| Topic |
Description |
Ref |
| Aluminium |
| |
grades of aluminium anodes for aluminium/air batteries |
16,29 |
| Aluminium anode
primary batteries |
| |
aluminium-air batteries |
11,267 |
| |
Al-air cells-potential small generators for field
use |
8,523 |
| |
anodes for high energy density aluminium batteries
|
13,193 |
| |
computer modelling of an aluminium-air battery,
|
14,217 |
| |
development of aluminium-air batteries |
12,363 |
| |
enhanced performance from Al/H2O2 semi-fuel cell
|
16,30 |
| |
grades of aluminium anodes for aluminium/air batteries
|
16,29 |
| |
neutral electrolyte aluminium-air battery |
7,353 |
| |
use of aluminium-air batteries for traction. |
6,361 |
| Aluminium reserve/mechanically
rechargeable batteries |
| |
aluminium alloy-trichlorotriazinetrione reserve
battery. |
4,63 |
| |
aluminium alloy-trichlorotriazinetrione reserve
battery. |
5, 447 |
| |
aluminium-air batteries |
11,267 |
| |
aluminium-air battery with automatic feeding of
Al |
13,245 |
| |
development of aluminium-air batteries |
12,363 |
| |
l20 W / 24 V Al-air battery for military applications
|
13,213 |
| |
secondary Al-metal sulphide batteries with molten
NaAlCl4 |
10,1 |
| AC heating |
| |
warming lead-acid batteries using alternating
current. |
A, (u) |
| Airworthiness |
| |
airworthiness of Li batteries. 2: practical ®ulatory
issues |
15,339 |
| |
airworthiness of Li batteries. 1: development
of a standard, |
15,327 |
| Analytical methods |
| |
analysis of materials for lead-acid battery manufacture.
|
C,439 |
| |
dta of the positive active material of the lead-acid
battery. |
1,179 |
| |
microelectrode sensors for battery reactions,
|
15,253 |
| |
surface analysis of the Li electrode in organic
elect. by AFM and SAM, |
15,267 |
| Applications |
| aircraft |
| |
charge stability of aircraft batteries: its effect
on design |
B,(27) |
| |
charge stability of high performance aircraft
batteries |
B,(27) |
| |
constant pot. recharge of lead-acid aircraft batteries
|
C,149 |
| |
design and development of lead-acid aircraft batteries
|
D,401 |
| |
gassing rates of automotive batteries. |
5,123 |
| |
heating effects in aircraft batteries |
A,(v) |
| |
low maintenance battery for aircraft applications
|
6,103 |
| |
modern lead-acid battery designs for aircraft.
|
6,25 |
| |
primary battery-powered unmanned aircraft |
9,527 |
| |
problems with perf. and servicing of batteries
in aircraft |
C,1 |
| |
recent improvenents in aircraft Ni-Cd cells |
8,459 |
| electric vehicles |
| |
high power density lead-acid battery for EVs |
4,541 |
| |
new iron-nickel cell and battery for EVs |
6,111 |
| |
alkali metal-chalcogen batteries in urban transportation.
|
3,265 |
| |
design of a high power density lead-acid battery
for EVs |
4,541 |
| |
electric cars - third time lucky? |
15,1 |
| |
high power density, semi-bipolar, lead-acid for
electric hybrids, |
15,183 |
| |
lithium-metal sulphide battery for electric vehicles
|
8,337 |
| |
nickel/metal hydride technology for consumer and
EVs |
16,1 |
| |
Ni-Zn battery, application to the hybrid vehicle
|
8,357 |
| |
performance of a iron-nickel cell and battery
for EVs. |
6,111 |
| |
performance of european lead-acid batteries for
EVs |
9,85 |
| |
studies of flat-plate lead-acid under EV service
|
11,103 |
| |
study of lead-acid under electric-vehicle service
|
10,459 |
| |
study of pulse response of EV battery systems
|
13,35 |
| |
tubular plate lead-acid battery system for EVs
|
12,93 |
| |
zinc-air battery for electric vehicle applications
|
4,347 |
| |
zinc-bromine storage battery for EVs |
5,167 |
| electronic equipment |
| |
British Gas lithium primary battery safety test
programme, |
15,317 |
| |
long life silver oxide-zinc primary cells for
electronic |
8,141 |
| |
on the use of batteries as timing devices. |
B,(29) |
| medical |
| |
design of batteries for cardioverter defibrillators,
|
15,349 |
| |
discharge and safety of low magnetic lithium cells
|
16,18 |
| |
electrical microgenerators for medical use. |
4,615 |
| |
electrochemical power sources - modern health
care |
16,B |
| |
high rate Li/MnO² batteries - the double
cell concept |
16,20 |
| |
improved Ni-Zn battery for ventricular-assist
systems |
16,17 |
| |
Li-SOCl² batteries for implantable medical
applications |
10,129 |
| |
modelling of lithium batteries for implantable
applications, |
14,167 |
| |
performance of a long-life pacemaker cell |
5, 651 |
| |
reliable batteries for implantable medical applications
|
16,16 |
| military |
| |
H² storage for fuel cells with man-portable
equipment |
16,28 |
| |
l20 W / 24 V Al-air battery for military applications
|
13,213 |
| |
lead-acid batteries under pulsed discharge conditions.
|
6,35 |
| |
lithium primary batteries for military field operations
|
6,469 |
| |
military sealed Ni-Cd batteries. |
3,191 |
| |
pimary reserve-type zinc-air battery for military
man packs |
6,291 |
| |
themoelectric heater for low temp.op. of military
vehicles |
8,183 |
| |
use of lithium primary batteries for military
operations. |
6,469 |
| portable equipment |
| |
batteries for cordless power equipment. |
3,211 |
| |
batteries for television receivers. |
B,(23) |
| |
batteries for use in navy emergency hand lanterns
|
D,445 |
| |
Li-ion cells and batteries for radio-communications
applications, |
15,221 |
| portable power |
| |
Al-air cells-potential small generators for field
use |
8,523 |
| rescue equipment |
| |
reliability of lithium batteries in search and
rescue beacons |
16,15 |
| space |
| |
20Ah Ni-Cd cell used on orbiting astronomical
laboratory. |
4,277 |
| |
50 to 100 Ah lithium-ion cells for aerospace |
16,23 |
| |
advanced dependent pressure vessel nickel-hydrogen
spacecraft battery |
5,85 |
| |
advanced Ni/H² dependent pressure vessel
cell &battery |
16,4 |
| |
Ag-Zn for synchronous orbit and planetary missions.
|
4,185 |
| |
cell system for the UK3 satellite. |
1,593 |
| |
charge studies for aerospace nickel-cadmium batteries.
|
2, 199 |
| |
evaluation of nickel hydride technology for space
applications, |
15,83 |
| |
individual pressure vessel nickel/hydrogen cells
|
11,215 |
| |
nickel-hydrogen cells for satellite applications
|
12,379 |
| |
Ni-H² battery flight experiment. |
6,231 |
| |
power in satellites using solar cells and batteries.
|
C,387 |
| |
progress in development of Li polymer battery
for space power, |
15,315 |
| |
regenerable fuel cells for space stations |
10,291 |
| |
sealed silver-cadmium batteries for use in space.
|
1,411 |
| |
silver oxide-zinc battery for synchronous orbit
|
4,185 |
| |
solar cell system for the UK3 satellite |
1,593 |
| |
some methods of spacecraft battery control. |
D,489 |
| |
20Ah nickel-cadmium cell used on the orbiting
astro. ob. |
4,277 |
| |
bipolar lithium-ion battery development |
16,21 |
| stationary power |
| |
perf. of lead-acid for remote-area power supply
|
13,1. |
| |
stationary batteries in the british post office.
|
B,(31) |
| submarines |
| |
interaction of a pem fuel cell and a lead-acid
battery |
16,26 |
| |
sodium-sulphur batteries for naval applications,
|
15,421 |
| |
stibine and arsine emissions from submarine lead-acid
cells, |
14,33 |
| traction |
| |
future of fuel cells and rechargeable batteries
in rail traction |
2,547 |
| |
influence of op. conditions on design of lead-acid
traction |
B,(15) |
| |
iron-air battery systems for traction purposes.
|
5,283 |
| |
nickel oxide-iron battery developed for traction
purposes |
8,379 |
| |
optimization of Fe-air and nickel oxide-Fe traction
batteries |
7,329 |
| |
problems in the use of aluminium-air for traction
|
6,361 |
| |
sealed rechargeable Fe-O² battery for traction
|
8,513 |
| |
design and behaviour of lead-acid traction batteries. |
B,15 |
| underwater equipment |
| |
improvements in the rate capability of the Mg/dissolved
oxygen seawater cell, |
15,149 |
| |
seawater batteries for long term applications
|
13,307 |
| |
seawater battery for subsea control systems |
16,39 |
| |
thermal modelling of a lithium torpedo battery
|
11,473 |
| underwater vehicles |
| |
fuel battery for underwater application |
3,405 |
| |
high energy density lithium rechargeable batteries
for underwater vehicles, |
14,257 |
| |
improved silver/zinc secondary cells for underwater
|
16,6 |
| |
magnesium-seawater power source for autonomous
underwater vehicles, |
14,243 |
| |
performance of a sodium-sulphur battery system
in a test bed autonomous underwater vehicle, |
14,327 |
| weapons |
| |
battery reliability in guided weapons. |
B,(13) |
| |
devt. of polymer electrolyte battery for high-g
telemetry, 1 |
5,295 |
| |
high impact battery. |
A, (qq) |
| |
high-G power sources for U.S. Army's HSTSS program
1 |
6,40 |
| |
lead-lead dioxide perchloric acid reserve cells
|
7,677 |
| |
lead-lead dioxide reserve batteries 1 |
1,359 |
| |
Li-V205 reserve battery for ordinance applications
1 |
0,10-1 |
| |
novel design for a lead/lead dioxide reserve battery
|
8,199 |
| |
single-shot wet primary batteries for special
applications |
A,(e) 30 |
| |
solid polymer fuel cells for pulse power delivery
1 |
6,27 |
| |
the use of batteries in guided missiles. |
B,(14) |
| |
thermal batteries for high-spin applications 1 |
0,55 |
| |
requirements of the satellite user in late 1980s
an32d 1990s |
9,247 |
| Biological batteries |
| |
miniature microbial bio-batteries 1 |
1,373 |
| Bipolar electrodes |
| |
bipolar lithium-ion battery development 1 |
6,21 |
| Bromine |
| |
bromine storage in zinc-bromine batteries 1 |
3,237 |
| |
rechargeable zinc-carbon hybrid cells 1 |
6,12 |
| Bulk energy storage |
| |
batteries for bulk storage on the UK supply system.
