hollow sphere obtained in the step (1.1) in water, introducing an inert gas into the reaction vessel, adding the polymer monomer and the initiator solution, and controlling the polymer single in the reaction liquid. 01重量%〜20wt%, initiator concentration 0. 01wt%~20wt%, the concentration of the template particles is 0. lwt% ~ 40wt%, the reaction temperature is 0 ° C ~ 100 Ό, the reaction product is deposited in the polymer hollow The outer surface of the spherical shell forms a continuous shell layer; after the reaction is completed, centrifugal cleaning is performed to obtain a composite hollow sphere in which an organic substance and an inner layer and a channel are grown on the outer surface of the hollow shell of the polymer; the polymer template is removed to obtain a double layer structure. The organic-inorganic hollow sphere, that is, the organic hollow sphere contains an inorganic hollow sphere, and the obtained double-layer hollow sphere has an inorganic column connected between the two hollow spheres, and the inorganic hollow sphere cannot move in the hollow sphere of the organic matter, Hollow ball concentric; or
将步骤 (1. 2)得到的内层和通道生长金属的复合中空球分散在醇溶液中, 加入无机物 前体溶液和反应组份水溶液,控制反应液中无机物前体的浓度 0. 01wt%〜30wt%, 反应组份 水溶液的最终浓度为 0. lwt%〜50wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜 100°C , 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离心清 洗, 即得到在聚合物中空球壳体外表面生长无机物和内层、 通道生长金属的复合中空球; 除去聚合物模板, 得到双层结构无机物-金属中空球, 即无机物中空球中含有一个金属中 空球, 得到的双层结构中空球中两中空球间有金属柱相连, 金属中空球不能在无机物球内 运动, 两中空球同心; 或  The weight of the inorganic precursor in the reaction liquid is 0. 01wt. The weight of the inorganic precursor in the reaction liquid is 0. 01wt %〜30wt%, the final concentration of the aqueous solution of the reaction component is 0. lwt%~50wt%, the concentration of the template particles is 0. lwt% ~ 40wt%, the reaction temperature is 0 ° C ~ 100 ° C, the reaction product is deposited in the polymerization The outer surface of the hollow spherical shell forms a continuous shell layer; after the reaction is completed, centrifugal cleaning is performed to obtain a composite hollow sphere in which an inorganic substance and an inner layer and a channel growth metal are grown on the outer surface of the polymer hollow spherical shell; The layer structure inorganic material-metal hollow sphere, that is, the inorganic hollow sphere contains a metal hollow sphere, and the obtained double-layer hollow sphere has a metal column connected between the two hollow spheres, and the metal hollow sphere cannot move in the inorganic sphere, two Hollow ball concentric; or
将步骤 (1. 2)得到的内层和通道生长金属的复合中空球分散在水中, 加入金属离子盐 溶液和还原剂溶液,控制反应液中金属离子盐浓度 0. 01wt%〜30wt%,还原剂浓度 0. 01wt°/。〜 30wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜100°C, 使反应产物沉积在聚 合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离心清洗, 即得到在聚合物中空球壳 体外表面生长金属和内层、 通道生长金属的复合中空球; 除去聚合物模板, 得到双层结构 金属中空球, 即金属中空球中含有一个金属中空球, 得到的双层结构中空球中两中空球间 有金属柱相连, 内金属中空球不能在外中空球内运动, 两中空球同心; 或  01wt%〜30wt%, reduction of the concentration of the metal ion salt in the reaction solution is controlled to reduce the concentration of the metal ion salt in the reaction solution, the metal ion salt solution and the reducing agent solution are added in the step (1. 2). 01wt°/。 The concentration of the agent is 0. 01wt ° /. 〜 30wt%, the concentration of the template particles is 0. lwt% ~ 40wt%, the reaction temperature is 0 ° C ~ 100 ° C, the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell; reaction is completed, centrifugal cleaning , that is, a composite hollow sphere in which metal and inner layer and channel growth metal are grown on the outer surface of the hollow shell of the polymer; the polymer template is removed to obtain a double-layered metal hollow sphere, that is, the metal hollow sphere contains a metal hollow sphere, The two-layer hollow ball has a metal column connected between the two hollow balls, and the inner metal hollow ball cannot move in the outer hollow ball, and the two hollow balls are concentric; or
将步骤 (1. 2)得到的内层和通道生长金属的复合中空球分散在水中, 在反应容器中通 入惰性气体, 加入聚合物单体和引发剂溶液, 控制反应液中聚合物单体浓度 0. 01wt%〜 20wt%, 引发剂浓度 0. 01wt°/。〜20wt%, 模板粒子的浓度为 0. lwt%〜40wt°/。, 反应温度 0°C~ 100 °c, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离心清 洗, 即得到在聚合物中空球壳体外表面生长有机物和内层、 通道生长金属的复合中空球; 除去聚合物模板, 得到双层结构有机物-金属中空球, 即有机物中空球中含有一个金属中 空球, 得到的双层结构中空球中两中空球间有金属柱相连, 金属中空球不能在有机物中空 球内运动, 两中空球同心; 或 Dispersing the composite hollow sphere of the inner layer and the channel growth metal obtained in the step (1.2) in water, introducing an inert gas into the reaction vessel, adding the polymer monomer and the initiator solution, and controlling the polymer monomer in the reaction liquid. 01wt度/。 The concentration of 0. 01wt% ~ 20wt%, the initiator concentration of 0. 01wt ° /. Lwt%〜40wt°/。 〜20wt%, the concentration of the template particles is 0. lwt% ~ 40wt ° /. , the reaction temperature is 0 ° C ~ 100 °c, the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell; after the reaction is completed, centrifugal cleaning, the organic matter and the inner layer are grown on the outer surface of the hollow shell of the polymer a composite hollow sphere of a channel-grown metal; removing the polymer template to obtain a two-layer structure organic-metal hollow sphere, that is, the organic hollow sphere contains a hollow metal sphere, and the obtained double-layer hollow sphere has a metal pillar between the two hollow spheres Connected, metal hollow spheres cannot be hollow in organic matter In-ball movement, two hollow balls concentric; or
将步骤(1. 3)得到的内层和通道生长有机物的复合中空球分散在醇溶液中, 加入无机 物前体溶液和反应组份水溶液,控制反应液中无机物前体的浓度 0. 01wt%〜30wt%, 反应组 份水溶液的最终浓度为 0. lw«〜5(kt°/。, 模板粒子的浓度为 0. lwt%〜40wt°/。, 反应温度 0 °C~100°C, 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离 心清洗,即得到在聚合物中空球外表面生长无机物、内层和通道生长有机物的复合中空球; 除去聚合物模板, 得到双层结构无机物 -有机物中空球, 即无机物中空球中含有一个有机 物中空球, 得到的双层结构中空球中两中空球间有有机物柱相连, 有机物中空球不能在无 机物球内运动, 两中空球同心; 或  The weight of the inorganic precursor in the reaction liquid is 0. 01wt. The weight of the inorganic precursor in the reaction liquid is 0. 01wt %〜30wt%, The final concentration of the aqueous solution of the reaction component is 0. lw «~5 (kt ° /., the concentration of the template particles is 0. lwt% ~ 40wt ° /., the reaction temperature 0 ° C ~ 100 ° C, The reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell layer; after completion of the reaction, centrifugal cleaning is performed to obtain a composite hollow sphere in which an inorganic substance, an inner layer and a channel-grown organic substance are grown on the outer surface of the hollow sphere of the polymer; The template is obtained by obtaining a two-layer structure inorganic-organic hollow sphere, that is, the inorganic hollow sphere contains an organic hollow sphere, and the obtained double-layer hollow sphere has an organic column connected between the two hollow spheres, and the organic hollow sphere cannot be in the inorganic substance. In-ball movement, two hollow balls concentric; or
将步骤 (1. 3)得到的内层和通道生长物质的有机物复合中空球分散在水中, 加入金属 离子盐溶液和还原剂溶液, 控制反应液中金属离子盐浓度 0. 01wt%〜30wt%, 还原剂浓度 0. 01wt%〜30wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜100°C, 使反应产物 沉积在聚合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离心清洗, 即得到在聚合物 中空球壳体外表面生长金属和内层、 通道生长的有机物的复合中空球; 除去聚合物模板, 得到双层结构金属-有机物中空球, 即金属中空球中含有一个有机物中空球, 得到的双层 结构中空球中两中空球间有有机物柱相连, 有机物中空球不能在金属中空球内运动, 两中 空球同心; 或  01wt%〜30重量%, The concentration of the metal ion salt in the reaction liquid is 0. 01wt%~30wt%, the metal ion salt concentration in the reaction liquid is controlled. The concentration of the reducing agent is 0. 01wt%~30wt%, the concentration of the template particles is 0. lwt%~40wt%, the reaction temperature is 0°C~100°C, and the reaction product is deposited on the outer surface of the hollow shell of the polymer to form a continuous shell. After the reaction is completed, centrifugal cleaning is performed to obtain a composite hollow sphere in which metal and inner layer and channel-grown organic matter are grown on the outer surface of the polymer hollow spherical shell; the polymer template is removed to obtain a double-layered metal-organic hollow sphere, that is, metal The hollow sphere contains an organic hollow sphere, and the obtained double-layer hollow sphere has an organic column connected between the two hollow spheres, and the organic hollow sphere cannot move in the hollow sphere of the metal, and the two hollow spheres are concentric; or
