1 - 4 |
Recent developments and future prospects for lithium rechargeable batteries Ritchie AG |
5 - 13 |
Carbon-carbon composite as anodes for lithium-ion battery systems Hossain S, Saleh Y, Loutfy R |
14 - 19 |
Optimisation of PVdF-based polymer electrolytes Muniyandi N, Kalaiselvi N, Periyasamy P, Thirunakaran R, Babu BR, Gopukumar S, Premkumar T, Renganathan NG, Raghavan M |
20 - 28 |
Investigation of the stability of chlorinated PVC-based polymer electrolytes for lithium batteries Shembel EM, Chervakov OV, Neduzhko LI, Maksyuta IM, Polischuk YV, Reisner DE, Novak P, Meshri D |
29 - 32 |
Improving the interfacial resistance in lithium cells with additives Nagasubramanian G, Doughty D |
33 - 38 |
Evolution of power sources for implantable cardioverter defibrillators Crespi AM, Somdahl SK, Schmidt CL, Skarstad PM |
40 - 46 |
Development of true prismatic lithium-ion cells for high rate and low temperature applications Puglia F, Gitzendanner R, Marsh C, Curran T |
47 - 51 |
Li-ion battery technology for compact high power sources (CHPS) Sack T, Matty T |
52 - 56 |
Computer simulation of the discharge of metal electrodes in batteries with solid electrolytes Ostapenko GI, Antonov SN |
57 - 67 |
Analysis of power limitations at porous supercapacitor electrodes under cyclic voltammetry modulation and dc charge Pell WG, Conway BE |
68 - 75 |
Nickel metal hydride batteries for high power applications Soria ML, Chacon J, Hernandez JC, Moreno D, Ojeda A |
76 - 84 |
Alkaline high power batteries in a bipolar stack design Ohms D, Kohlhase M, Benczur-Urmossy G, Schaedlich G, Wiesener K, Harmel J |
85 - 89 |
The development of hydrogen storage electrode alloys for nickel hydride batteries Hong K |
90 - 93 |
Electrocatalytic characteristics of the metal hydride electrode for advanced Ni/MH batteries Geng M, Feng F, Gamboa SA, Sebastian PJ, Matchett AJ, Northwood DO |
94 - 101 |
Performance of valve-regulated lead-acid batteries in real-world stationary applications - utility installations Butler P, Dunleavey J, Farber-DeAnda M, Moseley P |
102 - 105 |
Latest developments in super high rate lead-acid batteries from India Bhattacharyya A, Dasgupta D, Ghosh S |
106 - 112 |
On the impedance of the gassing reactions in lead-acid batteries Hammouche A, Karden E, Walter J, De Doncker RW |
113 - 120 |
Methods for state-of-charge determination and their applications Piller S, Perrin M, Jossen A |
121 - 127 |
Aging in chemically prepared divalent silver oxide electrodes for silver/zinc reserve batteries Smith DF, Brown C |
128 - 132 |
Advanced membranes for alkaline primary and rechargeable alkaline cells with zinc anodes Lewis H, Jackson P, Salkind A, Danko T, Bell R |
133 - 139 |
High-rate capability of zinc anodes in alkaline primary cells Huot JY, Malservisi M |
140 - 144 |
Future talk Kniveton M |
145 - 150 |
VARTA micro batteries for wireless telecommunication devices Ilic D, Heydecke J, Kilb M, Knop I, Schulz G |
151 - 159 |
Dynamic characterization of small lead-acid cells Salkind A, Atwater T, Singh P, Nelatury S, Damodar S, Fennie C, Reisner D |
160 - 166 |
Energy sources for the future dismounted soldier, the total integration of the energy consumption within the soldier system Raadschelders JW, Jansen T |
168 - 172 |
Renewable energy systems based on hydrogen for remote applications Agbossou K, Chahine R, Hamelin J, Laurencelle F, Anouar A, St-Arnaud JM, Bose TK |
174 - 178 |
Polymer electrolyte membrane fuel cells for communication applications Chu D, Jiang R, Gardner K, Jacobs R, Schmidt J, Quakenbush T, Stephens J |
180 - 183 |
Further development of lithium/polycarbon monofluoride envelope cells Ritchie AG, Giwa CO, Bowles PG, Burgess J, Eweka E, Gilmour A |
184 - 198 |
Ultralife's polymer electrolyte rechargeable lithium-ion batteries for use in the mobile electronics industry Cuellar EA, Manna ME, Wise RD, Gavrilov AB, Bastian MJ, Brey RM, DeMatteis J |
200 - 203 |
Direct methanol-air fuel cells with membranes plus circulating electrolyte Kordesch K, Hacker V, Bachhiesl U |
204 - 213 |
The effect of anode flow characteristics and temperature on the performance of a direct methanol fuel cell Amphlett JC, Peppley BA, Halliop E, Sadiq A |
214 - 219 |
An innovative technique for pore structure analysis of fuel cell and battery components using flow porometry Jena A, Gupta K |
220 - 225 |
Possibilities of prevention of formation of poisoning species on direct methanol fuel cell anodes Manoharan R, Prabhuram J |
226 - 232 |
In situ X-ray absorption spectroscopy and X-ray diffraction of fuel cell electrocatalysts Russell AE, Maniguet S, Mathew RJ, Yao J, Roberts MA, Thompsett D |
233 - 235 |
New lightweight bipolar plate system for polymer electrolyte membrane fuel cells Hodgson DR, May B, Adcock PL, Davies DP |
236 - 239 |
Optimization of the magnesium-solution phase catholyte semi-fuel cell for long duration testing Medeiros MG, Bessette RR, Deschenes CM, Atwater DW |
240 - 244 |
Development and characterization of a novel carbon fiber based cathode for semi-fuel cell applications Bessette RR, Medeiros MG, Patrissi CJ, Deschenes CM, LaFratta CN |
246 - 258 |
Findings of the rechargeable battery study sponsored by NATIBO (North American technology and industrial base organization) Gucinski JA, Slack M |
260 - 265 |
Safety of lithium batteries in transportation Farrington MD |
266 - 271 |
Power Sources 18 - Research and Development in Non-Mechanical Electrical Power Sources - The 22nd International Power Sources Symposium held in Manchester, England, 9-11 April 2001 - Poster abstracts |
XIII - XIII |
Research and development in non-mechanical electrical power sources - The 22nd International Power Sources Symposium held in Manchester, England, 9-11 April 2001 - Foreword Keily T |
XVII - XX |
The Bourner lecture - do standby batteries need to have a new chemistry? Karlsson G |