CN101393989A - Core component having sealed frame and membrane electrode prepared thereby - Google Patents
Core component having sealed frame and membrane electrode prepared thereby Download PDFInfo
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- CN101393989A CN101393989A CNA2008101970989A CN200810197098A CN101393989A CN 101393989 A CN101393989 A CN 101393989A CN A2008101970989 A CNA2008101970989 A CN A2008101970989A CN 200810197098 A CN200810197098 A CN 200810197098A CN 101393989 A CN101393989 A CN 101393989A
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Abstract
The invention relates to a core component with a sealed frame and a membrane electrode prepared by using the core component. A method for preparing the membrane electrode of the core component with the sealed frame is characterized in that a sealed frame material coated with a sticky glue layer on one surface thereof at the normal temperature is adopted, and a strengthened underlay is attached to the other surface thereof. The sealed frame is overlapped on two surfaces of an ion exchange membrane under the condition that one surface of the ion exchange film is supported. Then, an active area of the ion exchange membrane is coated with a catalyst, and the core component (CCM) with the sealed frame is prepared, and then carries out the hot pressing with a gas diffusion layer with a micropore layer and a gas diffusion layer (GDL), so as to prepare the membrane electrode (MEA).
Description
Technical field
The present invention relates to a kind of core component and reach the membrane electrode of preparation thus with sealed frame.
Background technology
Ion-exchange membrane fuel cell (PEMFC) has high power density; high-energy conversion efficiency; cold-starting; advantages of environment protection; promise to be most the power source of zero disposal of pollutants electric car; make it in today that global energy crisis and environment go from bad to worse, become one of focus of international new and high technology competition.Membrane electrode (MEA) is the most key assembly of ion-exchange membrane fuel cell generating, mainly form by two good porous gas diffusion layer of conductivity and one deck amberplex that is clipped in the middle, on the interface on amberplex and gas diffusion layers both sides, be evenly distributed with the catalyst of the caused electrochemical reaction of a large amount of tiny dispersions, hydrogen/methyl alcohol etc. evenly spread to catalyst surface generation electrochemical reaction through relative gas diffusion layers respectively with oxygen/air, the electronics that produces in the electrochemical reaction is drawn the forming circuit loop by conductor by external circuit.
Amberplex in the ion-exchange membrane fuel cell plays proton conducting, and intercept electronics and directly constitute the loop at inside battery, and the effect that directly contacts of blocking-up hydrogen/methyl alcohol etc. and oxygen/air.In order to reduce the resistance of proton conduction, in the ion-exchange membrane fuel cell field, general in the world used thickness is especially preferentially selected the amberplex of thickness less than 30 μ m less than the amberplex of 50 μ m.Simple use this extremely thin amberplex and when not adopting other encapsulant, at gas percussion, can cause all in the Battery holder process that sealing effectiveness is bad, hydrogen/methyl alcohol etc. directly contact with oxygen/air and influence output performance, even the danger of blast occurs.The encapsulating method that adopts is diverse trends at present, makes the preparation process of membrane electrode various method also occur.
[US3134697, EP700108A2] introduced a kind of membrane electrode, and its amberplex size is greater than gas diffusion layers, and when membrane electrode during in sealing, the amberplex that exceeds gas diffusion layers is sandwiched between the battery pole plates.Also the amberplex that exceeds gas diffusion layers can be clipped between other the seal.This mechanical damage that in assembling, very easily causes film by thickness less than the amberplex of 30 μ m.In use, amberplex very easily is subjected to humidity effect and the change of size, the further mechanical damage of aggravation film takes place.
[CN200480030791.7] introduced a kind of core component and membrane electrode with encapsulant.It adopts thermoplastic polymer, elastic sealed body and thermosetting polymer is encapsulant.There is the encapsulant protection at the edge of amberplex, and gas diffusion layers all adopts encapsulant that negative electrode and anode reactant are completely cut off, and this method can obtain better seal.All adopting the thermoplastic polymer polyamide among embodiment 1 and the embodiment 2 is encapsulant, adopts the mode of hot pressing to make encapsulant and amberplex be combined into an integral body.[CN200380105886.6] introduced a kind of MEA, and amberplex and gas diffusion layers bond by thermoplastics.In the embodiment of this patent, introduced, the mode of thermoplastics by hot pressing has been injected in the gas diffusion layers, amberplex and gas diffusion layers have been bonded to an integral body by the thermoplastics that penetrates in the gas diffusion layers.The embodiment of this patent is the MEA that is told fully by the distributed heat compacting, and every hot pressing all needs a few minutes, and manufacture craft is complicated.
