CN103148368B - Heat-conductive rubber light-emitting diode (LED) lamp and preparation method thereof - Google Patents

Heat-conductive rubber light-emitting diode (LED) lamp and preparation method thereof Download PDF

Info

Publication number
CN103148368B
CN103148368B CN201210583104.0A CN201210583104A CN103148368B CN 103148368 B CN103148368 B CN 103148368B CN 201210583104 A CN201210583104 A CN 201210583104A CN 103148368 B CN103148368 B CN 103148368B
Authority
CN
China
Prior art keywords
rubber
radiator
active agent
promoter
nano
Prior art date
Legal status (The legal status 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 status listed.)
Active
Application number
CN201210583104.0A
Other languages
Chinese (zh)
Other versions
CN103148368A (en
Inventor
曾晶
曾兆永
尚朋
丘新涛
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Xuzhou Jiewei New Material Technology Co ltd
Original Assignee
Individual
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 Individual filed Critical Individual
Priority to CN201210583104.0A priority Critical patent/CN103148368B/en
Publication of CN103148368A publication Critical patent/CN103148368A/en
Application granted granted Critical
Publication of CN103148368B publication Critical patent/CN103148368B/en
Active legal-status Critical Current
Anticipated expiration legal-status Critical

Links

Abstract

The invention discloses a heat-conductive rubber light-emitting diode (LED) lamp; and a spinning socket is fixedly connected with a spinning groove which is arranged on a lamp holder through a spinning device on the spinning socket. A radiator comprises radiating fins. The radiating fins are of arc-shaped structures and are distributed uniformly. A protective hood is of a structure which is made of a light-transmitting material. The protective hood is in a semi-spherical shape. An installation method of an LED bulb comprises the following steps that an LED lamp bead is arranged on a copper substrate through an automatic installation method; the copper substrate which is provided with the LED lamp bead is respectively connected with the protective hood and the radiator through the automatic installation method; and the lamp holder is connected and installed with the radiator by manual assembly through the spinning socket. The product assembly method is more simplified, the production efficiency and the production cost are greatly improved, the service life is greatly prolonged, the raw material mixing is reasonable and the process is simple.