将步骤 (1. 3)得到的内层和通道生长有机物的复合中空球分散在水中, 在反应容器中 通入惰性气体, 加入聚合物单体和引发剂溶液, 控制反应液中聚合物单体浓度 0. 01wt%〜 20wt%, 引发剂浓度 0. 01wt%〜20wt%, 模板粒子的浓度为 0. lwt%〜40wt%, 反应温度 0°C〜 100°C , 使反应产物沉积在聚合物中空球壳体外表面, 形成连续壳层; 反应完毕, 离心清 洗, 即得到在聚合物中空球壳体外表面和内层、 通道生长有机物的复合中空球; 除去聚合 物模板, 得到双层结构有机物中空球, 即有机物中空球中含有一个有机物中空球, 得到的 双层结构中空球中两中空球间有有机物柱相连, 内中空球不能在外中空球内运动, 两中空 球同心。 所述聚合物中空球模板粒子的外径为 0. 02|JB!〜 10 ,空腔体积为整个微球的 10〜95%; 所述聚合物中空球模板的内层亲水性聚合物包括聚苯乙烯磺酸、 聚甲基丙烯酸、 聚丙 烯酸、 聚乙烯醇、 聚酰胺类、 聚乙烯基吡咯、 聚 (2-乙烯基吡啶)、 聚 (4-乙烯基吡啶)、 聚 甲基丙烯酸羟乙酯、 聚乙烯基酯、 聚氧乙烯或聚乙烯基氯化铵;  Dispersing the composite hollow sphere of the inner layer and the channel growth organic material obtained in the step (1.3) in water, introducing an inert gas into the reaction vessel, adding the polymer monomer and the initiator solution, and controlling the polymer monomer in the reaction liquid. 01重量%〜20重量%, The initiator concentration is 0. 01wt%~20wt%, the concentration of the template particles is 0. lwt%~40wt%, the reaction temperature is 0°C~100°C, and the reaction product is deposited on the polymer. The outer surface of the hollow spherical shell forms a continuous shell layer; after the reaction is completed, centrifugal cleaning is performed to obtain a composite hollow sphere which grows organic matter on the outer surface of the hollow shell of the polymer and the inner layer and the channel; the polymer template is removed to obtain a double-layer structure organic hollow The ball, that is, the organic hollow ball contains an organic hollow ball, and the obtained double-layer hollow ball has an organic column connected between the two hollow balls, and the inner hollow ball cannot move in the outer hollow ball, and the two hollow balls are concentric. The outer diameter of the polymer hollow sphere template particles is 0. 02|JB! 〜 10 , the cavity volume is 10 to 95% of the entire microsphere; the inner hydrophilic polymer of the polymer hollow sphere template comprises polystyrene sulfonic acid, polymethacrylic acid, polyacrylic acid, polyvinyl alcohol, Polyamides, polyvinylpyrrole, poly(2-vinylpyridine), poly(4-vinylpyridine), polyhydroxyethyl methacrylate, polyvinyl ester, polyoxyethylene or polyvinyl ammonium chloride ;
所述聚合物中空球模板的外层亲油性聚合物包括聚苯乙烯、 聚甲基丙烯酸甲酯、 聚甲 基丙烯酸乙酯、 聚甲基丙烯酸丁酯、 聚甲基丙烯酸叔丁酯、 聚甲基丙烯酸肉桂酸乙基酯、 聚丙烯酸甲酯、 聚丙烯酸乙酯'、 聚丙烯酸丁酯、 聚丙烯酸叔丁酯、 聚氧丙烯、 聚二甲基硅 垸、 聚乙烯基丁酯或聚异丁烯; The outer lipophilic polymer of the polymeric hollow sphere template comprises polystyrene, polymethyl methacrylate, polyethyl methacrylate, polybutyl methacrylate, polybutyl methacrylate, polymethyl Acrylic acid cinnamic acid ethyl ester, polymethyl acrylate, polyethyl acrylate ', polybutyl acrylate, polybutyl acrylate, polyoxypropylene, polydimethyl silicon Bismuth, polyvinyl butyrate or polyisobutylene;
所述用来去除聚合物模板的选择性溶剂是氯仿、甲苯、四氢呋喃或 N, N-二甲基甲酰胺; 在制备 Si02中空球或复合中空球时,所述的无机物前体溶液为 Si (0CH3)4、Si (0CH2CH3)4、 Si{0CH(CH3)2}4、 31(00«¾:¾(¾)423:103的醇溶液; 反应组份水溶液为浓度 0. lwt%〜
Figure imgf000046_0001
浓盐酸或浓度 25wt°/。浓氨水调节其 pH值为 1〜13;
The selective solvent for removing the polymer template is chloroform, toluene, tetrahydrofuran or N, N-dimethylformamide; when preparing the SiO 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is Al (0CH 3 ) 4 , Si (0CH 2 CH 3 ) 4 , Si{0CH(CH 3 ) 2 } 4 , 31(00« 3⁄4 : 3⁄4 ( 3⁄4 ) 4 or 2 3:10 3 alcohol solution; reaction group Lwt%〜
Figure imgf000046_0001
Concentrated hydrochloric acid or a concentration of 25wt ° /. Concentrated ammonia water adjusts its pH value to 1~13;
在制备 Ti02中空球或复合中空球时, 所述的无机物前体溶液为 TiCl4、 Ti(0CH3)4、 Ti(0CH2C )4、 Ti{0CH(CH3) 、 Ti(0CH2CH2CH2CH3)4或 TiOS04的醇溶液; 反应组份水溶液为浓 度 0. lwt%〜100wt%水的醇溶液,用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜 13; In the preparation of the Ti0 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is TiCl 4 , Ti(0CH 3 ) 4 , Ti(0CH 2 C ) 4 , Ti{0CH(CH 3 ) , Ti(0CH 2 CH 2 CH 2 CH 3) 4 or alcoholic solution of TiOS0 4; aqueous reaction components at a concentration of 0. lwt% ~100wt% aqueous alcohol solution, and its pH was adjusted with concentrated hydrochloric acid concentration of 35wt% or 25wt% concentration of concentrated aqueous ammonia 1 to 13;
在制备 Sn02中空球或复合中空球时, 所述的无机物前体溶液为 SnCl4、 Sn(0CH3)4、 Sn (0CH2CH3) 、 Sn {OCH (CH3) 2} 4或 Sn (0CH2CH2CH2CH3) 4的醇溶液; 反应组份水溶液为浓度 0. lwt%〜100wt%水的醇溶液, 用浓度 35w«浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜 13; In the preparation of the Sn0 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is SnCl 4 , Sn(0CH 3 ) 4 , Sn (0CH 2 CH 3 ), Sn {OCH (CH 3 ) 2 } 4 or An alcohol solution of Sn (0CH 2 CH 2 CH 2 CH 3 ) 4 ; an aqueous solution of the reaction component is an alcohol solution having a concentration of 0.1 wt% to 100 wt% of water, and the pH is adjusted by a concentration of 35 w «concentrated hydrochloric acid or a concentration of 25 wt% concentrated aqueous ammonia. 1 to 13;
在制备 Zr02中空球或复合中空球时, 所述的无机物前体溶液为 ZrCl4、 Zr(0CH3)4、 Zr(0CH2CH3)4、 Zr{0CH(CH3)2}4、 21>(0(¾(¾(¾(¾)4或 Zr (S04)2的醇溶液; 反应组份水溶液为 浓度 0. lwt%〜100w«水的醇溶液,用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜13; In the preparation of a Zr0 2 hollow sphere or a composite hollow sphere, the inorganic precursor solution is ZrCl 4 , Zr(0CH 3 ) 4 , Zr(0CH 2 CH 3 ) 4 , Zr{0CH(CH 3 ) 2 } 4 , 21> (0 ( 3⁄4 ( 3⁄4 ( 3⁄4 ( 3⁄4 ) 4 or Zr (S0 4 ) 2 alcohol solution; the reaction component aqueous solution is a concentration of 0. lwt% ~ 100w « water alcohol solution, with a concentration of 35wt% concentrated hydrochloric acid Or a concentration of 25wt% concentrated ammonia water to adjust its pH value of 1~13;
在制备 A1203中空球或复合中空球时, 所述的无机物前体溶液为 A1C13、 A1(0CH3)3、 A1(0CH2C )3、 A1{0CH(CH3)J3、 Al (0CH2CH2CH2C¾)3或 A12(S04)3的醇溶液; 反应组份水溶液为 浓度 0. lwt%〜100wt%水的醇溶液,用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜13; In the preparation of the A1 2 0 3 hollow sphere or the composite hollow sphere, the inorganic precursor solution is A1C1 3 , A1(0CH 3 ) 3 , A1(0CH 2 C ) 3 , A1{0CH(CH 3 )J 3 , Al (0CH 2 CH 2 CH 2 C3⁄4) 3 or A1 2 (S0 4 ) 3 alcohol solution; the reaction component aqueous solution is a concentration of 0. lwt% ~ 100wt% water in an alcohol solution, with a concentration of 35wt% concentrated hydrochloric acid or concentration 25wt% concentrated ammonia water adjusts its pH value of 1~13;
在制备 V205中空球或复合中空球时,所述的无机物前体溶液为 V0(0CH3)3、 V0(0CH2CH3)3、 V0 {OCH (CH3) 2} 3或 V0 (0C¾CH2CH2CH3) 3的醇溶液; 反应组份水溶液为浓度 0. lwt%〜 100wt%水 的醇溶液, 用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜13; In the preparation of a V 2 0 5 hollow sphere or a composite hollow sphere, the inorganic precursor solution is V0(0CH 3 ) 3 , V0(0CH 2 CH 3 ) 3 , V0 {OCH (CH 3 ) 2 } 3 or An alcohol solution of V0 (0C3⁄4CH 2 CH 2 CH 3 ) 3 ; an aqueous solution of the reaction component is an alcohol solution having a concentration of 0.1 wt% to 100 wt% of water, and the pH is adjusted by a concentration of 35 wt% concentrated hydrochloric acid or a concentration of 25 wt% concentrated ammonia water. ~13 ;
在制备 ZnO中空球或复合中空球时, 所述的无机物前体溶液为 Zn(N03)2、 Zn(00CCH3)2、 ZnCl2或 Zn(C104)2的醇溶液; 反应组份水溶液为浓度 0.01wt%〜30wt°/。的氢氧化钠、 氢氧化 钾或氨水的水或醇溶液; In preparing the ZnO hollow sphere or the composite hollow sphere, the inorganic precursor solution is an alcohol solution of Zn(N0 3 ) 2 , Zn(00CCH 3 ) 2 , ZnCl 2 or Zn(C10 4 ) 2 ; The aqueous solution has a concentration of 0.01% by weight to 30% by weight. Water or alcohol solution of sodium hydroxide, potassium hydroxide or ammonia;
在制备 W03中空球或复合中空球时, 所述的无机前体溶液为 (NH4) 61^12041或 NaW03的 水溶液; 反应组份水溶液为浓度 0. lwt〜100wt%水的醇溶液, 用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1~13; Lwt〜100重量%的水的含量。 In the preparation of the W0 3 hollow spheres or the composite hollow spheres, the inorganic precursor solution is (NH 4 ) 6 1 ^ 12 0 41 or NaW0 3 aqueous solution; Alcohol solution, with a concentration of 35wt% concentrated hydrochloric acid or a concentration of 25wt% concentrated ammonia water to adjust its pH value of 1~13;
在制备 Mo03中空球或复合中空球时, 所述的无机物前体溶液为 Mo032¾0水溶液; 反 应组份水溶液为浓度 0. lwt%〜100wt°/。水的醇溶液, 用浓度 35wt%浓盐酸或浓度 25wt%浓氨 水调节其 pH值为 1〜13; 在制备 Al (OH) 或 Mg (OH) 2中空球或复合中空球时,所述的无机物前体溶液为可溶性铝、 镁的氯化物、硫酸盐的水溶液; 反应组份水溶液为浓度 0. 01wt%〜30wt%的氢氧化钠、 氢氧 化钾或氨水的水溶液; In the preparation of hollow spheres or Mo0 3 composite hollow sphere, the inorganic precursor solution of aqueous Mo0 3 2¾0; aqueous reaction component concentration 0. lwt% ~100wt ° /. Water alcohol solution, the concentration of 35wt% concentrated hydrochloric acid or a concentration of 25wt% concentrated ammonia water to adjust its pH value of 1~13; In the preparation of Al (OH) or Mg (OH) 2 hollow spheres or composite hollow spheres, the inorganic precursor solution is an aqueous solution of soluble aluminum, magnesium chloride, and sulfate; the aqueous solution of the reaction component is at a concentration of 0. 01wt%~30wt% aqueous solution of sodium hydroxide, potassium hydroxide or ammonia;
在制备生物矿化材料 CaC03、 (¾。(Ρ04) 6 (0Η) 2、 CaS04、 或 BaS04中空球或复合中空球时, 所述的无机物前体溶液为 Ca (0H) 2、 CaCl2、 Ba (0H) 2或 BaCl2的水溶液; 反应组份水溶液为 含 C03 2—、 P0 、 SO 的 Na+或 K+盐, 或者浓度 0. 01 %〜3(¼1%的 H2C03、 H3P04或 H2S04的水溶 液; When preparing the biomineralized material CaC0 3 , (3⁄4.(Ρ0 4 ) 6 (0Η) 2 , CaS0 4 , or BaS0 4 hollow sphere or composite hollow sphere, the inorganic precursor solution is Ca(0H) 2 An aqueous solution of CaCl 2 , Ba (0H) 2 or BaCl 2 ; the aqueous solution of the reaction component is a Na + or K + salt containing C0 3 2 —, P0 , SO, or a concentration of 0.01% to 3 (1⁄41% of H 2 ) An aqueous solution of C0 3 , H 3 P0 4 or H 2 S0 4 ;
在制备半导体硫化物中空球或复合中空球时, 所述的无机物前体溶液为相应金属阳离 子的可溶性氯化物、 硝酸盐或硫酸盐的水溶液; 反应组份水溶液为浓度 0. 01^%〜30^%的 硫化钠或硫脲的水溶液;  01〜%〜 The concentration of the aqueous solution of the reaction solution is 0. 01^%~ 30% by weight of an aqueous solution of sodium sulfide or thiourea;
在制备半导体硒化物或碲化物中空球或复合中空球时, 所述的无机物前体溶液为相应 金属阳离子的可溶性氯化物、硝酸盐、硫酸盐的水溶液;反应组份水溶液为浓度 0. 01wt»/。〜 30wt%硒化钠或碲化钠的水溶液;  01wtwt。 The solution of the aqueous solution of the solution is a concentration of 0. 01wt »/. ~ 30wt% aqueous solution of sodium selenide or sodium telluride;