|
6,627 |
| |
fuel cells for large-scale power generation.
|
C,277 |
| |
rechargeable quinone battery for load levelling
|
6,643 |
| Cadmium electrodes |
| |
behaviour of cadmium in alkaline media |
11,203 |
| |
cadmium electrodes with improved surface characteristics
|
7,141 |
| |
capacity loss by porous cd electrodes during
cycling. |
5, 183 |
| |
crystal habit and surface properties on Cd(OH)²
electrodes |
D, 93 |
| |
development of thin nickel and cadmium electrodes
|
11,179 |
| |
effects of cadmium on nickel electrodes |
12,235 |
| |
mechanism of the cadmium negative electrode |
1,269 |
| |
negative electrode of Ni-Cd cells with sintered
plates. |
D, 107 |
| |
passivation of a porous cadmium electrode in
KOH |
4,401 |
| |
passivation of a porous cadmium electrode in
KOH |
4,401 |
| |
plastic bonded Cd electrodes prepared by rolling
technique. |
6,181 |
| |
plastic-bonded Ni-Cd for extra high discharge
rate |
12,197 |
| |
reactive deposition of active battery plates
(Fe and Co) |
13,133 |
| |
study of Cd and Fe anode dissolution and precipitation
|
7,249 |
| Cadmium anode primary
batteries |
| |
longest life alkaline primary cells |
7,533 |
| Cadmium anode reserve
batteries |
| |
single-shot primary batteries for special applications
|
A, (e) |
| Cadmium anode secondary
batteries |
| non-sintered grids |
| |
behaviour of CMG in nickel-cadmium cells |
8,427 |
| |
controlled-micro-geometry electrode |
7,171 |
| |
nickel-cadmium traction in FNC fibre-technology
|
13,165 |
| -nickel oxide, mass-plate |
| |
alkaline accumulator with Cd treated with oxalic
acid |
7,239 |
| |
cause of "stepped" discharge curves in Ni-Cd
cells. |
6,161 |
| |
development of an improved sealed Ni-Cd battery. |
1,349 |
| |
incorporation of the active mass into sintered
electrodes |
6,201 |
| |
miniature cells for high-rate discharge |
B,(24) |
| |
"graphite discharge step" in accumulators and
inhibition. |
B, (6) |
| -nickel oxide, pocket plate |
| |
computer aided design and optimisation of Ni-Cd
cells |
10,369 |
| |
failure mechanisms of vented Ni-Cd in overcharge
|
7,195 |
| |
kinetic basis for the operating of sealed Ni-Cd
cells. |
C, 117 |
| |
mechanism of gas removal in sealed alkaline accumulators. |
A, (yy) |
| |
migration of iron in Ni-Cd cells with pocket
electrodes. |
1,337 |
| |
regeneration of Ni-Cd batteries by hydrogen peroxide
|
13,185 |
| -nickel oxide, sintered
plate |
| |
ageing measurement of nickel-cadmium batteries,
|
15,49 |
| |
ageing of the Ni-Cd system. |
6,129 |
| |
characteristics of sintered plate alkaline batteries. |
B, (5) |
| |
detection of defective Ni-Cd cells by gassing
rate |
11,185 |
| |
development, and applications of sintered plate
alkaline |
A, (g) |
| |
effect of carbonate on performance of sealed
Ni-Cd cells. |
3,119 |
| |
investigation into mechanisms of alkaline cell
leakage |
7,519 |
| |
measurement of the state-of-charge of nickel-cadmium,
|
14,43 |
| |
military sealed nickel-cadmium batteries. |
3,191 |
| |
problems of sintered plate Ni-Cd cells. |
B, (4) |
| |
reactions in sealed nickel-cadmium cells. |
D, 129 |
| |
recent improvenents in aircraft Ni-Cd cells |
8,459 |
| |
sealed Ni-Cd cell able to operate at high temperatures
|
8,471 |
| |
ultra-quick charger for nickel-cadmium batteries,
|
15,25 |
| -silver oxide |
| |
sealed silver-cadmium batteries for use in space. |
1,411 |
| Calcium anode primary
batteries |
| |
characteristics of large calcium-thionyl chloride
cells |
8,369 |
| |
lithium and calcium high rate oxyhalide batteries
|
12,471 |
| Carbon |
| |
carbon-based -ve electrodes in the nickel hydrogen
battery |
10,305 |
| |
change in the properties of acetylene black in
mixing mills. |
6,439 |
| |
kinetic study of carbon electrodes in polysulphide
melts. |
6,693 |
| |
oxygen pressure on the potential of charcoal
electrodes |
1,45 |
| |
rechargeable zinc-carbon hybrid cells |
16,12 |
| |
structure of cathodes during discharge of Li-SOCl²
cells, |
15,359 |
| Cathodes |
| for aqueous systems |
| |
cathodic mixture on rechargeability of alkaline
MnO²-Zn |
9,287 |
| |
properties of cathode materials in alkaline cells
|
10,425 |
| for fuel cells |
| |
corrosion of Ag and CuO cathodes in carbonate
fuel cells. |
1,459 |
| |
electrochemical oxidation of alcohols. |
D,537 |
| |
electrochemical oxidation of hydrocarbons on
a Pt electrode. |
D,315 |
| |
kinetics of adsorp. and oxidation of sulphur
at Pt electrode. |
3,455 |
| for non-aqueous systems |
| |
2 V lithium/polymer cathode "AA" giving ›
250 wh/kg |
16,31 |
| |
effect of temp. on cathode catalysts in Li-SOCl²
cells |
11,429 |
| |
lithium-sulphur dioxide cathode studies |
9,513 |
| |
mechanism for SOCl² &SO²Cl²
cathode reactions |
7,583 |
| |
novel rechargeable lithium composite cathode
system |
16,37 |
| |
thionyl chloride cells with modified cathodes
|
12,439 |
| |
transition metal phosphorus trisulphides as cathodes
|
7,623 |
| Cathodes, organic |
| |
organic depolarised primary batteries |
B,(11) |
| Charging techniques |
| |
battery charging at low temperatures. |
5, 43 |
| |
charge acceptance of the lead cell, rates and
temperatures. |
2, |
| |
charge studies for aerospace nickel-cadmium batteries. |
2,199 |
| |
constant potential charging of small accumulators
|
B,(12) |
| |
fast charging of sealed nickel-cadmium batteries
|
5,211 |
| |
fast charging of sealed Ni-Cd batteries |
5, 211 |
| |
field maintenance of Ni-Cd batteries at low temperatures. |
D, 419 |
| |
field maintenance of Ni-Cd batteries at low temps. |
D, 419 |
| |
gassing &energy balance during the charging
of lead-acid |
B,(17) |
| |
parametric charge studies for aerospace Ni-Cd
batteries. |
2, 199 |
| |
rapid recharging of nickel-cadmium batteries. |
2,181 |
| |
rapid recharging of Ni-Cd batteries. |
2, 181 |
| |
sealed cells of special design with control electrodes. |
1,371 |
| |
three-step method of charging lead-acid storage
batteries. |
C,133 |
| |
ultra-quick charger for nickel-cadmium batteries,
|
15,25 |
| |
"sealed" Ni-Cd batteries with charging arrangements. |
1,399 |
| Cold fusion |
| |
cold fusion - a status report, |
14,1 |
| Crown ethers |
| |
the use of crown ethers in electrochemical cells
|
8,91 |
| Design of batteries |
| |
design and testing of a 10 kW zinc-bromine battery |
9,183 |
| |
design considerations in the Li-TiS² cell
|
13,419 |
| |
design of batteries for cardioverter defibrillators,
|
15,349 |
| |
laser sealed MnO²-Li for extra long-life
memory back-up |
10,183 |
| |
production of zinc cans for dry cells bv impact
extrusion |
7,463 |
| Disposal of batteries |
| |
dry battery disposal in the United Kingdom, |
15,399 |
| Electrode reactions |
| in aqueous systems |
| |
activation of iron electrodes by sulphide in
alkaline media |
11,237 |
| |
behaviour of electrodes of the second kind. |
D,167 |
| |
charge efficiency study on iron (EV) electrodes
|
13,113 |
| |
charge transfer complexes as electrodes in solid
state . |
4,453 |
| |
discharge processes in lead-acid positive plates
|
11,165 |
| |
electrochemical activity of amorphous nickel
|
12,221 |
| |
electrode fatigue properties using multigrid
electrodes |
7,105 |
| |
ionization at the "3-phase boundary" in alkaline
solutions |
D, 283 |
| |
oxidation of Fe²+ and Co²+ on the surface
ofphthalocyanines. |
3,439 |
| |
oxide deposition/dissolution at the PbO²
electrode |
11,127 |
| |
phase changes at electrode surfaces |
A, (z) |
| in fuel cells |
| |
activation of reactants in fuel cells |
4,595 |
| |
alkaline fuel cells with metal electrodes. |
C,235 |
| |
electrodes for hydrazine-oxygen fuel cell |
2, 505 |
| |
fuel cell electrodes for acid electrolytes. |
D,297 |
| |
influence of transport processes on gas-diffusion
electrodes. |
C,265 |
| |
mass transfer at porous fuel cell electrodes. |
3,417 |
| |
operating mechanism of a hydrophilic gas electrode
|
2,483 |
| in non-aqueous systems |
| |
change of perovskite oxide during polarisation
|
11,393 |
| |
electrocatalysis on reduction of SOCl² at
electrodes |
11,441 |
| |
nucleation and growth of LiCl layers in SOCl²
|
11,445 |
| |
reversibility of the lithium electrode, |
14,53 |
| |
SEI electrodes in secondary lithium/polysulphide-THF
|
8,101 |
| |
transport processes of gas-diffusion electrodes. |
C,265 |
| Electrolytes |
| aqueous |
| |
performance of gelled zinc alloy powders in alkaline
|
16,13 |
| |
study of electrolyte in zinc chloride leclanche
cells |
7,445 |
| molten salt |
| |
electrolyte effects in Li(Si)-FeS² thermal
batteries, |
15,443 |
| |
lithium-aluminium/iron sulphide molten salt battery,
|
14,339 |
| |
secondary Al-metal sulphide batteries with molten
NaAlCl4 |
10,1 |
| |
solubility of oxygen in fused carbonates |
1, 459 |
| non-aqueous |
| |
1-methyl-3-ethylimidazolium chloride-SbCl3 electrolyte
|
10,39 |
| |
electrolyte studies for Li-MnO² cells, |
14,159 |
| |
electrolytes and additives for high eff lithium
cycling |
16,38 |
| |
Li-CoO² battery with an inorganic electrolyte,
|
14,95 |
| |
study of mass transfer of Li ions in non-aqueous
electrolytes. |
2, 255 |
| solid inorganic |
| |
peo:LiBF4 &peo:liBF4 glass-composite electrolytes,
|
14,121 |
| |
polarisation at the Li-ion solid separator /molten
LiCl-KCl , |
14,353 |
| |
silver iodide-bis sulphonium di-iodide solid
electrolytes |
6,511 |
| |
solubility and diffusion of iodine in AgRbI5. |
4,467 |
| |
sulphate-based solid electrolytes with applications
|
5, 573 |
| solid polymer |
| |
fabrication and characterisation of a rechargeable
thin-film Li-LiMn²O4 microbattery, |
15,393 |
| |
novel electrode fabrication for use in spe fuel
cells, |
15,407 |
| |
rechargeable solid polymer electrolyte battery,
|
14,107 |
| |
thin-film lithium-ion battery using plasticized
spe |
16,22 |
| Flowing electrolyte
batteries |
| |
advances in zinc-bromine batteries |
7,313 |
| |
flowing electrolyte: discussion of flow distribution,
|
14,227 |
| |
status of flow battery research in the United
States |
9,271 |
| |
zinc-bromide storage battery for electric vehicles.
