TL;DR: In this article, the authors examined the possible routes for thermochemical conversion of microalgae into liquid bio-fuels, distinguishing between dry-processes (namely Pyrolysis, PO) and near critical-water HydroThermal Liquefaction, HTL, and compared to original results from algae pyrolysis.
TL;DR: In this article, a survey of major accidents related to the production of bioenergy (intended as biomass, bioliquids/biofuels and biogas) was carried out, and a data repository was built, based on past accident reports available in the open literature and in specific databases.
Abstract: Some recent accidents involving the bioenergy production and feedstock supply chain raised concern on the safety of such technologies. A survey of major accidents related to the production of bioenergy (intended as biomass, bioliquids/biofuels and biogas) was carried out, and a data repository was built, based on past accident reports available in the open literature and in specific databases. Data analysis shows that major accidents are increasing in recent years and their number is growing faster than bioenergy production. The results obtained represent an early warning concerning the major accident hazard of bioenergies, and suggest the importance of risk awareness and safety culture in bioenergy production, in the perspective of a safe and sustainable exploitation of renewable resources.
TL;DR: In this article, the European Project Bioliquids-CHP -a joint project between the European Commission and Russia, a study was undertaken to develop small scale CHP units based on engines and microturbines fuelled with bioliquids from fast pyrolysis and methyl esters of vegetable oil.
TL;DR: In this paper, the authors examined the possible routes for thermochemical conversion of microalgae, distinguishing between dry-processes (namely pyrolysis and gasification) and near critical water hydrothermal liquefaction, and showed that the expected elementary composition of major products is given.
TL;DR: In this article, a review examines the use of steam reforming to convert bioliquids, such as ethanol, glycerol, butanol, vegetable oil, bio-oils and biodiesel, into hydrogen gas.
Abstract: This review examines the use of steam reforming to convert bioliquids, such as ethanol, glycerol, butanol, vegetable oil, bio-oils and biodiesel, into hydrogen gas. The focus of the research was to investigate the research being undertaken in terms of catalyst developments for the steam reforming of the aforementioned feedstock, and to determine the perspective opportunities in this area. Hydrogen production by steam reforming of bio-oil, ethanol and pure glycerol has been widely investigated; several thermodynamic and catalytic investigations are available restricting new investigations. In contrast, hydrogen production from waste streams, vegetable oil, biodiesel and butanol is very recent and has room for further developments.