Description

Heat conductive rubber LED and method for making
Technical field
The present invention relates to the mechanical device technique field of illumination, particularly relate to a kind of Novel heat-conducting rubber LED and method for making.
Background technology
The mode that current LED illumination lamp many employings filament connects, it is loaded down with trivial details to there is production stage in it, produce accessory long processing time, and the problem that production cost is high, in addition, it is poor also to there is material conducts heat performance in it, stability is not ideal enough, and it is shaping, the problem that fire-retardant and insulating properties are poor, for this reason, need a kind of LED illumination lamp that can solve the problem, its material can have good heat conductivility and stability, and can well solve shaping, the problem of fire-retardant and insulating properties, simplify assemble method simultaneously, enhance productivity, improve production cost and service life, thus meet the needs of actual conditions.
Now, because electronic product is more and more tending towards miniaturized, therefore those easily integrated and miniaturized and that pliability is good compounded rubber substrate be widely used, but because the multiple stratification of the highly integrated and laminate of integrated circuit certainly leads to heat release problem, therefore the task of top priority is just become to the requirement of the heat conductivility of these materials.
Ethylene propylene diene rubber (EPDM) is the terpolymer of ethene, propylene and diene-based monomer, and the introducing of diene is to realize sulfuration, and the type of diene has: dicyclopentadiene (DCPD), l, 4 one hexadienes.EPDM is better than common EP rubbers toughness.
People are with dielectric metal oxide and other compound filled polymers in recent years, tentatively solve this problem.The filler of insulated type heat conductive rubber mainly comprises: metal oxide is as BeO, MgO, A1 2o 3, CaO, NIO; Metal nitride is as AlN, BN etc.; Carbide is as SiC, B 4c 3deng.They have higher thermal conductivity factor, and what is more important compares the electrical insulating property having excellence with metal powder, and therefore they can ensure that end article has good electrical insulating property, and this is vital in electronic apparatus industry.
Investigation and application for heat conductive rubber is a lot, can be divided into: metal filled type, metal oxide filled-type, metal nitride filled-type, inorganic non-metallic filled-type, fiber-filled type heat conductive rubber by the kind of particle filled composite; Also can divide according to a certain character of heat conductive rubber, such as can be divided into insulated type heat conductive rubber and nonisulated type heat conductive rubber according to its electrical insulation capability.
Because rubber itself has insulating properties, the therefore electrical insulation capability of most heat conductive rubber is finally determined by the insulating properties of particle filled composite.Filler for nonisulated type heat conductive rubber is usually metal powder, graphite, carbon black, carbon fiber etc., the feature of this kind of filler has good thermal conductivity, material easily can be made to obtain high heat conductivility, but also make the decreasing insulating of material even become conductive material simultaneously.Therefore at the working environment of material in the less demanding situation of electrical insulating property, above-mentioned filler can be applied.And also necessarily require heat conductive rubber to have low electrical insulating property to meet specific requirement, as anti-static material, electromagnetic shielding material etc. under certain conditions.
Information industry flourish in the last few years, new requirement is proposed to the performance of macromolecular material, especially for the development of heat conductive rubber provides development space, the application of heat conductive rubber on computer fittings will improve the heat dissipation problem of computer and improve its speed of service and stability, as CPU, notebook computer shell and various surface-mounted integrated circuit, these materials all require heat conductive insulating.Macromolecular material insulate, but as Heat Conduction Material, pure macromolecular material is generally inefficient, because macromolecular material is the non-conductor of heat mostly, macromolecular material thermal conductivity factor is about the 1/500-1/600 of metal.The thermal conductivity factor of foam rubber only has 0.02-0.046W/m.K, is about 1/1500 of metal, 1/40 of cement concrete, 1/20 of common brick, is desirable heat-insulating material. and expand its application in heat conduction field, modification must be carried out to macromolecular material.The thermal conductivity factor of macromolecular material, metal and metal oxide is in Table 1-1, table 1-2, table 1-3.
The high molecular thermal conductivity factor of table 1-1
The thermal conductivity factor of table 1-2 metal and metal oxide
Metal and the inorganic filler that can be used as conductive particle have following several substantially:
(l) metal powder filler: copper powder, aluminium powder, bronze, silver powder.
(2) metal oxide: aluminium oxide, is oxidized secret, barium monoxide, magnesia, zinc oxide.
(3) metal nitride: aluminium nitride, boron nitride.
(4) inorganic non-metallic: graphite, carborundum.
When Inorganic Non-metallic Materials is as heat filling filled high polymer material matrix, the quality of filling effect depends primarily on following factor: the kind of (l) polymeric matrix, characteristic; (2) shape, particle diameter, the Size Distribution of filler; (3) interface binding characteristic of filler and matrix and the interaction of two-phase.
The thermal conductivity factor of some packing materials of table 1-3
Due to adding of filler, the mechanical performance of material is declined.Therefore, the conductibility not only will considered in the design of composite, and require that stability of material is good, nontoxic, satisfactory mechanical property and inexpensive.The polymer that use itself has good heat conductive performance relative to another selection of filled polymer, but the expensive and deficient in stability in performance of this type of material price, become their major defect on using.Rubber is the material that in macromolecular material, output is maximum.
The market demand of conductibility macromolecular material is annual all in growth, and wherein the market demand of heat conductive rubber increases faster.Therefore the research of rubber heat conductivility has been caused to the interest of various countries researcher, and done good work.The research of current fillibility heat conductive rubber, the method that major part adopts physics to fill, heat conductivility is poor, and mechanical performance declines serious, and production cost is high.But along with the market of expanding day and going deep into of research, heat conductive rubber will have a large development, especially the research and development of nano heat-conductive material, the preparation of high heat-conductive body polymeric material, the discussion of polymer bond mechanism should become the developing direction of heat-conducting polymer material.
Summary of the invention
Technical problem to be solved by this invention is, propose a kind of high heat conductive rubber and preparation method and LED thereof and preparation method, it is by improving raw material components and formula, further improve its heat conductivility and stability, and improve shaping, fire-retardant and insulating properties largely, simultaneously, the assemble method of its product more simplifies, and the production efficiency of its product, production cost and service life are improved all largely, and it has reasonable raw material proportioning, the simple feature of technique.
The technical solution used in the present invention is: provide a kind of heat conductive rubber LED, comprising: lamp socket, radiator, copper base and LED lamp bead.
Described heat conductive rubber LED can have the type socket that spins further;
Described lamp socket can be connected with described radiator by the type socket that spins;
Described LED lamp bead can be arranged on described copper base;
Described copper base can be provided with described LED lamp bead;
The one side of described copper base can be connected with radiator;
Described spin type socket can by the groove that spins that arranges on rotary joint device that it is arranged and lamp socket be attached thereto connect fixing.
Described radiator can be made up of fin.
Described fin can adopt arcuate structure and be evenly distributed.
The material that described radiator preferably adopts is high heat conducting nano compounded rubber according to any one of following content.
For solving the problems of the technologies described above, present invention also offers a kind of installation method of described heat conductive rubber LED, comprising the following steps: LED lamp bead adopted Auto-mounting mode to be arranged on copper base; Auto-mounting mode is adopted to be connected with described protective cover and described radiator respectively the copper base that LED lamp bead is housed; Lamp socket to be connected with radiator by manual assembly by the type socket that spins and to install.
For solving the problems of the technologies described above, invention further provides the radiator used in a kind of LED bulb, material high heat conducting nano compounded rubber according to any one of following content that described radiator adopts.
For solving the problems of the technologies described above, the present invention has reoffered a kind of high heat conducting nano compounded rubber, its raw material comprise in following component one or more: ethylene propylene diene rubber, age resistor, carbon black, sulphur, promoter, plasticizer, paraffin oil, organic active agent PEG4000, inorganic active agent, dispersant.
Described material content proportioning is preferably by weight:
Ethylene propylene diene rubber 150-200 part,
Age resistor 1-4 part,
Carbon black 40-80 part,
Sulphur 1-3 part,
Promoter 1-3 part,
Plasticizer 6-10 part,
Paraffin oil 40-80 part,
Organic active agent PEG4000,3-8 part
Inorganic active agent 6-12 part,
Dispersant 1-4 part.
Described age resistor be preferably in following reagent one or more: 6-ethyoxyl-2,2,4-trimethyl-1,2-dihyaroquinoline; 2,2,4-trimethyl 1,2-dihydro quinoline condensate; N-phenyl-α-aniline; N-PBNA; N-phenyl-N`-cyclohexyl p-phenylenediamine (PPD); N-phenyl-N`-isopropyl-p-phenylenediamine (PPD).; N-N`-diphenyl-p-phenylenediamine.
