کد مقاله | کد نشریه | سال انتشار | مقاله انگلیسی | نسخه تمام متن |
---|---|---|---|---|
760140 | 1462839 | 2016 | 21 صفحه PDF | دانلود رایگان |

• Integrating a commercial-scale H2 vehicle (HV) or electric vehicle (EV) into a ZEB.
• Simultaneously fulfilling net-zero energy building and absolute-zero energy vehicle.
• Energy performance comparison between the ZEBs with HV, EV, and no vehicle.
• The energy matching-enhancing solutions for integrating the HV or EV with the ZEB.
• Solutions for improving the matching and relieving the negative impact on the grid.
The boundary extension of a zero-energy building to integrate a new energy vehicle will facilitate the realization of the target set by the EU 2050 roadmap. In this study, either a hydrogen vehicle (HV) or an electric vehicle (EV) is integrated into a renewable-supported building system with appropriate control strategies. The focused variables in this study are renewable energy capacities, vehicle system options, extents to utilize vehicle storages for domestic purposes, and the Excess REe-HW recharging strategies. The analysing aspects include the energy and environmental impact as well as the energy matching and the grid interactions. The results show that the annual net-zero energy/emission balance can be met by a 16, 12, and 12 kW rated wind turbine, or by a 195.8, 160.2, and 142.4 m2 PV, for the building with the HV, the EV and no vehicle (NV), respectively. The building with the HV will be more demanding in meeting the balance due to the less efficient HV system than that with the EV. Moreover, better matching for the zero-energy system can be achieved by relieving the condition to discharge the vehicle storages for domestic usages and by using the Excess REe-HW recharging strategy. However, their negative effect will be a slight increase in the annual net-energy consumption, due to an increased loss from both the HV/EV integrated system and the thermal storage.
Journal: Energy Conversion and Management - Volume 123, 1 September 2016, Pages 153–173