ba-1969-0090.ix001

clock. 353 power generation program,. USAMECOM-MERDC fuel cell. 315 shaver ..... Radio. 353. Radiochemical technique. 271. Raney catalyst. 70 nickel. ...
0 downloads 0 Views 625KB Size
INDEX

Downloaded by 80.82.77.83 on May 17, 2017 | http://pubs.acs.org Publication Date: June 1, 1969 | doi: 10.1021/ba-1969-0090.ix001

A Acid electrolyte 354 cells 380 fuel cell program, low tem­ perature 354 Acid matrix fuel cell batteries, re­ formed natural gas 354 Adsorbed products 225 Adsorbed species 192 Adsorption 137 of benzene and cyclohexane . . . 190 of carbon monoxide on platinum and rhodium electrodes . . . 114 of hydrocarbons on noble metal electrodes 223 of propane 178,232 Aging of nickel hydroxide 6, 9 Ag/Zn batteries 415 Air 377 cathode 395 diffusion cathodes 13 electrode 13,301,313 indium oxide 306 indium sesquioxide 311 Air-fuel flow rates 438 Air-liquid fuel primary cells 341 Air system, liquid decane 333 Air-zinc primary cells 341 Alkali electrolyte cells 380 Alkaline cells 341 Alkaline electrolyte, oxygen reduc­ tion on gold alloys in 102 Alkanes at platinum anodes in fuel cells, performance of normal.. 162 Alloys of Au/Ag 103 Alloys of Au/Pd 103 Alloys of Au/Pt 103 Anion structure 232 Anode, gas-side limitations of an in­ ternal reforming hydrocarbon 41 Anode, nickel 281 Anodes in fuel cells, performance of normal alkanes at platinum . . 162 Anode structure 330 Anodic hydrocarbon oxidation, Pt-black for 151 Anodic oxidation of carbon mon­ oxide and formic acid on plati­ num covered with sulfur . . . . 128 Anodic oxidation of cyclic hydro­ carbons 188 Anodic stripping 117 Antimony 302-3 Apollo space program 60

Application to new hybrid systems 392 Applications, fuel cell 316 Aromatics 188,200-1 Au/Ag, alloys of 103 Au/Pd, alloys of 103 Au/Pt, alloys of 103 Automobile, hybrid system for the urban 415 performance of electric 413 power requirements for small urban 411 power sources 411 for an urban 414, 416 Β Batteries, metal-air Battery design Battery engineering Benzene adsorption of Binary fuels Butane

13 430 358 202 190 204 402

C Carbonaceous fuels 402 Carbonate fuel cells, molten 269 Carbonates, single gas electrodes in molten 242 Carbonates, thermodynamic behav­ ior of electrodes in molten alkali 251 Carbon dioxide 354,372 high-area 395 hydrophobic active 344 monoxide 131,135, 357, 373 on platinum and rhodium elec­ trodes, adsorption of . . . . 114 on platinum covered with sul­ fur, anodic oxidation of . . 128 Catalyst cost 364 model, ideal 56 silver powder as an oxygen . . . . 93 Cathodes air diffusion 13 fuel cell 102 cathode polarization 98, 275 silver 281 structure 331 Cell performance characteristics . . 61 Cells acid electrolyte 380

441

Baker; Fuel Cell Systems-II Advances in Chemistry; American Chemical Society: Washington, DC, 1969.

442

FUEL

alkali electrolyte 380 low temperature 380 molten-electrolyte 382 solid electrolyte 382 cell-voltage-current charac­ teristics 438 central station power, fuel cells for 383 CF3COOH 178,234 Chloroplatinic acid 153 i^C-labeled LiNaC0 271 CO 397 C O / C 0 / A u electrode 251 CO, steady-state oxidation of . . . . 115 C0 397 C 0 / A u electrode 257 Coal-fuel cell power grid 386 Coal reacting fuel cells, high temperature 301 Cobalt phthalocyanine 395 Commuter busses 421 Commuter trains 421 Conductivity of Raney nickel, electronic 7 Contact resistance losses 309 3

2

2

Downloaded by 80.82.77.83 on May 17, 2017 | http://pubs.acs.org Publication Date: June 1, 1969 | doi: 10.1021/ba-1969-0090.ix001

2

C0OAI2O3

·.