Described promoter be preferably in following reagent one or more: promoter T; The two thiamides of N, N-tetramethyl two sulphur; Tetramethylthiuram disulfide; Thiram; Vulcanization accelerator TMTD; Tetramethyl two sulfo-thiuram; Vulcanization accelerator TMTD; Vulcanization accelerator TMTD-II; Promoter TT; Curing two (thiocarbonyl group dimethylamine); Tetramethyl TMTD; Tetramethyl sulfo-peroxy dicarbonate diamides; Tetramethyl thiuram disulfide; TMTD; Altax; Accelerant B Z.
Described plasticizer be preferably in following reagent one or more:: o-phthalic acid dibutyl ester; DEDB; Dioctyl adipate; Di-n-hexyl adipate; BBP(Butyl Benzyl Phthalate; Decanedioic acid two (2-ethyl hexyl) ester.
Described activating agent is preferably PEG4000; Described dispersant be preferably in following reagent one or more: triethyl group hexyl phosphoric acid, lauryl sodium sulfate, methyl anyl alcohol, cellulose derivative, polyacrylamide, guar gum, fatty acid polyethylene glycol ester.
Described inorganic active agent be preferably in following reagent one or more: MgO, Al 2o 3, Si 3n 4, BN, AlN, ZnO, KAl (SO 4) 212H 2o, Al 2o 3-2SiO 2-2H 2o.
Described AlN is preferably: AlN whisker and AlN particle.
Described Si 3n 4be preferably highly heat-conductive silicon nitride; Described BN is nano silicon nitride boron particles, meets following index:
Described high heat conducting nano compounded rubber, prepare preferably by following steps:
The first step, synthetic rubber: by banbury by described Material synthesis rubber;
Second step, shaping: by mill, synthetic rubber is shaping;
3rd step, sulfuration: mould molded rubber being put into vulcanizer, pressurization scope is 150-210kgf/ ㎝ 2, be warmed up to 220-230 DEG C, the time is 80-100 second, carries out sulfuration.
The technique effect that the present invention has a mind to is: propose a kind of high heat conductive rubber and preparation method and LED bulb thereof and installation method, it is by improving raw material components and formula, further improve its heat conductivility and stability, and improve shaping, fire-retardant and insulating properties largely, it has reasonable raw material proportioning, the simple feature of technique; Its product simultaneously, namely the LED bulb be made up of described high heat conductive rubber to be spun type structure by employing, the problem existing for existing LED illumination lamp can be solved, the production and assembly mode that Auto-mounting and assembly line hand fit use can be adopted, there are production and assembly succinct, production efficiency is high, production cost is low, be connected firmly attractive in appearance, good illumination effect, use safety, the advantage that the life-span is long, the public places such as market, factory, office family can be widely used in, the needs of actual conditions can be met.The present invention is by having carried out Experimental comparison to the capacity of heat transmission of the filler of various difformity and size raising Polymers used in combination, and filler comprises MgO, Al 2o 3, Si 3n 4, BN, AlN, ZnO, KAl (SO 4) 212H 2o (alum) and/or Al 2o 3-2SiO 2-2H 2o (kaolin) etc.The present invention's mixed fillers makes the thermal conductivity of composite significantly improve.The present invention utilizes the particle, the whisker formation continuous print heat conduction network chain that there are certain draw ratio; Select the filler combination of different particle diameters, reach higher filling density: utilize coupling agent to improve the interface of filler and matrix, to reduce the thermal resistance of interface; Thermal conductivity factor is improved with nanomaterial-filled rubber.High heat conducting nano compounded rubber of the present invention is the thermoplastic composite resin of thermal conductivity up to 22.45 ~ 33.75w/mK.The technology of the present invention utilizes unique MOLECULE DESIGN, improves the interaction force of molecule between thermoplastic elastomer and filler, and filler high efficiency contact each other defines thermal pathways, has increased substantially thermal conductivity.
Accompanying drawing explanation
Below in conjunction with drawings and embodiments, the invention will be further described:
Fig. 1 is its assembled state structural representation of LED bulb of one embodiment of the invention;
Fig. 2 is its split status architecture schematic diagram of LED bulb of one embodiment of the invention;
Fig. 3 is its lamp socket surface structure schematic diagram of LED bulb of one embodiment of the invention;
Fig. 4 is its lamp socket front view of LED bulb of one embodiment of the invention;
Fig. 5 is its lamp base part view of LED bulb of one embodiment of the invention;
Fig. 6 is its radiator surface structure schematic diagram of LED bulb of one embodiment of the invention;
Fig. 7 is its radiator view of LED bulb of one embodiment of the invention;
Fig. 8 is its heat sink side view of LED bulb of one embodiment of the invention;
Fig. 9 is its copper base front view of LED bulb of one embodiment of the invention;
Figure 10 is its rate copper base side view of LED bulb of one embodiment of the invention;
Figure 11 is its LED lamp bead structural representation of LED bulb of one embodiment of the invention;
Figure 12 is its protective cover surface structure schematic diagram of LED bulb of one embodiment of the invention;
Figure 13 is its protective cover front view of LED bulb of one embodiment of the invention;
Figure 14 is its protective cover side view of LED bulb of one embodiment of the invention.
Detailed description of the invention
Describe embodiments of the present invention in detail below with reference to drawings and Examples, to the present invention, how application technology means solve technical problem whereby, and the implementation procedure reaching technique effect can fully understand and implement according to this.
Embodiment 1: the present embodiment high heat conducting nano short vulcanization complex ternary EP rubbers, each material component content proportioning is by weight:
Ethylene propylene diene rubber 150-200 part,
Age resistor 1-4 part,
Carbon black 40-80 part,
Sulphur 1-3 part,
Promoter 1-3 part,
Plasticizer 6-10 part,
Paraffin oil 40-80 part,
Organic active agent PEG4000,3-8 part
Inorganic active agent 6-12 part,
Dispersant 1-4 part,
And it is prepared by following steps:
The first step, synthetic rubber: by banbury by above-mentioned raw materials synthetic rubber;
Second step, shaping: by mill, synthetic rubber is shaping;
3rd step, sulfuration: mould molded rubber being put into vulcanizer, pressurization scope is 150-210kgf/ ㎝ 2, be warmed up to 220-230 DEG C, the time is 80-100 second, carries out sulfuration.
Embodiment 2: rubber disperse agent impels material particles to be dispersed in Rubber Media, forms the reagent of stable suspension.The rubber disperse agent used in the embodiment of the present invention is one or more in following reagent: triethyl group hexyl phosphoric acid, lauryl sodium sulfate, methyl anyl alcohol, cellulose derivative, polyacrylamide, guar gum, fatty acid polyethylene glycol ester.
Embodiment 3:
The age resistor that one embodiment of the invention uses is: 6-ethyoxyl-2,2,4-trimethyl-1,2-dihyaroquinoline.Its trade name is antioxidant A W.Antioxidant A W is brown viscous liquid, and sterling is light brown sticky cylinder liquid.Nontoxic, proportion is 1.029 ~ 1.030 (25 DEG C), and boiling point is 169 DEG C.Benzene, acetone, dichloroethane, carbon tetrachloride, industrial naptha and ethanol can be dissolved in; Water insoluble.Stable storage.Be the anti-ozone age resistor of special efficacy, also have protective action to flex crack and thermo-oxidative ageing.The goods used under being specially adapted to dynamic condition.No blooming, has contaminative, is unsuitable for light color article.Little on sulfuration impact during consumption 1 ~ 2 part, increase to 3 parts and then significantly promote sulfuration, during use, promote that consumption should suitably reduce.
The age resistor that another embodiment of the present invention uses is: 2,2,4-trimethyl 1,2-dihydro quinoline condensate.Trade name is anti-aging agent RD.Anti-aging agent RD be amber to canescence resin-like powder, nontoxic.Softening point is not less than 74 DEG C.Acetone, benzene, chloroform, carbon disulfide can be dissolved in, be slightly soluble in petroleum hydrocarbon; Water insoluble.The oxidation that energy rejection condition is harsher, heat ageing and Weather effect, but poor to flex crack protection effect.No blooming, there is light contamination.General amount ranges is 0.5 ~ 2 part, reaches as high as 3 compositions.
The age resistor that yet another embodiment of the invention uses is: N-phenyl-α-aniline.Trade name is antioxidant A.Antioxidant A be yellowish-brown to purple crystal shape material, sterling is colorless plate crystal, because of containing a small amount of alpha naphthylamine and aniline, poisonous, can not with skin contact.Proportion is 1.16 ~ 1.17, and fusing point is not less than 52.0 DEG C.Be soluble in acetone, ethyl acetate, benzene, ethanol, chloroform, carbon tetrachloride; Dissolve in gasoline; Water insoluble.Gradual change purple in daylight and air.Inflammable.Antioxidant A to heat, oxygen, to subdue and the aging action such as weather all has good protection effect, be the general age resistor of natural rubber, synthetic rubber and reclaimed rubber.The performance that ozone-resistant is aging is had concurrently in neoprene; Also there is certain inhibition easily to disperse in dry glue to the aging action of variable valency metal ions and reclaimed rubber, be also easily scattered in water; Solubility in rubber is up to 5%, larger than antioxidant D, and consumption is no blooming 3 ~ 4 parts time, therefore can increase consumption to improve protective benefits.Antioxidant A has contaminative and animal migration.General amount ranges is 1 ~ 2 part, reaches as high as 5 parts.
The age resistor that further embodiment of this invention uses is: N-PBNA.Trade name is antioxidant D.Antioxidant D is light grey to light brown powder, and sterling is white powder.Proportion is 1.18, and fusing point is not less than 104 DEG C.Easy solvent is in acetone, ethyl acetate, carbon disulfide, chloroform; Dissolve in ethanol, carbon tetrachloride; Be insoluble to gasoline and water.Under air and daylight, gradually become grey black, but do not affect protection effect.Inflammable.Antioxidant D is the universal age resistor of natural rubber, synthetic rubber and latex.All there is good protective action to heat, oxygen, flex crack and general aging action, and be slightly better than antioxidant A.Also have protective action to the ion of poisonous metal, but comparatively antioxidant A is poor.If with age resistor 4040 or 4010NA and use, heat resistanceheat resistant, oxygen, flex crack and ozone-resistant ageing properties all have remarkable increase.Easily be scattered in water in dry glue.Solubility in rubber is lower than antioxidant A, is about 1.5%.The meeting bloom when consumption is more than 2 parts, with antioxidant A and with then avoiding.Tool contaminative, is unsuitable for light color article.Amount ranges is generally 0.5 ~ 2 part.This kind of age resistor is easy to get because of raw material, manufactures simple, cheap, therefore also occupies certain status at home at present.