[US6057054] introduced a kind of membrane electrode, and it penetrates into encapsulant in the gas diffusion layers and seals, and encapsulant can extend to outside the gas diffusion layers.Encapsulant can have rib shape and cross rib shape pattern.
[US6261711] introduced the sealing ring of fuel cell, and the sealing ring that fuel cell comprises is positioned at the groove of fuel cell flow field board.
For commercial prod, excellent sealing performance is no doubt important, but can adapt to the method no less important of mass production.Therefore we not only are devoted to study the encapsulant that is suitable for ion-exchange membrane fuel cell, are devoted to study the technology that is applicable to batch process simultaneously.
Summary of the invention
The invention reside in provides a kind of core component with sealed frame to reach the membrane electrode of preparation thus.
A kind of core component and membrane electrode of preparation thus with sealed frame of the present invention, employing be that one side is coated with the sealed frame material that has the viscosity glue-line at normal temperatures, and the substrate strengthened with one deck of the another side of sealed frame material.Simultaneously have at amberplex under the condition of support, laminate sealed frame on two surfaces of amberplex.With the active region of catalyst-coated, be prepared into the core component of band sealed frame then, can prepare membrane electrode with gas diffusion layers that has microporous layers and gas diffusion layers hot pressing again to amberplex.
The method (referring to accompanying drawing) of the membrane electrode of a kind of core component with sealed frame of preparation of the present invention is characterized in that it comprises the steps:
1) laminates one deck at the another side that simultaneously has the amberplex c roll film A of diaphragm 1 and have the sealed frame a roll film B acquisition roll film D that substrate 2 is strengthened, the described roll film B that has the sealed frame a of substrate 2 reinforcements cuts opening M with the spacing centre of rule, and opening M size is with catalyst activity district 4 sizes, laminates by roller compacting as shown in Figure 3 to finish;
2) remove the diaphragm 1 of amberplex roll film A;
3) one deck that laminates of the another side symmetry of the 2 sealed frame a that strengthen has the sealed frame b roll film C acquisition roll film E that substrate 3 is strengthened at the bottom of roll film D belt material, the described roll film C that has the sealed frame b of substrate 3 reinforcements cuts opening N with the spacing centre of rule, and opening N size is with catalyst activity district 5 sizes, laminates by roller compacting as shown in Figure 4 to finish;
4) remove substrate 2 and 3 after, the preparation coated on both sides has the core component of catalyst, method for making is to apply Catalytic Layer in the opening N position of the opening M position of sealed frame a roll film B and sealed frame b roll film C, and the same opening size of the size of two sides Catalytic Layer makes the core component that coated on both sides has catalyst;
5) will have the gas diffusion layers 6 of microporous layers and gas diffusion layers 7 and the core component hot pressing that step 4) makes, prepare a kind of ion-exchange membrane fuel cell with sealed frame with membrane electrode 8.
The amberplex c that selects for use is the polymer film that has the sulfonate group side chain, and be the polymer film that does not contain in the aqueous solution other group that can ionization in the polymer, select perfluorinated sulfonic resin, sulfonation trifluorostyrene, polymethyl-benzene base sulfonic acid siloxanes, sulfonated polyether-ether-ketone, sulfonated polystyrene-polyethylene and ethylene copolymers, sulfonated polystyrene-polyethylene/butylene-polystyrene for use or by the amberplex of the filling porous PTFE preparation of above-mentioned polymer.Wherein the most frequently used is the amberplex of the filling porous PTFE preparation of perfluorinated sulfonic resin and perfluorinated sulfonic resin.Described ion-exchange film thickness 10~90 μ m are preferably less than 50 μ m, most preferably about 25 μ m.Form the preferred Nafion of polymer dielectric of amberplex, the equivalent of Nafion is generally 1200 or littler, preferred equivalent 1000~1100 scopes.