Corrosion of silver Costs, fuel cell powerplant Current densities in molecular units Cycle inter-relationships Cyclic hydrocarbons, anodic oxida­ tion of Cyclohexane adsorption of Cyclohexyl compounds

395

100 364 389 169 319 188 208 190 189

D Decane 329 air system, liquid 333 Dilatometer 33-6 Diffusivity, effective 58 Diffusivity of hydrogen, molecular 58 Direct fuel cells 401 Direct hydrocarbon fuel cells . .162, 188 Double skeleton catalyst 1 D-size cell 343 DSK anode, overloading a Raney nickel 4 DSK electrodes, mechanism of Raney nickel 1 DSK nickel anodes, oxidation vs. porosity of 3 Dual-matrix 427 Dual pore nickel electrode cell . . . 64

Ε Effective diffusivity Electric auto, performance of clock

58 413 353

CELL

SYSTEMS

II

power generation program, USAMECOM-MERDC fuel cell 315 shaver 353 Electrocatalyst supports 395 Electrocatalytic activity for O2reduction 102 Electrochemical hydrocarbon oxidation, effect of electrolyte on 231 oxidation of multicomponent hydrocarbon fuels 200 performance 436 Electrode air 13 C0 /Au 257 CO/CO2/A11 251 -electrolyte resistance 299 evaluation 356 gas penetration into a porous gas diffusion 27 with a nickel catalyst, porous hydrogen 70 O2/CO2/A11 254 oxygen reduction at a porous silver 81 steady steady state behavior of CH4/H2O electrode 47 structure 395 transient behavior of CH4/H2O 51 Type Ε 14 wetted porous gas diffusion . . . . 24 Electrodes gas diffusion 1 mechanism of Raney nickel DSK 1 metal-ceramic two layer 82 in molten carbonates, single gas 242 near equilibrium, kinetic behav­ ior of 262 PTFE bonded gas . 15 Electrolyte on electrochemical hydrocarbon oxidation, effect of 231 film, structure of the 32 for molten carbonate fuel cells . . 269 resistance 36 stability 270 Electronic conductivity of Raney nickel 7 Electrovan, GM 396,414 Engineering accomplishments . . . . 320 Equilibrium, kinetic behavior of electrodes near 262 Equivalent electric circuit 171 Ethylene glycol 359 2

F Film hypothesis network tortuosity Five cell battery Five component fuel

Baker; Fuel Cell Systems-II Advances in Chemistry; American Chemical Society: Washington, DC, 1969.

24 32 37 336 211

443

Downloaded by 80.82.77.83 on May 17, 2017 | http://pubs.acs.org Publication Date: June 1, 1969 | doi: 10.1021/ba-1969-0090.ix001

INDEX

Flashing buoys 343 Formaldehyde 153 reduction of Pt-black 151 Formate 341,343 as fuel 351 Formic acid 133, 136 on platinum covered with sulfur, anodic oxidation of 128 Free electrolyte cell 68 Fuel cell applications 316 batteries, reformed natural gas acid matrix 354 battery, liquid hydrocarbon . . . . 328 500-watt matrix 361 costs 364 electric power generation proelectric power generation program, USAMECOMMERDC 315 performance 403 power generation 385 power plant 387,390 costs 389 power systems, hydrocarbons in 366 and the reformer, integration of the 399 -secondary cell hybrid systems . . 410 Fuel cells for central station power 383 high temperature coal reacting . . 301 Fuel utilization 363 Fused-salt electrolytes 406