The age resistor that further embodiment of this invention uses is: N-phenyl-N`-cyclohexyl p-phenylenediamine (PPD).Trade name is antioxidant 4010 (or age resistor CPPD).Antioxidant 4010 is pale powder, and sterling is white powder.Irritant to skin.Proportion is 1.29, and fusing point is lower than 110 DEG C, is very easily dissolved in chloromethanes, is soluble in benzene, ethyl acetate, acetone, is insoluble in industrial naptha, water insoluble.In atmosphere or daylight end deepen look, but protection effect do not subtract.Antioxidant 4010 is one of excellent universal age resistor of natural rubber and synthetic rubber, is particularly useful for natural rubber and butadiene-styrene rubber.Excellent to aging action protective benefitses such as heat, oxygen, ozone, light, be also the excellent lasting be full of cracks of mechanical stress formation and the inhibitor of flex crack.Also have the aging action of high-energy radiation and copper ion and necessarily have protective action.All better than the protection effect of antioxidant A T and antioxidant D, have goodish protective benefits time alone, but with its age resistor as AW, crystallinity and with to ozone-induced cracking and natural aging protective benefits higher.Also can use with antioxidant A, D or other universal age resistor.Antioxidant 4010 easily disperses, and can produce bloom when consumption is more than 1 part, and it is serious that goods meet phototropic.Also can migration stain other sizing material contacted with it or material.General amount ranges 0.15 ~ 1 part.
The age resistor that further embodiment of this invention uses is: N-phenyl-N`-isopropyl-p-phenylenediamine (PPD).Trade name is antioxidant 4010NA (or age resistor IPPD).Antioxidant 4010NA is purple flaky crystal.Micro-toxic, allergic anti-hydraulic pressure can be caused.Fusing point is not less than 70 DEG C.Dissolve in oils, benzene, ethyl acetate, carbon tetrachloride, carrene, chloroform, carbon disulfide, acetone, ethanol, be insoluble in gasoline, water insoluble.Stable storage.Meeting variable color under daylight, but do not affect usefulness.Antioxidant 4010NA is the universal age resistor of natural rubber, synthetic rubber latex glue.Good to ozone-induced cracking, flex crack barrier propterty spy; Also be heat, oxygen, light and generally aging superior protection agent.Also can suppress the aging action of variable valency metal ions, protection natural rubber performance compared with 4010 more comprehensively.Antioxidant 4010NA can be alone, produces with not only reducing consumption but also can improve protective benefits with antioxidant A W or wax.Especially with wax and with staying the anti-static ozone-induced cracking performance of improving the standard.Fusing point is lower, easily disperses, and the solubility in rubber is larger than 4010, and bloom is less, therefore can improve consumption.Contaminative is large.The goods used under being usually used in the higher condition of dynamic and static state stress.General amount ranges is 1 ~ 4 part.
The age resistor that further embodiment of this invention uses is: N-N`-diphenyl-p-phenylenediamine.Trade name is antioxidant H.(having another name called antioxidant DPPD or age resistor PPD).Antioxidant H is that taupe powder is lumped together, and sterling is silvery white flaky crystal.Proportion is 1.18 ~ 1.22.Fusing point is not less than 140 DEG C.Dissolve in benzene, toluene, acetone, ether, dichloroethanes, carbon disulfide, be slightly soluble in ethanol and gasoline; Water insoluble.Storage-stable.In atmosphere and easy to change under daylight.Inflammable.Antioxidant H is natural rubber, elastomeric universal age resistor, has excellent flex cracking resistance performance, excellent to the aging protective action of heat, oxygen, ozone, light, particularly copper, manganese ion.Especially natural rubber and elastomeric paralled system is applicable to.But variable color and seriously polluted.Solubility in rubber is low; In butadiene-styrene rubber, be up to 0.7%, be 0.35% in natural rubber, in polybutadiene rubber, solubility is lower.There is bloom phenomenon when exceeding its solubility in consumption, when with other age resistor as antioxidant A and the used time, its consumption can be reduced and can improve protection effect again.Time alone, amount ranges is generalized to 0.2 ~ 0.3 part.
Embodiment 4: the promoter that the embodiment of the present invention uses is one or more in following product: promoter T, N, the two thiamides of N-tetramethyl two sulphur, tetramethylthiuram disulfide, thiram, vulcanization accelerator TMTD, tetramethyl two sulfo-thiuram, Vulcanization accelerator TMTD, Vulcanization accelerator TMTD-II, promoter TT, curing two (thiocarbonyl group dimethylamine), tetramethyl TMTD, tetramethyl sulfo-peroxy dicarbonate diamides, tetramethyl thiuram disulfide, TMTD, rubber accelerator DM, accelerant B Z.
Embodiment 5:
The plasticizer that one embodiment of the invention uses is: o-phthalic acid dibutyl ester (DOP).Plasticizer DOP is colourless oil liquid, proportion 0.9861 (20/20), fusing point-55, and boiling point 370 (normal pressure) is water insoluble, is dissolved in ethanol, ether, the most of organic solvent of mineral wet goods.General purpose grade DOP, is widely used in the industry such as plastics, rubber, paint and emulsifying agent.DOP is universal plasticizer, be mainly used in the processing of the processing of polyvinyl chloride fat, also the can be used for ground high polymers such as resin, acetate resin, ABS resin and rubber, also can be used for making paint, dyestuff, dispersant etc., the PVC of DOP plasticising can be used for manufacturer's fabricate-leather, agricultural film, packaging material, cable etc.
The plasticizer that another embodiment of the present invention uses is: DEDB.DEDB and polyvinyl chloride and the rare copolymer of vinyl chloride acetic acid second, the poly-rare good intermiscibility of acetic acid second, also and polyvinyl chloride, polymethyl acrylate, polyvinyl alcohol butyral, NC Nitroncellulose, butyl acetate cellulose and ethyl cellulose etc. mix.DEDB lighter color, plasticizing efficiency are high, intermiscibility good, volatility is low, exudative low, thermally-stabilised index is high, cold-resistant water-fast extraction, not oxidizable and volatilization, excellent electrical properties, filler capacity greatly, goods brightness high.Be widely used in PVC plastic particle, non-filling calendered film, artificial leather, CABLE MATERIALS, sheet material, sheet material, soft or hard tubing, sole material, rubber-plastic strip, foamed material, film, paint, rubber, lucite, printing-ink, plasticized paste, acetate emulsion adhesive etc.Be the one that plasticizer industry price is minimum, can significantly reduce rubber product cost.
The plasticizer that yet another embodiment of the invention uses is: dioctyl adipate.Its chemistry is by name: adipic acid 2121 Octyl Nitrite, molecular formula is C 22h 42o 4, dioctyl adipate is colorless and odorless transparent oily liquid, can be dissolved in most of organic solvents such as ethanol, ether, acetone, acetic acid, be slightly soluble in ethylene glycol, water insoluble.But the volatility of dioctyl adipate is large, and there is certain deficiency the aspects such as resistance to water, animal migration, insulating properties.Dioctyl adipate is normal and phthalate is composite, is applied to cold-resistant agricultural film, cable clad, artificial leather, sheet material, outdoor water pipe and Frozen Food Packaging film etc.Dioctyl adipate can also as the cold resistant plasticizer of the resins such as the low temperature plasticizer of various synthetic rubber and NC Nitroncellulose, ethyl cellulose, polystyrene, vinyl chloride one acetic acid butylene copolymer.At present, di-n-hexyl adipate is also widely used in polyvinyl butyral resin film.In addition, in many countries, legal its can be used as the plasticizer of food, medical packaging plastics.
The plasticizer that further embodiment of this invention uses is: di-n-hexyl adipate.Di-n-hexyl adipate is the cold resisting type plasticizer that consumption is maximum in the world.N-octyl n-decyl adipate (NODA), colourless transparent liquid is by adipic acid and the n-octyl alcohol of straight chain, the straight chain type binary acid mixed ester of Decanol lactate synthesis; N-octyl n-decyl adipate (NODA) is dissolved in mineral oil, gasoline and most of organic solvent, insoluble or be slightly soluble in glycerine, glycols and some amine, is the straight chain type cold-resistant plasticizer of function admirable.Compared with adipic acid branched-chain alcoho, there is better resistance to low temperature, and volatilization loss, heat resistance and light resistance, water-extraction resistance etc. are also excellent compared with side chain alcohol ester.When it and phthalic acid ester shares time, polyvinyl chloride Vinyl Acetate Copolymer Emulsion performance can be improved, be widely used for the cold resistant plasticizer of polyvinyl acetate, polystyrene, polymethyl methacrylate, celluloid, ethyl cellulose and rubber.
The plasticizer that further embodiment of this invention uses is: BBP(Butyl Benzyl Phthalate (Butyl benzyl phthalate) molecular weight 312.40.Character: colourless transparent oil liquid.Relative density (25 DEG C/4 DEG C) 1.116 ,-35 DEG C, freezing point, boiling point 370 DEG C. flash-point (opening) 199 DEG C. refractive index 1.535. viscosity (25 DEG C) 41.5mPas, is dissolved in organic solvent and hydro carbons.Water insoluble.Flammable.Micro-poison.With most of rubber and resin compatible good. solvation is strong, the plasticizer of, oil resistant extractable heat-resisting as resistance to water.
