CN203227494U - Reactor for industrially producing monodisperse nanometer materials at high speed - Google Patents
Reactor for industrially producing monodisperse nanometer materials at high speed Download PDFInfo
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- CN203227494U CN203227494U CN 201320289821 CN201320289821U CN203227494U CN 203227494 U CN203227494 U CN 203227494U CN 201320289821 CN201320289821 CN 201320289821 CN 201320289821 U CN201320289821 U CN 201320289821U CN 203227494 U CN203227494 U CN 203227494U
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Abstract
The utility model discloses a reactor for industrially producing monodisperse nanometer materials at high speed. The reactor comprises a shell which is used as a fluid channel, wherein one or more reaction units are arranged in the shell, each reaction unit internally consists of a first partition plate and a second partition plate which are arranged in the shell at an interval, the first partition plate is provided with a plurality of first raw material feeding pipelines, the second partition plate is provided with a plurality of second raw material feeding pipelines corresponding to the first raw material feeding pipelines, the front end of each first raw material feeding pipeline is provided with a part capable of being inserted in the initial end of the corresponding second raw material feeding pipeline, a clearance for delivering materials is reserved between each first raw material feeding pipeline and the corresponding second raw material feeding pipeline, and a second raw material feeding pipeline for feeding second raw materials is also arranged between the first partition plate and the second partition plate. The reactor can be used for the large-batch industrialized high-speed production of the nanometer materials, and the reaction processes of the materials can be conveniently controlled so that the materials have a good particle size range and good monodispersity.
Description
Technical field
The utility model relates to field of nano material preparation, especially a kind of reactor that adopts the industrialization high-speed production dispersed nano material of wet chemistry method.
Background technology
Wet chemistry method is general method for the production of nano-powder material, comprising the precipitation method, sol-gel processing, hydro-thermal method etc.And the precipitation method because have that the cost of raw material is low, investment advantage such as province, be acknowledged as the big industrialized production method of the easiest realization.
Usually, industrial nano material and precursor thereof with wet chemical method production all is to carry out in traditional reactor, is about to the various reaction masses that prepare and adds in the still, and be accompanied by stirring.In this course, there are the various microcosmic of reaction mass inevitably, in addition the inhomogeneities on the macroscopic view, namely be the method with microemulsion, can not fundamentally solve mass-produced non-uniformity problem.Therefore, generally can only be that reactor volume is dwindled, like this, output does not catch up with again, even add several reactors, to scheme solving production problems, can't resolve the little and conforming problem of product diameter of particle requirement again, and monodispersity is relatively poor.This has just caused nanoparticle particle diameter that final production goes out all near 100 nanometers, can't further dwindle again, its particle size distribution range is also very wide simultaneously, monodispersity is poor, and (particle size distribution range is more narrow, monodispersity is more good), such product does not catch up with high-tech application, product development and traditional product and promotes requirement to particle size and the product monodispersity of nanoparticle.
In order to solve nano material preparation small particle diameter and monodispersity problem, the applicant invents out a kind of synthetic method of multi-stage spray that adopts, reach the nucleation of crystal and the inhibition of growth conditions, realization makes its nano material that obtains can have particle size range and dispersiveness preferably to the control of nano material grain size.But on the basis of this method principle, how to design a kind of equipment that is applicable to industry high-speed production in enormous quantities, become the problem considering and solve of remaining.
The utility model content
At the deficiencies in the prior art, technical problem to be solved in the utility model is, how a kind of reactor that can be used in the industrialization high-speed production dispersed nano material of industrial mass high-speed production is provided, it can conveniently control the material course of reaction, has excellent particle size scope and monodispersity so that make material.
In order to solve the problems of the technologies described above, adopted following technical scheme in the utility model: (in the definition pipeline, fluent material motion initiating terminal is the rear end in this programme, and the direction that fluent material moves ahead is front end)
A kind of reactor of industrialization high-speed production dispersed nano material, it is characterized in that, comprise the housing as the fluid passage, be provided with the above reaction member of one-level or one-level in the housing, include first dividing plate and the second partition that are disposed in the housing in every order reaction unit, first dividing plate is provided with the first raw material charging line at a plurality of connections first dividing plate two ends, the corresponding first raw material charging line is provided with a plurality of second raw material charging lines on the second partition, the first raw material charging line front end has one section part that is inserted in the second corresponding raw material charging line initiating terminal, leave the gap for the second raw material charging line feeding between the first raw material charging line and the corresponding second raw material charging line, also be provided with the second material feeding tube road for the second raw material charging between first dividing plate and the second partition.