在制备磁性化合物 FeA^ F 03或含锌、 锰、 钴、 镍、 铜、 镁的铁氧体中空球或复合 中空球时, 所述的无机物前体溶液为 Fe2+、 Fe Zn2\ Mn2 Co2 Ni2\ Cu2¾¾ Mg2+的可溶性 氯化物、 硝酸盐或硫酸盐的水溶液; 反应组份水溶液为浓度 0. 01wt%〜30wt%氢氧化钠、 氢 氧化钾或氨水的水溶液, 或浓度 ^ %〜60^%的水合肼溶液; When the magnetic compound FeA^F 0 3 or a ferrite hollow sphere or a composite hollow sphere containing zinc, manganese, cobalt, nickel, copper or magnesium is prepared, the inorganic precursor solution is Fe 2+ , Fe Zn 2 \ Mn 2 Co 2 Ni 2 \ Cu 2 ¾¾ Mg 2+ soluble chloride, nitrate or sulfate aqueous solution; concentration of the reaction components aqueous 0. 01wt% ~30wt% sodium hydroxide, potassium hydroxide or aqueous ammonia An aqueous solution, or a hydrazine hydrate solution having a concentration of from 5% to 60% by weight;
在制备金属 Au、 Ag、 Pt、 Pd、 Pb、 Ni、 Co、 Cu、 Fe中空球或复合中空球时, 所述的金 属离子盐溶液为相应金属离子可溶性高氯酸盐、 氯化物、 硝酸盐或硫酸盐的水溶液; 还原 剂溶液为 NaB¾、 LiB (C2HS) 3H或 N2H4的水溶液; In the preparation of metal Au, Ag, Pt, Pd, Pb, Ni, Co, Cu, Fe hollow spheres or composite hollow spheres, the metal ion salt solution is a corresponding metal ion soluble perchlorate, chloride, nitrate Or an aqueous solution of a sulfate; the reducing agent solution is an aqueous solution of NaB3⁄4, LiB(C 2 H S ) 3 H or N 2 H 4 ;
在制备导电聚合物聚苯胺、 聚吡咯、 聚噻吩、 聚对苯乙炔及其衍生物中空球或复合中 空球时, 所述的聚合物单体溶液为相应单体的水或醇溶液; 引发剂溶液为过硫酸钾、 过硫 酸铵或三氯化铁的水溶液;  In the preparation of a conductive polymer polyaniline, polypyrrole, polythiophene, polyparaphenylene acetylene and derivatives thereof hollow spheres or composite hollow spheres, the polymer monomer solution is a water or alcohol solution of the corresponding monomer; initiator The solution is an aqueous solution of potassium persulfate, ammonium persulfate or ferric chloride;
在制备敏感性凝胶聚 N -异丙基丙烯酰胺、 聚丙烯酸、 聚甲基丙烯酸中空球或复合中 空球时, 所述的聚合物单体溶液为单体 N -异丙基丙烯酰胺、 丙烯酸、 甲基丙烯酸或者其 水或醇溶液; 引发剂溶液为过硫酸钾或过硫酸铵的水溶液;  In the preparation of a sensitive gel poly-N-isopropylacrylamide, polyacrylic acid, polymethacrylic hollow sphere or composite hollow sphere, the polymer monomer solution is a monomer N-isopropyl acrylamide, acrylic acid , methacrylic acid or its water or alcohol solution; the initiator solution is an aqueous solution of potassium persulfate or ammonium persulfate;
所述的惰性气体是氮气或氩气;  The inert gas is nitrogen or argon;
所述的醇溶液是甲醇、 乙醇、 丙醇、 异丙醇、 丁醇。  The alcohol solution is methanol, ethanol, propanol, isopropanol, butanol.
11. 根据权利要求 10所述的方法, 其特征是: 所述的无机物的中空球或复合中空球包 括: Ti02、 Si02、 Sn02、 Zr02、 A1203、 V20s、 Zn0、 W03、 Mo03、 Al (0H) 3或 Mg (0H) 2; 生物矿化 材料的中空球或复合中空球包括: CaC03、 Ca10 (P04) e (0H) 2, 8&504或 &304 ; 半导体材料的中 空球或复合中空球包括: CdS、 ZnS、 PbS、 CuS、 CoS、 FeS、 CdTe、 CdSe或 ZnSe; 磁性化合 物的中空球或复合中空球包括: FeA、 Fe203或含锌、 锰、 钴的铁氧体; 金属的中空球或复 合中空球包括: Au、 Ag、 Pt、 Pd、 Pb、 Ni、 Co、 Cu或 Fe; 有机物的中空球或复合中空球包 括: 聚苯胺、 聚吡咯、 聚噻吩或聚对苯乙炔及其衍生物、 聚 N-异丙基丙烯酰胺、 聚丙烯酸 或聚甲基丙烯酸。 11. The method according to claim 10, characterized in that: the composite inorganic hollow spheres or hollow spheres comprising: Ti0 2, Si0 2, Sn0 2, Zr0 2, A1 2 0 3, V 2 0 s , Zn0, W0 3 , Mo0 3 , Al (0H) 3 or Mg (0H) 2; hollow spheres or composite hollow spheres of biomineralized materials include: CaC0 3 , Ca 10 (P0 4 ) e (0H) 2 , 8&50 4 or & 30 4 ; hollow spheres or composite hollow spheres of semiconductor materials include: CdS, ZnS, PbS, CuS, CoS, FeS, CdTe, CdSe or ZnSe; The hollow sphere or composite hollow sphere of the object comprises: FeA, Fe 2 0 3 or ferrite containing zinc, manganese and cobalt; the hollow sphere or composite hollow sphere of the metal comprises: Au, Ag, Pt, Pd, Pb, Ni, Co, Cu or Fe; organic hollow spheres or composite hollow spheres include: polyaniline, polypyrrole, polythiophene or polyparaphenylene vinylene and its derivatives, poly N-isopropyl acrylamide, polyacrylic acid or polymethacrylic acid .
12.—种用模板法制备中空球和复合中空球的方法,其特征是,双层结构空心球的制备 方法步骤: 12. A method for preparing a hollow sphere and a composite hollow sphere by a template method, characterized in that the preparation method of the double-layer hollow sphere is as follows:
将改性聚合物中空球浸泡在浓度为 0. 01wt%〜60. 0wt°/。的无机物前体溶液中, 改性聚合 物中空球在溶液中保持浓度为 0. lwt%〜40. (kt%, 使无机物前体溶液渗入改性聚合物中空 球的空腔和亲水层, 达到平衡后将未渗入空腔中的溶液离心洗去, 然后将得到的含无机物 前体溶液的改性聚合物中空球在搅拌下加入到反应组份水溶液中, 控制反应液中含无机物 前体溶液的改性聚合物中空球的浓度保持在 0. lwt%〜40. Owt%, 反应温度 0°C〜100°C, 反 应完毕, 离心清洗, 即得到聚合物与无机物的多层复合中空球; 用选择性溶剂除去模板聚 合物, 可制得双层结构无机空心球; 或  01wt%〜60. 0wt°/。 The modified polymer hollow sphere was immersed in a concentration of 0. 01wt%~60. 0wt ° /. In the inorganic precursor solution, the modified polymer hollow spheres are kept at a concentration of 0. lwt%~40. (kt%, the inorganic precursor solution is infiltrated into the cavity and hydrophilicity of the modified polymer hollow sphere After the layer is reached, the solution that has not penetrated into the cavity is centrifuged and washed, and then the obtained modified polymer hollow sphere containing the inorganic precursor solution is added to the aqueous solution of the reaction component under stirring to control the reaction liquid. The weight of the modified polymer hollow sphere of the inorganic precursor solution is maintained at 0. lwt%~40. Owt%, the reaction temperature is 0 ° C ~ 100 ° C, the reaction is completed, centrifugal cleaning, that is, the polymer and the inorganic substance are obtained. Multi-layer composite hollow sphere; a double-layered inorganic hollow sphere can be obtained by removing a template polymer with a selective solvent; or
先将反应组份水溶液渗入改性聚合物中空球模板粒子的空腔和亲水层, 然后将得到含 反应组份水溶液的改性聚合物中空球在撹拌下加入到浓度为 0. 01wt%〜60. 0wt%的无机物 前体溶液中,控制反应液中含反应组份水溶液的改性聚合物中空球的浓度保持在 0. lwt%〜 40. 0wt%, 反应温度 0°C〜100'C, 反应完毕, 离心清洗, 得到聚合物与无机物的多层复合 中空球; 用选择性溶剂除去模板聚合物, 可制得双层结构无机空心球; 或  01wt%〜 The weight of the modified polymer hollow sphere containing the aqueous solution of the reaction component is added to the concentration of 0. 01wt%~ Lwt%〜40. 0wt%, reaction temperature 0°C~100', the concentration of the modified polymer hollow spheres containing the aqueous solution of the reaction component in the reaction solution is maintained at 0. lwt%~ 40. 0wt%, reaction temperature 0°C~100' C, the reaction is completed, centrifugal cleaning, to obtain a multi-layer composite hollow sphere of polymer and inorganic; using a selective solvent to remove the template polymer, a two-layer inorganic hollow sphere can be obtained; or
将改性聚合物中空球浸泡在 0. 01wt%〜60. 0^%的金属离子盐溶液中, 改性聚合物中空 球在溶液中保持浓度为 0. lwt%〜40. 0wt%, 使金属离子盐溶液渗入改性聚合物中空球的空 腔和亲水层, 达到平衡后将未渗入的溶液离心洗去; 然后将得到的含金属离子盐溶液的改 性聚合物中空球在搅拌下加入到 0. 01wt%〜60. 0wt%的还原剂溶液中, 控制反应液中含金属 离子盐溶液的改性聚合物中空球的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0°C〜100°C, 反应完毕, 离心清洗, 即得到聚合物与金属的多层复合中空球; 用选择性溶剂除去模板聚 合物, 可制得双层结构金属空心球; 或  Lwt%~40. 0wt%, making metal, the metal polymer is immersed in a 0. lwt%~40. 0wt%, making metal The ionic salt solution penetrates into the cavity and the hydrophilic layer of the modified polymer hollow sphere, and after the equilibrium is reached, the uninfiltrated solution is centrifugally washed away; then the obtained modified polymer hollow sphere containing the metal ion salt solution is added under stirring. Lwt%~40. 0wt%, reaction temperature 0°, 0. 0wt%, 40°%, reaction temperature 0° C~100 ° C, the reaction is completed, centrifugal cleaning, that is, a multi-layer composite hollow sphere of polymer and metal is obtained; and the template polymer is removed by a selective solvent to obtain a double-layered metal hollow sphere; or
先将 0. 01wt%〜60. 0wt%的还原剂溶液渗入改性聚合物中空球粒子空腔和亲水层中,然 后将得到的含还原剂溶液的改性聚合物中空球在搅拌下加入到浓度为 0. 01wt%〜60. 0wt% 的金属离子盐溶液中, 控制反应液中含还原剂溶液的改性聚合物中空球的浓度保持在 0. lwt»/。〜40. 0wt%, 反应温度 0°C〜100°C , 反应完毕, 离心清洗, 得到聚合物与金属的多 层复合中空球; 用选择性溶剂除去模板聚合物, 可制得双层结构金属空心球; 或  0. 01wt%~60. 0wt% of the reducing agent solution is infiltrated into the hollow cavity of the modified polymer hollow sphere particles and the hydrophilic layer, and then the obtained modified polymer hollow sphere containing the reducing agent solution is added under stirring. Lwt»/。 The concentration of the modified polymer hollow spheres containing the reducing agent solution in the reaction solution was maintained at 0. lwt» /. 〜40. 0wt%, reaction temperature 0 ° C ~ 100 ° C, the reaction is completed, centrifugal cleaning, to obtain a polymer and metal multilayer composite hollow sphere; with a selective solvent to remove the template polymer, can be obtained two-layer structure metal Hollow ball; or
将改性聚合物中空球浸泡在浓度为 0. 01wt%〜40. (¼ %的聚合物单体溶液中, 改性聚合 物中空球在这些溶液中保持浓度为 0. vt%〜40. 0wt%, 使聚合物单体溶液渗入改性聚合物 中空球的空腔和亲水层, 达到平衡后将未渗入改性聚合物中空球空腔中的溶液离心洗去, 然后将得到的含聚合物单体溶液的改性聚合物中空球在搅拌下加入到 0. 01wt%〜30. Owt% 引发剂溶液中; 在反应容器中通入惰性气体, 控制反应液中含聚合物单体溶液的改性聚合 物中空球的浓度保持在 0. lwt%〜40. 0wt%, 反应温度 0°C〜100°C, 反应完毕, 离心清洗, 即得到聚合物与有机物的多层复合中空球; 用选择性溶剂除去模板聚合物, 可制得双层结 构有机空心球; 或 The weight of the modified polymer hollow spheres in these solutions is maintained at 0. vt%~40. 0wt, the concentration of the modified polymer hollow spheres in the solution is 0. vt%~40. 0wt %, infiltrating the polymer monomer solution into the modified polymer The cavity and the hydrophilic layer of the hollow sphere are centrifuged to remove the solution which has not penetrated into the hollow cavity of the modified polymer, and then the obtained modified polymer hollow sphere containing the polymer monomer solution is stirred. 0wt l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l l %~40. 0wt%, reaction temperature 0°C~100°C, after completion of the reaction, centrifugal cleaning, to obtain a multilayer composite hollow sphere of polymer and organic matter; removing the template polymer with a selective solvent to obtain a double layer Structured organic hollow sphere; or