The plasticizer that further embodiment of this invention uses is: cold resistant plasticizer DOS.Di-n-octyl sebacate (DOS), formal name used at school: decanedioic acid two (2-ethyl hexyl) ester molecule formula: C 26h 50o 4.Cold resistant plasticizer DOS is colourless or pale yellow transparent oily liquids,-48 DEG C, freezing point, boiling point: 256 DEG C (0.67Kpa), ignition point 257-263 DEG C, viscosity 25mPa.s (20 DEG C), index of refraction 1.449-1.451 (25 DEG C), can be dissolved in the organic solvents such as hydro carbons, alcohols, ketone, ester class, chlorinated hydrocarbon, be insoluble to di-alcohols and water.Cold resistant plasticizer DOS is the excellent cold resistant plasticizer of a kind of polyvinyl chloride, and plasticizing efficiency is high, and volatility is low, therefore except having excellent low temperature cold tolerance, has again good heat resistance, can use at a higher temperature.The weatherability of this product is better, and electrical insulation properties is also more excellent, normal and phthalate use, is specially adapted to the goods such as cold-resistant electric wire and CABLE MATERIALS, artificial leather, film, sheet material, sheet material.Cold resistant plasticizer DOS can as the cold resistant plasticizer of the resins such as the low temperature plasticizer of various synthetic rubber and NC Nitroncellulose, ethyl cellulose, polymethyl methacrylate, polystyrene, vinyl chloride copolymer.
Embodiment 6: the inorganic active agent that raw materials comprises is one or more in following compounds (or mixture): MgO, Al 2o 3, Si 3n 4, BN, high-purity carbon dust, AlN, ZnO, KAl (SO 4) 212H 2o (alum), Al 2o 3-2SiO 2-2H 2o (kaolin).
Embodiment 7: the MgO that the embodiment of the present invention uses is nano-MgO particle.
Nano-powder material industrialized producing technology requires that preparation method is simple, and production cost is suitable for, and reproducible, powder granularity is even, product purity is high, reunion degree is low.Method about nano magnesia synthesis in prior art is a lot, but in fact can be applied to industrial less.One is because problems such as equipment, cost, raw material, scale, investments; Two is that some technique is still in the laboratory research stage, and realize suitability for industrialized production and have any problem, even some may not realize suitability for industrialized production.
The present embodiment adopts indoor temperature solid phase method to prepare MgO particle.
Solid-phase reaction of the present invention overcomes conventional wet and prepares the agglomeration traits that magnesium oxide nanoparticle exists, and has reaction without the need to solvent, the advantage such as productive rate is high, reaction condition is easy; And overcome that the efficiency existed in original solid-phase reaction is low, the shortcoming of the oxidizable distortion of particle.
The concrete grammar that the present embodiment indoor temperature solid phase method prepares MgO particle is: by MgCL 2solution and Na 2cO 3(raw material mass mixture ratio 1:1.2) solution, with PVA solution (poly-vinyl alcohol solution) for modifier, reaction produces precipitation MgCO 3precipitation, then under 75 ~ 85 DEG C of constant temperature, the mode transformed by precipitation obtains alkali formula carbon formula magnesium presoma.50 ~ 60 DEG C of standing alkali formula carbon formula magnesium presoma precipitation 24-30 hour.Finally pass at Ar air-flow, temperature is calcination under the condition of 600 ~ 650 DEG C, obtains nano-MgO particle.Adopt PVA as high molecular surfactant, control the reunion of particle, obtained nano-MgO particle dispersion is better, and be cubic structure, substantially spherical in shape, its particle diameter is 25-35nm.
Embodiment 8-1: the Si3N4 that the embodiment of the present invention uses is nano silicon nitride silicon grain, meets following index:
Embodiment 8-2: the Si that the embodiment of the present invention uses 3n 4it can also be highly heat-conductive silicon nitride.Common silicon nitride has randomly-oriented sintering structure.Highly heat-conductive silicon nitride adds kind of crystal grain (diameter 1um, long 3-4um) at material powder (below particle diameter 1um), makes the sub-orientations of this all crystal grain, forms the fibrous silicon nitride structure reaching 100um with orientation.Due to the formation of filamentary structure, thermal conductivity factor presents each diversity, and on orientation texture direction, thermal conductivity factor is 120w/ (mK), is 3 times of common silicon nitride, is equivalent to the thermal conductivity factor of steel.
Embodiment 9: the BN that the embodiment of the present invention uses is nano silicon nitride boron particles, meets following index:
Embodiment 10: the embodiment of the present invention use high-purity carbon dust be: Dongguan pull together produce 10000 high-purity carbon dusts.Performance indications are:
Fixed carbon: 99.99% Specification: 10000 orders
The trade mark: 18925457433 Moisture: 0.015%
Dilation: 1-2 doubly Oversize granularity: 0.0006%
Ash content: 0.85 Volatile matter: 0.01%
Screenings granularity: 0.0005%
Embodiment 11: the AlN filler that the embodiment of the present invention uses is: AlN whisker and AlN particle do filler.In the embodiment of the present invention, using ABS as matrix, AlN whisker and AlN particle (below 6um) are filled, and obtain the composite of the highest thermal conductivity 28.2W/ (m.K), AlN whisker and AlN particle ratio (mass ratio) are l:40 ~ 60.Invention further contemplates the confounding effect of filler and coupling agent to the impact of composite heat conductivility.By AlN whisker and the AlN mix particles of adequate rate, give composite higher heat-conductivity and lower thermal coefficient of expansion than independent whisker and particle.By using coupling agent silane treatment, the thermal conductivity of the ABS composite material of AlN particulate reinforcement improves 98%, and thermal conductivity raising is due to the interface by improving matrix and particle, and the contact resistance of filler-matrix reduces.
Embodiment 12: the ZnO that the embodiment of the present invention uses is: nano granular of zinc oxide.Its performance indications are:
The embodiment of the present invention use nano zine oxide, for above-mentioned: 1 class nano-ZnO, 2 class nano-ZnOs, 3 class nano-ZnOs, in one.
Embodiment 13: performance test and characterization experiments contrast.
Experimental provision
This experiment adopts flash of light heat transfer analysis instrument LFA 447N ano flashTM to measure thermal diffusion coefficient.This conductometer uses xenon lamp as heating source heated sample surface, uses Infrared Detectors to read sample temperature rise, decreases potential surface resistance of heat transfer.
Experimental principle
Under certain design temperature T (constant temperature), light beam pulse is being launched instantaneously by lasing light emitter (or flash lamp), uniform irradiation is at sample lower surface, use the corresponding temperature rise process in infrared detector measurement sample upper surface centre, obtain the relation curve of temperature rising to the time.By half heating-up time (sample upper surface temperature is elevated to the time needed for the half of maximum after receiving optical pulse irradiation) t50 (or claiming t1/2), by following formula:
α=()1388×d 2/t 50 (1)
The thermal diffusion coefficient α of sample under temperature T can be obtained.In formula, d is the thickness of sample.Thermal conductivity factor λ is tried to achieve by following formula:
λ=α×C p×ρ (2)
In formula, Cp is the specific heat of rubber; ρ is the density of rubber.Specific heat to be compared with reference sample by sample tries to achieve.Density is recorded by micro computer specific gravity material balance.
Prepared by sample
Sizing material is cut into the thin rounded flakes that diameter is 12.5 ~ 12.7mm during test, and ensures that sample upper and lower surface is smooth, smooth.
Experimental procedure
(1) half an hour before experiment, in instrument, pour appropriate liquid nitrogen into, regulate external recirculated water controller, set temperature makes it higher than room temperature 2 ~ 3 degrees Celsius, preheater apparatus.
(2) by precision be 0.02mm slide measure to the thickness of test specimen carry out three times measure, get the thickness of its mean value as sample.
(3) with alcohol by sample wiped clean, dry.Uniform graphite coating is carried out in the upper and lower surface of sample.
(4) sample is put into sample well, open Survey Software, parameters, start test.
A liquid nitrogen is filled with every 3.5h in experimentation.Experiment terminates all power supplys of rear closedown.
Various formula heat conductivility and mechanical property
Filler 1: ethylene propylene diene rubber 150 parts, age resistor [6-ethyoxyl-2,2,4-trimethyl-1,2-dihyaroquinoline] 2 parts, carbon black 40 parts, 1 part, sulphur, promoter [N, the two thiamides of N-tetramethyl two sulphur] 1 part, 6 parts, plasticizer [o-phthalic acid dibutyl ester], paraffin oil 40 parts, organic active agent [PEG4000] 3-8 part, inorganic active agent [MgO, Al 2o 3, (high-termal conductivity) Si 3n 4, BN, AlN, (1 class nanometer) ZnO] each 1 part, dispersant [triethyl group hexyl phosphoric acid] 1 part.
Filler 2: ethylene propylene diene rubber 160 parts, 2 parts, age resistor [2-dihyaroquinoline], carbon black 50 parts, 2 parts, sulphur, promoter [tetramethylthiuram disulfide] 2 parts, 7 parts, plasticizer [DEDB], paraffin oil 50 parts, organic active agent [PEG4000] 4 parts, inorganic active agent [MgO2 part, Al 2o 31 part, (nano particle) Si 3n 41 part, BN1 part, AlN1 part, (2 class nanometer) ZnO1 part, KAl (SO 4) 212H 2o1 part], dispersant [lauryl sodium sulfate] 2 parts.
Filler 3: ethylene propylene diene rubber 170 parts, 3 parts, age resistor [2,2,4-trimethyl 1], carbon black 60 parts, 3 parts, sulphur, promoter [thiram] 3 parts, 8 parts, plasticizer [decanedioic acid two (2-ethyl hexyl) ester], paraffin oil 60 parts, organic active agent [PEG4000], 5 parts, inorganic active agent [MgO, Al 2o 3, BN, AlN, Al 2o 3-2SiO 2-2H 2o] each 2 parts, dispersant [methyl anyl alcohol] 3 parts.
Filler 4: ethylene propylene diene rubber 180 parts, 4 parts, age resistor [N-phenyl-N`-cyclohexyl p-phenylenediamine (PPD)], carbon black 70 parts, 3 parts, sulphur, promoter [vulcanization accelerator TMTD] 3 parts, 9 parts, plasticizer [BBP(Butyl Benzyl Phthalate], paraffin oil 70 parts, organic active agent [PEG4000], 6 parts, inorganic active agent [MgO, Al 2o 3, (nano particle) Si 3n 4, KAl (SO 4) 212H 2o, Al 2o 3-2SiO 2-2H 2o] each 2 parts, dispersant [cellulose derivative] 4 parts.
Filler 5: ethylene propylene diene rubber 190 parts, 4 parts, age resistor [N-phenyl-N`-cyclohexyl p-phenylenediamine (PPD)], carbon black 80 parts, 3 parts, sulphur, promoter [vulcanization accelerator TMTD] 3 parts, 10 parts, plasticizer [BBP(Butyl Benzyl Phthalate], paraffin oil 80 parts, organic active agent [PEG4000] 7 parts, inorganic active agent [Al 2o 3, (high-termal conductivity) Si 3n 4, BN, AlN, (2 class nanometer) ZnO, KAl (SO 4) 212H 2o, Al 2o 3-2SiO 2-2H 2o] each 1 part, dispersant [polyacrylamide] 4 parts.
