The Experts below are selected from a list of 27 Experts worldwide ranked by ideXlab platform

Díaz, Carlos Alirio - One of the best experts on this subject based on the ideXlab platform.

  • Simulación de un proceso de purificación de biogás utilizando diferentes soluciones de aminas
    'Universidad Pedagogica y Tecnologica de Colombia', 2018
    Co-Authors: Sepúlveda Guillermo, Jaimes, Luis Eduardo, Pacheco Leonardo, Díaz, Carlos Alirio
    Abstract:

    The use of biogas generated in landfills has gained importance in developing countries like Colombia. Taking into account that this biogas presents poor combustion properties that make interchangeability with other combustible gases difficult, the elimination of gases and vapors, such as CO2 and H2O, through a cleaning Process, in which the biogas is converted to biomethane, improves the biogas properties as a fuel gas for general use. In this work, we simulated the generation of biogas at El Carrasco sanitary landfill in Bucaramanga, using the US EPA (United States Environmental Protection Agency) landfill gas emissions model. Additionally, we simulated the biogas cleaning Process to extract the remaining moisture using the ProMax software; for this, we used three different amines (MDEA, MEA, and DEA), followed by a Glycol Dehydration Process. The results showed that the amine MEA produced the largest increase in the concentration of CH4 (90.37 %) for the biogas generated in the landfill. Furthermore, Dehydration with Glycol was an efficient Process to obtain a gas with a high percentage of methane (91.47 %) and low water presence (1.27 %); this would allow the use of biomethane in conventional industrial combustion Processes and power generation.La utilización del biogás producido en vertederos de basura ha ganado importancia en países en vía de desarrollo, como Colombia. Teniendo en cuenta que este biogás tiene propiedades pobres de combustión que dificultan el intercambio con otros combustibles, la eliminación de gases y vapores, como el CO2 y el H2O, por medio de procesos de purificación en los que el biogás es convertido a biometano, mejora las propiedades del biogás como combustible para uso general. En este trabajo se simuló la producción de biogás en el vertedero de basura El Carrasco (Bucaramanga), usando el modelo de emisiones de gases en vertederos de la US EPA (United States Environmental Protection Agency). Adicionalmente, se simuló el proceso de purificación del biogás utilizando el software ProMax; el objetivo de este proceso es extraer la humedad del biogás, para lo cual se utilizaron tres aminas diferentes (MDEA, MEA y DEA) y un proceso posterior de deshidratación con glicol. Los resultados mostraron que la purificación con amina MEA logró producir el mayor incremento en la concentración de CH4 (90.37 %) en el biogás generado en el vertedero. Además, la deshidratación con glicol fue un proceso eficiente para obtener gas con un alto porcentaje de metano (91.47 %) y un bajo porcentaje de agua (1.27 %); estos resultados sugieren que el biometano se podría usar en procesos industriales convencionales y en generación de energía

  • Simulation of a biogas cleaning Process using different amines
    2018
    Co-Authors: Sepúlveda Guillermo, Jaimes, Luis Eduardo, Pacheco Sandoval, Leonardo Esteban, Díaz, Carlos Alirio
    Abstract:

    The use of biogas generated in landfills has gained importance in developing countries like Colombia. Taking into account that this biogas presents poor combustion properties that make interchangeability with other combustible gases difficult, the elimination of gases and vapors, such as CO2 and H2O, through a cleaning Process, in which the biogas is converted to biomethane, improves the biogas properties as a fuel gas for general use. In this work, we simulated the generation of biogas at El Carrasco sanitary landfill in Bucaramanga, using the US EPA (United States Environmental Protection Agency) landfill gas emissions model. Additionally, we simulated the biogas cleaning Process to extract the remaining moisture using the ProMax software; for this, we used three different amines (MDEA, MEA, and DEA), followed by a Glycol Dehydration Process. The results showed that the amine MEA produced the largest increase in the concentration of CH4 (90.37 %) for the biogas generated in the landfill. Furthermore, Dehydration with Glycol was an efficient Process to obtain a gas with a high percentage of methane (91.47 %) and low water presence (1.27 %); this would allow the use of biomethane in conventional industrial combustion Processes and power generation.La utilización del biogás producido en vertederos de basura ha ganado importancia en países en vía de desarrollo, como Colombia. Teniendo en cuenta que este biogás tiene propiedades pobres de combustión que dificultan el intercambio con otros combustibles, la eliminación de gases y vapores, como el CO2 y el H2O, por medio de procesos de purificación en los que el biogás es convertido a biometano, mejora las propiedades del biogás como combustible para uso general. En este trabajo se simuló la producción de biogás en el vertedero de basura El Carrasco (Bucaramanga), usando el modelo de emisiones de gases en vertederos de la US EPA (United States Environmental Protection Agency). Adicionalmente, se simuló el proceso de purificación del biogás utilizando el software ProMax; el objetivo de este proceso es extraer la humedad del biogás, para lo cual se utilizaron tres aminas diferentes (MDEA, MEA y DEA) y un proceso posterior de deshidratación con glicol. Los resultados mostraron que la purificación con amina MEA logró producir el mayor incremento en la concentración de CH4 (90.37 %) en el biogás generado en el vertedero. Además, la deshidratación con glicol fue un proceso eficiente para obtener gas con un alto porcentaje de metano (91.47 %) y un bajo porcentaje de agua (1.27 %); estos resultados sugieren que el biometano se podría usar en procesos industriales convencionales y en generación de energía