先将 0. 01wt%〜30. 0wt%引发剂溶液渗入改性聚合物中空球的空腔和亲水层,然后将得 到的含引发剂溶液的改性聚合物中空球在搅拌下加入到浓度为 0. 01wt%〜40wt%的聚合物 单体溶液中, 在反应容器中通入惰性气体, 控制反应液中含引发剂溶液的改性聚合物中空 球的浓度保持在 0. lwt%~40w«, 反应温度 0°C〜100°C, 反应完毕, 离心清洗, 得到聚合 物与有机物的多层复合中空球; 用选择性溶剂除去模板聚合物, 可制得双层结构有机空心 球;  01wt%〜30. 0wt% initiator solution is infiltrated into the cavity and hydrophilic layer of the modified polymer hollow sphere, and then the obtained modified polymer hollow sphere containing the initiator solution is added to the concentration under stirring Lwt%~40w The concentration of the modified polymer hollow spheres containing the initiator solution in the reaction solution is maintained at 0. lwt%~40w «, the reaction temperature is 0 ° C ~ 100 ° C, the reaction is completed, centrifugal cleaning, to obtain a multi-layer composite hollow sphere of polymer and organic matter; using a selective solvent to remove the template polymer, a two-layer organic hollow sphere can be obtained;
所述改性聚合物中空球模板粒子的外径为 0. 02μπ!〜 lO ,空腔体积为整个微球的 10〜 95%, 内、 外表面为亲水性聚合物;  The outer diameter of the modified polymer hollow sphere template particles is 0. 02μπ! ~ lO, the cavity volume is 10~95% of the whole microsphere, and the inner and outer surfaces are hydrophilic polymers;
所述改性聚合物中空球模板的亲水性聚合物包括聚苯乙烯磺酸、 聚甲基丙烯酸、 聚丙 烯酸、 聚乙烯醇、 聚酰胺类、 聚乙烯基吡咯、 聚 (2-乙烯基吡啶)、 聚 (4-乙烯基吡啶)、 聚 甲基丙烯酸羟乙酯、 聚乙烯基酯、 聚氧乙烯或聚乙烯基氯化铵;  The hydrophilic polymer of the modified polymer hollow sphere template includes polystyrenesulfonic acid, polymethacrylic acid, polyacrylic acid, polyvinyl alcohol, polyamide, polyvinylpyrrole, poly(2-vinylpyridine) ), poly(4-vinylpyridine), polyhydroxyethyl methacrylate, polyvinyl ester, polyoxyethylene or polyvinyl ammonium chloride;
所述用来去除聚合物模板的选择性溶剂是氯仿、 甲苯、 四氢呋喃、 Ν, Ν-二甲基甲酰胺 等。  The selective solvent for removing the polymer template is chloroform, toluene, tetrahydrofuran, hydrazine, hydrazine-dimethylformamide or the like.
在制备 Si02中空球或复合中空球时,所述的无机物前体溶液为 Si (0CH3) 4、Si (OCH2CH3) 4、 Si {0CH (C ) 2} 4、 51 (0(¾(¾(¾(¾) 4或¾ 03的醇溶液; 反应组份水溶液为浓度 0. lwt%〜 100wt°/。水的醇溶液, 用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜13; In the preparation of the SiO 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is Si (0CH 3 ) 4 , Si (OCH 2 CH 3 ) 4 , Si {0CH (C ) 2 } 4 , 51 (0 ( 3⁄4 ( 3⁄4 ( 3⁄4 ) 4 or 3⁄4 0 3 alcohol solution; the aqueous solution of the reaction component is a concentration of 0. lwt%~ 100wt ° /. Alcohol solution of water, with a concentration of 35wt% concentrated hydrochloric acid or a concentration of 25wt% concentrated ammonia water Adjust its pH value to 1~13;
在制备 Ti02中空球或复合中空球时, 所述的无机物前体溶液为 TiCl4、 Ti (OC¾) 4、 Ti (0CH2CH3)4、 Ti {0CH(C¾) 2}4、 Ti (0C C¾CH2CH3) 4或 TiOS04的醇溶液; 反应组份水溶液为浓 度 0. 1 wt%〜 100wt%水的醇溶液,用浓度 35wt%浓盐酸或浓度 25wt°/ ¾¾氨水调节其 pH值为 1〜 13; In the preparation of the Ti0 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is TiCl 4 , Ti (OC 3⁄4) 4 , Ti (0CH 2 CH 3 ) 4 , Ti {0CH(C 3⁄4) 2 } 4 , Ti (0C C¾CH 2 CH 3) 4 or alcoholic solution of TiOS0 4; aqueous reaction components at a concentration 0. 1 wt% ~ 100wt% aqueous alcohol solution of concentrated hydrochloric acid with a concentration of 35wt% or concentration 25wt ° / ¾¾ ammonia to adjust the pH The value is 1 to 13;
在制备 Sn02中空球或复合中空球时, 所述的无机物前体溶液为 SnCl4、 Sn (0C¾) 4、 Sn (0CH2CH3) 、 Sn {OCH (CH3) 2} 4或 Sn (0CH2CH2CH2CH3) 4的醇溶液; 反应组份水溶液为浓度 0. lwt%〜100wt%水的醇溶液, 用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜 13; In the preparation of the Sn0 2 hollow sphere or the composite hollow sphere, the inorganic precursor solution is SnCl 4 , Sn (0C3⁄4) 4 , Sn (0CH 2 CH 3 ) , Sn {OCH (CH 3 ) 2 } 4 or Sn An alcohol solution of (0CH 2 CH 2 CH 2 CH 3 ) 4 ; an aqueous solution of the reaction component is an alcohol solution having a concentration of 0.1 wt% to 100 wt% of water, and the pH is adjusted by a concentration of 35 wt% concentrated hydrochloric acid or a concentration of 25 wt% concentrated aqueous ammonia. 1~ 13;
在制备 Zr02中空球或复合中空球时, 所述的无机物前体溶液为 ZrCl4、 Zr (0C¾) 4、 Zr (0C¾CH3) 4、 Zr {OCH (CH3) 2} 4、 Zr (0CH2CH2CH2CH3) 4或 Zr (S04) 2的醇溶液; 反应组份水溶液为 浓度 0. lwt%〜100wt%水的醇溶液,用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜13; In the preparation of a Zr0 2 hollow sphere or a composite hollow sphere, the inorganic precursor solution is ZrCl 4 , Zr (0C3⁄4) 4 , Zr (0C3⁄4CH 3 ) 4 , Zr {OCH (CH 3 ) 2 } 4 , Zr ( 0CH 2 CH 2 CH 2 CH 3 ) 4 or Zr (S0 4 ) 2 alcohol solution; the reaction component aqueous solution is a concentration of 0. lwt% ~ 100wt% water in an alcohol solution, with a concentration of 35wt% concentrated hydrochloric acid or a concentration of 25wt% concentrated Ammonia water adjusts its pH 1 to 13;
在制备 A1203中空球或复合中空球时, 所述的无机物前体溶液为 A1C13、 A1 (0C¾) 3、 Al (0CH2CH3) 、 Al {OCH (CH3) J 3、 Al (0CH2CH2CH2CH3) 3或 Al2 (S04) 3的醇溶液; 反应组份水溶液为 浓度 0. lwt%〜100wt%水的醇溶液,用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜13; . In the preparation of the A1 2 3 3 hollow sphere or the composite hollow sphere, the inorganic precursor solution is A1C1 3 , A1 (0C3⁄4) 3 , Al (0CH 2 CH 3 ) , Al {OCH (CH 3 ) J 3 , Al (0CH 2 CH 2 CH 2 CH 3 ) 3 or Al 2 (S0 4 ) 3 alcohol solution; the reaction component aqueous solution is a concentration of 0. lwt% ~ 100wt% water in an alcohol solution, with a concentration of 35wt% concentrated hydrochloric acid or concentration 25wt% concentrated ammonia water adjusts its pH value to 1~13;
在制备 V205中空球或复合中空球时,所述的无机物前体溶液为 V0(0C¾) 3、 V0(0C¾CH3) 3、 V0 {OCH (CH3) 2} 3或 V0 (0CH2CH2CH2CH3) 3的醇溶液; 反应组份水溶液为浓度 0. lwt%〜 100 %水 的醇溶液, 用浓度 35wt%浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1~13; In the preparation of a V 2 0 5 hollow sphere or a composite hollow sphere, the inorganic precursor solution is V0(0C3⁄4) 3 , V0(0C3⁄4CH 3 ) 3 , V0 {OCH (CH 3 ) 2 } 3 or V0 (0CH) 2 CH 2 CH 2 CH 3 ) 3 alcohol solution; the reaction component aqueous solution is a concentration of 0. lwt% ~ 100% water in an alcohol solution, the concentration of 35wt% concentrated hydrochloric acid or a concentration of 25wt% concentrated ammonia water to adjust its pH value of 1~ 13;
在制备 ZnO中空球或复合中空球时, 所述的无机物前体溶液为 Zn(N03) 2、 Zn (00CC¾) 2、 ZnCl2或 Zn (C104) 2的醇溶液; 反应组份水溶液为浓度 0. 0hrt%〜30wt°/。的氢氧化钠、 氢氧化 钾或氨水的水或醇溶液; In the preparation of the ZnO hollow sphere or the composite hollow sphere, the inorganic precursor solution is an alcohol solution of Zn(N0 3 ) 2 , Zn (00CC3⁄4) 2 , ZnCl 2 or Zn (C10 4 ) 2 ; 0重量。〜30wt ° /. Water or alcohol solution of sodium hydroxide, potassium hydroxide or ammonia;
在制备 W03中空球或复合中空球时, 所述的无机前体溶液为 (NH4) 6 ^041或 ^¥03的 水溶液; 反应组份水溶液为浓度 0. Iw1:〜 100wt°/。水的醇溶液, 用浓度 35wt°/。浓盐酸或浓度 25wt%浓氨水调节其 pH值为 1〜13; In the preparation of the W0 3 hollow spheres or the composite hollow spheres, the inorganic precursor solution is an aqueous solution of (NH 4 ) 6 ^0 41 or ^0 0 3 ; the aqueous solution of the reaction component is a concentration of 0. Iw1: ~ 100wt ° / . An alcoholic solution of water at a concentration of 35 wt ° /. Concentrated hydrochloric acid or a concentration of 25wt% concentrated ammonia water to adjust its pH value of 1~13;
在制备 Mo03中空球或复合中空球时, 所述的无机物前体溶液为 Mo03 2H20水溶液; 反 应组份水溶液为浓度 0. lw«〜100wt%水的醇溶液, 用浓度 35wt%浓盐酸或浓度 25wte/。浓氨 水调节其 pH值为 1〜13; In the preparation of the Mo0 3 hollow sphere or the composite hollow sphere, the inorganic precursor solution is a Mo0 3 2H 2 0 aqueous solution; the reaction component aqueous solution is an alcohol solution having a concentration of 0.1 lw «~100 wt% water, with a concentration of 35 wt% Concentrated hydrochloric acid or a concentration of 25wt e /. Concentrated ammonia water adjusts its pH value to 1~13;
在制备 Al (0H) 3或 Mg (0H) 2中空球或复合中空球时,所述的无机物前体溶液为可溶性铝、 镁的氯化物、 硫酸盐的水溶液; 反应组份水溶液为浓度 0. 01wt%〜30wt%的氢氧化钠、 氢氧 化钾或氨水的氷溶液; In the preparation of Al (0H) 3 or Mg (0H) 2 hollow spheres or composite hollow spheres, the inorganic precursor solution is an aqueous solution of soluble aluminum, magnesium chloride, and sulfate; the aqueous solution of the reaction component is at a concentration of 0. 01wt%~30wt% ice solution of sodium hydroxide, potassium hydroxide or ammonia water;
在制备生物矿化材料 CaC03、 C 。(P04) 3 (0H) 2、 CaS04、 或 BaS04中空球或复合中空球时, 所述的无机物前体溶液为 Ca(0H)2、 CaCl2、 Ba(0H) 2或 BaCl2的水溶液; 反应组份水溶液为 含 C03 2—、 P0 、 SO 的 Na+或 K+盐, 或者浓度 0. 0^ %~30 %的 H2C03、 H3P04或 H2S04的水溶 液; In the preparation of biomineralized materials CaC0 3 , C. (P0 4 ) 3 (0H) 2 , CaS0 4 , or BaS0 4 hollow sphere or composite hollow sphere, the inorganic precursor solution is Ca(0H) 2 , CaCl 2 , Ba(0H) 2 or BaCl 2 The aqueous solution of the reaction component is a Na + or K + salt containing C0 3 2 —, P0 , SO, or a concentration of 0. 0^ %~30 % of H 2 C0 3 , H 3 P0 4 or H 2 S0 4 Aqueous solution
在制备半导体硫化物中空球或复合中空球时, 所述的无机物前体溶液为相应金属阳离 子的可溶性氯化物、硝酸盐或硫酸盐的水溶液; 反应组份水溶液为浓度 0. 01 %〜30^%的 硫化钠或硫脲的水溶液;  01%〜30。 The aqueous solution of the solution is a solution of the aqueous solution of the corresponding metal cations, a nitrate or a sulphate; ^% aqueous solution of sodium sulfide or thiourea;
在制备半导体硒化物或碲化物中空球或复合中空球时, 所述的无机物前体溶液为相应 金属阳离子的可溶性氯化物、硝酸盐、硫酸盐的水溶液;反应组份水溶液为浓度 0. 01wt%〜 30wt%硒化钠或碲化钠的水溶液;  01wtwt。 The solution of the aqueous solution of the solution is a concentration of 0. 01wt %~ 30wt% aqueous solution of sodium selenide or sodium telluride;