Diaphragm 1 is the polymer film with certain intensity, selects copolymer (ABS), polypropylene (PP), Merlon (PC), polyethylene (PE), polystyrene (PS), polyvinyl chloride (PVC), polyvinylidene chloride (PVDC), polyvinyl alcohol (PVA), polyimides (PI) or the polyamide (PA) film of PETG (PET), polybutylene terephthalate (PBT) (PBT), acrylonitrile (A) and butadiene (B) and three kinds of monomers of styrene (S) for use.1 couple of amberplex c of this diaphragm can play the effect of support.Diaphragm 1 thickness is 0.02~0.5mm, and preferred thickness is 0.05~0.2mm.
Sealed frame a that selects for use and sealed frame b form by one layer of polymeric film and one deck glue.Described polymer film selects for use the copolymer (ABS), polypropylene (PP), Merlon (PC), polyethylene (PE), polystyrene (PS), polyvinyl chloride (PVC), polyvinylidene chloride (PVDC), polyvinyl alcohol (PVA), polyimides (PI), polyamide (PA) of PETG (PET), polybutylene terephthalate (PBT) (PBT), acrylonitrile (A) and butadiene (B) and three kinds of monomers of styrene (S) or other to meet the polymer film of this condition.Sealed frame thickness is 0.01~0.4mm, and preferred thickness is 0.02~0.2mm.Glue-line is made up of the glue that has viscosity under the normal temperature, and its glue is selected from butadiene-styrene rubber, acrylonitrile-butadiene rubber, SIS, SBS, acrylate copolymer, organic silica gel, phenolic resins or Lauxite.The thickness of glue-line is 2~80 μ m, and preferred thickness is 5~40 μ m.
The another side that one side has the amberplex roll film A of diaphragm 1 laminates the sealed frame roll film B that one deck has substrate 2 reinforcements, and laminating is to instigate the amberplex roll film A of diaphragm 1 and the central lines of the sealed frame roll film B that has substrate 2 reinforcements to laminate.The one deck that laminates of the another side symmetry of 2 sealed frames of strengthening has the sealed frame roll film C that substrate 3 is strengthened at the bottom of the amberplex belt material, and it is to instigate the length of opening M and opening N and the central lines of Width to laminate that symmetry laminates.And catalyst activity district 4 sizes and catalyst activity district 5 sizes are identical with opening M and opening N size and position respectively.Catalyst activity district 5 sizes and catalyst activity district 4 are measure-alike, and perhaps catalyst activity district 5 sizes are bigger than catalyst activity district's 4 sizes.At the bottom of the belt material at the bottom of 2 sealed frames of strengthening and the belt material the 3 sealed frame width of strengthening identical or inequality.Pace 0.1~the 5m/min of roll film when laminating, pressure is 0.1~5kg/cm
2
Coated on both sides has the core component of catalyst, and its Catalytic Layer is made of noble metal catalyst and the ionic conduction polymer with ionic conduction function.Noble metal catalyst comprises no loaded catalyst and the catalyst that supports is arranged.Noble metal comprises Pt, Pd, Ru, Rh, Ir, Os, Au, Ag.It is the material of high-specific surface area, good conductivity, good stability that the carrier of the catalyst that supports is arranged, and comprising: graphite, carbon black, carbon nano-tube, carbon fiber, C-SBA-15, fullerene, conducting polymer, Al
2O
3, SiO
2, MgO, TiO
2, molecular sieve.The most frequently used catalyst is that carbon black supports Pt and graphite supports the Pt catalyst.The bullion content that the catalyst that supports is arranged is 10wt%~80wt%, preferred 20wt%~60wt%.The noble metal dosage in catalyst activity district 4 and catalyst activity district 5 is 0.01~2mg/cm
2, preferred 0.05~0.5mg/cm
2Ionic conduction polymer is to select the anionic polymer that has sulfonate group or carboxylate group side chain for use, and be the polymer that does not contain in the aqueous solution other group that can ionization in the polymer, select for use sulfonation perfluorinated resin, carboxylated perfluorinated resin, trifluorostyrene, PSI, polyether-ether-ketone, polybenzimidazoles, polybenzoxazole, polybenzothiozole, polyethylene, poly arylidene thio-ester, polystyrene-poly ethylene copolymer, polystyrene-polyethylene/butylene-polystyrene or other to meet the polymer of this condition.The most frequently used is the sulfonation perfluorinated resin.