|
5, 167 |
| |
zinc-bromine battery studies |
7,301 |
| Fuel cells |
| -alkaline |
| |
conversion of ethylene glycol in alkaline fuel
cells |
7,389 |
| |
fuel battery for underwater application |
3,405 |
| |
life-limiting processes in alkaline fuel cell
electrodes |
9,379 |
| -ammonia |
| |
an indirect ammonia-air fuel system |
7,769 |
| -auxiliary equipment |
| |
auxiliaries for fuel cell power systems |
3,351 |
| |
fuel cell ancillary systems and components. |
1,583 |
| -general topics |
| |
barium fuel cell systems. |
D,371 |
| |
dsk-system of fuel cell electrodes |
C,253. |
| |
fuel cell r and d projects in Europe |
12,351 |
| |
fuel cell-battery power sources. |
2, 567 |
| |
general purpose fuel cells. |
B,(20) |
| |
long duration discharge characteristics of fuel
cells |
D,323 |
| |
low temperature fuel batteries. |
D,337 |
| |
pressure operation of fuel cells. |
D, 349 |
| |
production of raney-nickel anodes for fuel cells. |
1,497 |
| |
Pt-impregnated pyropolymer composites: fuel cell
catalyst. |
6,593 |
| |
regenerable fuel cells for space stations |
10,291 |
| |
utility fuel cells for Sweden |
7,419 |
| -hydrazine |
| |
hydrazine fuel cell. |
C,221 |
| |
hydrazine-oxygen fuel cell electrode. |
3,373 |
| -hydrogen |
| |
1 kw hydrogen fuel battery. |
1,565 |
| |
5 kw hydrogen-air alkaline fuel battery |
3,391 |
| |
H²/0² fuel cell assemblies with higher
power densities |
6,569 |
| |
hydrogen/oxygen fuel cell |
D,265 |
| -methanol |
| |
5kW methanol/O² fuel cell system |
.4,601 |
| |
hydrocarbon and methanol low temperature fuel
cell systems. |
2, 521 |
| |
in situ reforming methanol-air cell |
1,543 |
| |
methanol-air fuel cell. |
D,359 |
| |
performance and modelling of a methanol spe fuel
cell |
16,25 |
| -molten carbonate |
| |
a molten carbonate fuel cell running on natural
gas. |
2, 531 |
| |
high-temperature carbonate fuel cells for industrial
gases. |
A, (w) |
| |
molten carbonate fuel cell improvements |
8,211 |
| |
performance of molten -carbonate fuel cells |
7,405 |
| -phosphoric acid |
| |
H3PO4 fuel-cell electrocatalysts from pyropolymer
ceramics |
7,659 |
| -proton exchange membrane |
| |
interaction of a pem fuel cell and a lead-acid
battery |
16,26 |
| |
modelling the dynamic behaviour of pem fuel cells,
|
15,419 |
| |
portable fuel cell power generator |
16,24 |
| |
proton exchange membrane fuel cell power system,
|
14,267 |
| -solid oxide |
| |
problems of a high temperature solid oxide fuel
cell. |
4,583 |
| -solid polymer electrolyte |
| |
devt. of novel electrode for use in spe fuel cells,
|
15,407 |
| |
performance of solid polymer fuel cell electrodes
|
13,253 |
| |
reversible solid polymer fuel cell, |
14,273 |
| |
solid polymer fuel cells for pulse power delivery
|
16,27 |
| Glass/ceramic seals |
| |
ceramic to metal seals for sealed battery systems. |
6,607 |
| |
corrosion of glass feed-through insulators by
lithium |
11,463 |
| |
glass-to-metal seal corrosion in Li-SO²
cells |
8,53 |
| Graphite |
| |
graphite based Li-polymer electrolyte cell, |
15,285 |
| |
graphite intercalation compounds as +ve electrodes |
8,245 |
| |
graphite-CrO3 lntercalation cpds. on performance
of MnO² |
11,329 |
| |
lamellar cpds. of graphite for Cl² electrode
in Al-Cl² |
6,751 |
| |
properties of graphite bisulphate intercalates. |
1, 1 |
| Grids, electrode
supports |
| for lead/acid |
| |
antimony effect in lead alloy grids |
8,535 |
| |
battery grid alloys-a review |
12,113 |
| |
comparison of lead-acid batteries with Ca &Sb
grids |
8,565 |
| |
corrosion of grids for maintenance-free lead-acid
battery |
10,537 |
| |
current distribution &ph gradients in model
of a plate. |
2, 149 |
| |
cyclic voltammetry of Pb and Pb-Sb grid alloy
in H²SO4 |
6,69 |
| |
dispersion-strengthened lead as grids in lead-acid
battery. |
D, 1 |
| |
effect of grid conductivity on the performance
of tall lead-acid cells. |
6,1 |
| |
effect of tin on +ve mat.-grid in maint. free
batteries |
13,25 |
| |
evaluation of expanded grids for lead-acid batteries
|
8,581 |
| |
grid alloy for high performance maintenance free
lead-acid |
7,67 |
| |
grid composition on the performance of lead-acid
|
11,1 |
| micro-structured |
| |
anodic oxidation of porous nickel bodies. |
1,309 |
| |
behaviour of CMG in nickel-cadmium cells |
8,427 |
| |
cmg Ni(OH)² electrodes as a function of
structure |
9,201 |
| |
controlled-micro-geometry electrode |
7,171 |
| |
foamed nickel +ve for high performance Ni-Cd
|
12,203 |
| |
nickel battery electrodes from woven cotton cloth. |
3,149 |
| plastic |
| |
development of a low-loss plastic grid lead-acid
cell. |
1,(t) |
| |
metal/plastic electrode for traction batteries
|
7,79 |
| |
metal/plastic electrodes for alkaline batteries
|
9,155 |
| |
plastic-bonded Ni-Cd for extra high discharge
rate |
12,197 |
| sintered |
| |
electrochemical impregnation of porous sintered
nickel |
1,287 |
| |
surface characterization of sintered nickel plaques
|
7,127 |
| Historical |
| |
Michael Faraday |
13,263 |
| |
power sources symposia 1958 to 1988 |
12,433 |
| Hydrogen anode batteries |
| -nickel oxide |
| |
advanced Ni/H² dependent pressure vessel
cell &battery |
16,4 |
| |
carbon-based -ve electrodes in the nickel hydrogen
battery |
10,305 |
| |
comparison of a low and a high-pressure Ni-H²
cell |
8,445 |
| |
dependent pressure vessel nickel-hydrogen battery,
|
15,85 |
| |
hydrogen (hydride) air secondary battery |
7,343 |
| |
hydrogen-nickel oxide battery |
10,339 |
| |
individual pressure vessel nickel/hydrogen cells
|
11,215 |
| |
nickel oxide-hydrogen cells. |
6,249 |
| |
nickel-hydrogen cells for satellite applications
|
12,379 |
| |
sealed metal oxide-hydrogen secondary cells. |
5, 315 |
| |
secondary cells based on reversible hydrogen
transfer |
5,361 |
| |
thermal processes in nickel-hydrogen batteries,
|
14,3 |
| -silver oxide |
| |
application of hydrides to the silver-hydrogen
system |
9,257 |
| |
development of silver-hydrogen cells |
7,271 |
| |
development of silver-hydrogen cells |
7,285 |
| |
sealed, rechargable silver-hydrogen battery. |
5, 347 |
| -zinc |
| |
manganese dioxide-hydrogen rechargeable battery
|
13,273 |
| Hydrogen electrodes |
| |
development of a more economic hydrogen diffusion
anode. |
1,531 |
| |
high current density hydrogen electrodes. |
2, 493 |
| |
hydrogen storage electrodes and hydrogen transfer
cells |
6,259 |
| |
metal-hydrogen: interphase participation in H²-transport,
|
15,101 |
| |
raney-Ni based H² electrode for electrochemical
processes |
10,437 |
| Hydrogen peroxide |
| |
enhanced performance from Al/H²O² semi-fuel
cell |
16,30 |
| |
regeneration of Ni-Cd batteries by hydrogen peroxide
|
13,185 |
| Hydrogen storage |
| |
H² storage for fuel cells with man-portable
equipment |
16,28 |
| |
hydrogen feed of a fuel cell on open circuit. |
D, 257 |
| |
hydrogen storage materials for Ni-metal hydride
|
12,411 |
| |
portable fuel cell power generator |
16,24 |
| Indium anode primary
batteries |
| |
behaviour of In and In/Bi alloys in alkaline
solutions. |
5, 479 |
| |
In and In/Bi alloys as anodes in a primary cell
|
B, (2) |
| |
low temperature performance of the In/Bi-KOH
-HgO cell |
C, 171 |
| |
low temp. performance of the In-Bi/HgO cell. |
C, 171 |
| Iron anode secondary
batteries |
| -air(oxygen) |
| |
Fe-air secondary battery: improvements in air
electrode |
9,143 |
| |
iron-air battery systems for traction purposes. |
5, 283 |
| |
iron-air secondary cells under practical operation |
5, 261 |
| |
optimization of Fe-air and nickel oxide-Fe traction
batteries |
7,329 |
| |
sealed rechargeable Fe-O² battery for traction |
8,513 |
| -nickel oxide |
| |
new electrodes for Ni-Fe traction and stationary
|
13,127 |
| |
nickel oxide-iron battery developed for traction
purposes |
8,379 |
| |
Ni-Fe (fenox) module |
8,389 |
| Iron electrodes |
| |
activation of iron electrodes by sulphide in
alkaline media |
11,237 |
| |
behaviour of sintered and rolled iron electrodes,
|
14,15 |
| |
charge efficiency study on iron (EV) electrodes
|
13,113 |
| |
iron electrode in alkaline electrochemical cells. |
3,283 |
| |
iron electrodes for alkaline traction cells |
12,183 |
| |
iron immune positive nickel hydroxide electrode
|
12,165 |
| |
reactive deposition of active battery plates
(Fe and Co) |
13,133 |
| |
soluble species in the operation of the iron
electrode. |
4,295 |
| |
study of Cd and Fe anode dissolution and precipitation
|
7,249 |
| Iron sulfides |
| |
electrochemistry of FeS² in immobilized
salt electrolytes |
7,691 |
| Lead |
| |
anodic polarization of lead in phosphoric acid
|
B,(16) |
| |
cathodic disintegration of lead in HClO4 &H²SO4 |
7,51 |
| |
cyclic voltammetry of Pb and a Pb-Sb grid alloy
. |
6,69 |
| |
cycling anodic coatings on pure and Sb lead in
H²S04. |
3,13 |
| |
effect of structure on H² evolution on Pb
alloys |
5,73 |
| |
electrochemical behaviour of Pb in H²S04. |
4,503 |
| |
kinetics of anodic lead dissolution in H²S04.
