Gas Power Cycle

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The Experts below are selected from a list of 33 Experts worldwide ranked by ideXlab platform

Bjornar Werswick - One of the best experts on this subject based on the ideXlab platform.

  • Recent development in the HMR pre-combustion Gas Power Cycle
    Energy Procedia, 2009
    Co-Authors: Jens B. Smith, Knut Ingvar Aasen, Kjersti Wilhelmsen, Daniel Käka, Turid Risdal, Anita Berglund, Annette Stenersen Østby, Michael Budd, Tor Bruun, Bjornar Werswick
    Abstract:

    AbstractThe focus area of the current HMR phase has been HMR process engineering and fabrication and testing of a small-scale monolith module. A new, less complicated HMR Gas Power Cycle has been developed and benchmarked. The efficiency loss and CO2 capture are typically 8 %-point and 85 %, respectively, but more than 90 % of the installed membrane area of the original concepts is rendered superfluous. Small-scale monolith modules have been fabricated and tested under real HMR process conditions, demonstrating promising hydrogen flux and steam reforming according to equilibrium

Jens B. Smith - One of the best experts on this subject based on the ideXlab platform.

  • Recent development in the HMR pre-combustion Gas Power Cycle
    Energy Procedia, 2009
    Co-Authors: Jens B. Smith, Knut Ingvar Aasen, Kjersti Wilhelmsen, Daniel Käka, Turid Risdal, Anita Berglund, Annette Stenersen Østby, Michael Budd, Tor Bruun, Bjornar Werswick
    Abstract:

    AbstractThe focus area of the current HMR phase has been HMR process engineering and fabrication and testing of a small-scale monolith module. A new, less complicated HMR Gas Power Cycle has been developed and benchmarked. The efficiency loss and CO2 capture are typically 8 %-point and 85 %, respectively, but more than 90 % of the installed membrane area of the original concepts is rendered superfluous. Small-scale monolith modules have been fabricated and tested under real HMR process conditions, demonstrating promising hydrogen flux and steam reforming according to equilibrium

Knut Ingvar Aasen - One of the best experts on this subject based on the ideXlab platform.

  • Dynamic Behaviour of an HMR Pre-Combustion Gas Power Cycle
    IFAC Proceedings Volumes, 2010
    Co-Authors: Lei Zhao, Finn Are Michelsen, Bjarne A. Foss, Knut Ingvar Aasen
    Abstract:

    Copyright © Elsevier Ltd. This is the authors' accepted and refereed manuscript to the article.

  • Recent development in the HMR pre-combustion Gas Power Cycle
    Energy Procedia, 2009
    Co-Authors: Jens B. Smith, Knut Ingvar Aasen, Kjersti Wilhelmsen, Daniel Käka, Turid Risdal, Anita Berglund, Annette Stenersen Østby, Michael Budd, Tor Bruun, Bjornar Werswick
    Abstract:

    AbstractThe focus area of the current HMR phase has been HMR process engineering and fabrication and testing of a small-scale monolith module. A new, less complicated HMR Gas Power Cycle has been developed and benchmarked. The efficiency loss and CO2 capture are typically 8 %-point and 85 %, respectively, but more than 90 % of the installed membrane area of the original concepts is rendered superfluous. Small-scale monolith modules have been fabricated and tested under real HMR process conditions, demonstrating promising hydrogen flux and steam reforming according to equilibrium

Turid Risdal - One of the best experts on this subject based on the ideXlab platform.

  • Recent development in the HMR pre-combustion Gas Power Cycle
    Energy Procedia, 2009
    Co-Authors: Jens B. Smith, Knut Ingvar Aasen, Kjersti Wilhelmsen, Daniel Käka, Turid Risdal, Anita Berglund, Annette Stenersen Østby, Michael Budd, Tor Bruun, Bjornar Werswick
    Abstract:

    AbstractThe focus area of the current HMR phase has been HMR process engineering and fabrication and testing of a small-scale monolith module. A new, less complicated HMR Gas Power Cycle has been developed and benchmarked. The efficiency loss and CO2 capture are typically 8 %-point and 85 %, respectively, but more than 90 % of the installed membrane area of the original concepts is rendered superfluous. Small-scale monolith modules have been fabricated and tested under real HMR process conditions, demonstrating promising hydrogen flux and steam reforming according to equilibrium

Tor Bruun - One of the best experts on this subject based on the ideXlab platform.

  • Recent development in the HMR pre-combustion Gas Power Cycle
    Energy Procedia, 2009
    Co-Authors: Jens B. Smith, Knut Ingvar Aasen, Kjersti Wilhelmsen, Daniel Käka, Turid Risdal, Anita Berglund, Annette Stenersen Østby, Michael Budd, Tor Bruun, Bjornar Werswick
    Abstract:

    AbstractThe focus area of the current HMR phase has been HMR process engineering and fabrication and testing of a small-scale monolith module. A new, less complicated HMR Gas Power Cycle has been developed and benchmarked. The efficiency loss and CO2 capture are typically 8 %-point and 85 %, respectively, but more than 90 % of the installed membrane area of the original concepts is rendered superfluous. Small-scale monolith modules have been fabricated and tested under real HMR process conditions, demonstrating promising hydrogen flux and steam reforming according to equilibrium