Catalytic Layer can be coated to by any method and form core component on the amberplex.Described method comprises manual brushing, silk screen printing, notch bar coating, the coating of coiling rod, carrying liqs coating, slit feed blade coating, spraying or medium transfer printing.Coating can be finished through once being coated with or repeatedly being coated with.
The gas diffusion layers that has microporous layers is made up of gas diffusion layers matrix and microporous layers.The gas diffusion layers matrix is carbon paper, carbon fiber felt or carbon cloth.Microporous layers is that the material and the ptfe emulsion of high-specific surface area, good conductivity, good stability formed.The material of high-specific surface area, good conductivity, good stability comprises graphite, carbon black in the microporous layers of gas diffusion layers.The length of gas diffusion layers and width are not less than catalyst activity district 4, optimize the length be of a size of gas diffusion layers and width than catalyst activity district 4 big 2~8mm.
Characteristics of the present invention are that extremely thin amberplex is laminated with sealed frame under the prerequisite that has diaphragm to strengthen.And the difficult control of the pole of figure under the condition that sealed frame hollows out in the centre has dimensional stability in the course of processing by making it at the bottom of additional one deck reinforcing line.This encapsulating method great facility that has been serialization sealing processing belt, and sealing of the present invention need not heating process and can finish, convenient and swift.Sealed frame can both well support and protect amberplex in the process of preparation core component and membrane electrode, make processing procedure simple.
Description of drawings
Fig. 1-1, Fig. 1-2 are the sealed frame schematic cross-sections that has at the bottom of the reinforcing line
Fig. 2 is the amberplex schematic cross-section of band diaphragm
Fig. 3 is the sealed frame schematic diagram at the bottom of amberplex laminates belt material
Fig. 4 is the sealed frame schematic diagram at the bottom of amberplex laminates belt material
Fig. 5 is the amberplex schematic diagram of band sealed frame
Fig. 6 is the core component schematic diagram of band sealed frame
Fig. 7 is the membrane electrode schematic cross-section of embodiment 1 preparation
Fig. 8 is the membrane electrode schematic cross-section of embodiment 2 preparations
Embodiment
In order to understand the wood invention better, further illustrate content of the present invention below in conjunction with embodiment, but content of the present invention not only is confined to the following examples.
Embodiment 1:
I) the core component preparation of band sealed frame
With DuPont company width is that the Nafion212 film diaphragm on one side of 80mm is taken off, keeps another side diaphragm and Nafion212 film close to combine.With width be the sealed frame of strengthening at the bottom of the belt material of 80mm the Nafion212 film of diaphragm overlaps together with having only on one side by method shown in Figure 3, the sealed frame of strengthening at the bottom of the belt material is laminated on the relative another side of Nafion212 film diaphragm.The polymer film of substrate and sealed frame is the PET material, substrate polymers film thickness 100 μ m, sealed frame polymer film thickness 8 μ m.The glue that adheres on the substrate is the acrylate adhesive (acrylic glue) of 5 μ m, and the glue that adheres on the sealed frame is the acrylic type factice of 10 μ m.Hollow out in the middle of the sealed frame of strengthening at the bottom of the belt material, hollow out and be of a size of 70x70mm.And cut-out is for uniformly-spaced, spacing distance 10mm.
Remove after the diaphragm of Nafion212 film, laminate the sealed frame of strengthening at the bottom of one deck belt material of the same size of same material as stated above equally.
After removing two-layer substrate, by the method for spraying, at the position spraying catalyst that sealed frame hollows out, the result as shown in Figure 6.It is 60% Pt/C catalyst that negative electrode and anode catalyst are all selected mass content for use, cathode catalysis agent content 0.2mg/cm
2, anode-catalyzed agent content 0.05mg/cm
2It is 1100 Nafion resin that Catalytic Layer intermediate ion conducting polymer is selected equivalent for use.The mass ratio of catalyst and ionic conduction polymer is 3: 1 in the Catalytic Layer.