Filler 6: ethylene propylene diene rubber 200 parts, 4 parts, age resistor [N-phenyl-N`-isopropyl-p-phenylenediamine (PPD)], carbon black 80 parts, 3 parts, sulphur, promoter [Vulcanization accelerator TMTD] 3 parts, 10 parts, plasticizer [decanedioic acid two (2-ethyl hexyl) ester], paraffin oil 80 parts, organic active agent [PEG4000] 8 parts, inorganic active agent [MgO, Si 3n 4(nano particle), BN, AlN, (1 class nanometer) ZnO, KAl (SO 4) 212H 2o, Al 2o 3-2SiO 2-2H 2o] each 1.5 parts, dispersant [fatty acid polyethylene glycol ester] 4 parts.
Filler 7: ethylene propylene diene rubber 200 parts, age resistor [6-ethyoxyl-2,2,4-trimethyl-1,2-dihyaroquinoline; N-N`-diphenyl-p-phenylenediamine] each 2 parts, carbon black 60 parts, 2 parts, sulphur, promoter [Vulcanization accelerator TMTD-II; Altax; Accelerant B Z] each 1 part, plasticizer [dioctyl adipate; Di-n-hexyl adipate; BBP(Butyl Benzyl Phthalate; Decanedioic acid two (2-ethyl hexyl) ester] each 1 part, paraffin oil 40 parts, organic active agent [PEG4000] 3 parts, inorganic active agent [MgO, Al 2o 3, Si 3n 4(nano particle), BN, AlN, (1 class nanometer) ZnO ,] each 2 parts, each 1 part of dispersant [triethyl group hexyl phosphoric acid, lauryl sodium sulfate, methyl anyl alcohol].
Filler 8: ethylene propylene diene rubber 180 parts, age resistor [2,2,4-trimethyl 1,2-dihydro quinoline condensate; N-phenyl-N`-isopropyl-p-phenylenediamine (PPD)] each 1 part, carbon black 50 parts, 2 parts, sulphur, promoter [promoter T tetramethyl two sulfo-thiuram; Vulcanization accelerator TMTD; ] each 1 part, plasticizer [di-n-hexyl adipate; BBP(Butyl Benzyl Phthalate; Decanedioic acid two (2-ethyl hexyl) ester] each 3 parts, paraffin oil 50 parts, organic active agent [PEG4000] 6 parts, inorganic active agent [MgO, Al 2o 3, Si 3n 4(nano particle), BN, AlN, (2 class nanometer) ZnO, KAl (SO 4) 212H 2o, Al 2o 3-2SiO 2-2H 2o] each 1 part, each 1 part of dispersant [cellulose derivative, polyacrylamide, guar gum, fatty acid polyethylene glycol ester].
Filler 9: ethylene propylene diene rubber 170 parts, age resistor [6-ethyoxyl-2,2,4-trimethyl-1,2-dihyaroquinoline; N-N`-diphenyl-p-phenylenediamine] each 1 part, carbon black 70 parts, 3 parts, sulphur, promoter [promoter T; Vulcanization accelerator TMTD; Vulcanization accelerator TMTD-II; ] each 1 part, plasticizer [di-n-hexyl adipate; BBP(Butyl Benzyl Phthalate] each 4 parts, paraffin oil 70 parts, organic active agent [PEG4000] 4 parts, inorganic active agent [MgO, Al 2o 3, Si 3n4 (high-termal conductivity), BN, AlN, (1 class nanometer) ZnO, KAl (SO 4) 212H 2o, Al 2o 3-2SiO 2-2H 2o] each 1 part, each 1 part of dispersant [triethyl group hexyl phosphoric acid, methyl anyl alcohol, polyacrylamide].
Filler 10: ethylene propylene diene rubber 160 parts, age resistor [N-phenyl-N`-cyclohexyl p-phenylenediamine (PPD); N-phenyl-N`-isopropyl-p-phenylenediamine (PPD).; N-N`-diphenyl-p-phenylenediamine] each 1 part, carbon black 40 parts, 3 parts, sulphur, promoter [TMTD; Altax] each 1 part, plasticizer [o-phthalic acid dibutyl ester; Dioctyl adipate; BBP(Butyl Benzyl Phthalate] each 3 parts, paraffin oil 80 parts, organic active agent [PEG4000] 3 parts, inorganic active agent [MgO, Al 2o 3, Si 3n 4(nano particle), BN, AlN, ZnO ,] each 2 parts, each 1 part of dispersant [triethyl group hexyl phosphoric acid, methyl anyl alcohol, cellulose derivative, guar gum].
Filler 11: ethylene propylene diene rubber 200 parts, age resistor [N-phenyl-α-aniline; N-PBNA; N-phenyl-N`-isopropyl-p-phenylenediamine (PPD)] each 1 part, carbon black 40 parts, 1 part, sulphur, promoter [Vulcanization accelerator TMTD; Promoter TT; Tetramethyl TMTD] each 1 part, plasticizer [BBP(Butyl Benzyl Phthalate; Decanedioic acid two (2-ethyl hexyl) ester] each 5 parts, paraffin oil 80 parts, organic active agent [PEG4000] 4 parts, inorganic active agent [MgO, Al 2o 3, Si 3n 4(high-termal conductivity), BN, AlN, (2 class nanometer) ZnO, KAl (SO 4) 212H 2o, Al 2o 3-2SiO 2-2H 2o] each 1 part, dispersant [fatty acid polyethylene glycol ester] 2 parts.
Filler 12: ethylene propylene diene rubber 150 parts, age resistor [N-phenyl-N`-isopropyl-p-phenylenediamine (PPD); N-N`-diphenyl-p-phenylenediamine] each 1 part, carbon black 50 parts, 2 parts, sulphur, promoter [promoter T; ] 2 parts, 9 parts, plasticizer [decanedioic acid two (2-ethyl hexyl) ester], paraffin oil 70 parts, organic active agent [PEG4000] 6 parts, inorganic active agent [MgO, Si 3n 4(high-termal conductivity), AlN, (1 class nanometer) ZnO, Al 2o 3-2SiO 2-2H 2o] each 2 parts, each 1 part of dispersant [lauryl sodium sulfate, cellulose derivative, fatty acid polyethylene glycol ester].
High heat conducting nano compounded rubber of the present invention is that thermal conductivity can up to the thermoplastic composite resin of 22.25 ~ 35.56w/mK.The technology of the present invention utilizes unique MOLECULE DESIGN, improves the interaction force of molecule between thermoplastic elastomer and filler, and filler high efficiency contact each other defines thermal pathways, has increased substantially thermal conductivity.
Embodiment 14: as shown in Fig. 1 ~ 14, is respectively: its assembled state structural representation of the LED bulb of one embodiment of the invention; Its split status architecture schematic diagram of LED bulb; Its lamp socket surface structure schematic diagram of LED bulb; Its lamp socket front view of LED bulb; Its lamp base part view of LED bulb; Its type socket surface structure schematic diagram that spins of bulb; Its type socket front view that spins of LED bulb; Its type socket side view that spins of LED bulb; Its radiator surface structure schematic diagram of LED bulb; Its radiator view of LED bulb; Its heat sink side view of LED bulb; Its copper base front view of LED bulb; Its rate copper base side view of LED bulb; Its LED lamp bead structural representation of LED bulb; Its protective cover surface structure schematic diagram of LED bulb; Its protective cover front view of LED bulb; Its protective cover side view of LED bulb.
In Fig. 1 ~ 14, each Reference numeral is respectively: 1 is lamp socket, and 2 for spinning type socket, and 3 is radiator, and 4 is copper base, and 5 is LED lamp bead, and 6 is protective cover.
The LED bulb that described high heat conductive rubber is made, comprises lamp socket 1, radiator 3, copper base 4, LED lamp bead 5 and protective cover 6, also comprises the type socket 2 that spins; Described lamp socket 1 is connected with radiator 3 by the type socket 2 that spins; Described LED lamp bead 1 is arranged on copper base 4; The one side that described copper base 4 is provided with LED lamp bead 5 is connected with protective cover 6, and its another side is connected with radiator 3; Described spin type socket 2 by spinning that it is arranged to be attached thereto with the groove that spins that arranges on lamp socket connect fixing; Described radiator 3 is made up of fin; Described fin adopts arcuate structure and is evenly distributed; Described protective cover 6 adopts light-transmitting materials structure; Described protective cover 6 is set to semi-spherical shape.
The installation method of described LED bulb, comprises the following steps: LED lamp bead 5 adopted Auto-mounting mode to be arranged on copper base 4; Auto-mounting mode is adopted to be connected with protective cover 6 and radiator 3 respectively the copper base 4 that LED lamp bead 5 is housed; Lamp socket 1 to be connected with radiator 3 by manual assembly by the type socket 2 that spins and to install.
Embodiment 15: as shown in Fig. 1 ~ 14, is respectively: its assembled state structural representation of the LED bulb of one embodiment of the invention; Its split status architecture schematic diagram of LED bulb; Its lamp socket surface structure schematic diagram of LED bulb; Its lamp socket front view of LED bulb; Its lamp base part view of LED bulb; Its type socket surface structure schematic diagram that spins of bulb; Its type socket front view that spins of LED bulb; Its type socket side view that spins of LED bulb; Its radiator surface structure schematic diagram of LED bulb; Its radiator view of LED bulb; Its heat sink side view of LED bulb; Its copper base front view of LED bulb; Its rate copper base side view of LED bulb; Its LED lamp bead structural representation of LED bulb; Its protective cover surface structure schematic diagram of LED bulb; Its protective cover front view of LED bulb; Its protective cover side view of LED bulb.
In Fig. 1 ~ 14, each Reference numeral is respectively: 1 is lamp socket, and 2 for spinning type socket, and 3 is radiator, and 4 is copper base, and 5 is LED lamp bead, and 6 is protective cover.
Its LED bulb made of high heat conductive rubber described in the present embodiment, comprises lamp socket 1, radiator 3, copper base 4, LED lamp bead 5 and protective cover 6, in addition, also comprises the type socket 2 that spins; Described lamp socket 1 is connected with radiator 3 by the type socket 2 that spins; Described LED lamp bead 5 is arranged on copper base 4; The one side that described copper base 4 is provided with LED lamp bead 5 is connected with protective cover 6, and its another side is connected with radiator 3.
Described spin type socket 2 by the groove that spins that arranges on rotary joint device that it is arranged and lamp socket 1 be attached thereto connect fixing.
Described radiator 3 is made up of fin.
Described fin adopts arcuate structure and is evenly distributed.
Described protective cover 6 adopts light-transmitting materials structure.
Described protective cover 6 is set to semi-spherical shape.
Its installation method of described LED bulb, comprises the following steps: LED lamp bead 5 adopted Auto-mounting mode to be arranged on copper base 4; Auto-mounting mode is adopted to be connected with protective cover 6 and radiator 3 respectively the copper base 4 that LED lamp bead 5 is housed; Lamp socket 1 to be connected with radiator 3 by manual assembly by the type socket 2 that spins and to install.
All above-mentioned this intellectual properties of primary enforcement, not setting restriction this new product of other forms of enforcement and/or new method.Those skilled in the art will utilize this important information, and foregoing is revised, to realize similar implementation status.But all modifications or transformation belong to the right of reservation based on new product of the present invention.
The above is only preferred embodiment of the present invention, and be not restriction invention being made to other form, any those skilled in the art may utilize the technology contents of above-mentioned announcement to be changed or be modified as the Equivalent embodiments of equivalent variations.But everyly do not depart from technical solution of the present invention content, any simple modification, equivalent variations and the remodeling done above embodiment according to technical spirit of the present invention, still belong to the protection domain of technical solution of the present invention.

