809 - 819 |
A figure of merit assessment of the routes to hydrogen Ewan BCR, Allen RWK |
821 - 827 |
Photoresponse of spray pyrolytically synthesized copper-doped p-Fe2O3 thin film electrodes in water splitting Ingler WB, Khan SUM |
829 - 842 |
Hydrogen from natural gas: part I - autothermal reforming in an integrated fuel processor Lee SHD, Applegate DV, Ahmed S, Calderone SG, Harvey TL |
843 - 853 |
Production of hydrogen by thermal methane splitting in a nozzle-type laboratory-scale solar reactor Abanades S, Flamant G |
855 - 860 |
Hydrogen production in batch culture of mixed bacteria with sucrose under different iron concentrations Zhang YF, Liu GZ, Shen JQ |
861 - 866 |
Absorption and evolution of hydrogen in/from ZrV1.9Fe0.1 particle bed at hydrogen production temperature Fukada S, Shimoozaki N, Morimitsu S, Nishikawa M |
867 - 877 |
Net energy analysis of hydrogen storage options Sarkar A, Banerjee R |
879 - 892 |
Experiments on a metal hydride based hydrogen compressor Muthukumar P, Maiya AP, Murthy SS |
893 - 902 |
Hydrogen synthesis via combustion of fuel-rich natural gas/air mixtures at elevated pressure Lemke B, Roodhouse C, Glumac N, Krier H |
903 - 912 |
Real gas simulation of hydrogen release from a high-pressure chamber Mohamed K, Paraschivoiu M |
913 - 917 |
Comments on: The phase-shift method for determining Langmuir adsorption isotherms of over-potentially deposited hydrogen for the cathodic H-2 evolution reaction at poly-Re/aqueous electrolyte interfaces [Hydrogen Energy 30 (2005) 485-499] Lasia A |
919 - 928 |
Response to comments on: The phase-shift method for determining Langmuir adsorption isotherms of over-potentially deposited hydrogen for the cathodic H-2 evolution reaction at poly-Re/aqueous electrolyte interfaces [Hydrogen Energy 30 (2005) 485-499] Chun JH, Jeon SK, Kim NY, Chun JY |
929 - 930 |
Response to comments on: Production of Hydrogen, obtaining electric and thermal energy by water dissociation method [Hydrogen Energy 29 (2004) 1555-1558] Lipovetsky V |