Ii) membrane electrode preparation
The gas diffusion layers 6 and the gas diffusion layers 7 that are of a size of the band microporous layers of 72 x 72mm are hot-pressed onto i) in preparation membrane electrode 8 on the core component of band sealed frame of preparation, as shown in Figure 7.The gas diffusion layers 6 and the gas diffusion layers 7 of band microporous layers are the GDL34BC of SGL company, and hot pressing temperature is 130 ℃, and hot pressing pressure is 1.5Mpa, and hot pressing time is 3 minutes.
Iii) monocell performance test
The membrane electrode 8 of preparation in ii) is assembled in the ion-exchange membrane fuel cell test platform tests.Employing a side have parallel slot to graphite cake be collector plate, end plate is gold-plated corrosion resistant plate.Operating condition is: P
O2=P
H2=OMPa, battery temperature are 60 ℃, and anode 100% humidification, humidification temperature are 70 ℃.In current density is 600mA/cm
2Down, the monocell output voltage is 0.57V, and its power density is for being 0.34W/cm
2
Embodiment 2:
I) the core component preparation of band sealed frame
With DuPont company width is that the Nafion211 film diaphragm on one side of 80mm is taken off, keeps another side diaphragm and Nafion211 film close to combine.With width be the sealed frame of strengthening at the bottom of the belt material of 80mm the Nafion212 film of diaphragm overlaps together with having only on one side by method shown in Figure 3, the sealed frame of strengthening at the bottom of the belt material is laminated on the relative another side of Nafion212 film diaphragm.The polymer film of substrate and sealed frame is polyimide material, substrate polymers film thickness 80 μ m, sealed frame polymer film thickness 20 μ m.The glue that adheres on the substrate is the acrylic glue of 25 μ m, and the glue that adheres on the sealed frame is 30 microns silicon type factice.Hollow out in the middle of the sealed frame of strengthening at the bottom of the belt material, hollow out and be of a size of 70 x 70mm.And cut-out is for uniformly-spaced, spacing distance 10mm.
Remove after the diaphragm of Nafion212 film, laminate the sealed frame of strengthening at the bottom of one deck belt material of same material as stated above equally.Except that the sealed frame cut-out of strengthening at the bottom of the belt material is of a size of the 71 x 71mm, other size is all identical.
After removing two-layer substrate, by the method for silk screen printing, at the position coated catalysts that sealed frame hollows out, the result as shown in Figure 6.It is 60% Pt/C catalyst that negative electrode and anode catalyst are all selected mass content for use, cathode catalysis agent content 0.4mg/cm
2, anode-catalyzed agent content 0.2mg/cm
2Cathod catalyst is coated to and hollows out sealed frame one side that is of a size of 70 x 70mm, and anode catalyst is coated to and hollows out sealed frame one side that is of a size of 71 x 71mm, as shown in Figure 8.It is 1000 Nafion resin that Catalytic Layer intermediate ion conducting polymer is selected equivalent for use.The mass ratio of catalyst and ionic conduction polymer is 3: 1 in the Catalytic Layer.
Ii) membrane electrode preparation
The gas diffusion layers 6 and the no gas diffusion layers 7 that are of a size of the band microporous layers of 72 x 72mm are hot-pressed onto i) in prepare membrane electrode 8 on the core component of band sealed frame of preparation, as shown in Figure 8.The gas diffusion layers 6 and the gas diffusion layers 7 of band microporous layers are the GDL34BC of SGL company, and hot pressing temperature is 130 ℃, and hot pressing pressure is 1.5Mpa, and hot pressing time is 3 minutes.
