4.8 Article

Zero Energy Building by Multicarrier Energy Systems including Hydro, Wind, Solar, and Hydrogen

期刊

IEEE TRANSACTIONS ON INDUSTRIAL INFORMATICS
卷 17, 期 8, 页码 5474-5484

出版社

IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/TII.2020.3034346

关键词

Cogeneration; Buildings; Hydrogen; Resistance heating; Thermal loading; Methane; Load modeling; Carbon dioxide; multicarrier energy system; net-zero energy building; renewable-to-gas; thermal load

资金

  1. Business Finland through SolarX Research Project, 2019-2021 [6844/31/2018]
  2. FEDER funds through COMPETE 2020
  3. Portuguese funds through FCT [POCI-010145-FEDER029803 (02/SAICT/2017)]

向作者/读者索取更多资源

This article proposes a unified solution to address the energy issues in net-zero energy building by integrating various energy sources to meet all electricity and heat load demands and minimize carbon dioxide emissions into the atmosphere.
This article proposes a unified solution to address the energy issues in net-zero energy building (ZEB), as a new contribution to earlier studies. The multicarrier energy system, including hydro-wind-solar-hydrogen-methane-carbon dioxide-thermal energies is integrated and modeled in ZEB. The electrical sector is supplied by hydro-wind-solar, combined heat and power (CHP), and pumped hydro storage (PHS). The thermal sector is supplied by CHP, thermal boiler, and electric heating. The hydrogen storage system and Methanation process operate as the interface energy carriers between the electrical and thermal sectors. The carbon dioxide (CO2) of the ZEB is captured and fed into the Methanation process. The purpose is minimizing the released CO2 to the atmosphere while all the electrical-thermal load demands are successfully supplied considering events and disruptions. The model improves simultaneously the energy resilience and minimizes the environmental pollutions. The results demonstrate that the developed model reduces the CO2 pollution by about 33 451 kg per year. The model is a resilient energy system that can handle all failures of components. The model can efficiently handle 26% increment in the electrical loads and 110% increment in the thermal loads.

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