  • Simulação de um Processo de purificação de biogás utilizando diferentes soluções de aminas
    Universidad Pedagógica y Tecnológica de Colombia, 2018
    Co-Authors: Sepúlveda Cepeda, Guillermo Andrés, Pacheco Sandoval, Leonardo Esteban, Jaimes Reatiga, Luis Eduardo, Díaz, Carlos Alirio
    Abstract:

    1 recurso en línea (páginas 51-60).La utilización del biogás producido en vertederos de basura ha ganado importancia en países en vía de desarrollo, como Colombia. Teniendo en cuenta que este biogás tiene propiedades pobres de combustión que dificultan el intercambio con otros combustibles, la eliminación de gases y vapores, como el CO2 y el H2O, por medio de procesos de purificación en los que el biogás es convertido a biometano, mejora las propiedades del biogás como combustible para uso general. En este trabajo se simuló la producción de biogás en el vertedero de basura El Carrasco (Bucaramanga), usando el modelo de emisiones de gases en vertederos de la US EPA (United States Environmental Protection Agency). Adicionalmente, se simuló el proceso de purificación del biogás utilizando el software ProMax; el objetivo de este proceso es extraer la humedad del biogás, para lo cual se utilizaron tres aminas diferentes (MDEA, MEA y DEA) y un proceso posterior de deshidratación con glicol. Los resultados mostraron que la purificación con amina MEA logró producir el mayor incremento en la concentración de CH4 (90.37 %) en el biogás generado en el vertedero. Además, la deshidratación con glicol fue un proceso eficiente para obtener gas con un alto porcentaje de metano (91.47 %) y un bajo porcentaje de agua (1.27 %); estos resultados sugieren que el biometano se podría usar en procesos industriales convencionales y en generación de energía.Bibliografía y webgrafía: páginas 59-60.The use of biogas generated in landfills has gained importance in developing countries like Colombia. Taking into account that this biogas presents poor combustion properties that make interchangeability with other combustible gases difficult, the elimination of gases and vapors, such as CO2 and H2O, through a cleaning Process, in which the biogas is converted to biomethane, improves the biogas properties as a fuel gas for general use. In this work, we simulated the generation of biogas at El Carrasco sanitary landfill in Bucaramanga, using the US EPA (United States Environmental Protection Agency) landfill gas emissions model. Additionally, we simulated the biogas cleaning Process to extract the remaining moisture using the ProMax software; for this, we used three different amines (MDEA, MEA, and DEA), followed by a Glycol Dehydration Process. The results showed that the amine MEA produced the largest increase in the concentration of CH4 (90.37 %) for the biogas generated in the landfill. Furthermore, Dehydration with Glycol was an efficient Process to obtain a gas with a high percentage of methane (91.47 %) and low water presence (1.27 %); this would allow the use of biomethane in conventional industrial combustion Processes and power generation.A utilização do biogás produzido em depósitos de lixo tem ganhado importância em países em via de desenvolvimento, como a Colômbia. Tendo em conta que este biogás tem propriedades pobres de combustão que dificultam o intercâmbio com outros combustíveis, a eliminação de gases e vapores, como o CO2 e o H2O, por meio de Processos de purificação nos quais o biogás é convertido a biometano, melhora as propriedades do biogás como combustível para uso geral. Neste trabalho simulou-se a produção de biogás no depósito de lixo El Carrasco (Bucaramanga), usando o modelo de emissões de gases em depósitos da US EPA (United States Environmental Protection Agency). Adicionalmente, simulou-se o Processo de purificação do biogás utilizando o software ProMax; o objetivo deste Processo é extrair a humidade do biogás, para o qual utilizaram-se três aminas diferentes (MDEA, MEA e DEA) e um Processo posterior de desidratação com glicol. Os resultados mostraram que a purificação com amina MEA logrou produzir o maior incremento na concentração de CH4 (90.37 %) no biogás gerado no depósito. Além disso, a desidratação com glicol foi um Processo eficiente para obter gás com uma alta porcentagem de metano (91.47 %) e uma baixa porcentagem de água (1.27 %); estes resultados sugerem que o biometano poderia ser usado em Processos industriais convencionais e em geração de energia