Iii) monocell performance test
The mea of preparation in ii) installed in the ion-exchange membrane fuel cell test platform test.Employing a side have parallel slot to graphite cake be collector plate, end plate is gold-plated corrosion resistant plate.Operating condition is: PC
O2=P
H2=OMPa, battery temperature are 60 ℃, and anode 100% humidification, humidification temperature are 70 ℃.In current density is 600mA/cm
2Down, the monocell output voltage is 0.72V, and its power density is for being 0.43W/cm
2
Claims (13)
1. method for preparing the membrane electrode of being with sealed frame core component, it is characterized in that: it comprises the steps:
1) laminates one deck at the another side that simultaneously has amberplex (c) roll film (A) of diaphragm (1) and have sealed frame (a) roll film (B) the acquisition roll film (D) that substrate (2) is strengthened, the described roll film (B) that has the sealed frame (a) of substrate (2) reinforcement cuts opening (M) with the spacing centre of rule, and opening (M) size and catalyst activity district (4) are measure-alike, laminate by the roller compacting to finish;
2) remove the diaphragm (1) of amberplex roll film (A);
3) one deck that laminates of the another side symmetry of the sealed frame (a) that (2) are strengthened at the bottom of roll film (D) belt material has sealed frame (b) roll film (C) the acquisition roll film (E) that substrate (3) is strengthened, the described roll film (C) that has the sealed frame (b) of substrate (3) reinforcement cuts opening (N) with the spacing centre of rule, and opening (N) size is measure-alike in catalyst activity district (5), laminates by the roller compacting to finish;
4) remove substrate (2) and (3) after, the preparation coated on both sides has the core component of catalyst, method for making is to apply Catalytic Layer in opening (N) position of opening (M) position of sealed frame (a) roll film (B) and sealed frame (b) roll film (C), the same opening size of the size of two sides Catalytic Layer, making coated on both sides has the core component of catalyst
5) will have the gas diffusion layers (6) of microporous layers and gas diffusion layers (7) and the core component hot pressing that step 4) makes, prepare a kind of ion-exchange membrane fuel cell with sealed frame with membrane electrode (8).
2. the method for the membrane electrode of preparation band sealed frame core component as claimed in claim 1, it is characterized in that: described amberplex (c) is for having the polymer film of sulfonate group side chain, and be the polymer film that does not contain in the aqueous solution other group that can ionization in the polymer, select perfluorinated sulfonic resin for use, the sulfonation trifluorostyrene, polymethyl-benzene base sulfonic acid siloxanes, sulfonated polyether-ether-ketone, sulfonated polystyrene-polyethylene and ethylene copolymers, sulfonated polystyrene-polyethylene/butylene-polystyrene, perhaps by the amberplex of the filling porous PTFE of above-mentioned polymer preparation, described ion-exchange film thickness 10~90 μ m.
3. the method for the membrane electrode of preparation band sealed frame core component as claimed in claim 1, it is characterized in that: sealed frame of selecting for use (a) and sealed frame (b) are formed by one layer of polymeric film and one deck glue, and described polymer film is selected from copolymer, polypropylene, Merlon, polyethylene, polystyrene, polyvinyl chloride, polyvinylidene chloride, polyvinyl alcohol, polyimides or the polyamide membrane of PETG, polybutylene terephthalate (PBT), acrylonitrile and butadiene and three kinds of monomers of styrene; Described glue-line is made up of the glue that has viscosity under the normal temperature, its glue is selected from butadiene-styrene rubber, acrylonitrile-butadiene rubber, SIS, SBS, acrylate copolymer, organic silica gel, phenolic resins or Lauxite, the thickness of described sealed frame (a) and sealed frame (b) is 0.01~0.4mm, and the thickness of described glue-line is 2~80 μ m.
4. the method for the membrane electrode of preparation band sealed frame core component as claimed in claim 1, it is characterized in that: described substrate (2) and substrate (3) are made up of polymer film and glue-line, and described polymer film is selected from copolymer, polypropylene, Merlon, polyethylene, polystyrene, polyvinyl chloride, polyvinylidene chloride, polyvinyl alcohol, polyimides or the polyamide membrane of PETG, polybutylene terephthalate (PBT), acrylonitrile and butadiene and three kinds of monomers of styrene; Described glue-line is that following any one is made up of the glue of cementation at normal temperatures, comprise butadiene-styrene rubber, acrylonitrile-butadiene rubber, SIS, SBS, acrylate copolymer, organic silica gel, phenolic resins, Lauxite, neoprene, butyl rubber, polyurethane adhesive, unsaturated polyester (UP), ethylene-vinyl acetate copolymer, the thickness of the polymer film of described substrate (2) and substrate (3) is 0.02~0.5mm, and the thickness of the glue-line of described substrate (2) and substrate (3) is 2~80 μ m.
