FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W1936405539> ?p ?o ?g. }

• W1936405539 endingPage "324" @default.
• W1936405539 startingPage "281" @default.
• W1936405539 abstract "Abstract Methane produced from waste biomass is a renewable and clean biofuel that can be distributed using the existing natural gas infrastructure. It can be used for heat and power generation and as a transportation fuel. High‐moisture biomass is a relatively untapped resource with a significant energetic potential and attractive costs. However, new technologies are needed for converting high‐moisture biomass efficiently into methane and recovering the nutrients for use as a fertilizer. Gasification of the biomass in a hydrothermal environment is an emerging technology that offers many advantages over gas‐phase conversion processes or anaerobic digestion. Heterogeneous catalysis is the key to a successful hydrothermal gasification process for the synthesis of methane. Only a few metals, including Ru, Ni, Rh and Pt, are useful under these conditions. Pd and Co catalysts might also be suitable but conclusive data are lacking. Alloying is another approach that holds promise to yield active and stable catalysts. The choice of hydrothermally stable supports is limited to some insoluble oxides and carbon. Some of these oxides have not yet been tested as catalyst supports (e.g. Nb 2 O 5 , Ta 2 O 5 and UO 2 ) and might prove useful. The mechanism for the gasification of the organic compounds to CO and H 2 is likely to follow a Mars–van‐Krevelen redox cycle with two oxides of the catalytic metal involved. The strongest evidence for such a mechanism was found for RuO 2 , but specific in situ studies are needed for corroborating this hypothesis and determining the actual oxidation states involved in the mechanism. Deactivation in hydrothermal gasification follows the same modes as in gas‐phase and liquid‐phase catalysis. Coke deposition is not a primary cause of deactivation due to the high partial pressure of water and the high solubility of coke precursors in near‐ and supercritical water. Salts play a crucial role in catalyst deactivation. Sulfate was found to be a strong poison for Ru catalysts, but the actual poison might be sulfide, formed by reduction of the sulfate with hydrogen or organic compounds. Based on this knowledge, a continuous catalytic hydrothermal gasification process is under development at PSI featuring continuous on‐line salt precipitation and removal before the catalytic reactor." @default.
• W1936405539 created "2016-06-24" @default.
• W1936405539 creator A5017616794 @default.
• W1936405539 date "2010-07-15" @default.
• W1936405539 modified "2023-10-16" @default.
• W1936405539 title "Catalytic Conversion of High‐Moisture Biomass to Synthetic Natural Gas in Supercritical Water" @default.
• W1936405539 cites W1963922513 @default.
• W1936405539 cites W1964339682 @default.
• W1936405539 cites W1969768757 @default.
• W1936405539 cites W1971239276 @default.
• W1936405539 cites W1977355895 @default.
• W1936405539 cites W1977822381 @default.
• W1936405539 cites W1979194020 @default.
• W1936405539 cites W1982894212 @default.
• W1936405539 cites W1984596515 @default.
• W1936405539 cites W1986895712 @default.
• W1936405539 cites W1989200602 @default.
• W1936405539 cites W1989247923 @default.
• W1936405539 cites W1990120431 @default.
• W1936405539 cites W1993899920 @default.
• W1936405539 cites W1994568894 @default.
• W1936405539 cites W1995517064 @default.
• W1936405539 cites W1997658055 @default.
• W1936405539 cites W1999307455 @default.
• W1936405539 cites W2002195574 @default.
• W1936405539 cites W2003162061 @default.
• W1936405539 cites W2003232527 @default.
• W1936405539 cites W2009623644 @default.
• W1936405539 cites W2012073963 @default.
• W1936405539 cites W2014859884 @default.
• W1936405539 cites W2017301582 @default.
• W1936405539 cites W2020195528 @default.
• W1936405539 cites W2020200151 @default.
• W1936405539 cites W2022415150 @default.
• W1936405539 cites W2032051344 @default.
• W1936405539 cites W2034771748 @default.
• W1936405539 cites W2038188454 @default.
• W1936405539 cites W2039796025 @default.
• W1936405539 cites W2039851020 @default.
• W1936405539 cites W2041483055 @default.
• W1936405539 cites W2041674976 @default.
• W1936405539 cites W2042907990 @default.
• W1936405539 cites W2043059965 @default.
• W1936405539 cites W2043735746 @default.
• W1936405539 cites W2043799904 @default.
• W1936405539 cites W2044728411 @default.
• W1936405539 cites W2046297419 @default.
• W1936405539 cites W2054132780 @default.
• W1936405539 cites W2058719918 @default.
• W1936405539 cites W2062044547 @default.
• W1936405539 cites W2062077611 @default.
• W1936405539 cites W2065364168 @default.
• W1936405539 cites W2068845658 @default.
• W1936405539 cites W2069811811 @default.
• W1936405539 cites W2070437404 @default.
• W1936405539 cites W2072284719 @default.
• W1936405539 cites W2075554211 @default.
• W1936405539 cites W2078699531 @default.
• W1936405539 cites W2080848563 @default.
• W1936405539 cites W2080959879 @default.
• W1936405539 cites W2081221463 @default.
• W1936405539 cites W2084729873 @default.
• W1936405539 cites W2084972697 @default.
• W1936405539 cites W2089239248 @default.
• W1936405539 cites W2092904940 @default.
• W1936405539 cites W2094468988 @default.
• W1936405539 cites W2100790976 @default.
• W1936405539 cites W2103918554 @default.
• W1936405539 cites W2111673695 @default.
• W1936405539 cites W2112622717 @default.
• W1936405539 cites W2121365896 @default.
• W1936405539 cites W2123970230 @default.
• W1936405539 cites W2125418459 @default.
• W1936405539 cites W2137732711 @default.
• W1936405539 cites W2153706306 @default.
• W1936405539 cites W2166285603 @default.
• W1936405539 cites W2169061913 @default.
• W1936405539 cites W2171393731 @default.
• W1936405539 cites W2171764294 @default.
• W1936405539 cites W28314537 @default.
• W1936405539 cites W2949738798 @default.
• W1936405539 cites W4236478404 @default.
• W1936405539 cites W4322701376 @default.
• W1936405539 cites W9111463 @default.
• W1936405539 doi "https://doi.org/10.1002/9783527628698.hgc024" @default.
• W1936405539 hasPublicationYear "2010" @default.
• W1936405539 type Work @default.
• W1936405539 sameAs 1936405539 @default.
• W1936405539 citedByCount "10" @default.
• W1936405539 countsByYear W19364055392014 @default.
• W1936405539 countsByYear W19364055392015 @default.
• W1936405539 countsByYear W19364055392017 @default.
• W1936405539 countsByYear W19364055392018 @default.
• W1936405539 countsByYear W19364055392021 @default.
• W1936405539 countsByYear W19364055392023 @default.
• W1936405539 crossrefType "other" @default.
• W1936405539 hasAuthorship W1936405539A5017616794 @default.
• W1936405539 hasConcept C104779481 @default.

• next