Mohammed Rashnur Rahman - One of the best experts on this subject based on the ideXlab platform.

  • Plant based on the operating condition of Titas Gas Field Location #A
    2015
    Co-Authors: Mohammed Rashnur Rahman, N. M. Aftabul, Alam Bhuiya, Md. Rasel Miah
    Abstract:

    Copyright © 2014 ISSR Journals. This is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited. ABSTRACT: Natural gas Processing is a complex industrial Process designed to reduce impurities from raw natural gas by separation Process to produce gas which is known as pipeline quality dry natural gas. In Titas Gas Field (Location #A), natural gas Process plant is mainly designed to separate the water from the raw gas and make the gas transmittable to the consumer. Natural gas Dehydration for Titas Gas Field mainly includes the separation of water from gas by Glycol Dehydration Process. Besides, a little amount of condensate is also separated during the Dehydration Process. Condensate of Titas Gas Field mainly contents hydrocarbon of C3-C4. As the absorbent, TEG (Tri-Ethylene Glycol) is the most preferable to use. In this paper, we represent the design of the equipment using in the Glycol Dehydration plant of Titas Gas Field, Location #A. Equipment sizing means calculating optimum height, diameter, number of tray, capacity, circulation rate etc. of each equipment. Calculation of height, diameter, number of tray capacity, circulating rate etc. of the equipment by using various tables, figures, charts, methods. In this paper we designed Inlet 3-phase separator, Glycol contactor tower, Lean-Rich Glycol heat exchanger, Glycol circulation pump, Glycol flash separator (3-phase), Glycol regenerator (Re-boiler), Stripping still. It has to be mentioned that this is a theoretical design of the equipment for a Glycol Dehydration plant based on the operatin

  • Theoretical Sizing and Design of The Equipment of a 40 MMSCFD Natural Gas Processing Plant based on the operating condition of Titas Gas Field Location #A
    International Journal of Innovation and Applied Studies, 2014
    Co-Authors: Mohammed Rashnur Rahman, N.m. Aftabul Alam Bhuiya, Rasel Miah
    Abstract:

    Natural gas Processing is a complex industrial Process designed to reduce impurities from raw natural gas by separation Process to produce gas which is known as pipeline quality dry natural gas. In Titas Gas Field (Location #A), natural gas Process plant is mainly designed to separate the water from the raw gas and make the gas transmittable to the consumer. Natural gas Dehydration for Titas Gas Field mainly includes the separation of water from gas by Glycol Dehydration Process. Besides, a little amount of condensate is also separated during the Dehydration Process. Condensate of Titas Gas Field mainly contents hydrocarbon of C3-C4. As the absorbent, TEG (Tri-Ethylene Glycol) is the most preferable to use. In this paper, we represent the design of the equipment using in the Glycol Dehydration plant of Titas Gas Field, Location #A. Equipment sizing means calculating optimum height, diameter, number of tray, capacity, circulation rate etc. of each equipment. Calculation of height, diameter, number of tray capacity, circulating rate etc. of the equipment by using various tables, figures, charts, methods. In this paper we designed Inlet 3-phase separator, Glycol contactor tower, Lean-Rich Glycol heat exchanger, Glycol circulation pump, Glycol flash separator (3-phase), Glycol regenerator (Re-boiler), Stripping still. It has to be mentioned that this is a theoretical design of the equipment for a Glycol Dehydration plant based on the operating condition of Titas Gas Field, Location #A which can be more efficient than the operating equipment.

Rasel Miah - One of the best experts on this subject based on the ideXlab platform.