5. the method for the membrane electrode of preparation band sealed frame core component as claimed in claim 1 is characterized in that: described catalyst activity district (5) size and catalyst activity district (4) are measure-alike; Perhaps catalyst activity district (5) size is bigger than catalyst activity district (4) size.
6. the method for the membrane electrode of preparation band sealed frame core component as claimed in claim 1, it is characterized in that: the another side that the one side described in the step 1) has amberplex (c) roll film (A) of diaphragm (1) laminates one deck and has the sealed frame roll film (B) that substrate (2) is strengthened, and it laminates is that the central lines of instigating the amberplex roll film (A) of diaphragm (1) and having a sealed frame roll film (B) of substrate (2) reinforcement laminates; The one deck that laminates of the another side symmetry of the sealed frame (a) that (2) are strengthened at the bottom of the amberplex belt material described in the step 3) has sealed frame (b) roll film (C) that substrate (3) is strengthened, and it is to instigate the opening (M) and the length of opening (N) and the central lines of Width to laminate that its symmetry laminates.
7. the method for the membrane electrode of preparation band sealed frame core component as claimed in claim 6 is characterized in that: roll film pace 0.1~5m/min when laminating, pressure is 0.1~5kg/cm
2
8. the method for the membrane electrode of preparation band sealed frame core component as claimed in claim 1 is characterized in that: catalyst activity district (4) and catalyst activity district (5) overlap on length and Width with opening (M) and opening (N) respectively.
9. the method for the membrane electrode of preparation band sealed frame core component as claimed in claim 1 is characterized in that: described coated on both sides has the Catalytic Layer of the core component of catalyst to be made of noble metal catalyst and the ionic conduction polymer with ionic conduction function.
10. the method for the membrane electrode of preparation band sealed frame core component as claimed in claim 9 is characterized in that: described noble metal catalyst comprises no loaded catalyst and the catalyst that supports is arranged; Wherein, noble metal comprises Pt, Pd, Ru, Rh, Ir, Os, Au, Ag; It is the material of high-specific surface area, good conductivity, good stability that the carrier of the catalyst that supports is arranged, and comprising: graphite, carbon black, carbon nano-tube, carbon fiber, mesoporous si molecular sieves C-SBA-15, fullerene, conducting polymer, Al
2O
3, SiO
2, MgO, TiO
2
11. the method for the membrane electrode of preparation band sealed frame core component as claimed in claim 10 is characterized in that: described the bullion content of the catalyst that supports is arranged is 10wt%~80wt%; The noble metal dosage of catalyst activity district (4) and catalyst activity district (5) is 0.01~2mg/cm
2
12. the method for the membrane electrode of preparation band sealed frame core component as claimed in claim 10, it is characterized in that: described ionic conduction polymer is selected the anionic polymer that has sulfonate group or carboxylate group side chain for use, and be the polymer that does not contain in the aqueous solution other group that can ionization in the polymer, select the sulfonation perfluorinated resin for use, carboxylated perfluorinated resin, trifluorostyrene, PSI, polyether-ether-ketone, polybenzimidazoles, polybenzoxazole, polybenzothiozole, polyethylene, poly arylidene thio-ester, the polystyrene-poly ethylene copolymer, perhaps polystyrene-polyethylene/butylene-polystyrene.
13. the method for the membrane electrode of preparation band sealed frame core component as claimed in claim 1, it is characterized in that: the described gas diffusion layers that has microporous layers is made up of gas diffusion layers matrix and microporous layers, and described gas diffusion layers matrix is carbon paper, carbon fiber felt or carbon cloth; Described microporous layers is carbon black or the graphite and the ptfe emulsion composition of high-specific surface area, good conductivity, good stability.
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CN101800298A (en) * | 2010-03-11 | 2010-08-11 | 武汉理工新能源有限公司 | Frame laminate material and application thereof in preparing membrane electrode with sealed frame core component |
CN102823040A (en) * | 2010-03-26 | 2012-12-12 | 凸版印刷株式会社 | Method for manufacturing fuel cell membrane electrode assembly and apparatus for manufacturing fuel cell membrane electrode assembly |
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