When the utility model uses, first reactant carries out charging by high pressure in the first raw material charging line, second reactant leans on high pressure from the second material feeding tube road charging, enter and contact with first reactant that sprays in the first raw material charging line from the second raw material charging line behind second reaction-ure feeding, under the state of high speed and high pressure, mix and react with vaporific, the production nanometer materials, like this, only need to pass through pressure, flow velocity, the control of pipe parameter etc. can be controlled reaction and generate nano level material and make it have excellent particle size scope and monodispersity.When producing, during according to concrete product production technology needs reaction of high order, the second raw material charging line of upper level namely is connected as the first raw material charging line of next stage.This sample equipment adopts pipeline to carry out multistage linking, can realize the industrial mass high-speed production of nanometer materials, can conveniently control the material course of reaction simultaneously, has excellent particle size scope and monodispersity so that make material.
As optimization, the described first raw material charging line is perpendicular to the first dividing plate setting, and the described second raw material charging line is perpendicular to the second partition setting, coaxial inner conductor setting between the first corresponding raw material charging line and the second raw material charging line.Like this, can be beneficial to mixing and the reaction of material better, the uniformity of improve mixing makes to make product and have better monodispersity.
As further optimization, the described first raw material charging line and the second raw material charging line all adopt steel pipe; Described first dividing plate comprises the resin material layer that is fixed on the first middle steel plate both sides and whole edge with fixing first middle steel plate of first raw material charging line welding and shaping; Described second partition comprises the resin material layer that is fixed on the second middle steel plate both sides and whole edge with fixing second middle steel plate of second raw material charging line welding and shaping.This structure, can be so that when installing, can adopt middle steel plate to weld earlier, after welding finishes, inside same moulds of industrial equipment, realize the location of the first raw material charging line and the second raw material charging line again, pour resin material be shaped the resin material layer of middle steel plate both sides then into, resin material layer has guaranteed the forming accuracy of the first raw material charging line and the second raw material charging line when being shaped, resin material layer can be good at sealing function when installing simultaneously, guarantees the sealing effectiveness between the pipeline.
As another optimization, the zone that the described first raw material charging line rear end is communicated with the first raw material charging line is the first raw material feed zone, connection is provided with and is connected to the first outer bypass pipe of housing on this first raw material feed zone, and first bypass pipe is provided with the first flow control valve; Also be provided with second bypass pipe on the direction relative with the second material feeding tube road between first dividing plate and the second partition in the described housing, second bypass pipe is provided with second flow control valve.Like this, bypass pipe can be used for gushing the gas that reactant is mingled with, and improves reaction mass, can control the flow of bypass pipe by the flow control valve on the bypass pipe simultaneously, thus the operating pressure of conditioned reaction thing, the final adjusting that realizes reaction.
As an optimization again, the described first raw material charging line front end exit place also has the fluid dispersed structure.Described fluid dispersed structure can be that umbrella shape solid angle or nozzle etc. can make the fluid ejection time be the structure of better dispersion and spray pattern.After optimizing like this, can improve the atomizing effect of first raw material charging line front end exit place's discharging, improve reaction effect.During concrete enforcement, as further optimization, be positioned in the described second raw material charging line on the inwall in first raw material pipeline the place ahead and also be provided with the greatly different scope of surface height at the rough surface of 0.1-2mm.Like this, material flow is in the flow at high speed process, interact to form collide, to shear, quench with rough surface and send out phenomenons such as reaching diffusion, so that in the swiftly flowing process of raw material, produce a large amount of whirlpools, with the place of whirlpool as reaction, play the effect of similar template agent, thereby make and do not adding under the situation of template agent such as any surfactant, reach the effect of a large amount of fast nanometer materials that manufacture order good dispersion purity is high.
In sum, when using, the utility model this a pair of mutual exclusive contradiction of production of a large amount of suitability for industrialized production and dispersed nano powder can be united, can be used in nano material industrial mass high-speed production, can conveniently control the material course of reaction when the utility model uses simultaneously, have excellent particle size scope and monodispersity so that make material.
Description of drawings
Fig. 1 is structural representation of the present utility model.
The specific embodiment
The utility model is described in further detail below in conjunction with accompanying drawing.