  • Theoretical Sizing and Design of The Equipment of a 40 MMSCFD Natural Gas Processing Plant based on the operating condition of Titas Gas Field Location #A
    International Journal of Innovation and Applied Studies, 2014
    Co-Authors: Mohammed Rashnur Rahman, N.m. Aftabul Alam Bhuiya, Rasel Miah
    Abstract:

    Natural gas Processing is a complex industrial Process designed to reduce impurities from raw natural gas by separation Process to produce gas which is known as pipeline quality dry natural gas. In Titas Gas Field (Location #A), natural gas Process plant is mainly designed to separate the water from the raw gas and make the gas transmittable to the consumer. Natural gas Dehydration for Titas Gas Field mainly includes the separation of water from gas by Glycol Dehydration Process. Besides, a little amount of condensate is also separated during the Dehydration Process. Condensate of Titas Gas Field mainly contents hydrocarbon of C3-C4. As the absorbent, TEG (Tri-Ethylene Glycol) is the most preferable to use. In this paper, we represent the design of the equipment using in the Glycol Dehydration plant of Titas Gas Field, Location #A. Equipment sizing means calculating optimum height, diameter, number of tray, capacity, circulation rate etc. of each equipment. Calculation of height, diameter, number of tray capacity, circulating rate etc. of the equipment by using various tables, figures, charts, methods. In this paper we designed Inlet 3-phase separator, Glycol contactor tower, Lean-Rich Glycol heat exchanger, Glycol circulation pump, Glycol flash separator (3-phase), Glycol regenerator (Re-boiler), Stripping still. It has to be mentioned that this is a theoretical design of the equipment for a Glycol Dehydration plant based on the operating condition of Titas Gas Field, Location #A which can be more efficient than the operating equipment.

Md. Rasel Miah - One of the best experts on this subject based on the ideXlab platform.

  • Plant based on the operating condition of Titas Gas Field Location #A
    2015
    Co-Authors: Mohammed Rashnur Rahman, N. M. Aftabul, Alam Bhuiya, Md. Rasel Miah
    Abstract:

    Copyright © 2014 ISSR Journals. This is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited. ABSTRACT: Natural gas Processing is a complex industrial Process designed to reduce impurities from raw natural gas by separation Process to produce gas which is known as pipeline quality dry natural gas. In Titas Gas Field (Location #A), natural gas Process plant is mainly designed to separate the water from the raw gas and make the gas transmittable to the consumer. Natural gas Dehydration for Titas Gas Field mainly includes the separation of water from gas by Glycol Dehydration Process. Besides, a little amount of condensate is also separated during the Dehydration Process. Condensate of Titas Gas Field mainly contents hydrocarbon of C3-C4. As the absorbent, TEG (Tri-Ethylene Glycol) is the most preferable to use. In this paper, we represent the design of the equipment using in the Glycol Dehydration plant of Titas Gas Field, Location #A. Equipment sizing means calculating optimum height, diameter, number of tray, capacity, circulation rate etc. of each equipment. Calculation of height, diameter, number of tray capacity, circulating rate etc. of the equipment by using various tables, figures, charts, methods. In this paper we designed Inlet 3-phase separator, Glycol contactor tower, Lean-Rich Glycol heat exchanger, Glycol circulation pump, Glycol flash separator (3-phase), Glycol regenerator (Re-boiler), Stripping still. It has to be mentioned that this is a theoretical design of the equipment for a Glycol Dehydration plant based on the operatin

Sepúlveda Guillermo - One of the best experts on this subject based on the ideXlab platform.

  • Simulación de un proceso de purificación de biogás utilizando diferentes soluciones de aminas
    'Universidad Pedagogica y Tecnologica de Colombia', 2018
    Co-Authors: Sepúlveda Guillermo, Jaimes, Luis Eduardo, Pacheco Leonardo, Díaz, Carlos Alirio
    Abstract:

