The Experts below are selected from a list of 8409 Experts worldwide ranked by ideXlab platform

Jessy W. Grizzle - One of the best experts on this subject based on the ideXlab platform.

  • Dynamic modeling of a lean NO/sub x/ trap for lean burn Engine control
    Proceedings of the 1999 American Control Conference (Cat. No. 99CH36251), 1999
    Co-Authors: Yanying Wang, S. Raman, Jessy W. Grizzle
    Abstract:

    A control oriented dynamic model of the lean NO/sub x/ trap (LNT) behavior has been developed in SIMULINK/sup TM/. The model simulates the trapping and purging phenomena and includes the important parameters which affect the LNT behavior. These include the trap temperature, trapping and purging duration, air/fuel ratios and the mass flow rates of the Exhaust Gases. Engine dynamometer test data have been used to identify the model parameters and to validate the model structure. There is good agreement between the simulation results and test data. The model is suitable for control and fuel/emission tradeoff analysis.

Yanying Wang - One of the best experts on this subject based on the ideXlab platform.

  • Dynamic modeling of a lean NO/sub x/ trap for lean burn Engine control
    Proceedings of the 1999 American Control Conference (Cat. No. 99CH36251), 1999
    Co-Authors: Yanying Wang, S. Raman, Jessy W. Grizzle
    Abstract:

    A control oriented dynamic model of the lean NO/sub x/ trap (LNT) behavior has been developed in SIMULINK/sup TM/. The model simulates the trapping and purging phenomena and includes the important parameters which affect the LNT behavior. These include the trap temperature, trapping and purging duration, air/fuel ratios and the mass flow rates of the Exhaust Gases. Engine dynamometer test data have been used to identify the model parameters and to validate the model structure. There is good agreement between the simulation results and test data. The model is suitable for control and fuel/emission tradeoff analysis.

S. Raman - One of the best experts on this subject based on the ideXlab platform.

  • Dynamic modeling of a lean NO/sub x/ trap for lean burn Engine control
    Proceedings of the 1999 American Control Conference (Cat. No. 99CH36251), 1999
    Co-Authors: Yanying Wang, S. Raman, Jessy W. Grizzle
    Abstract:

    A control oriented dynamic model of the lean NO/sub x/ trap (LNT) behavior has been developed in SIMULINK/sup TM/. The model simulates the trapping and purging phenomena and includes the important parameters which affect the LNT behavior. These include the trap temperature, trapping and purging duration, air/fuel ratios and the mass flow rates of the Exhaust Gases. Engine dynamometer test data have been used to identify the model parameters and to validate the model structure. There is good agreement between the simulation results and test data. The model is suitable for control and fuel/emission tradeoff analysis.

José Luz Silveira - One of the best experts on this subject based on the ideXlab platform.

  • Electricity, hot water and cold water production from biomass. Energetic and economical analysis of the compact system of cogeneration run with woodgas from a small downdraft gasifier
    Renewable Energy, 2011
    Co-Authors: Christian Rodriguez Coronado, Juliana Tiyoko Yoshioka, José Luz Silveira
    Abstract:

    Wood gasification technologies to convert the biomass into fuel gas stand out. On the other hand, producing electrical energy from stationary Engine is widely spread, and its application in rural communities where the electrical network doesn't exist is very required. The recovery of Exhaust Gases (Engine) is a possibility that makes the system attractive when compared with the same components used to obtain individual heat such as electric power. This paper presents an energetic alternative to adapt a fixed bed gasifier with a compact cogeneration system in order to cover electrical and thermal demands in a rural area and showing an energy solution for small social communities using renewable fuels. Therefore, an energetic and economical analysis from a cogeneration system producing electric energy, hot and cold water, using wooden gas as fuel from a small-sized gasifier was calculated. The energy balance that includes the energy efficiency (electric generation as well as hot and cold water system; performance coefficient and the heat exchanger, among other items), was calculated. Considering the annual interest rates and the amortization periods, the costs of production of electrical energy, hot and cold water were calculated, taking into account the investment, the operation and the maintenance cost of the equipments. © 2010.

Christian Rodriguez Coronado - One of the best experts on this subject based on the ideXlab platform.

  • Electricity, hot water and cold water production from biomass. Energetic and economical analysis of the compact system of cogeneration run with woodgas from a small downdraft gasifier
    Renewable Energy, 2011
    Co-Authors: Christian Rodriguez Coronado, Juliana Tiyoko Yoshioka, José Luz Silveira
    Abstract:

    Wood gasification technologies to convert the biomass into fuel gas stand out. On the other hand, producing electrical energy from stationary Engine is widely spread, and its application in rural communities where the electrical network doesn't exist is very required. The recovery of Exhaust Gases (Engine) is a possibility that makes the system attractive when compared with the same components used to obtain individual heat such as electric power. This paper presents an energetic alternative to adapt a fixed bed gasifier with a compact cogeneration system in order to cover electrical and thermal demands in a rural area and showing an energy solution for small social communities using renewable fuels. Therefore, an energetic and economical analysis from a cogeneration system producing electric energy, hot and cold water, using wooden gas as fuel from a small-sized gasifier was calculated. The energy balance that includes the energy efficiency (electric generation as well as hot and cold water system; performance coefficient and the heat exchanger, among other items), was calculated. Considering the annual interest rates and the amortization periods, the costs of production of electrical energy, hot and cold water were calculated, taking into account the investment, the operation and the maintenance cost of the equipments. © 2010.