Claims (3)

1. a heat conductive rubber LED, is characterized in that,
Comprise: lamp socket, radiator, copper base and LED lamp bead;
Described LED bulb has the type socket that spins further; Described lamp socket is connected with described radiator by the type socket that spins; Described copper base one side is provided with described LED lamp bead, and the another side of described copper base is connected with radiator; Described spin type socket by the groove that spins that arranges on rotary joint device that it is arranged and lamp socket be attached thereto connect fixing;
The material that described radiator adopts is high heat conducting nano compounded rubber;
Described high heat conducting nano compounded rubber, its raw material comprise in following component one or more: ethylene propylene diene rubber, age resistor, carbon black, sulphur, promoter, plasticizer, paraffin oil, organic active agent PEG4000, inorganic active agent, dispersant;
Described material content proportioning is by weight:
Ethylene propylene diene rubber 150-200 part,
Age resistor 1-4 part,
Carbon black 40-80 part,
Sulphur 1-3 part,
Promoter 1-3 part,
Plasticizer 6-10 part,
Paraffin oil 40-80 part,
Organic active agent PEG4000,3-8 part
Inorganic active agent 6-12 part,
Dispersant 1-4 part;
Described age resistor is one or more in following reagent: 6-ethyoxyl-2,2,4-trimethyl-1,2-dihyaroquinoline; 2,2,4-trimethyl 1,2-dihydro quinoline condensate; N-phenyl-α-aniline; N-PBNA; N-phenyl-N`-cyclohexyl p-phenylenediamine (PPD); N-phenyl-N`-isopropyl-p-phenylenediamine (PPD); N-N`-diphenyl-p-phenylenediamine;
Described promoter is one or more in following reagent: promoter T; The two thiamides of N, N-tetramethyl two sulphur; Tetramethylthiuram disulfide; Thiram; Vulcanization accelerator TMTD; Tetramethyl two sulfo-thiuram; Vulcanization accelerator TMTD; Vulcanization accelerator TMTD-II; Promoter TT; Curing two (thiocarbonyl group dimethylamine); Tetramethyl TMTD; Tetramethyl sulfo-peroxy dicarbonate diamides; Tetramethyl thiuram disulfide; TMTD; Altax; Accelerant B Z;
Described plasticizer is one or more in following reagent: o-phthalic acid dibutyl ester; DEDB; Dioctyl adipate; Di-n-hexyl adipate; BBP(Butyl Benzyl Phthalate; Decanedioic acid two (2-ethyl hexyl) ester;
Described activating agent is PEG4000; Described dispersant is one or more in following reagent: triethyl group hexyl phosphoric acid, lauryl sodium sulfate, methyl anyl alcohol, cellulose derivative, polyacrylamide, guar gum, fatty acid polyethylene glycol ester;
Described inorganic active agent is one or more in following reagent: MgO, Al 2o 3, Si 3n 4, BN, AlN, ZnO, KAl (SO 4) 212H 2o, Al 2o 3-2SiO 2-2H 2o;
Described MgO is nano-MgO particle, and its preparation method is: be the MgCL of 1:1.2 by raw material mass mixture ratio 2solution and Na 2cO 3solution take poly-vinyl alcohol solution as modifier, and reaction produces precipitation MgCO 3precipitation, then under 75 ~ 85 DEG C of constant temperature, the mode transformed by precipitation obtains alkali formula carbon formula magnesium presoma; 50 ~ 60 DEG C of standing alkali formula carbon formula magnesium presoma precipitation 24-30 hour; Finally pass at Ar air-flow, temperature is calcination under the condition of 600 ~ 650 DEG C, obtains nano-MgO particle;
Nano-MgO particle is cubic structure, substantially spherical in shape, and its particle diameter is 25-35nm;
Described AlN is: AlN whisker and AlN particle;
Described Si 3n 4for highly heat-conductive silicon nitride; Described highly heat-conductive silicon nitride adds diameter 1um at the following material powder of particle diameter 1um, and long 3-4um kind crystal grain, makes the sub-orientations of this all crystal grain, form the fibrous silicon nitride structure reaching 100um with orientation;
Described BN is nano silicon nitride boron particles, meets following index:
Described high heat conducting nano compounded rubber, it is prepared by following steps:
The first step, synthetic rubber: by banbury by described Material synthesis rubber;
Second step, shaping: by mill, synthetic rubber is shaping;
3rd step, sulfuration: mould molded rubber being put into vulcanizer, pressurization scope is 150-210kgf/ ㎝ 2, be warmed up to 220-230 DEG C, the time is 80-100 second, carries out sulfuration.
2. an installation method for heat conductive rubber LED as claimed in claim 1, is characterized in that, comprise the following steps: LED lamp bead adopted Auto-mounting mode to be arranged on copper base; Auto-mounting mode is adopted to be connected with described radiator the copper base that LED lamp bead is housed; Lamp socket to be connected with radiator by manual assembly by the type socket that spins and to install.
3. the radiator used in heat conductive rubber LED, is characterized in that, the material that described radiator adopts is high heat conducting nano compounded rubber;
Described high heat conducting nano compounded rubber, its raw material comprise in following component one or more: ethylene propylene diene rubber, age resistor, carbon black, sulphur, promoter, plasticizer, paraffin oil, organic active agent PEG4000, inorganic active agent, dispersant;
Described material content proportioning is by weight:
Ethylene propylene diene rubber 150-200 part,
Age resistor 1-4 part,
Carbon black 40-80 part,
Sulphur 1-3 part,
Promoter 1-3 part,
Plasticizer 6-10 part,
Paraffin oil 40-80 part,
Organic active agent PEG4000,3-8 part
Inorganic active agent 6-12 part,
Dispersant 1-4 part;
Described age resistor is one or more in following reagent: 6-ethyoxyl-2,2,4-trimethyl-1,2-dihyaroquinoline; 2,2,4-trimethyl 1,2-dihydro quinoline condensate; N-phenyl-α-aniline; N-PBNA; N-phenyl-N`-cyclohexyl p-phenylenediamine (PPD); N-phenyl-N`-isopropyl-p-phenylenediamine (PPD); N-N`-diphenyl-p-phenylenediamine;
Described promoter is one or more in following reagent: promoter T; The two thiamides of N, N-tetramethyl two sulphur; Tetramethylthiuram disulfide; Thiram; Vulcanization accelerator TMTD; Tetramethyl two sulfo-thiuram; Vulcanization accelerator TMTD; Vulcanization accelerator TMTD-II; Promoter TT; Curing two (thiocarbonyl group dimethylamine); Tetramethyl TMTD; Tetramethyl sulfo-peroxy dicarbonate diamides; Tetramethyl thiuram disulfide; TMTD; Altax; Accelerant B Z;
Described plasticizer is one or more in following reagent: o-phthalic acid dibutyl ester; DEDB; Dioctyl adipate; Di-n-hexyl adipate; BBP(Butyl Benzyl Phthalate; Decanedioic acid two (2-ethyl hexyl) ester;
Described activating agent is PEG4000; Described dispersant is one or more in following reagent: triethyl group hexyl phosphoric acid, lauryl sodium sulfate, methyl anyl alcohol, cellulose derivative, polyacrylamide, guar gum, fatty acid polyethylene glycol ester;
Described inorganic active agent is one or more in following reagent: MgO, Al 2o 3, Si 3n 4, BN, AlN, ZnO, KAl (SO 4) 212H 2o, Al 2o 3-2SiO 2-2H 2o;
Described MgO is nano-MgO particle, and its preparation method is: be the MgCL of 1:1.2 by raw material mass mixture ratio 2solution and Na 2cO 3solution take poly-vinyl alcohol solution as modifier, and reaction produces precipitation MgCO 3precipitation, then under 75 ~ 85 DEG C of constant temperature, the mode transformed by precipitation obtains alkali formula carbon formula magnesium presoma; 50 ~ 60 DEG C of standing alkali formula carbon formula magnesium presoma precipitation 24-30 hour; Finally pass at Ar air-flow, temperature is calcination under the condition of 600 ~ 650 DEG C, obtains nano-MgO particle;
Nano-MgO particle is cubic structure, substantially spherical in shape, and its particle diameter is 25-35nm;
Described AlN is: AlN whisker and AlN particle;
Described Si 3n 4for highly heat-conductive silicon nitride; Described highly heat-conductive silicon nitride adds diameter 1um at the following material powder of particle diameter 1um, and long 3-4um kind crystal grain, makes the sub-orientations of this all crystal grain, form the fibrous silicon nitride structure reaching 100um with orientation;
Described BN is nano silicon nitride boron particles, meets following index:
Described high heat conducting nano compounded rubber, it is prepared by following steps:
The first step, synthetic rubber: by banbury by described Material synthesis rubber;
Second step, shaping: by mill, synthetic rubber is shaping;
3rd step, sulfuration: mould molded rubber being put into vulcanizer, pressurization scope is 150-210kgf/ ㎝ 2, be warmed up to 220-230 DEG C, the time is 80-100 second, carries out sulfuration.
CN201210583104.0A 2012-12-26 2012-12-26 Heat-conductive rubber light-emitting diode (LED) lamp and preparation method thereof Active CN103148368B (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN201210583104.0A CN103148368B (en) 2012-12-26 2012-12-26 Heat-conductive rubber light-emitting diode (LED) lamp and preparation method thereof