|
5,1 |
| |
lead-tin-barium alloy for lead-acid grids |
A, (xx) |
| |
lithium-lead grid alloy in lead-acid batteries. |
3,61 |
| |
non-antimonial lead alloys for lead-acid batteries. |
4,561 |
| |
potential-ph diagram of lead in the presence
of sulphate ions |
D, 41 |
| |
potentiodynamic polarization of lead in sulphuric
acid. |
3,79 |
| Lead/acid reserve
batteries |
| |
lead-lead dioxide perchloric acid reserve cells
|
7,677 |
| |
lead-lead dioxide reserve batteries |
11,359 |
| |
novel design for a lead/lead dioxide reserve
battery |
8,199 |
| |
reserve batteries using a lead/lead dioxide system
|
B, (7) |
| |
water-activated dry-charged lead-acid batteries. |
2, 93 |
| |
water-activated dry-charged lead-acid batteries. |
2, 93 |
| Lead/acid secondary
batteries |
| automotive |
| |
evaluation of conserved charge starter lead-acid
batteries |
10,495 |
| |
sealed auto. batteries with gas recombination
|
9,129 |
| dry charged |
| |
dry charged lead-acid batteries. |
B,(25) |
| electric vehicle |
| |
high power, semi-bipolar, lead-acid for electric
hybrids, |
15,183 |
| |
predicting life of EV &load-level.lead-acid
from test data |
10,507 |
| |
studies of flat-plate lead-acid under EV service
|
11,103 |
| |
study of lead-acid under electric-vehicle service
|
10,459 |
| gas recombination |
| |
additives for gas recombining lead-acid batteries
|
12,33 |
| |
gas recombination chemistries in lead-acid |
13,13 |
| |
gas recombination lead-acid batteries. |
5,23 |
| |
gas recombination lead-acid stationary batteries
|
10,447 |
| |
recombination and thermal management in sealed
lead-acid |
12,1 |
| gelled electrolyte |
| |
large gelled-elect. lead-acid for deep-discharge
|
11,149 |
| |
small closed lead cells with an immobilised electrolyte. |
2, 69 |
| general |
| |
charge acceptance of the lead cell |
2, 1 |
| |
comparison of lead-acid batteries with Ca &Sb
grids |
8,565 |
| |
computer assisted design of lead-acid batteries
|
11,67 |
| |
computer model for the residual capacity of lead-acid
|
12,147 |
| |
design and development of lead-acid aircraft
batteries |
D, 401 |
| |
electrode for lead-acid with a high utilization
factor |
16,11 |
| |
electrolyte stratification and charge of industrial
lead-acid |
8, |
| |
gassing and energy balance during charging lead-acid
|
B,(17) |
| |
grid composition on the performance of lead-acid
|
11,1 |
| |
interaction of a pem fuel cell and a lead-acid
battery |
16,26 |
| |
lead-acid batteries in photovoltaic systems,
|
15,199 |
| |
lead-acid batteries under pulsed discharge conditions. |
6,35 |
| |
lead-acid built on the supported active material
principle. |
A, (x) |
| |
microelectrode studies of the lead-acid system
|
11,83 |
| |
negative corrosion of Pb-Sb alloys in lead-acid
|
16,10 |
| |
perf. of lead-acid for remote-area power supply
|
13,1. |
| |
rechargeable lead dioxide system with soluble
negatives. |
6,45 |
| |
unique, lightweight, high-performance lead-acid
batteries |
9,49 |
| inhibitors and expanders |
| |
selection of inhibitors and expanders for lead-acid,
|
14,25 |
| maintenance free |
| |
contamination levels in a maintenance-free lead-acid
battery. |
5,97 |
| |
corrosion of grids for maintenance-free lead-acid
battery |
10,537 |
| |
effect of tin on +ve mat.-grid in maint. free
batteries |
13,25 |
| |
grid alloy for high performance maintenance free
lead-acid |
7,67 |
| sealed |
| |
ageing of +ve of sealed lead-acid under deep
discharge |
13,99 |
| |
catalytic recombination approach to sealed lead-acid
cells. |
4,505 |
| |
sealed lead-acid battery with deep-cycle capability
|
9,113 |
| |
stability, perf. etc. of a recombining lead-acid
battery |
9,97 |
| |
active material during cycling of sealed lead-acid
batteries |
13,71 |
| separators |
| |
developments in valve-regulated battery separators
|
13,45 |
| |
separators and their effect on lead-acid battery
|
C, 15 |
| state of charge |
| |
state of charge measurements in sealed lead-acid
cells |
11,21 |
| |
state of health of sealed lead-acid batteries
|
12,43 |
| |
state-of-charge characteristics of the lead-acid
battery |
10,525 |
| stibine |
| |
stibine and arsine from submarine lead-acid cells,
|
14,33 |
| tubular |
| |
role of macrostructure of tubular type +ve electrodes
|
9,5 |
| |
transient modelling of tubular positive lead-acid,
|
15,171 |
| |
tubular plate lead-acid battery system for EVs
|
12,93 |
| valve regulated |
| |
voltage of a lead-acid cell during charge and
discharge. |
D, 17 |
| Lead battery plates |
| |
active material during cycling of sealed lead-acid
batteries |
13,71 |
| |
ageing of +ve of sealed lead-acid under deep
discharge |
13,99 |
| |
anomalies of the negative in the lead-acid battery
|
2,33 |
| |
capacity-limiting mechanism of lead-acid battery
plates |
10,481 |
| |
chemical role of antimony in the lead-acid battery
|
3,1 |
| |
correlations between formation etc in tubular
positives |
10,555 |
| |
correlations for screening of expanders in lead-acid
|
13,3 |
| |
cryst.µscopic aspects of curing +ve
lead plates. |
2, 103 |
| |
curing of lead-acid battery plates. |
2, 55. |
| |
depassivation of dry-charged positives of lead-acid |
9,17 |
| |
determination of ionic resistance of positive
lead plates |
7,17 |
| |
discharge processes in lead-acid positive plates
|
11,165 |
| |
distribution of potential over discharging lead-acid
battery plates. |
2,121 |
| |
effect of H3PO4 on PbSO4-PbO² at lead and
lead-alloy |
12,61 |
| |
electrode for lead-acid with a high utilization
factor |
16,11 |
| |
fabrication of plates direct from metal powders. |
1,207 |
| |
hydrogen overpotential of the -ve electrode in
accumulators. |
A, (m) |
| |
negative corrosion of Pb-Sb alloys in lead-acid
|
16,10 |
| |
optical techniques to in situ studies of Pb-alloy
electrodes |
8,549 |
| |
phase changes during the manufacture of lead-acid
plates. |
1, 163 |
| |
positive plate in the floating lead-calcium cell. |
C, 43 |
| |
potential distribution in the lead-acid battery
grid. |
6,15 |
| |
retention of +ve plate active material in the
lead-acid |
D,63 |
| |
selection of inhibitors and expanders for lead-acid,
|
14,25 |
| |
+ve corrosion in maint.-free lead-acid during
storage |
11,31 |
| |
+ve corrosion in maint.-free lead-acid during
storage |
11,31 |
| Lead chloride |
| |
lead chloride cathodes for water-activated batteries
|
4,33 |
| Lead oxides |
| |
anodic oxidation of PbSO4, Pb304, 2PbCO3, Pb(OH)²,
and PbO. |
1, 47 |
| |
cathodic pulse measurements with thin PbO²
layers |
7,37 |
| |
developments in the investigation of porous PbO²in
H²SO4 |
5,109 |
| |
discharge capacities of alpha and beta lead dioxide
electrodes. |
C, 73 |
| |
electrochemical behaviour of the lead dioxide
electrode. |
5,15 |
| |
granular oxide for improved lead-acid batteries
|
12,77 |
| |
kinetic investigations at a PbO² ring-disc
electrode. |
6,59 |
| |
kinetics of the PbSO4/PbO² electrode at
low temperatures |
5,55. |
| |
kinetics of the PbSO4/PbO² electrode at
low temperatures |
5,55 |
| |
morphological and kinetic studies on lead dioxide |
7,1 |
| |
OH- ions, Pb²+ ions &cation vacancies
in PbO² |
13,81 |
| |
oxide deposition/dissolution at the PbO²
electrode |
11,127 |
| |
oxygen evolution kinetics on lead dioxide. |
D, 29 |
| |
oxygen overpotential on lead dioxide electrodes. |
B,(8) |
| |
Pb-PbO² in H²SO4 and planté formation
in dissolution |
8,621 |
| |
relaxation of potential, resistance and capacity
in PbO² |
12,131 |
| |
stability and reactivity of lead oxides. |
C, 89 |
| |
temp. and cd on utilization of Pb and Pboxide
electrodes |
2,17 |
| |
the lead dioxide electrode system. |
A, (n) |
| Lead/silver oxide
cell |
| |
lead-silver oxide cell. |
3,551 |
| Leakage, from cells |
| |
investigation into mechanisms of alkaline cell
leakage |
7,519 |
| Lithium alloys |
| |
advanced lithium-based anode material |
12,489 |
| |
Al-Li/FeS² immobilised salt cell system |
10,87 |
| Lithium anodes |
| |
corrosion of glass feed-through insulators by
lithium |
11,463 |
| |
electrolytes and additives for high eff lithium
cycling |
16,38 |
| |
fluorinated surfactants as additives for lithium
batteries, |
14,69 |
| |
high density thermal batteries using Li anode
technology |
10,23 |
| |
optical observations of the Li/electrolyte interface,
|
15,241 |
| |
reversibility of the lithium electrode, |
14,53 |
| |
secondary Li electrode on alloying substrates
in PC |
7,595 |
| |
surface analysis of the Li electrode by AFM and
SAM, |
15,267 |
| Lithium primary
batteries |
| general topics |
| |
2 V lithium/polymer cathode "AA" giving ›
250 wh/kg |
16,31 |
| |
airworthiness of Li batteries. 1: an airworthiness
standard, |
15,327 |
| |
airworthiness of Li batteries. 2: issues in aerospace,
|
15,339 |
| |