G Gas diffusion electrodes 1 gas penetration into porous..... 27 wetted porous '. . . . 24 Gas electrodes in molten carbonates, single 242 platinum-Teflon 330 Gas penetration into a porous gas diffusion electrode 27 Gas-side rate limitations of an internal reforming hydrocarbon anode 41 Gemini space program 60 Glass-fiber matrix 358 GM Electrovan 396,414 Gold alloys in alkaline electrolyte, oxygen reduction on 102 Ground power 315 Grove-type fuel cell 377

H H -CO/air fuel cells Helium High-area carbon High area nickel High surface area silver powder . . 2

398 235 395 395 93

High temperature coal reacting fuel cells 301 Home hybrid power sources 419 power requirements for a 417 power sources for a 416,418 H3PO4 223,234 Hybrid system 393 for the urban automobile 415 application to new 392 fuel cell-secondary cell 410 Hydrazine 320 cell 401 hydrate 402 Hydrocarbon additives 200 anode 165 gas-side rate limitations of an internal reforming . . . . . . 41 cells, direct 162 fuel cell battery, liquid 328 fuels 60 sulfur-free 397 electrochemical oxidation of multicomponent 200 oxidation effect of electrolyte on electrochemical 231 kinetics , 171 Pt-black for anodic 151 on Pt, mechanism of saturated 223 reforming systems 366-7 Hydrocarbons anodic oxidation of cyclic 188 in fuel cell power systems 366 on noble metal electrodes, oxidation and adsorption of . . . . 223 Hydrofoil boats 421 Hydrogen 366,394,427 adsorption isotherm 125 adsorption on Pt and Rh electrodes 115 electrodes 70 metalloceramic 70 generator development 355 impure 372 molecular diffusivity of 58 -oxygen fuel cells 60, 93 steady-state oxidation of 115 hydrophobic active carbon 344

I Ideal catalyst bed 44 Ideal catalyst model 56 Idle wire electrodes 242,249 Impure hydrogen 372 Inactivation of catalyst by Ni (OH) 2 coating layers 4 Indirect fuel cells 394,426" Indium oxide 302-3,305 air electrode 306 films 301,308

Baker; Fuel Cell Systems-II Advances in Chemistry; American Chemical Society: Washington, DC, 1969.

444

FUEL

Indium sesquioxide . . . . 304, 309, 312-3 air electrodes 311 Industrial trucks 421 Integrated reformer/air fuel cells . . 400 Internal reforming hydrocarbon an­ ode, gas-side limitations of an 41 Interstice model 30-1 Interstice tortuosity 34

JP 150

397

Downloaded by 80.82.77.83 on May 17, 2017 | http://pubs.acs.org Publication Date: June 1, 1969 | doi: 10.1021/ba-1969-0090.ix001

Κ

Kerosene 371,374 Kinetic behavior of electrodes near equilibrium 262 Kinetics, hydrocarbon oxidation . . 171 KOH electrolyte 397

Lighting 353 LiNaC0 , i4C-labeled 271 LiNaC0 , molten 270 Liquid decane-air system 333 Liquid fuel 401 air primary cell 341 Liquid hydrocarbon fuel cell battery 328 Lithium/selenium cell 406,409-10 Lithium/tellurium batteries ...407,414 Lithium/tellurium cell 406,408-10,415,417 Lockheed fuel cell battery 426 Low-temperature acid electrolyte fuel cell program 354 cells 380 natural gas fuel cell battery . . . . 426 3

3

M Macropores 83 Mass transfer 44 Mass transportation 389 Matrix cell 16 Matrix degradation 357 Mechanism of Raney nickel DSK electrodes 1 Mechanisms of saturated hydrocar­ bon oxidation on platinum . . . 223 Melting snow 389 Metal-air batteries 13 Metal-ceramic two layer electrodes 82 Metalloceramic hydrogen electrodes 70 Methanation reaction 369 Methane 354 reforming 42 Methanol 341, 343, 397, 399, 402 air fuel cells 406 as fuel 351