在制备磁性化合物 Fe304或 Fe203或含锌、 锰、 钴、 镍、 铜、 镁的铁氧体中空球或复合 中空球时, 所述的无机物前体溶液为 Fe2+、 Fe3\ Zn2\ Mn2\ Co2+、 Ni2+、 Cu2+或 Mg2+的可溶性 氯化物、 硝酸盐或硫酸盐的水溶液; 反应组份水溶液为浓度 0. 01wt%〜30wt%氢氧化钠、 氢 氧化钾或氨水的水溶液, 或浓度 1^%〜60^%的水合肼溶液; When the magnetic compound Fe 3 0 4 or Fe 2 0 3 or a ferrite hollow sphere or a composite hollow sphere containing zinc, manganese, cobalt, nickel, copper or magnesium is prepared, the inorganic precursor solution is Fe 2+ . , Fe 3 \ Zn 2 aq \ Mn 2 \ Co 2+, Ni 2+, Cu 2+ or Mg 2+ soluble chloride, nitrate or sulfate; aqueous reaction components at a concentration of 0. 01wt% ~30wt % sodium hydroxide, hydrogen An aqueous solution of potassium oxide or aqueous ammonia, or a hydrazine hydrate solution having a concentration of 1% to 60%;
在制备金属 Au、 Ag、 Pt、 Pd、 Pb、 Ni、 Co、 Cu、 Fe中空球或复合中空球时, 所述的金 属离子盐溶液为相应金属离子可溶性高氯酸盐、 氯化物、 硝酸盐或硫酸盐的水溶液; 还原 剂溶液为 NaB 、 1^8 (( 2¾) 311或1^ 的水溶液; · In the preparation of metal Au, Ag, Pt, Pd, Pb, Ni, Co, Cu, Fe hollow spheres or composite hollow spheres, the metal ion salt solution is a corresponding metal ion soluble perchlorate, chloride, nitrate Or an aqueous solution of a sulfate; the reducing agent solution is an aqueous solution of NaB, 1^8 (( 2 3⁄4 ) 3 11 or 1 ^;
在制备导电聚合物聚苯胺、 聚吡咯、 聚噻吩、 聚对苯乙炔及其衍生物中空球或复合中 空球时, 所述的聚合物单体溶液为相应单体的水或醇溶液; 引发剂溶液为过硫酸钾、 过硫 酸铵或三氯化铁的水溶液; '  In the preparation of a conductive polymer polyaniline, polypyrrole, polythiophene, polyparaphenylene acetylene and derivatives thereof hollow spheres or composite hollow spheres, the polymer monomer solution is a water or alcohol solution of the corresponding monomer; initiator The solution is an aqueous solution of potassium persulfate, ammonium persulfate or ferric chloride; '
在制备敏感性凝胶聚 N -异丙基丙烯酰胺、 聚丙烯酸、 聚甲基丙烯酸中空球或复合中 空球时, 所述的聚合物单体溶液为单体 N -异丙基丙烯酰胺、 丙烯酸、 甲基丙烯酸或者其 水或醇溶液; 引发剂溶液为过硫酸钾或过硫酸铵的水溶液;  In the preparation of a sensitive gel poly-N-isopropylacrylamide, polyacrylic acid, polymethacrylic hollow sphere or composite hollow sphere, the polymer monomer solution is a monomer N-isopropyl acrylamide, acrylic acid , methacrylic acid or its water or alcohol solution; the initiator solution is an aqueous solution of potassium persulfate or ammonium persulfate;
所述的惰性气体是氮气或氩气;  The inert gas is nitrogen or argon;
所述的醇溶液是甲醇、 乙醇、 丙醇、 异丙醇或丁醇。  The alcohol solution is methanol, ethanol, propanol, isopropanol or butanol.
13. 根据权利要求 12所述的方法, 其特征是: 所述的无机物的中空球或复合中空球包 括: Ti02、 Si02、 Sn02、 Zr02、 A1203、 V205、 ZnO、 W03、 Mo03、 Al (0H) 3或 Mg (0H) 2; 生物矿化 材料的中空球或复合中空球包括: CaC03、 Ca10(P04) 6(0H) 2, BaS04或 CaS04; 半导体材料的中 空球或复合中空球包括: CdS、 ZnS、 PbS、 CuS、 CoS、 FeS、 CdTe、 CdSe或 ZnSe; 磁性化合 物的中空球或复合中空球包括: Fe304、 Fe203或含锌、 锰、 钴的铁氧体; 金属的中空球或复 合中空球包括: Au、 Ag、 Pt、 Pd、 Pb、 Ni、 Co、 Cu或 Fe; 有机物的中空球或复合中空球包 括: 聚苯胺、 聚吡咯、 聚噻吩或聚对苯乙炔及其衍生物、 聚 N异丙基丙烯酰胺、 聚丙烯酸 或聚甲基丙烯酸。 13. The method according to claim 12, characterized in that: the composite inorganic hollow spheres or hollow spheres comprising: Ti0 2, Si0 2, Sn0 2, Zr0 2, A1 2 0 3, V 2 0 5 , ZnO, W0 3 , Mo0 3 , Al (0H) 3 or M g (0H) 2 ; hollow spheres or composite hollow spheres of biomineralized materials include: CaC0 3 , Ca 10 (P0 4 ) 6 (0H) 2 , BaS0 4 or CaS0 4; hollow sphere or composite hollow sphere of semiconductor material includes: CdS, ZnS, PbS, CuS, CoS, FeS, CdTe, CdSe or ZnSe; hollow sphere or composite hollow sphere of magnetic compound includes: Fe 3 0 4 , Fe 2 0 3 or ferrite containing zinc, manganese or cobalt; hollow or composite hollow spheres of metal include: Au, Ag, Pt, Pd, Pb, Ni, Co, Cu or Fe; hollow spheres of organic matter or The composite hollow spheres include: polyaniline, polypyrrole, polythiophene or polyparaphenylene vinylene and derivatives thereof, poly N isopropyl acrylamide, polyacrylic acid or polymethacrylic acid.
14.一种用模板法制备中空球和复合中空球的方法,其特征是:将聚合物中空球模板粒 子分散在反应组份水溶液中, 加入单体和交联剂, 或单体和交联剂和有机溶剂, 通过单体 或有机溶剂对聚合物中空球模板壳体进行溶胀,并将单体和引发剂引进聚合物中空球壳层, 然后进行加聚、 缩聚或开环聚合, 在反应容器中通入惰性气体, 控制反应液中模板粒子的 浓度为 0. lwt%〜20wt%,反应物单体浓度为 0. lwt%〜20wt%,交联剂浓度为 0. 01wt%〜10wt%, 有机溶剂浓度为 0wt%〜20wt%, 反应温度 20°C〜250°C ; 反应完毕, 离心清洗, 制得聚合物 中空球与有机物的复合中空球; 所述聚合物中空球模板粒子的外径为 0. 02μπ!〜 10Mm,空腔体积为整个微球的 10〜95°/0; 所述聚合物中空球模板的内层亲水性聚合物包括聚苯乙烯磺酸、 聚甲基丙烯酸、 聚丙 烯酸、 聚乙烯醇、 聚酰胺类、 聚乙烯基吡咯、 聚 (2-乙烯基吡啶)、 聚 (4-乙烯基吡啶)、 聚 甲基丙烯酸羟乙酯、 聚乙烯基酯、 聚氧乙烯或聚乙烯基氯化铵; 14. A method for preparing hollow spheres and composite hollow spheres by a template method, characterized in that polymer hollow sphere template particles are dispersed in an aqueous solution of a reaction component, monomers and crosslinkers are added, or monomers and crosslinks are obtained. And an organic solvent, swell the polymer hollow sphere template shell by a monomer or an organic solvent, and introduce the monomer and the initiator into the polymer hollow spherical shell layer, and then perform polyaddition, polycondensation or ring-opening polymerization in the reaction O. 01wt%〜10wt% The concentration of the crosslinker is 0. 1wt%~20wt%, the concentration of the crosslinker is 0. 01wt%~10wt%, the concentration of the reactant is 0. lwt%~20wt%, the concentration of the crosslinker is 0. 01wt%~10wt% , a concentration of the organic solvent 0wt% ~20wt%, the reaction temperature is 20 ° C~250 ° C; the reaction is completed, centrifugal cleaning, polymer hollow spheres obtained composite hollow sphere and an organic substance; the outer hollow sphere polymeric particles template The diameter is 0. 02μπ! ~ 10Mm, the cavity volume is 10~95° / 0 of the whole microsphere ; the inner hydrophilic polymer of the polymer hollow sphere template comprises polystyrenesulfonic acid, polymethacrylic acid, polyacrylic acid, polyethylene Alcohol, polyamide, polyvinylpyrrole, poly(2-vinylpyridine), poly(4-vinylpyridine), poly Hydroxyethyl methacrylate, polyvinyl ester, polyoxyethylene or polyvinyl ammonium chloride;
所述聚合物中空球模板的外层亲油性聚合物包括聚苯乙烯、 聚甲基丙烯酸甲酯、 聚甲 基丙烯酸乙酯、 聚甲基丙烯酸丁酯、 聚甲基丙烯酸叔丁酯、 聚甲基丙烯酸肉桂酸乙基酯、 聚丙烯酸甲酯、 聚丙烯酸乙酯、 聚丙烯酸丁酯、 聚丙烯酸叔丁酯、 聚氧丙烯、 聚二甲基硅 烷、 聚乙烯基丁酯或聚异丁烯;  The outer lipophilic polymer of the polymeric hollow sphere template comprises polystyrene, polymethyl methacrylate, polyethyl methacrylate, polybutyl methacrylate, polybutyl methacrylate, polymethyl Acrylic acid cinnamic acid ethyl ester, polymethyl acrylate, polyethyl acrylate, polybutyl acrylate, poly(tert-butyl acrylate), polyoxypropylene, polydimethylsilane, polyvinyl butyrate or polyisobutylene;
所述用来对聚合物中空球壳体进行溶胀的有机溶剂是氯仿、 苯、 甲苯、 二甲苯、 四氢 呋喃、 N,N-二甲基甲酰胺、 N,N-二甲基乙酰胺、 二甲基亚砜、 丙酮或环己垸;  The organic solvent used to swell the polymer hollow spherical shell is chloroform, benzene, toluene, xylene, tetrahydrofuran, N,N-dimethylformamide, N,N-dimethylacetamide, dimethyl Sulfone, acetone or cyclohexanone;
所述的惰性气体是氮气或氩气;  The inert gas is nitrogen or argon;
所述的制备交联聚苯乙烯、聚丙烯酸酯中空球或复合中空球的交联剂为偶氮二异丁腈、 偶氮二异庚腈、 过氧化二苯甲酰、 过氧化二碳酸二异丙酯、 过硫酸钾或过硫酸铵; 单体为 苯乙烯、 二乙烯基苯、 丙烯酸甲酯、 丙烯酸乙酯、 丙烯酸丙酯或丙烯酸丁酯;  The cross-linking agent for preparing cross-linked polystyrene, polyacrylate hollow sphere or composite hollow sphere is azobisisobutyronitrile, azobisisoheptanenitrile, dibenzoyl peroxide, peroxydicarbonate Isopropyl ester, potassium persulfate or ammonium persulfate; the monomer is styrene, divinylbenzene, methyl acrylate, ethyl acrylate, propyl acrylate or butyl acrylate;
所述的制备聚氨酯中空球或复合中空球的交联剂为聚醚二醇、 聚酯二醇或 1, 4-丁二 醇; 单体为六亚甲基二异氰酸酯或甲苯二异氰酸酯;  The crosslinking agent for preparing the polyurethane hollow sphere or the composite hollow sphere is polyether diol, polyester diol or 1, 4-butanediol; the monomer is hexamethylene diisocyanate or toluene diisocyanate;
所述的制备酚醛树脂中空球或复合中空球的交联剂为苯酚、 邻甲酚、 对甲酚、 间苯二 酚或双酚 A; 单体为甲醛、 三聚甲醛、 乙醛、 三聚乙醛或糠醛;  The crosslinking agent for preparing the phenolic resin hollow sphere or the composite hollow sphere is phenol, o-cresol, p-cresol, resorcin or bisphenol A; the monomer is formaldehyde, trioxane, acetaldehyde, trimer Acetaldehyde or furfural;
所述的制备不饱和聚酯中空球或复合中空球的交联剂为乙二醇、丙二醇、 1, 3-丁二醇、 聚醚二醇或聚酯二醇; 单体为马来酸酐;  The crosslinking agent for preparing the unsaturated polyester hollow sphere or the composite hollow sphere is ethylene glycol, propylene glycol, 1, 3-butanediol, polyether diol or polyester diol; the monomer is maleic anhydride;
所述的制备环氧树脂中空球或复合中空球的交联剂为六亚甲基二异氰酸酯、 甲苯二异 氰酸酯、 邻苯二甲酸酐、 苯酐、 马来酸酐、 乙二胺、 己二胺或三甲基四胺; 单体为双酚 A 环氧或酚醛环氧;  The crosslinking agent for preparing the epoxy resin hollow sphere or the composite hollow sphere is hexamethylene diisocyanate, toluene diisocyanate, phthalic anhydride, phthalic anhydride, maleic anhydride, ethylenediamine, hexamethylenediamine or tri Methyltetramine; monomer is bisphenol A epoxy or phenolic epoxy;
所述的制备聚酰亚胺中空球或复合中空球的交联剂为对苯二胺或己二胺; 单体为双马 来酸酐或均苯四甲酸酐;  The crosslinking agent for preparing the polyimide hollow sphere or the composite hollow sphere is p-phenylenediamine or hexamethylenediamine; the monomer is bismaleic anhydride or pyromellitic anhydride;
所述的制备聚醚酮或聚醚砜类中空球或复合中空球的交联剂为 4, 4-二氟二苯酮或 4, 4-二氯二苯砜; 单体为对苯二酚或四甲基联苯二酚。  The crosslinking agent for preparing the polyether ketone or the polyether sulfone hollow sphere or the composite hollow sphere is 4, 4-difluorobenzophenone or 4, 4-dichlorodiphenyl sulfone; the monomer is hydroquinone Or tetramethylbiphenyldiol.
PCT/CN2004/001382 2004-11-11 2004-11-30 The method for preparation of hollow spheres and composite hollow spheres with template WO2006050638A1 (en)