batteries based on lithium and sub-stoichiometric
oxides |
6,527 |
| |
discharge and safety of low magnetic lithium
cells |
16,18 |
| |
inorganic electrolyte lithium cells |
5,683 |
| |
investigations of new liquid cathodes for Li
batteries |
10,159 |
| |
modelling of lithium batteries for medical applications,
|
14,167 |
| |
organic electrolyte batteries |
4,483 |
| |
solid cathode for organic electrolyte lithium
cells |
9,451 |
| -carbon monofluoride |
| |
electrochem. intercalation reaction in Li-(CF)x
battery |
10,175 |
| |
factors influencing the performance of Li-CF
cells |
5, 729 |
| |
lithium polycarbonmonofluoride cylindrical batteries
|
5,713 |
| |
recent development in the Li-CF battery |
9,435 |
| -copper oxide |
| |
changes to the cathode &electrolyte of Li-CuO
cells |
10,111 |
| |
copper oxide-lithium cell |
5, 695 |
| -lead oxide |
| |
lead oxides-lithium cells |
7,637 |
| -iodine |
| |
equivalent-circuit model for the lithium/iodine
battery |
16,19 |
| |
physically-based model for the lithium-iodine
battery |
13,347 |
| -manganese dioxide |
| |
characteristics and applications of Li-MnO²
cells |
8,63 |
| |
crystal structure and part. size of MnO²
in Li/MnO² cells |
13,383 |
| |
electrolyte studies for Li-MnO² cells, |
14,159 |
| |
gas formation in Li-MnO² with DME/PC electrolyte
|
12,499 |
| |
high rate Li/MnO² batteries - the double
cell concept |
16,20 |
| |
laser scaled MnO²-Li for extra long-life
memory back-up |
10,183 |
| |
ultra-thin film battery |
13,409 |
| -silver chromate |
| |
reliability of lithium-silver chromate cells. |
6,483 |
| |
silver chomate-lithium cell. |
4,493 |
| -sulfur dioxide |
| |
glass-to-metal seal corrosion in Li-SO²
cells |
8,53 |
| |
high rate primary lithium-sulphur battery. |
4,21 |
| |
lithium-sulphur dioxide cathode studies |
9,513 |
| |
low temperature performance of high-rate SO²
cells |
12,451 |
| |
physical and chemical studies of Li-SO²
cells |
9,495 |
| |
primary battery-powered unmanned aircraft |
9,527 |
| |
ultra-high rate lithium-sulphur dioxide cell,
|
14,143 |
| |
unusual chemical and thermal phenomena in Li-SO²
cells |
13,363 |
| |
lithium and calcium high rate oxyhalide batteries
|
12,471 |
| -thionyl &phosphoryl
chloride |
| |
aspects of lithium thionyl-chloride batteries
|
11,413 |
| |
changes to carbon cathodes of Li-/SOCl²
cells, |
15,359 |
| |
development of a high-rate Li/SOCl² system
|
10,145 |
| |
effect of temp. on cathode catalysts in Li-SOCl²
cells |
11,429 |
| |
electrocatalysis on reduction of SOCl² at
electrodes |
11,441 |
| |
failure mechanisms in lithium-thionyl chloride
|
13,393 |
| |
galvanic corrosion and capacity loss in Li-SOCl² |
9,423 |
| |
heat generation in Li/SOC1² cells |
7,571 |
| |
high rate Li-SOCl² : approach and progress
|
9,403 |
| |
improvements in lithium-thionyl chloride design
|
11,403 |
| |
Li-SOCl² batteries for implantable medical
applications |
10,129 |
| |
Li-SOCl² cells using a new electrolyte |
8,3 |
| |
Li/SOCl² . performance and safety of super
high rate cells |
8,41 |
| |
mechanism for SOCl² &SO²Cl²
cathode reactions |
7,583 |
| |
nucleation and growth of LiCl layers in SOCl²
|
11,445 |
| |
primary Li/SOC1² cells. electrolyte and
electrode variables. |
6,493 |
| |
reaction products of Li-SOCl² cells |
8,17 |
| |
thionyl and sulphuryl chlorides as battery catholytes
|
13,395 |
| |
thionyl chloride cells with modified cathodes
|
12,439 |
| Lithium reserve
batteries |
| |
Li-V205 reserve battery for ordnance applications
|
10,10-1 |
| |
primary Li-Cl² battery for high rate applications. |
5, 595 |
| Lithium secondary
batteries |
| general |
| |
ceramic superconductors as cathodes in secondary
lithium |
16,36 |
| |
high energy Li rechargeables for underwater propulsion,
|
14,257 |
| |
new lithium non-aqueous secondary battery. |
4,469 |
| |
novel rechargeable lithium composite cathode
system |
16,37 |
| |
recent developments in rechargeable lithium batteries
|
13,429 |
| |
secondary Li electrode on alloying substrates
in PC |
7,595 |
| |
SEI electrodes in secondary lithium/polysulphide-THF
|
8,101 |
| |
solid cathode for organic electrolyte lithium
cells |
9,451 |
| |
U.S. Navy's Li rechargeable programme. AA-size
cells |
13,381 |
| -cobalt oxide |
| |
Li-CoO² battery with an inorganic electrolyte,
|
14,95 |
| |
U.S. Navy's Li rechargeable programme 1: Li-CoO
cell |
13,437 |
| -copper chloride |
| |
reversible cells with Li negative and CuCl²
positive electrode. |
3,297 |
| -iron sulfide |
| |
characteristics of lithium-aluminium/iron sulfide
cells. |
6,725 |
| |
development of a low-cost lithium-metal sulphide
cell |
9,543 |
| |
electrochemistry of FeS² in immobilized
salt electrolytes |
7,691 |
| |
electrode designs for lithium-aluminium/iron
sulfide cells. |
6,735 |
| |
lithium-aluminium/iron sulphide molten salt battery,
|
14,339 |
| |
lithium-metal sulphide battery for electric vehicles
|
8,337 |
| -manganese oxide |
| |
lithium rechargeable envelope cells |
16,32 |
| |
rechargeable thin-film Li-LiMn²O4 microbattery,
|
15,393 |
| -metal oxides &chalcogenides |
| |
Li cells with transition metal chalcogenide cathodes. |
5, 661 |
| |
Li microbatteries using transition metal oxide
films, |
15,373 |
| |
rechargeable Li cells having oxide based electrodes
|
9,459 |
| -molybdenum disulfide |
| |
rechargeable lithium/molybdenum disulphide cells
|
10,69 |
| -nickel fluoride |
| |
lithium-nickel fluoride non-aqueous batteries. |
2, 267 |
| -polymer electrolyte |
| |
development of the Li polymer battery for space
power, |
15,315 |
| |
graphite based Li-polymer electrolyte cell, |
15,285 |
| |
polymer electrolyte battery for high-g telemetry,
|
15,295 |
| |
rechargeable solid polymer electrolyte battery,
|
14,107 |
| -sulfur dioxide |
| |
development of a 100 Ah rechargeable Li-SO²
cell, |
14,81 |
| -titanium disulfide/oxide |
| |
anastase-TiO², as cathode material for lithium
secondary cells |
8,27 |
| |
design considerations in the Li-TiS² cell
|
13,419 |
| Lithium-ion secondary
batteries |
| |
50 to 100 Ah lithium-ion cells for aerospace
|
16,23 |
| |
bipolar lithium-ion battery development |
16,21 |
| |
high-G power sources for U.S. Army's HSTSS program
|
16,40 |
| |
lithium manganese oxides for lithium-ion batteries
|
16,34 |
| |
Li-ion cells and batteries for radio-communications,
|
15,221 |
| |
thin-film lithium-ion battery using plasticized
spe |
16,22 |
| Magnesium alloys |
| |
Mg alloys for anodes in alkaline-electrolyte
power sources. |
5, 425 |
| Magnesium anode
primary batteries |
| |
magnesium dry cells. |
A, (d) |
| |
seawater battery for subsea control systems |
16,39 |
| |
the magnesium-air cell. |
1,119 |
| Magnesium anode
reserve batteries |
| |
anodic dissolution of Mg alloys in PbCl²-Mg
seawater batteries |
8,117 |
| |
change of salinity on performance of Mg-CuCl
batteries |
B, (18) |
| |
improvements in rate of the Mg/dissolved oxygen
cell, |
15,149 |
| |
long-life multicell ammonia reserve battery. |
5, 603 |
| |
magnesium-seawater power source for underwater
vehicles, |
14,243 |
| Manganese oxides |
| |
applications of Mn labelling of battery-active
dioxides |
11,339 |
| |
character &pore structure of an electrolytic
MnO² |
1,65 |
| |
characterisation of battery-active manganese
dioxide |
10,237 |
| |
chemical reduction of manganese dioxides. |
C, 329 |
| |
constitution and electrochemical reduction of
gamma-MnO². |
D, 189 |
| |
crystal structure and part. size of MnO²
in Li/MnO² cells |
13,383 |
| |
electrochemical behaviour of the dioxides of
manganese. |
C, 357 |
| |
electrochemical properties of the dioxides of
manganese. |
1,39 |
| |
electrochemistry of manganese oxides in alkali
|
5,525 |
| |
electrochem.evaluation of internat. samples of
MnO² in KOH |
7,485 |
| |
electron-probe microanalysis of MnO² in
MnO² cells |
3,607 |
| |
gamma-MnO² and reduced forms in concentrated
KOH |
10,247 |
| |
graphite-CrO3 lntercalation cpds. on performance
of MnO² |
11,329 |
| |
interaction between carbon and manganese dioxide. |
6,447 |
| |
ion exchange of manganese dioxides. |
D, 201 |
| |
kinetics of exchange between gamma-MnO²
&irradiated water |
9,295 |
| |
lithium manganese oxides for lithium-ion batteries
|
16,34 |
| |
manganese dioxide-hydrogen rechargeable battery
|
13,273 |
| |
MnO² battery ore from Groote Eylandt, Australia
|
10,199 |
| |
MnO² in cathodes containing Ag²O and
graphite |
12,297 |
| |
MnO² structure on e.m.f.-pressure of MnO²-Zn
battery |
6,369 |
| |
new manganese oxide phase synthesised by solid
state reactions |
16,33 |
| |
nickel hydroxide and other nanophase cathode
materials |
16,35 |
| |
performance of various MnO² in the depolariser
mix |
A, (o) |
| |
problem of the processes for activating MnO²
|
D, 247 |
| |
properties of mixtures of carbon and MnO².