CELL

SYSTEMS

1\

Methylcyclohexane 212 Methylcyclopentane 212 MHD power generation 385 Micropores 83 Microskeletons 1 Military applications 316 Module design 429 Moisture management 357 Molecular diffusivity of hydrogen . . 58 Molten carbonate fuel cells . . . .269, 399-400 carbonates, single gas electrodes in 242 -electrolyte cells 382 LiNaCOs 270 lithium 406 tellurium 406 MPP 232 MSP 233 Multipulse potentiodynamic technique 232 Multistep potentiostatic relaxation method 233 Ν

Naphthenes 188,200-1 Natural gas 354,377 acid matrix fuel cell batteries, reformed 354 fuel cell battery, low-temperature 426 Nickel anode 281 -based electrocatalysts 401 boride 395,402 catalyst, porous hydrogen elec­ trode with a 70 -containing catalysts 371 DSK electrodes mechanism of Raney 1 electrode 81 cell, dual pore 64 high area 395 hydroxide 2 aging of 9 coating layers, inactivation of catalyst by 4 layers, aging of 6 Raney 395 screen 344 Noble metal 356 electrodes 114 adsorption and oxidation of hydrocarbons on 223 Non-uniform flow 52 Nuclear fusion power generation . . 385 Ο

0 / C 0 / A u electrode η-Octane Octane performance Olefins 2

2

254 202 189 188,200-1

Baker; Fuel Cell Systems-II Advances in Chemistry; American Chemical Society: Washington, DC, 1969.

445

Downloaded by 80.82.77.83 on May 17, 2017 | http://pubs.acs.org Publication Date: June 1, 1969 | doi: 10.1021/ba-1969-0090.ix001

INDEX

Open circuit conditions, reactions under Overloading a Raney nickel DSK anode Oxidation of carbon monoxide and formic acid on platinum covered with sulfur of cyclic hydrocarbons, anodic . . effect of electrolyte on electrochemical hydrocarbon . . . . of hydrocarbons on noble metal electrodes kinetics, hydrocarbon of multicomponent hydrocarbon fuels, electrochemical vs. porosity of DSK nickel anodes Oxidative process Oxygen adsorption on Pt and Rh electrodes catalyst, silver powder as an . . cathodes reduction on gold alloys in alkaline electrolyte reduction at a porous silver electrode

135 4

128 188 231 223 171 200 3 368 115 93 396 102 81

Palladium 102 diffuser 328 -silver diffuser 370 Parasitic power requirements . . . . 434 Passenger boats 421 Pd-Ag anode 41 Pentene-1 206 Performance, fuel cell 403 Performance of electric auto . . . . 413 Performances, fuel cell systems . .404-5 Phosphoric acid, capillary matrix cells 356 Phthalocyanines 395 Platinum 102, 355, 364, 395, 397 anodes in fuel cells, performance of normal alkanes at 162 -black for anodic hydrocarbon oxidation 151 -black, preparation of 151 covered with sulfur, anodic oxidation of carbon monoxide and formic acid on 128 electrode 178,232 adsorption of carbon monoxide on 114 hydrogen and oxygen adsorption on 115 Raney 138-9 mechanism of saturated hydrocarbon oxidation on 223 -Ru alloys 398 -Ru anode electrocatalyst 401 -Teflon gas electrodes 330