Applications Claiming Priority (2)

Application Number Priority Date Filing Date Title
CNB2004100097747A CN100464833C (en) 2004-11-11 2004-11-11 Template process of preparing hollow ball and composite hollow ball
CN200410009774.7 2004-11-11

Publications (1)

Publication Number Publication Date
WO2006050638A1 true WO2006050638A1 (en) 2006-05-18

Family

ID=36336193

Family Applications (1)

Application Number Title Priority Date Filing Date
PCT/CN2004/001382 WO2006050638A1 (en) 2004-11-11 2004-11-30 The method for preparation of hollow spheres and composite hollow spheres with template

Country Status (2)

Country Link
CN (1) CN100464833C (en)
WO (1) WO2006050638A1 (en)

Cited By (24)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN102513042A (en) * 2011-10-27 2012-06-27 天津大学 Black hollow titanium dioxide-carbon composite microsphere and preparation method thereof
CN103041757A (en) * 2013-01-11 2013-04-17 上海理工大学 Preparation method and preparation device of magnetic display microcapsules
CN103785476A (en) * 2014-01-15 2014-05-14 江苏大学 Preparation method of surface imprinting CdS compound photocatalyst based on magnetic carbon material
CN104043390A (en) * 2014-06-20 2014-09-17 浙江大学 Small-size high-specific-surface-area nano heterostructure hollow sphere and preparation method thereof
CN104316566A (en) * 2014-10-11 2015-01-28 武汉工程大学 Gas sensitive material and preparation method and application thereof
CN106348617A (en) * 2016-08-22 2017-01-25 孟玲 Anti-fog automobile glass
CN107369822A (en) * 2017-07-19 2017-11-21 广东工业大学 A kind of tin oxide/C nano hollow ball material as negative electrode of lithium ion battery and preparation method thereof
WO2018114056A1 (en) * 2016-12-22 2018-06-28 Symrise Ag Microcapsules
CN108330471A (en) * 2018-02-02 2018-07-27 陕西科技大学 A kind of preparation method of the hollow composite wave-suction material of yolk type bivalve layer
CN109225169A (en) * 2018-09-19 2019-01-18 陕西科技大学 A kind of preparation method and the photochemical catalyst aoxidizing the agent of zirconium base adsorption photochemical catalysis
US10195571B2 (en) 2011-07-06 2019-02-05 President And Fellows Of Harvard College Multiple emulsions and techniques for the formation of multiple emulsions
CN109675553A (en) * 2018-12-21 2019-04-26 鲁东大学 A kind of preparation method of silver tiny balloon photochemical catalyst
US10316873B2 (en) 2005-03-04 2019-06-11 President And Fellows Of Harvard College Method and apparatus for forming multiple emulsions
CN110508222A (en) * 2019-08-02 2019-11-29 复旦大学 Monodisperse core-shell particles and preparation method thereof with mesoporous silicon oxide shell
CN111232985A (en) * 2020-01-17 2020-06-05 昆明理工大学 Preparation method of micron-sized porous hollow silicon spheres
CN111994944A (en) * 2020-09-01 2020-11-27 浙江大学 Preparation method of hollow zinc oxide microspheres using alpha-hemihydrate gypsum as template guide
CN112028091A (en) * 2020-09-16 2020-12-04 兰州大学 Preparation method of nano-salt template
CN112194260A (en) * 2020-10-13 2021-01-08 泗县金皖泵业有限公司 Treatment process for reducing scale generation rate in high-temperature water pump
CN113173567A (en) * 2021-04-23 2021-07-27 井冈山大学 Preparation method of hollow spherical iron-based metal phosphide
CN113845108A (en) * 2021-10-29 2021-12-28 郑州大学 Hollow carbon bowl with adjustable shell layer distance and shell thickness and preparation method thereof
US20220234904A1 (en) * 2019-07-16 2022-07-28 Dic Corporation Hollow nano-particle, hollow silica nano-particle, and production method for same
CN115007176A (en) * 2022-05-13 2022-09-06 江苏亚泰化工有限公司 Double-shell ZnS @ ZnxCo1-xS catalyst and synthetic method and application thereof
WO2023284240A1 (en) * 2021-07-15 2023-01-19 深圳先进技术研究院 Hollow silica spherical particle, preparation method therefor and application thereof
CN115852065A (en) * 2022-10-14 2023-03-28 广西新蜜技制糖有限责任公司 Method for preparing white sugar by squeezing sugarcane