part 2: |
3,593 |
| |
properties of mixtures of carbon and MnO². |
2, 319 |
| |
properties of some potassium-containing gamma-MnO²s
|
2, 303 |
| |
reactivity of doped and international MnO²
in dry battery |
12,309 |
| |
reversible potential of the manganese dioxide
electrode |
B, 22 |
| Mathematical modelling |
| |
computer aided design and optimisation of Ni-Cd
cells |
10,369 |
| |
computer assisted design of lead-acid batteries
|
11,67 |
| |
computer model for the residual capacity of lead-acid
|
12,147 |
| |
computer modelling of an aluminium-air battery,
|
14,217 |
| |
computer modelling of parallel arrays of Na-S
cells |
7,733 |
| |
equivalent-circuit model for the lithium/iodine
battery |
16,19 |
| |
flowing electrolyte: discussion of flow distribution,
|
14,227 |
| |
mathematical modelling of reactions in battery
systems |
13,59 |
| |
model for the molten sodium polysulphide electrode
|
7,713 |
| |
modelling of electrocrystallisation processes
in battery |
12,329 |
| |
modelling the dynamic behaviour of pem fuel cells,
|
15,419 |
| |
performance and modelling of a methanol spe fuel
cell |
16,25 |
| |
physically-based model for the lithium-iodine
battery |
13,347 |
| |
prediction and measurement of thermal battery
temp. |
11,491 |
| |
self-discharge of electrochem. capacitors and
batteries |
16,8 |
| |
simulation of discharge curve by short-period
discharge |
13,287 |
| |
transient modelling of tubular positive lead-acid,
|
15,171 |
| |
voltage-time model of Li-FeS² thermal batteries,
|
14,313 |
| Measurement techniques |
| |
applications of Mn labelling of battery-active
dioxides |
11,339 |
| |
current dist. at Ni &Cd electrodes by laser
interferometry. |
4,243 |
| |
determination of ionic resistance of positive
lead plates |
7,17 |
| |
in situ studies of volume changes of nickel oxide
|
11,227 |
| |
method for ndt of reserve and dry-charged power
sources |
9,39 |
| Mechanical power
generation |
| |
thermo-mechanical generator. |
5, 643 |
| Melts, electronically
conducting |
| |
electron-conducting CuCl-CuCl² melt as cathode,
|
15,431 |
| |
polarisation at the Li-ion solid separator/molten
LiCl-KCl, |
14,353 |
| Metal hydrides |
| |
application of hydrides to the silver-hydrogen
system |
9,257 |
| |
hydride-forming metal alloys for rechargeable
batteries |
13,285 |
| |
LaNi4.7Al0.3 and LaNi5 electrodes in nickel/metal
hydride |
16, 2 |
| |
metal hydride electrode for nickel-metal hydride
battery |
12,393 |
| |
metal-H² system: interphase participation
in H²-transport, |
15,101 |
| |
new type of -ve electrode based on metal alloy
hydrides. |
4,79 |
| |
nickel hydride technology for space applications,
|
15,83 |
| |
performance characterization of metal hydride
electrodes |
16,3 |
| |
rechargeable hydride electrodes for Ni-H²
batteries |
10,317 |
| Metal-hydride anode
batteries |
| |
alloy effects on cycle life of nickel-metal hydride
|
13,149 |
| |
hydrogen storage materials for Ni-metal hydride
|
12,411 |
| |
hydrogen (hydride) air secondary battery |
7,343 |
| |
LaNi4.7Al0.3 and LaNi5 electrodes in nickel/metal
hydride |
16, 2 |
| |
nickel/metal hydride technology for consumer
and EVs |
16,1 |
| |
rechargeable hydride electrodes for Ni-H²
batteries |
10,317 |
| |
silver-metal hydride battery system optimisation,
|
15,115 |
| Microscopic techniques |
| |
microelectrode studies of the lead-acid system
|
11,83 |
| |
observations of the same point of a plate with
the sem |
5,139 |
| |
scanning electron microscope for battery research. |
3,35 |
| |
studies of electrodes processes by cine-microphotography. |
C,61 |
| |
study of lead dioxide by transmitted light microscopy. |
1, 133 |
| |
surface characterization of sintered nickel plaques
|
7,127 |
| Nanophase materials |
| |
NiOOH and other nanophase materials for recharge.batteries
|
16,35 |
| Nickel oxides |
| additives |
| |
development of thin nickel and cadmium electrodes
|
11,179 |
| |
effect of lithium on behaviour of nickel oxide
|
12,253 |
| |
effect of lithium on +ve plates of sintered plate
Ni-Cd |
1,297 |
| |
effects of additives on Ni electrode discharge
kinetics |
10,407 |
| |
effects of cadmium on nickel electrodes |
12,235 |
| |
impurity effects in metal hydroxide electrodes. |
A, (y) |
| |
nickel-scandium hydroxide electrode. |
C, 105 |
| |
sintered plate NiO(OH) electrodes in lithiated
electrolyte |
4,201 |
| ageing |
| |
ageing of µ and @-Ni(OH)² in nickel-cadmium
cells |
8,401 |
| |
further studies of ageing &impurity in NiO(OH)
electrode |
B, (26) |
| electrode reactions |
| |
electrochemical activity of amorphous nickel
|
12,221 |
| |
electrochemical properties of nickel hydroxide
electrodes. |
3,91 |
| |
improvement of high-rate discharge of nickel
electrode |
7,219 |
| |
in situ studies of volume changes of nickel oxide
|
11,227 |
| |
kinetics of the nickel hydroxide electrode. |
D, 147 |
| |
self-discharge of a nickel hydroxide electrode
|
2, 141 |
| manufacture |
| |
coated nickel electrodes. |
2, 167 |
| |
foamed nickel +ve for high performance Ni-Cd
|
12,203 |
| |
improved nickel electrodes for high temperatures
|
12,157 |
| |
iron immune positive nickel hydroxide electrode
|
12,165 |
| |
new technique for manufacturing electrodes by
hot pressing. |
4,223 |
| |
nickel electrodes for alkaline batteries |
10,377 |
| |
nickel hydroxide and other nanophase cathode
materials |
16,35 |
| |
nickel-cadmium traction in FNC fibre-technology
|
13,165 |
| |
plastic-bonded nickel oxide electrodes with open
structure |
7,153 |
| |
thermal decomp. of Ni-amine complexes for +ve
active mass |
3,169 |
| structure |
| |
characterisation of new lightweight nickel electrodes,
|
15,131 |
| |
characterisation of new lightweight nickel electrodes,
|
15,131 |
| |
cmg Ni(OH)² electrodes as a function of
structure |
9,201 |
| |
failure analysis of sintered Ni electrodes on
charge-disch. |
10,385 |
| |
nickel electrode surface properties as function
of s-o-c, |
14,2 |
| |
nickel hydroxide electrode: structural and thermodynamics
|
9,163 |
| |
structure and properties of nickel hydroxides. |
1,239 |
| |
structure of electrochemically active Ni oxide
electrodes. |
1,257 |
| |
structure of electrochem. active nickel oxide
electrode. |
1,257 |
| Noise, electrical |
| |
electrochemical noise in lithium primary cells,
|
14,131 |
| Optical techniques |
| |
optical observations of the Li/electrolyte interface,
|
15,241 |
| |
optical techniques to in situ studies of Pb-alloy
electrodes |
8,549 |
| Oxygen electrodes |
| |
carbon-based primary and secondary air electrodes. |
6,549 |
| |
oxygen reduction at gas diffusion electrode in
alkali |
1,421 |
| |
performance of silver alloys as oxygen electrodes
|
1,483 |
| |
Ag amalgam cathodes as O² electrodes in
metal-air |
5, 371 |
| |
air electrode at low temperatures. |
5, 393 |
| |
air electrode at low temperatures. |
5, 393 |
| |
aspects of the oxygen reduction mechanism |
1,433 |
| |
Fe-air secondary battery: improvements in air
electrode |
9,143 |
| |
hybrid oxygen electrode for metal-air batteries. |
4,311 |
| |
long-life power sources working by indirect air
cathodes |
10,271 |
| Performance |
| |
accelerated testing of long-life primary cells
|
7,647 |
| |
battery testing for photovoltaic applications
|
13,43 |
| |
behaviour of lithium primary cells under abusive
conditions |
9,473 |
| |
British Gas Li primary battery safety test programme,
|
15,317 |
| |
characteristics of sealed Ni-Cd and Ag-Cd batteries. |
D, 431 |
| |
characteristics of sealed Ni-Cd and Ag-Cd batteries. |
D, 431 |
| |
low temperature performance of high-rate SO²
cells |
12,451 |
| |
Ni-H² performance versus Ni-Cd . |
5, 331 |
| |
Ni-H² performance versus Ni-Cd . |
5, 331 |
| |
performance characterization of metal hydride
electrodes |
16,3 |
| |
performance of sodium-metal chloride cells |
12,563 |
| |
predicting life of EV &load-level.lead-acid
from test data |
10,507 |
| |
rechargeable alkaline MnO² cells. A test
report |
16,14 |
| |
rechargeable alkaline Zn-MnO²system, |
14,193 |
| |
sealed Ni-Cd and lead-acid batteries: comparison
& mechanisms. |
6,91 |
| |
study of pulse response of EV battery systems
|
13,35 |
| Phosphoric acid |
| |
effect of H3PO4 on PbSO4-PbO² at lead and
lead-alloy |
12,61 |
| Photovoltaics |
| |
battery testing for photovoltaic applications
|
13,43 |
| |
charge generation effects high efficiency MIS
solar cells |
9,365 |
| |
developments in degradation-resistant CdS solar
cells |
3,643 |
| |
economics of solar energy conversion by silicon
cells. |
D, 521 |
| |
effects of radiation damage in solar cells. |
C, 399 |
| |
redox storage systems for solar applications
|
8,227 |
| |
solar and nuclear generators |
A, (i) |
| |
solar array for 16,000 volts. |
3,625 |
| |
solar cell performance measurement. |
D, 503 |
| |
solar cells in the trinity house lighthouse service.
