1 - 1 |
Solar chemistry: Part A Reller A |
3 - 13 |
Solar thermochemical conversion of biomass Lede J |
15 - 19 |
Oxidation rates of carbon black particles exposed to concentrated sunlight Funken KH, Lupfert E, Hermes M, Bruhne K, Pohlmann B |
21 - 23 |
Gasification of waste tyre and plastic (PET) by solar thermochemical process for solar energy utilization Matsunami J, Yoshida S, Yokota O, Nezuka M, Tsuji M, Tamaura Y |
25 - 31 |
Application of concentrated solar radiation to high temperature detoxification and recycling processes of hazardous wastes Funken KH, Pohlmann B, Lupfert E, Dominik R |
33 - 41 |
A cone concentrator for high-temperature solar cavity-receivers Hahm T, Schmidt-Traub H, Lessmann B |
43 - 53 |
Design aspects of solar thermochemical engineering - A case study: Two-step water-splitting cycle using the Fe3O4/FeO redox system Steinfeld A, Sanders S, Palumbo R |
55 - 57 |
Solar hydrogen production by using ferrites Tamaura Y, Ueda Y, Matsunami J, Hasegawa N, Nezuka M, Sano T, Tsuji M |
59 - 69 |
Direct solar thermal dissociation of zinc oxide: Condensation and crystallisation of zinc in the presence of oxygen Weidenkaff A, Steinfeld A, Wokaun A, Auer PO, Eichler B, Reller A |
71 - 74 |
Immobilized photosensitizers for solar photochemical applications Faust D, Funken KH, Horneck G, Milow B, Ortner J, Sattlegger M, Schafer M, Schmitz C |
75 - 80 |
The influence of applied bias potential on the photooxidation of methanol and salicylate on titanium dioxide films Mandelbaum P, Bilmes SA, Regazzoni AE, Blesa MA |