    The use of biogas generated in landfills has gained importance in developing countries like Colombia. Taking into account that this biogas presents poor combustion properties that make interchangeability with other combustible gases difficult, the elimination of gases and vapors, such as CO2 and H2O, through a cleaning Process, in which the biogas is converted to biomethane, improves the biogas properties as a fuel gas for general use. In this work, we simulated the generation of biogas at El Carrasco sanitary landfill in Bucaramanga, using the US EPA (United States Environmental Protection Agency) landfill gas emissions model. Additionally, we simulated the biogas cleaning Process to extract the remaining moisture using the ProMax software; for this, we used three different amines (MDEA, MEA, and DEA), followed by a Glycol Dehydration Process. The results showed that the amine MEA produced the largest increase in the concentration of CH4 (90.37 %) for the biogas generated in the landfill. Furthermore, Dehydration with Glycol was an efficient Process to obtain a gas with a high percentage of methane (91.47 %) and low water presence (1.27 %); this would allow the use of biomethane in conventional industrial combustion Processes and power generation.La utilización del biogás producido en vertederos de basura ha ganado importancia en países en vía de desarrollo, como Colombia. Teniendo en cuenta que este biogás tiene propiedades pobres de combustión que dificultan el intercambio con otros combustibles, la eliminación de gases y vapores, como el CO2 y el H2O, por medio de procesos de purificación en los que el biogás es convertido a biometano, mejora las propiedades del biogás como combustible para uso general. En este trabajo se simuló la producción de biogás en el vertedero de basura El Carrasco (Bucaramanga), usando el modelo de emisiones de gases en vertederos de la US EPA (United States Environmental Protection Agency). Adicionalmente, se simuló el proceso de purificación del biogás utilizando el software ProMax; el objetivo de este proceso es extraer la humedad del biogás, para lo cual se utilizaron tres aminas diferentes (MDEA, MEA y DEA) y un proceso posterior de deshidratación con glicol. Los resultados mostraron que la purificación con amina MEA logró producir el mayor incremento en la concentración de CH4 (90.37 %) en el biogás generado en el vertedero. Además, la deshidratación con glicol fue un proceso eficiente para obtener gas con un alto porcentaje de metano (91.47 %) y un bajo porcentaje de agua (1.27 %); estos resultados sugieren que el biometano se podría usar en procesos industriales convencionales y en generación de energía

  • Simulation of a biogas cleaning Process using different amines
    2018
    Co-Authors: Sepúlveda Guillermo, Jaimes, Luis Eduardo, Pacheco Sandoval, Leonardo Esteban, Díaz, Carlos Alirio
    Abstract:

    The use of biogas generated in landfills has gained importance in developing countries like Colombia. Taking into account that this biogas presents poor combustion properties that make interchangeability with other combustible gases difficult, the elimination of gases and vapors, such as CO2 and H2O, through a cleaning Process, in which the biogas is converted to biomethane, improves the biogas properties as a fuel gas for general use. In this work, we simulated the generation of biogas at El Carrasco sanitary landfill in Bucaramanga, using the US EPA (United States Environmental Protection Agency) landfill gas emissions model. Additionally, we simulated the biogas cleaning Process to extract the remaining moisture using the ProMax software; for this, we used three different amines (MDEA, MEA, and DEA), followed by a Glycol Dehydration Process. The results showed that the amine MEA produced the largest increase in the concentration of CH4 (90.37 %) for the biogas generated in the landfill. Furthermore, Dehydration with Glycol was an efficient Process to obtain a gas with a high percentage of methane (91.47 %) and low water presence (1.27 %); this would allow the use of biomethane in conventional industrial combustion Processes and power generation.La utilización del biogás producido en vertederos de basura ha ganado importancia en países en vía de desarrollo, como Colombia. Teniendo en cuenta que este biogás tiene propiedades pobres de combustión que dificultan el intercambio con otros combustibles, la eliminación de gases y vapores, como el CO2 y el H2O, por medio de procesos de purificación en los que el biogás es convertido a biometano, mejora las propiedades del biogás como combustible para uso general. En este trabajo se simuló la producción de biogás en el vertedero de basura El Carrasco (Bucaramanga), usando el modelo de emisiones de gases en vertederos de la US EPA (United States Environmental Protection Agency). Adicionalmente, se simuló el proceso de purificación del biogás utilizando el software ProMax; el objetivo de este proceso es extraer la humedad del biogás, para lo cual se utilizaron tres aminas diferentes (MDEA, MEA y DEA) y un proceso posterior de deshidratación con glicol. Los resultados mostraron que la purificación con amina MEA logró producir el mayor incremento en la concentración de CH4 (90.37 %) en el biogás generado en el vertedero. Además, la deshidratación con glicol fue un proceso eficiente para obtener gas con un alto porcentaje de metano (91.47 %) y un bajo porcentaje de agua (1.27 %); estos resultados sugieren que el biometano se podría usar en procesos industriales convencionales y en generación de energía