|
5, 617 |
| |
solar energy conversion with metal oxide photovoltaic
cells |
7,437 |
| |
mmm unattended battery charging from solar cells. |
C, 367 |
| |
use of lead-acid batteries in photovoltaic systems,
|
15,199 |
| Polarization |
| |
polarisation phenomena on porous electrodes. |
B,(30) |
| Quinones |
| |
rechargeable quinone battery for load-levelling
|
6,643 |
| Radio-isotope batteries |
| |
electrical microgenerators for medical use. |
4,615 |
| |
radioisotope battery using a Kr-85 clathrate
source |
D, 385 |
| |
solar and nuclear generators. |
A, (i) |
| |
topics in radiation electrochemistry. 1960 |
|
| Redox reactions |
| |
redox storage systems for solar applications
|
8,227 |
| Reference electrodes |
| |
microelectrode sensors for battery reactions,
|
15,253 |
| Reliability |
| |
detection of defective Ni-Cd cells by gassing
rate |
11,185 |
| |
failure mechanisms of vented Ni-Cd in overcharge
|
7,195 |
| |
fatigue cracking of beta-alumina electrolytes
|
11,485 |
| |
reliability of lithium batteries in search and
rescue beacons |
16,15 |
| |
reliable batteries for implantable medical applications
|
16,16 |
| Reviews |
| |
air-metal cell systems. |
2, 441 |
| |
applications and costs of electrical energy sources
|
1,577 |
| |
battery grid alloys-a review |
12,113 |
| |
canadian research on battery electrode systems. |
A, (k) |
| |
changes in secondary battery electrodes during
cycling. |
D, 55 |
| |
developments in solid state batteries |
8,77 |
| |
electric cars - third time lucky? |
15,1 |
| |
electrochemical power sources - modern health
care |
16,B |
| |
fuel cell r and d projects in Europe |
12,351 |
| |
high energy battery safety: anecdotes, issues
and approaches |
16,41 |
| |
new possibilities of electrodes for alkaline
accumulators. |
6,215 |
| |
North American battery sector- problems and solutions,
|
15,11 |
| |
North American battery sector-problems and solutions,
|
15,11 |
| |
novel techniques in battery operation |
A, (s) |
| |
novel techniques in battery operation. |
A, (s) |
| |
performance of european lead-acid batteries for
EVs |
9,85 |
| |
principles for system level electrochemistry
|
11,381 |
| |
problems in the development of storage batteries. |
A, (h) |
| |
properties of cathode materials in alkaline cells
|
10,425 |
| |
recent canadian research on battery electrode
systems. |
A, (k) |
| |
recent developments in rechargeable lithium batteries
|
13,429 |
| |
review of recent developments in thermal batteries
|
8,285 |
| |
sealed nickel-cadmium and lead-acid batteries:
comparison |
6,91 |
| |
some new electrochemical devices |
C,207 |
| |
some new electrochemical devices. |
C,207 |
| |
some new refill cell systems. |
2, 359 |
| |
status of flow battery research in the United
States |
9,271 |
| |
utility fuel cells for sweden |
7,419 |
| |
U.S. Navy's Li rechargeable programme 1: Li-CoO
cell |
13,437 |
| |
U.S. Navy's Li rechargeable programme. AA-size
cells |
13,381 |
| Safety |
| |
behaviour of lithium primary cells under abusive
conditions |
9,473 |
| |
high energy battery safety: anecdotes, issues
and approaches |
16,41 |
| |
Li/SOCl² . performance and safety of super
high rate cells |
8,41 |
| |
safety in sodium-sulphur cells and batteries
|
8,323 |
| |
unusual chemical and thermal phenomena in Li-SO²
cells |
13,363 |
| Sea water batteries |
| |
anodic dissolution of Mg alloys in PbCl²-Mg
seawater batteries |
8,117 |
| |
chloride depolarised water-activated batteries
|
A, (j) |
| |
sea water batteries for special applications. |
4,51 |
| |
seawater batteries for long term applications
|
13,307 |
| |
water-activated high voltage batteries. |
A, (zz) |
| Separators |
| cellulosic |
| |
absorption and diffusion of zincate ions in cellulose
|
1,21 |
| |
absorption and diffusion of zincate ions in cellulose
|
1,21 |
| |
cellulosic separators: new for alkaline cells
|
16, 5 |
| |
methyl-cellulose separators in dry battery electrolytes
|
11,301 |
| |
regenerated cellulose in strongly alkaline environments
|
9,349 |
| |
separators and their effect on lead-acid performance. |
C, 15 |
| |
separators for primary silver oxide-zinc cells
|
9,333 |
| ceramic |
| |
fatigue cracking of beta-alumina electrolytes
|
11,485 |
| |
haloborate glass ceramics--novel Na ion conductors
|
11,509 |
| |
inorganic separator for alkaline silver batteries. |
5, 233 |
| |
new type of inorganic separator for silver batteries. |
5, 233 |
| |
performance of beta-alumina ceramic electrolyte
|
3,245 |
| |
preparation of a beta-alumina ceramic using powder
method |
6,665 |
| gas permeable |
| |
developments in valve-regulated battery separators
|
13,45 |
| |
deltapore battery separators and electrode pack |
9,65 |
| |
transport and wetting in recombination separator
systems |
11,45 |
| |
Zn-air cell using gas-selective permeable membranes
|
10,281 |
| graft co-polymer |
| |
comparison of graft copolymer separators in electrolytes
|
7,365 |
| |
graft copolymer separators for silver-zinc batteries. |
4,141 |
| |
graft copolymers as separators in silver alkaline
cells. |
3,327 |
| |
graft copolymers as separators in silver cells. |
3,327 |
| ion exchange |
| |
ion-exchange membrane seps. for organic elect.
secondaries |
2, 231 |
| Short circuit protection |
| |
short circuit protection of batteries and cells
|
9,391 |
| Silver anode batteries |
| |
kinetics of the silver/silver rubidium iodide
electrode |
3,525 |
| Silver oxides |
| |
Ag-Zn cell for extreme temperature operation
|
D, 475 |
| |
crystall. &chemical studies of the oxides
of silver |
C, 285 |
| |
development of a stable AgO battery |
9,325 |
| |
developments in very high rate silver oxide electrodes
|
16,7 |
| |
effects of KOH concentration on sintered silver
electrodes. |
4,163 |
| |
instability in AgO electrode material |
11,349 |
| |
potential-controlled anodizing of Ag in alkaline
solution |
3,467 |
| |
problems with the silver-zinc battery |
A, (f) |
| |
synthetic silver oxide for battery electrodes. |
1,193 |
| Sodium anode batteries |
| -metal chloride |
| |
fabrication of discharged +ves for Na-metal chloride
|
12,537 |
| |
performance of sodium-metal chloride cells |
12,563 |
| |
positive electrode in sodium-metal chloride cells
|
12,5 |
| -sulfur |
| |
advanced sodium-sulphur cell and battery design
|
11,521 |
| |
assessment of the sodium-sulphur battery |
3,227 |
| |
assessment of two sodium-sulphur cell designs. |
4,1 |
| |
computer modelling of parallel arrays of Na-S
cells |
7,733 |
| |
corrosion resistant materials for sodium-sulphur
cells |
12,523 |
| |
current collectors for sodium-sulphur batteries
|
7,757 |
| |
electrode interface formed between sodium and
beta-alumina. |
6,673 |
| |
model for the molten sodium polysulphide electrode
|
7,713 |
| |
performance of different types of sodium-sulphur
cells |
6,711 |
| |
polarization and corrosion in sodium-sulphur
cells. |
5, 539 |
| |
safety in sodium-sulphur cells and batteries
|
8,323 |
| |
sodium-sulphur batteries for naval applications,
|
15,421 |
| |
sodium-sulphur battery in an underwater vehicle,
|
14,327 |
| |
sodium/sulphur(1V) molten chloroaluminate cell
|
13,333 |
| |
some aspects of sodium-sulphur batteries |
7,743 |
| Solid state batteries |
| |
developments in solid state batteries |
8,77 |
| |
solid state batteries. |
2, 389 |
| |
solid state batteries. |
3,535 |
| Specifications |
| |
ideas on test schedules for automotive batteries
|
1,227 |
| State-of-charge
monitors |
| |
a new battery state-of-charge indicator for EVs
|
5,155 |
| |
ageing measurement of nickel-cadmium batteries,
|
15,49 |
| |
alkaline battery state-of-charge indicator |
3,135 |
| |
alkaline battery state-of-charge indicator. |
3,135 |
| |
battery monitoring and management systems, |
15,31 |
| |
measurement of the state-of-charge of nickel-cadmium
, |
14,43 |
| |
nickel electrode surfaces as a function of s-o-c,
|
14,2 |
| |
state of charge measurements in sealed lead-acid
cells |
11,21 |
| |
state of health of sealed lead-acid batteries
|
12,43 |
| |
state-of-charge characteristics of the lead-acid
battery |
10,525 |
| Stibine and arsine |
| |
evolution of stibine from lead-acid batteries. |
A, (i) |
| |
stibine and arsine from submarine lead-acid cells,
|
14,33 |
| Sulfur |
| |
the sulphur electrode. |
2, 289 |
| Surfactants |
| |
fluorinated surfactants as additives for lithium
batteries, |
14,69 |
| Supercapacitors |
| |
self-discharge of electrochem. capacitors and
batteries |
16,8 |
| |
supercapacitors &batteries for elect. energy
storage, |
15,65 |
| |
three-dimensional current collectors on supercapacitors
|
16,9 |
| Test equipment |
| |
computer use in automatic data acquisition systems |
2, 213 |
| |
method for ndt of reserve and dry-charged power
sources |
9,39 |
| Thermal batteries |
| |
advances in high temperature primary lithium
batteries |
7,701 |
| |
Al-Li/FeS² immobilised salt cell system |
10,87 |
| |
analysis of interfaces in Li(Si)-FeS² primary
battery |
8,305 |
| |
Ca-CaCrO4 and Li-Al-FeS² systems for thermal