Be illustrated in fig. 1 shown below, a kind of reactor of industrialization high-speed production dispersed nano material, wherein, when comprising the housing 1(actual motion as the fluid passage, fluid is to flow in the pipeline of enclosure interior, but the pipeline that also can be directly flows as fluid of the housing of start-up portion wherein), be provided with the above reaction member of one-level or one-level in the housing 1, include first dividing plate 2 and the second partition 3 that are disposed in the housing 1 in every order reaction unit, first dividing plate 2 is provided with the first raw material charging line 4 at a plurality of connection first dividing plates 2 two ends, the corresponding first raw material charging line 4 is provided with a plurality of second raw material charging lines 5 on the second partition 3, the first raw material charging line, 4 front ends have one section part that is inserted in the corresponding second raw material charging line, 5 initiating terminals, leave the gap for 5 feedings of the second raw material charging line between the first raw material charging line 4 and the corresponding second raw material charging line 5, also be provided with the second material feeding tube road 6 for the second raw material charging between first dividing plate 2 and the second partition 3.
In this specific embodiment, the described first raw material charging line 4 arranges perpendicular to first dividing plate 2, and the described second raw material charging line 5 arranges perpendicular to second partition 3, coaxial inner conductor setting between the first corresponding raw material charging line 4 and the second raw material charging line 5.The described first raw material charging line 4 and the second raw material charging line 5 all adopt steel pipe; Described first dividing plate 2 comprises with fixing first middle steel plate 21 of first raw material charging line welding and is shaped and is fixed on the resin material layer 22 at first middle steel plate, 21 both sides and whole edge; Described second partition 3 comprises with fixing second middle steel plate 31 of second raw material charging line welding and is shaped and is fixed on the resin material layer 32 at second middle steel plate, 31 both sides and whole edge.The zone that the described first raw material charging line 4 rear ends are communicated with the first raw material charging line 4 is the first raw material feed zone 7, connection is provided with first bypass pipe, 8, the first bypass pipes 8 that are connected to outside the housing and is provided with first flow control valve (valve does not show) on this first raw material feed zone 7; Also be provided with second bypass pipe, 9, the second bypass pipes 9 on the direction relative with the second material feeding tube road 6 between first dividing plate 2 and the second partition 3 in the described housing and be provided with second flow control valve (valve does not show).The described first raw material charging line 4 front end exit places also have fluid dispersed structure (not showing among the fluid dispersed structure figure).Described fluid dispersed structure can be that umbrella shape solid angle or nozzle etc. can make the fluid ejection time be the structure of better dispersion and spray pattern.When specifically implementing in addition, be positioned in the described second raw material charging line and also be provided with height greatly different scope in surface on the inwall in first raw material pipeline the place ahead at the rough surface of 0.1-2mm.
When the utility model is specifically implemented, according to the reaction actual conditions, can be only to need first order reaction unit or multistage above reaction member, when having only the first order reaction unit, the first raw material charging line feeding enters after the segment pipe length reaction of advancing in the second raw material charging line finishes, and outlet can be set carry out discharging.When the reaction of high order unit, the second raw material charging line of upper level is namely as the first raw material charging line of next stage, two kinds of raw materials of upper level are after the second raw material charging line internal reaction of this grade finishes, because the second raw material charging line of upper level is the first raw material charging line of next stage, so after entering next stage, the second raw material charging line raw material also interior and that this grade second raw material charging line is sent into that enters into this next stage again again reacts, recursion finishes up to reaction successively.Wherein, in the first order reaction member, the first raw material charging line section start can adopt whole housing as the fluid passage of feeding, namely as the first raw material feed zone of the first order, simultaneously also can be the first raw material charging line section start directly to be linked to each other with pump carry out feeding, this moment, the first raw material charging line The initial segment be the first raw material feed zone.When entering the next stage reaction member, because the second raw material charging line of upper level is the first raw material charging line of next stage, so the part between two dividing plates of upper level and the second charging line initiating terminal of this level part just can be considered as the first raw material feed zone of next stage reaction member, second bypass pipe of upper level just can be considered as first bypass pipe of next stage, after in proper order the class second raw material charging line reaction that is pushed into the afterbody reaction member finishes, enter discharge hole for discharge.
Reactor of the present utility model can be united this a pair of mutual exclusive contradiction of production of a large amount of suitability for industrialized production and dispersed nano powder, adopt small size precipitation method principle, during use, certain density each reaction mass for preparing is in advance formed pressure by pump send in the reactor.According to the different of actual fabrication product and reaction single-stage reaction member or reaction of high order unit can be set specifically.In each order reaction unit, first reactant forms high pressure by pump and carry out charging in the first raw material charging line, second reactant also forms high pressure from the second material feeding tube road charging by pump, enter and contact with first reactant that sprays in the first raw material charging line from the second raw material charging line behind second reaction-ure feeding, under the state of high speed and high pressure, mix with vaporific, carry out the high speed precipitation reaction with (or) different process for producing such as modification go out nanometer materials, like this, only need to pass through pressure, flow velocity, the control of pipe parameter etc. can be controlled reaction and generate nano level material and make it have excellent particle size scope and monodispersity.When producing, during according to concrete product production technology needs reaction of high order, the second raw material charging line of upper level namely is connected as the first raw material charging line of next stage.This sample equipment adopts pipeline to carry out multistage linking, can realize the industrial mass high-speed production of nanometer materials, can conveniently control the material course of reaction simultaneously, has excellent particle size scope and monodispersity so that make material.