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN201210583104.0A CN103148368B (en) 2012-12-26 2012-12-26 Heat-conductive rubber light-emitting diode (LED) lamp and preparation method thereof

Publications (2)

Publication Number Publication Date
CN103148368A CN103148368A (en) 2013-06-12
CN103148368B true CN103148368B (en) 2014-12-17

Family

ID=48546597

Family Applications (1)

Application Number Title Priority Date Filing Date
CN201210583104.0A Active CN103148368B (en) 2012-12-26 2012-12-26 Heat-conductive rubber light-emitting diode (LED) lamp and preparation method thereof

Country Status (1)

Country Link
CN (1) CN103148368B (en)

Families Citing this family (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN103527962A (en) * 2013-10-30 2014-01-22 杨进 LED bulb lamp
CN104592567A (en) * 2014-02-20 2015-05-06 泌阳恒茂服饰制品有限公司 Heat generation body construction method
CN104558729A (en) * 2014-02-21 2015-04-29 泌阳恒茂服饰制品有限公司 Production process of heating unit
CN104893247A (en) * 2015-05-27 2015-09-09 合肥卓元科技服务有限公司 Heat conduction transparent modification process of epoxy resin for LED packaging

Citations (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN201827722U (en) * 2010-09-30 2011-05-11 厦门雷的光电科技有限公司 LED (light emitting diode) lamp bulb
CN102504358A (en) * 2011-11-22 2012-06-20 广东石油化工学院 High-heat-conductivity rubber composite material and preparation method thereof

Family Cites Families (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP4039979B2 (en) * 2003-05-23 2008-01-30 松下電器産業株式会社 Heat dissipation structure

Patent Citations (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN201827722U (en) * 2010-09-30 2011-05-11 厦门雷的光电科技有限公司 LED (light emitting diode) lamp bulb
CN102504358A (en) * 2011-11-22 2012-06-20 广东石油化工学院 High-heat-conductivity rubber composite material and preparation method thereof

Also Published As

Publication number Publication date
CN103148368A (en) 2013-06-12

Similar Documents

Publication Publication Date Title
CN103012973B (en) High heat conductivity nanocomposite rubber
CN103044785B (en) Ethylene Propylene Terpolymer heat conductive rubber
CN103044784B (en) High-heat-conductivity ternary rubber
CN103148368B (en) Heat-conductive rubber light-emitting diode (LED) lamp and preparation method thereof
CN104774372B (en) A kind of high performance cable flame-proof material and preparation method thereof
JP4681373B2 (en) Thermoplastic resin composition
CN101568599B (en) Heat-conductive resin composition and plastic article
CN102161808B (en) ASA (acrylonitrile-styrene-acrylate) resin with favorable appearance performance and preparation method thereof
CN106566104B (en) A kind of high flow flame-proof masterbatch and preparation method thereof
CN109486473A (en) A kind of multi-functional phase change composite material and preparation method thereof
CN111978699A (en) High-shading thin-wall flame-retardant PC material and preparation method and application thereof
WO2007149783A1 (en) Thermally conductive polymer compounds containing zinc sulfide and thermal carbon black
CN113710857A (en) Novel polyvinyl chloride plastic alloy tile and preparation method thereof
CN105482268B (en) A kind of acrylic plastic compatible agent and preparation method thereof of automotive line
CN101497733A (en) High-performance low-cost flame-retardant ABS/PET alloy material
BR112020020675A2 (en) FOAMED POLYOLEFINE COMPOSITIONS FOR WIRE AND CABLE COATING
CN109651733B (en) Preparation method of flame-retardant and impact-resistant printing base film
KR20140099996A (en) Polyketone resin composition with improved thermal conductivity
CN103013033B (en) Nanometer and high heat conductivity type composite plastic cement
CN104788919A (en) Heat-conducting electric-insulation flame-retardancy-enhanced PBT (polybutylene terephthalate) plastic and preparation method thereof
CN110144077A (en) A kind of polyolefin flame-retardant heat shrinkable label sleeve and preparation method thereof
CN108997718B (en) High-thermal-conductivity halogen-free flame-retardant TPEE elastomer composition
CN103525001A (en) Material for internal and external covers of air conditioner and preparation method thereof
CN103062656B (en) Light-emitting diode (LED) lamp bulb and installing method thereof
CN113462158B (en) Wireless charger shell and wireless charger

Legal Events

Date Code Title Description
C06 Publication
PB01 Publication
C10 Entry into substantive examination
SE01 Entry into force of request for substantive examination
ASS Succession or assignment of patent right

Owner name: ZHAO YUMEI

Free format text: FORMER OWNER: CENG JING

Effective date: 20141115

C41 Transfer of patent application or patent right or utility model
COR Change of bibliographic data

Free format text: CORRECT: ADDRESS; FROM: 266071 QINGDAO, SHANDONG PROVINCE TO: 266033 QINGDAO, SHANDONG PROVINCE

TA01 Transfer of patent application right

Effective date of registration: 20141115

Address after: The city of Anshan city of Qingdao province Shandong two road 266033 No. 62

Applicant after: Zhao Yumei

Address before: 266071 Shandong city of Qingdao province Hongkong City Road No. 32 Minmetals building room 1101

Applicant before: Zeng Jing

C14 Grant of patent or utility model
GR01 Patent grant
C56 Change in the name or address of the patentee
CP02 Change in the address of a patent holder

Address after: 225300 No. 94 middle Yangzi Road, Taizhou high port area, Jiangsu

Patentee after: Zhao Yumei

Address before: The city of Anshan city of Qingdao province Shandong two road 266033 No. 62

Patentee before: Zhao Yumei

CP02 Change in the address of a patent holder

Address after: 542899 No. 25 Jianshe Middle Road, the Guangxi Zhuang Autonomous Region, Hezhou

Patentee after: Zhao Yumei

Address before: 225300 No. 94 middle Yangzi Road, Taizhou high port area, Jiangsu

Patentee before: Zhao Yumei

CP02 Change in the address of a patent holder
TR01 Transfer of patent right

Effective date of registration: 20190613

Address after: 213200 Building 1704, Chuangyan Port, Changzhou Science and Education City, 18 Changwuzhong Road, Wujin District, Changzhou City, Jiangsu Province

Patentee after: CHANGZHOU YUNYI PHOTOELECTRIC TECHNOLOGY DEVELOPMENT CO.,LTD.

Address before: 542899 No. 25 Jianzhong Road, Hezhou, the Guangxi Zhuang Autonomous Region.

Patentee before: Zhao Yumei

TR01 Transfer of patent right
TR01 Transfer of patent right
TR01 Transfer of patent right

Effective date of registration: 20230726

Address after: No. 67, Lulou Industrial Park, Pei County, Xuzhou City, Jiangsu Province, 221600

Patentee after: Xuzhou Jiewei New Material Technology Co.,Ltd.

Address before: 213200 Building 1704, Chuangyan Port, Changzhou Science and Education City, 18 Changwuzhong Road, Wujin District, Changzhou City, Jiangsu Province

Patentee before: CHANGZHOU YUNYI PHOTOELECTRIC TECHNOLOGY DEVELOPMENT CO.,LTD.