batteries |
7,501 |
| |
developments in Li(Si)-FeS² thermal battery |
9,563 |
| |
electrolyte in Li(Si)-FeS² thermal batteries,
|
15,443 |
| |
electron-conducting CuCl-CuCl² melt as cathode,
|
15,431 |
| |
high density thermal batteries using Li anode
technology |
10,23 |
| |
high energy density molten anode thermal battery
|
6,537 |
| |
improvements in energy of lithium thermal batteries,
|
14,281 |
| |
improvements in thermal battery activation methods
|
13,319 |
| |
new cathode materials for thermal batteries,
|
14,299 |
| |
prediction and measurement of thermal battery
temp. |
11,491 |
| |
review of recent developments in thermal batteries
|
8,285 |
| |
sixty minute thermal battery: a feasibility study
|
5, 581 |
| |
thermal batteries for high-spin applications
|
10,55 |
| |
voltage characteristics of thermal batteries. |
3,579 |
| |
voltage-time model of Li-FeS² thermal batteries,
|
14,313 |
| Thermal management |
| |
heat generation in Li/SOC1² cells |
7,571 |
| |
recombination and thermal management in sealed
lead-acid |
12,1 |
| |
the study of thermal processes in nickel-hydrogen
batteries, |
14,3 |
| |
thermal considerations of sealed Ni-Cd batteries. |
4,257 |
| |
thermal management of batteries |
8,263 |
| |
thermal modelling of a lithium torpedo battery
|
11,473 |
| Thermoelectrics |
| |
economics and app. of thermoelectric generators
|
1,627 |
| |
Ge-Si alloys properties and use in thermoelectrics. |
2, 601 |
| |
high efficiency thermoelectric generator. |
5, 637 |
| |
thermoelectric generator modules using Si-Ge
alloy. |
1,613 |
| |
thermoelectric heater for low temp.op. of military
vehicles |
8,183 |
| Titanium |
| |
anastase-TiO², as cathode material for lithium
secondary cells |
8,27 |
| |
survey of the possible uses of titanium in batteries |
C, 297 |
| |
the use of titanium in the lead-acid battery. |
4,525 |
| Transition metal
oxides |
| |
behaviour of metallic oxides for electrochemical
cells |
4,437 |
| |
ceramic superconductors as cathodes in secondary
lithium |
16,36 |
| |
change of perovskite oxide during polarisation
|
11,393 |
| |
electrode reactions of Co at noble metal electrodes. |
1,509 |
| |
Li microbatteries using transition metal oxides,
|
15,373 |
| |
new cathode materials for thermal batteries,
|
14,299 |
| |
rechargeable Li cells having oxide based electrodes
|
9,459 |
| |
transition metal phosphorus trisulphides as cathodes
|
7,623 |
| Vanadium oxides |
| |
large scale preparation of non-stoichiometric
V6O13 |
12,507 |
| Zinc anode primary
batteries |
| corrosion |
| |
inhibition of corrosion in dry cells. |
B, (9) |
| gassing |
| |
gas formation in dry cells |
C, 335 |
| performance testing |
| |
accelerated testing of long-life primary cells
|
7,647 |
| |
determination of internal resistance of leclanche
cells |
D, 219 |
| |
some aspects of dry cell behaviour. |
A, (a) |
| separators |
| |
mass transport in the separator of leclanche
cells |
5, 503 |
| |
separators for primary silver oxide-zinc cells
|
9,333 |
| |
transport in the leclanche cell separator during
discharge. |
6,403 |
| shelf life |
| |
shelf life of leclanche batteries |
2, 335 |
| |
storage of leclanche cells in various environments.
|
D, 233 |
| |
storageability of deep frozen dry batteries. |
B, (10) |
| -air |
| |
air-metal cell systems |
2,441 |
| |
commercial zinc-air batteries. |
6,269 |
| |
high-rate zinc-oxygen batteries. |
2, 461 |
| |
primary zinc-air batteries. |
4,327 |
| |
small zinc-air batteries for large-scale production. |
3,511 |
| |
zinc-air battery for electric vehicle applications. |
4,347 |
| |
zinc-air battery systems. |
2, 423 |
| |
zinc-air primary cells. |
5, 411 |
| |
zinc-air/MnO² cylindrical cells for high
currents |
12,319 |
| |
Zn-air cell using gas-selective permeable membranes
|
10,281 |
| -alkaline manganese dioxide |
| |
change in chemical parameters in MnO²-Zn
during discharge |
1, 49 |
| |
reduction of Hg in zinc for alkaline dry batteries
|
11,281 |
| |
zinc-alkaline- MnO² dry cells |
C, 157 |
| -carbon (Leclanché) |
| |
compounds formed during discharge of a leclanche
cell. |
C, 309 |
| |
design and perf. of novel thin flat leclanche
battery. |
6,383 |
| |
leclanche cell with elect. containing rare earth
salts |
1,83 |
| |
production of zinc cans for dry cells bv impact
extrusion |
7,463 |
| |
reactivity of doped and international MnO²
in dry battery |
12,309 |
| |
study of electrolyte in zinc chloride leclanche
cells |
7,445 |
| -mercuric oxide |
| |
alkaline zinc-mercuric oxide cells and batteries. |
A, (c) |
| |
low temperature performance of the Zn-HgO system
|
2,373 |
| |
mercury cell - "kalium" version. |
A, (p) |
| |
reactions in the mercuric oxide-zinc cell. |
4,381 |
| |
wound-anode mercury cells. |
B, 1 |
| -silver chloride |
| |
development of silver chloride/zinc batteries. |
B, (19) |
| |
observations on the performance of Zn-AgCl cells. |
C, 453 |
| |
test programme on silver chloride-zinc cells. |
1,99 |
| |
Zn-AgCl. a battery to withstand extremes of temperature
|
3,567 |
| -silver oxide |
| |
development of a stable AgO battery |
9,325 |
| |
long life silver oxide-zinc primary cells for
electronic |
8,141 |
| |
zinc-silver oxide cell for extreme temperature
operation. |
D, 475 |
| Zinc anode reserve
batteries |
| |
development of fast-activating zinc-silver oxide
batteries. |
C, 419 |
| |
primary, reserve Zn-air battery for military
manpack |
6,291 |
| |
primary, reserve-type Zn-air battery for military
manpacks |
6,291 |
| |
primary reserve-type zinc-air battery for military
man packs |
6,291 |
| |
storage of dry-charged silver oxide-zinc reserve
cells |
5, 465 |
| |
"tarana". a multicell inert dry battery. |
A, (q) |
| Zinc anode secondary
batteries |
| -air |
| |
advances on secondary zinc-air batteries |
8,489 |
| |
new design for the rechargeable zinc-air battery
|
4,361 |
| -alkaline manganese dioxide |
| |
cathodic mixture on rechargeability of alkaline
MnO²-Zn |
9,287 |
| |
criteria for rechargeability of alkaline MnO²
cells |
7,557 |
| |
rechargeable alkaline MnO² cells. A test
report |
16,14 |
| |
rechargeable alkaline Zn-MnO²system, |
14,193 |
| |
rechargeable zinc-carbon hybrid cells |
16,12 |
| -bromine |
| |
advances in zinc-bromine batteries |
7,313 |
| |
bromine storage in zinc-bromine batteries |
13,237 |
| |
design and testing of a 10 kW zinc-bromine battery |
9,183 |
| |
zinc-bromine battery studies |
7,301 |
| -chlorine |
| |
zinc-chlorine energy-storage systems |
10,353 |
| -nickel oxide |
| |
bipolar NiO(OH)-K2B03-Zn accumulator. |
4,115 |
| |
effect of substrate on zinc deposition in nickel-zinc,
|
15,139 |
| |
high-energy long-life Ni-Zn battery for EVs |
6,303 |
| |
improved Ni-Zn battery for ventricular-assist
systems |
16,17 |
| |
nickel-zinc cell with an auxiliary electrode. |
5, 303 |
| |
nickel-zinc cells with non-sintered electrodes. |
4,103 |
| |
nickel-zinc:a practical high energy secondary
battery. |
3,309 |
| |
Ni-Zn rechargeable cell of the fixed electrode
type. |
6,321 |
| |
Ni-Zn battery, application to the hybrid vehicle
|
8,357 |
| |
rechargeable nickel-zinc cell with an auxiliary
electrode. |
5,303 |
| |
sealed, rechargeable nickel-zinc cells. |
4,93 |
| -silver oxide |
| |
developments in very high rate silver oxide electrodes
|
16,7 |
| |
improved silver/zinc secondary cells for underwater
|
16,6 |
| |
long life silver-zinc secondary batteries |
1,463 |
| |
materials problems in the silver-zinc battery. |
C, 179 |
| |
separators for silver-zinc alkaline storage batteries. |
4,141 |
| |
silver-zinc batteries for special applications. |
A, (gg) |
| Zinc electrodes |
| amalgamation |
| |
amalgamated and non-amalgamated zinc electrodes. |
2,411 |
| |
amalgamation of zinc anodes in leclanche dry
cells. |
4,415 |
| |
reduction of Hg in zinc for alkaline dry batteries
|
11,281 |
| corrosion |
| |
corrosion &polarisation of Zn in alkaline
solution |
9,30 |
| fluidized |
| |
fluidized zinc electrode. |
4,297 |
| gassing |
| |
gas evolution data on very low Hg zinc powders
|
12,265 |
| gelled |
| |
gelled zinc anode using galvanostatic transient
technique |
10,217 |
| |
performance of gelled zinc alloy powders in alkaline
|
16,13 |
| |
resistivity and discharge of Hg-free gelled zinc
anodes, |
14,177 |
| kinetics |
| |
kinetic study of the zinc electrode by modified
techniques. |
2,401 |
| |
passivation studies on the zinc electrode. |
3,485 |
| |
porous zinc anode under galvanostatic and pulse
discharge. |
6,335 |
| in primary batteries |
| |
effect of lead on electrodeposited primary zinc
electrodes. |
3,495 |
| |
water on zinc polymer electrolytes in battery
systems, |
15,163 |
| in secondary batteries |
| |
additives for a secondary zinc electrode |
11,253 |
| |
behaviour of negative plates in silver-zinc batteries
|
B,(3) |
| |
effect of substrate on zinc deposition in nickel-zinc,
|
15,139 |
| manufacture |
| |
modification of a secondary zinc electrode |
13,225 |
| |
quality of zinc for dry batteries. |
A, B, |