Reactor of the present utility model solved current can not mass-produced problem with dispersed nano material in the chemical precipitation method industrial production, moreover, we's reactor can conveniently be adjusted whole technological parameter close fit, the dispersed nano material is carried out classification, and nano material purity also is significantly improved, as: use certain density ZnSO4, NaOH, NH4HCO3 is by this reactor, nano-ZnO product XRD analysis average grain diameter is 17nm, it is 10-20nm that transmission electron microscope detects, ZnO purity＞99.0%, even reach 99.838%, and can further improve.In addition, this reactor also can be used for continuously or discontinuity is mixed, coating, and the mixed processing that is used for the different nm materials of molecular level.
Claims (5)
1. the reactor of an industrialization high-speed production dispersed nano material, it is characterized in that, comprise the housing as the fluid passage, be provided with the above reaction member of one-level or one-level in the housing, include first dividing plate and the second partition that are disposed in the housing in every order reaction unit, first dividing plate is provided with the first raw material charging line at a plurality of connections first dividing plate two ends, the corresponding first raw material charging line is provided with a plurality of second raw material charging lines on the second partition, the first raw material charging line front end has one section part that is inserted in the second corresponding raw material charging line initiating terminal, leave the gap for the second raw material charging line feeding between the first raw material charging line and the corresponding second raw material charging line, also be provided with the second material feeding tube road for the second raw material charging between first dividing plate and the second partition.
2. the reactor of industrialization high-speed production dispersed nano material as claimed in claim 1, it is characterized in that, the described first raw material charging line is perpendicular to the first dividing plate setting, the described second raw material charging line is perpendicular to the second partition setting, coaxial inner conductor setting between the first corresponding raw material charging line and the second raw material charging line.
3. the reactor of industrialization high-speed production dispersed nano material as claimed in claim 2 is characterized in that, the described first raw material charging line and the second raw material charging line all adopt steel pipe; Described first dividing plate comprises the resin material layer that is fixed on the first middle steel plate both sides and whole edge with fixing first middle steel plate of first raw material charging line welding and shaping; Described second partition comprises the resin material layer that is fixed on the second middle steel plate both sides and whole edge with fixing second middle steel plate of second raw material charging line welding and shaping.
4. the reactor of industrialization high-speed production dispersed nano material as claimed in claim 1, it is characterized in that, the zone that the described first raw material charging line rear end is communicated with the first raw material charging line is the first raw material feed zone, connection is provided with and is connected to the first outer bypass pipe of housing on this first raw material feed zone, and first bypass pipe is provided with the first flow control valve; Also be provided with second bypass pipe on the direction relative with the second material feeding tube road between first dividing plate and the second partition in the described housing, second bypass pipe is provided with second flow control valve.
5. the reactor of industrialization high-speed production dispersed nano material as claimed in claim 1 is characterized in that, the described first raw material charging line front end exit place has the fluid dispersed structure.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN 201320289821 CN203227494U (en) | 2013-05-24 | 2013-05-24 | Reactor for industrially producing monodisperse nanometer materials at high speed |
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| Application Number | Priority Date | Filing Date | Title |
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| CN 201320289821 CN203227494U (en) | 2013-05-24 | 2013-05-24 | Reactor for industrially producing monodisperse nanometer materials at high speed |
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| CN203227494U true CN203227494U (en) | 2013-10-09 |
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| CN 201320289821 Expired - Fee Related CN203227494U (en) | 2013-05-24 | 2013-05-24 | Reactor for industrially producing monodisperse nanometer materials at high speed |
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Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN103240049A (en) * | 2013-05-24 | 2013-08-14 | 张德福 | Reactor for industrially producing monodisperse nano materials |
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- 2013-05-24 CN CN 201320289821 patent/CN203227494U/en not_active Expired - Fee Related
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN103240049A (en) * | 2013-05-24 | 2013-08-14 | 张德福 | Reactor for industrially producing monodisperse nano materials |
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| Date | Code | Title | Description |
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| C14 | Grant of patent or utility model | ||
| GR01 | Patent grant | ||
| CF01 | Termination of patent right due to non-payment of annual fee | ||
| CF01 | Termination of patent right due to non-payment of annual fee |
Granted publication date: 20131009 |