Families Citing this family (69)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN100503714C (en) * 2006-07-28 2009-06-24 中国科学院理化技术研究所 Preparation method of monodisperse polystyrene/zirconium dioxide core-shell colloid composite spherical particles
CN100478380C (en) * 2006-08-24 2009-04-15 中国科学院合肥物质科学研究院 Chemical preparation method of hollow polymer microsphere with controllable open pores
CN100500561C (en) * 2007-05-08 2009-06-17 浙江大学 Preparation method of size controlled hollow silicon oxide microsphere
CN101323444B (en) * 2007-06-15 2011-05-25 中国科学院化学研究所 Carbon or carbon composite hollow ball and preparation thereof
CN100532256C (en) * 2007-10-25 2009-08-26 同济大学 Method of producing hollow silicon dioxide microsphere with mercapto on internal and external surfaces
CN101210120B (en) * 2007-12-25 2011-08-10 天津大学 Hollow titanium dioxide white electrophoresis ion for electrophoresis displaying and preparing method thereof
CN100594565C (en) * 2008-01-25 2010-03-17 华中科技大学 Ferrite nanometer particle embedded antiferromagnetic oxide matrix composite material and preparation method
CN101314182B (en) * 2008-06-16 2011-05-04 南昌大学 Method for preparing hollow metal nano-particle with gamma-aluminum oxide nano-particle as mould plate
CN101319073B (en) * 2008-06-23 2010-06-02 苏州大学 Nano-modified macromolecule material preparation method
CN101550213B (en) * 2009-05-13 2011-05-25 北京化工大学 A metal/ polymer composite particle and method of preparing the same
KR20120089661A (en) 2009-09-02 2012-08-13 프레지던트 앤드 펠로우즈 오브 하바드 칼리지 Multiple emulsions created using jetting and other techniques
TWI395714B (en) * 2009-09-16 2013-05-11 Univ Nat Chunghsing Inorganic hollow microspheres and its preparation method
CN101695756B (en) * 2009-11-02 2011-06-22 中国科学院长春应用化学研究所 Method for preparing gold-silver alloy nanoparticles in polyelectrolyte multilayer film
CN102234133B (en) * 2010-04-21 2013-08-14 中国科学院上海硅酸盐研究所 Semiconductor compound porous wall titanium dioxide hollow sphere material and preparation method thereof
CN102267719B (en) * 2010-06-04 2013-03-20 中国科学院化学研究所 Simple method for preparing titanium dioxide multi-shell hollow spheres and sphere-in-sphere structure
CN102157273B (en) * 2011-03-04 2012-05-30 电子科技大学 Composite optical anode of dye -sensitized solar cell
CN102266776B (en) * 2011-05-05 2012-11-28 天津城市建设学院 Method for preparing modified TiO2 photochemical catalyst
EP2714254B1 (en) 2011-05-23 2017-09-06 President and Fellows of Harvard College Control of emulsions, including multiple emulsions
JP2014529625A (en) * 2011-08-30 2014-11-13 プレジデントアンド フェローズ オブ ハーバード カレッジ System and method for shell encapsulation
CN102504758A (en) * 2011-10-17 2012-06-20 华东理工大学 Hollow multilayer core-shell material with electromagnetic wave adsorption characteristic and preparation method thereof
CN102502807A (en) * 2011-10-27 2012-06-20 天津大学 White hollow titanium dioxide microsphere and preparation method thereof
CN102515086B (en) * 2011-11-21 2015-08-19 台州学院 There is the preparation method of the Co nano-structure array material of morphologic correlation magnetic
CN103586054B (en) * 2012-08-13 2015-07-22 南京理工大学 Silica-supported lithium phosphate catalyst in eggshell shape, and preparation method and application thereof
CN102806355A (en) * 2012-08-30 2012-12-05 西北有色金属研究院 Powder metallurgy fabrication method of hollow metal sphere
CN102910859B (en) * 2012-09-28 2014-02-12 成都新柯力化工科技有限公司 Preparation method for low-density stone paper
CN103143359A (en) * 2013-03-05 2013-06-12 南京大学 Magnetic recyclable hollow TiO2-SiO2-CoFe2O4 nano photocatalytic material and preparation method thereof
CN104162392A (en) * 2013-05-20 2014-11-26 孙红梅 Core-shell porous ball, manufacturing method ad applications thereof
CN103316615B (en) * 2013-06-17 2015-04-29 东南大学 Preparation and detection method of magnetic microspheres with visible glucose detection function
CN103408933B (en) * 2013-06-24 2016-08-10 金陵科技学院 A kind of preparation method of the electroactive nanometer silver/Pt/Polypyrrole composite material of height of hollow structure
CN103474245B (en) * 2013-09-22 2016-06-01 中国科学院过程工程研究所 A kind of used by dye sensitization solar battery SnO 2 thin film electrode materials and its preparation method
CN103570027B (en) * 2013-11-08 2016-02-24 蚌埠玻璃工业设计研究院 A kind of SiO 2/ ZrO 2/ Al 2o 3the preparation method of compound nano-hollow sphere
CN103752235A (en) * 2014-01-09 2014-04-30 河南大学 Method for preparing hollow ZnS microspheres by adopting PMAA (polymethylacrylic acid) as template
CN103848993B (en) * 2014-01-16 2016-01-13 南京理工大学 Hollow TiO 2the preparation method of microsphere surface grafting polyimide composite particles
CN103771470B (en) * 2014-01-20 2015-06-03 绍兴文理学院 Synthesis method for aluminium oxide nano hollow ball-in-ball
CN103831117A (en) * 2014-04-04 2014-06-04 哈尔滨工业大学 Preparation method for synthesizing platinum nanoparticles supported magnetic hollow capsule type catalyst by taking polystyrene as soft template
CN103920874B (en) * 2014-04-24 2016-01-13 青岛科技大学 A kind of preparation method of hollow composite nanometer particle
CN105176495A (en) * 2014-06-20 2015-12-23 南京理工大学 Polystyrene oil absorption material and preparation method thereof
CN104130411B (en) * 2014-08-01 2016-08-17 黑龙江省科学院高技术研究院 A kind of preparation method of the polyimides complex microsphere of hollow structure
CN104624189B (en) * 2015-01-12 2016-09-07 中国科学院宁波材料技术与工程研究所 A kind of magnetic titanium dioxide composite hollow microballoon and preparation method thereof
CN104671282B (en) * 2015-03-04 2016-01-06 姚鹏程 A kind of preparation method of composite titania material hollow ball
CN106317427B (en) * 2015-06-19 2018-08-24 上海东升新材料有限公司 A kind of polyurethane/guar gum complex microsphere and preparation method thereof
CN105504886A (en) * 2015-12-10 2016-04-20 重庆三零三科技有限公司 Preparation method of modified hollow TiO2 microspheres
CN105536807B (en) * 2015-12-27 2018-10-23 河南泛锐复合材料研究院有限公司 A kind of preparation method of bismuth ferrate nano hollow ball
CN105749906B (en) * 2016-02-26 2018-01-09 济南大学 A kind of silver load using cation type polymer as intermediate floats the preparation method of hollow titanium dioxide
CN106082317B (en) * 2016-05-31 2017-12-12 陕西科技大学 A kind of preparation method of hollow hemisphere titanium dioxide
CN106111028B (en) * 2016-06-28 2018-12-18 东阳市新意工业产品设计有限公司 A kind of preparation method of microcapsules battery compound polyimide dielectric material
CN106082300B (en) * 2016-07-12 2017-09-01 济南大学 A kind of asymmetric complicated hollow-core construction CeO2Preparation method
CN106823017B (en) * 2016-12-12 2020-01-21 湖北大学 Preparation method of hybrid biological functional coating based on ammonia halide compound and zinc oxide nanoparticles
CN106824183B (en) * 2016-12-28 2019-10-25 苏州大学 The hollow mesoporous Nano carbon balls composite material and preparation method of load gold nano particle and the application in lasting processing CO
CN106732221B (en) * 2017-01-19 2019-07-30 河北工业大学 A kind of preparation method of amphipathic Janus grading-hole micro-capsule having an open structure
CN106861570B (en) * 2017-03-03 2020-06-26 江苏大学 Magnetic composite microsphere and preparation method and application thereof
US10363553B2 (en) 2017-04-19 2019-07-30 King Abdulaziz University Nanocomposite hollow sphere as a photocatalyst and methods thereof
CN110133764B (en) * 2018-02-08 2020-08-21 天津大学 Preparation method of zinc selenide nano hollow sphere double-layer graded-refractive-index antireflection film
CN109167022B (en) * 2018-02-09 2021-02-26 中国计量大学 CoS hollow shell embedded TiO2Lithium ion battery cathode material of nano particles and preparation method thereof
CN108722406B (en) * 2018-06-04 2020-10-23 山东麟丰化工科技有限公司 Tungsten-based catalyst, preparation method and application thereof in isobutane-butylene alkylation reaction
CN108912330B (en) * 2018-07-14 2020-11-24 桂林理工大学 Preparation method and application of polypyrrole hollow mesoporous silica microspheres
CN109513929B (en) * 2018-12-24 2021-07-16 哈尔滨工程大学 Batch preparation method of metal hollow spheres with uniform wall thickness
CN109607621B (en) * 2018-12-26 2020-02-28 齐齐哈尔大学 Multilevel structure α -Fe2O3/α-MoO3Hollow sphere composite material and preparation method thereof
CN110182882A (en) * 2019-05-09 2019-08-30 上海大学 One kind being based on Fe/FeS@SiO2Material goes the test method of trichloro ethylene in water removal
CN110305648B (en) * 2019-05-23 2021-05-04 中国石油化工股份有限公司 Pour point depressing and viscosity reducing agent for high-pour-point thickened oil and preparation method thereof
CN110433742B (en) * 2019-09-11 2022-03-01 成都工业学院 Preparation method of microcapsule with double-layer coating structure and microcapsule prepared by preparation method
CN110586026A (en) * 2019-10-09 2019-12-20 东南大学 Adsorbent for removing heavy metal arsenic and preparation method and application thereof
CN111403731B (en) * 2020-03-30 2020-11-03 贵州梅岭电源有限公司 3d orbital alloy sulfide material and preparation method and application thereof
CN111690408B (en) * 2020-05-27 2022-10-25 武汉纺织大学 High-efficiency enhanced specific rare earth photoluminescence anti-counterfeiting film and preparation method thereof
CN112044429B (en) * 2020-08-14 2021-12-03 上海交通大学 Carbon-doped tungsten oxide hollow microsphere rich in oxygen vacancy as well as preparation and application thereof
CN112331836A (en) * 2020-11-23 2021-02-05 华中科技大学 Tin oxide-hard carbon composite negative electrode material and preparation method and application thereof
CN112694093A (en) * 2021-01-28 2021-04-23 山东瑞利泰阳新材料科技有限公司 Low dielectric loss silicon dioxide microsphere and preparation method thereof
CN115938812B (en) * 2022-11-25 2023-10-27 临沂大学 Transition metal selenide/carbon hollow core-shell material and preparation method and application thereof
CN116040681B (en) * 2023-01-31 2024-09-17 承德天大钒业有限责任公司 Three-dimensional porous vanadium pentoxide, and preparation method and application thereof