Platinoid element electrocatalysts 394,401 Polarization 309, 361-2, 438 curves 73 phenomena 282 of silver electrodes 281 Porosity of DSK nickel anodes; oxidation vs 3 Porous gas electrodes 70 gas penetration into a 27 wetted 24 hydrogen electrode with a nickel catalyst 70 silver electrode, oxygen reduction at 81 Post-platinization technique 16 Power center 388 fuel cells for central station . . . 383 generation fuel cell 385 MHD 385 nuclear fusion 385 program, USAMECOMMERDC fuel cell electric 315 thermionic 384 thermo-electric 384 plant, fuel cell 387 requirements for a home 417 for small urban auto 411 sources : for a home 416, 418 for submarines 420 for an urban automobile . . 414, 416 system efficiences 381 systems, hydrocarbons in fuel cell 366 Propane 402 adsorption 178, 232 Preferential oxidation 222 Preparation of Pt-black 151 Prereactor cell 55 PTFE bonded gas electrodes . . . 15, 396 Pulsed power fuel cells 60 R Radiant heating 389 Radio 353 Radiochemical technique 271 Raney catalyst 70 nickel 395 DSK electrodes, mechanism of 1 electronic conductivity of . . . 7 platinum electrode 138-9 Reactions under open circuit conditions 135 Recent advances in fuel cells . . . . 392 Recycle loop 54 Reference electrodes 242-3, 246

Baker; Fuel Cell Systems-II Advances in Chemistry; American Chemical Society: Washington, DC, 1969.

446

FUEL

Downloaded by 80.82.77.83 on May 17, 2017 | http://pubs.acs.org Publication Date: June 1, 1969 | doi: 10.1021/ba-1969-0090.ix001

Reformed natural gas acid matrix fuel cell batteries . . 354 and air 426 Reformer, integration of the fuel cell and the 399 Regenerative braking 411,414 Residual resist­ ance 288, 290-2,294, 296-9 Reverse current 311,314 Reversibility, test of 259 Rhodium 364 electrodes adsorption of carbon monoxide on 114 hydrogen and oxygen adsorp­ tion on 115

Secondary cells 406 Silent power sources 315-16, 326 Silver 102,395,402 cathodes 281 corrosion 100, 273 electrode, oxygen reduction at a porous 81 oxalate, decomposition of 94 -palladium alloy diffuser 397 powder 94 on an oxygen catalyst 93 high surface area 93 -zinc batteries " . . . 414 Silica filled T F E 335 Single gas electrodes in molten carbonates 242 Sixteen cell module 428,430 Solid electrolyte fuel cells 281,382 Speed boats 421 Spinels 395,402 Stannic oxide films 301,307 Steady state behavior of C H 4 / H 2 O electrode 47 Steady-state oxidation of CO and H 115 Steam-hydrocarbon reaction equilibria 370 Steam reforming 354, 368 reaction 369 Structure of the electrolyte film . . 32 Submarine power source 419,421 Submarines 421 Sulfur 371 anodic oxidation of carbon mon­ oxide and formic on plati­ num covered with 128 chemisorbate 130 -free hydrocarbon fuel 397 Sulfuric acid 426 Systems approach 318 2

Tafel plots

166

CELL

SYSTEMS

II

Tantalum mesh 427 Tape recorder 353 TARGET fuel cell program . . .267, 377 Teflon film 331 Teflon gas electrodes, platinum- . . 330 Tellurium 302-3 Test of reversibility 259 Thermionic power generation . . . 384 Thermodynamic behavior of elec­ trodes in molten alkali car­ bonates 251 Thermo-electric power generation 384 Tin 302-3 dioxide 302 oxide 304,306 Tortuosity factor 37 Transient behavior of C H 4 / H 2 O electrode 51 oxidation 11 response 21,62 Transistor radio 352 Trapped electrolyte cell 63-7 TV relay station 343 Type Ε electrode 14

U USAMECOM-MERDC fuel cell electric power generation program

315

V Vehicle applications Vehicular power Vehicular propulsion Volkswagen

411 318 315 412

W Walkie-talkie-set 353 Water-gas shift 43 reaction 369 Watt matrix fuel cell battery, 500- 361 Wetted porous gas diffusion electrode 24 Wide boiling range fuels 337 X

m-Xylene

212 Ζ

Zinc -air primary cell cell foil Zirconia ceramic electrolyte electrolytes

341 352 345 304,307-8 301 281

Baker; Fuel Cell Systems-II Advances in Chemistry; American Chemical Society: Washington, DC, 1969.