Citations (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
DE19808865A1 (en) * 1998-03-03 1999-09-09 Bayerl Production of crosslinked structures of colloidal dimensions, e.g. hollow spheres or films, useful as lubricants, drug delivery systems, contrast agents, therapy vectors, chromatograhic media, magnetic data storage coatings, etc.
WO1999047253A1 (en) * 1998-03-19 1999-09-23 MAX-PLANCK-Gesellschaft zur Förderung der Wissenschaften e.V. Fabrication of multilayer-coated particles and hollow shells via electrostatic self-assembly of nanocomposite multilayers on decomposable colloidal templates
CN1506308A (en) * 2002-12-11 2004-06-23 中国石油化工股份有限公司 Process of preparing hollow zeolite microsphere

Patent Citations (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
DE19808865A1 (en) * 1998-03-03 1999-09-09 Bayerl Production of crosslinked structures of colloidal dimensions, e.g. hollow spheres or films, useful as lubricants, drug delivery systems, contrast agents, therapy vectors, chromatograhic media, magnetic data storage coatings, etc.
WO1999047253A1 (en) * 1998-03-19 1999-09-23 MAX-PLANCK-Gesellschaft zur Förderung der Wissenschaften e.V. Fabrication of multilayer-coated particles and hollow shells via electrostatic self-assembly of nanocomposite multilayers on decomposable colloidal templates
CN1506308A (en) * 2002-12-11 2004-06-23 中国石油化工股份有限公司 Process of preparing hollow zeolite microsphere

Non-Patent Citations (2)

* Cited by examiner, † Cited by third party
Title
CAIXIA SONG ET AL: "Preparation of Inorganic Hollow Micro-sphere by Templating Against Polymer Colloidal Particles and its Application.", MATERIALS REPORT., vol. 17, no. 7, July 2003 (2003-07-01), pages 32 - 34 *
XUN FU ET AL: "Preparation of CdS Hollow Spheres Using Poly-(styrene-acrylic acid) Latex Particles as Template.", QINGDAO TECHNOLOGY UNIVERSITY TRANSACTION., vol. 25, no. 2, April 2004 (2004-04-01), pages 136 - 138 *

Cited By (32)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US10316873B2 (en) 2005-03-04 2019-06-11 President And Fellows Of Harvard College Method and apparatus for forming multiple emulsions
US10195571B2 (en) 2011-07-06 2019-02-05 President And Fellows Of Harvard College Multiple emulsions and techniques for the formation of multiple emulsions
CN102513042A (en) * 2011-10-27 2012-06-27 天津大学 Black hollow titanium dioxide-carbon composite microsphere and preparation method thereof
CN103041757A (en) * 2013-01-11 2013-04-17 上海理工大学 Preparation method and preparation device of magnetic display microcapsules
CN103785476A (en) * 2014-01-15 2014-05-14 江苏大学 Preparation method of surface imprinting CdS compound photocatalyst based on magnetic carbon material
CN103785476B (en) * 2014-01-15 2016-04-06 江苏大学 Based on the preparation method of the surface imprinted CdS composite photo-catalyst of magnetic carbon material
CN104043390A (en) * 2014-06-20 2014-09-17 浙江大学 Small-size high-specific-surface-area nano heterostructure hollow sphere and preparation method thereof
CN104316566A (en) * 2014-10-11 2015-01-28 武汉工程大学 Gas sensitive material and preparation method and application thereof
CN106348617B (en) * 2016-08-22 2018-11-20 江苏来德福汽车部件有限公司 A kind of automotive anti-mist glass
CN106348617A (en) * 2016-08-22 2017-01-25 孟玲 Anti-fog automobile glass
US11344857B2 (en) 2016-12-22 2022-05-31 Symrise Ag Microcapsules
WO2018114056A1 (en) * 2016-12-22 2018-06-28 Symrise Ag Microcapsules
EP4039361A3 (en) * 2016-12-22 2022-09-07 Symrise AG Microcapsules
CN107369822B (en) * 2017-07-19 2019-10-29 广东工业大学 A kind of tin oxide as negative electrode of lithium ion battery/C nano hollow ball material and preparation method thereof
CN107369822A (en) * 2017-07-19 2017-11-21 广东工业大学 A kind of tin oxide/C nano hollow ball material as negative electrode of lithium ion battery and preparation method thereof
CN108330471A (en) * 2018-02-02 2018-07-27 陕西科技大学 A kind of preparation method of the hollow composite wave-suction material of yolk type bivalve layer
CN108330471B (en) * 2018-02-02 2022-02-25 陕西科技大学 Preparation method of yolk type double-shell hollow composite wave-absorbing material
CN109225169A (en) * 2018-09-19 2019-01-18 陕西科技大学 A kind of preparation method and the photochemical catalyst aoxidizing the agent of zirconium base adsorption photochemical catalysis
CN109675553A (en) * 2018-12-21 2019-04-26 鲁东大学 A kind of preparation method of silver tiny balloon photochemical catalyst
US20220234904A1 (en) * 2019-07-16 2022-07-28 Dic Corporation Hollow nano-particle, hollow silica nano-particle, and production method for same
CN110508222A (en) * 2019-08-02 2019-11-29 复旦大学 Monodisperse core-shell particles and preparation method thereof with mesoporous silicon oxide shell
CN111232985A (en) * 2020-01-17 2020-06-05 昆明理工大学 Preparation method of micron-sized porous hollow silicon spheres
CN111232985B (en) * 2020-01-17 2023-04-11 昆明理工大学 Preparation method of micron-sized porous hollow silicon spheres
CN111994944A (en) * 2020-09-01 2020-11-27 浙江大学 Preparation method of hollow zinc oxide microspheres using alpha-hemihydrate gypsum as template guide
CN112028091A (en) * 2020-09-16 2020-12-04 兰州大学 Preparation method of nano-salt template
CN112194260A (en) * 2020-10-13 2021-01-08 泗县金皖泵业有限公司 Treatment process for reducing scale generation rate in high-temperature water pump
CN113173567A (en) * 2021-04-23 2021-07-27 井冈山大学 Preparation method of hollow spherical iron-based metal phosphide
WO2023284240A1 (en) * 2021-07-15 2023-01-19 深圳先进技术研究院 Hollow silica spherical particle, preparation method therefor and application thereof
CN113845108A (en) * 2021-10-29 2021-12-28 郑州大学 Hollow carbon bowl with adjustable shell layer distance and shell thickness and preparation method thereof
CN115007176A (en) * 2022-05-13 2022-09-06 江苏亚泰化工有限公司 Double-shell ZnS @ ZnxCo1-xS catalyst and synthetic method and application thereof
CN115007176B (en) * 2022-05-13 2024-03-08 江苏亚泰化工有限公司 Double-shell ZnS@Zn x Co 1-x S catalyst and synthesis method and application thereof
CN115852065A (en) * 2022-10-14 2023-03-28 广西新蜜技制糖有限责任公司 Method for preparing white sugar by squeezing sugarcane

Also Published As

Publication number Publication date
CN1772363A (en) 2006-05-17
CN100464833C (en) 2009-03-04

Similar Documents

Publication Publication Date Title
WO2006050638A1 (en) The method for preparation of hollow spheres and composite hollow spheres with template
CN101259401B (en) Method for preparing hollow ball and hollow ball with complex structure by template method
CN101259402B (en) Method for preparing hollow ball with double-layer structure and hollow ball with multi-layer complex structure by template method
Lou et al. Hollow micro‐/nanostructures: synthesis and applications
Xiang et al. Block copolymer self‐assembly directed synthesis of porous materials with ordered bicontinuous structures and their potential applications
Yang et al. Synthesis of spheres with complex structures using hollow latex cages as templates
CN101323444B (en) Carbon or carbon composite hollow ball and preparation thereof
Allioux et al. Applications of liquid metals in nanotechnology
Liu et al. Hollow micro-and nanomaterials: synthesis and applications
Elma et al. Carbon templated strategies of mesoporous silica applied for water desalination: A review
Shi et al. Polyelectrolyte multilayer nanoreactors toward the synthesis of diverse nanostructured materials
Iida et al. Titanium dioxide hollow microspheres with an extremely thin shell
CN101323713B (en) Inorganic sheet composite material with surface having double property and preparation thereof
Krasia-Christoforou Organic–inorganic polymer hybrids: synthetic strategies and applications
Ma et al. Solution-phase synthesis of inorganic hollow structures by templating strategies
KR100551602B1 (en) HCMS capsule structures containing metal nanoparticles within the hollow core, and their preparation method
CN108137315A (en) The preparation of core-shell material based on carbon nanotube
KR101701238B1 (en) Graphene oxide coated with metal oxide nanoparticles/polymer composite and preparation method thereof
CN106732221B (en) A kind of preparation method of amphipathic Janus grading-hole micro-capsule having an open structure
CN103359746B (en) Double-layer hollow silica nanosphere and preparation method thereof
Xiong et al. Yolk-Shell catalyst: From past to future
CN101259403B (en) Method for preparing hollow ball with polymer complex structure by swelling polymerization
Wang et al. Ultrasmall Inorganic Mesoporous Nanoparticles: Preparation, Functionalization, and Application
JP2005028575A (en) Porous oxide ultrathin film, core-shell particle composed of shell comprising ultrathin film and core comprising polymer, porous hollow oxide shell structure derived from core-shell particle, and methods for manufacturing them
Tiwari et al. A comprehensive study of synthesis and applications of core/shell nanoparticles

Legal Events

Date Code Title Description
AK Designated states

Kind code of ref document: A1

Designated state(s): AE AG AL AM AT AU AZ BA BB BG BR BW BY BZ CA CH CN CO CR CU CZ DE DK DM DZ EC EE EG ES FI GB GD GE GH GM HR HU ID IL IN IS JP KE KG KP KR KZ LC LK LR LS LT LU LV MA MD MG MK MN MW MX MZ NA NI NO NZ OM PG PH PL PT RO RU SC SD SE SG SK SL SY TJ TM TN TR TT TZ UA UG US UZ VC VN YU ZA ZM ZW

AL Designated countries for regional patents

Kind code of ref document: A1

Designated state(s): GM KE LS MW MZ NA SD SL SZ TZ UG ZM ZW AM AZ BY KG KZ MD RU TJ TM AT BE BG CH CY CZ DE DK EE ES FI FR GB GR HU IE IS IT LU MC NL PL PT RO SE SI SK TR BF BJ CF CG CI CM GA GN GQ GW ML MR NE SN TD TG

121 Ep: the epo has been informed by wipo that ep was designated in this application
122 Ep: pct application non-entry in european phase

Ref document number: 04822375

Country of ref document: EP

Kind code of ref document: A1