We present a life cycle analysis of a lightweight design of high concentration photovoltaic module. The materials and processes used in construction are considered to assess the total environmental impact of the module construction in terms of the cumulative energy demand and embodied greenhouse gas emissions, which were found to be 355.3 MJ and 27.9 kgCO 2eq respectively. We consider six potential deployment locations and the system energy payback times are calculated to be 0.22–0.33 years whilst the greenhouse gas payback times are 0.29–0.88 years. The emission intensities over the lifetimes of the systems are found to be 6.5–9.8 g CO 2eq /kWh, lower than those of other HCPV, PV and CSP technologies in similar locations. Copyright © 2016 John Wiley & Sons, Ltd. We perform a life cycle analysis of a lightweight design of high concentration photovoltaic module by considering the embedded energy and greenhouse gas emissions of its manufacture and deployment. In suitable locations we find low energy and greenhouse gas payback times and the emission intensity of electricity produced is less than those of other PV and CSP technologies in similar locations.
The environmental impact of lightweight HCPV modules: efficient design and effective deployment
Progress in photovoltaics ; 24 , 11
2016
Article (Journal)
English
BKL: | 53.36 Energiedirektumwandler, elektrische Energiespeicher |
Relation between the cell temperature of a HCPV module and atmospheric parameters
Online Contents | 2012
|Simulation of a through cell via contacts architecture for HCPV multi-junction solar cells
Online Contents | 2016
|Lightweight Design for Efficient Vehicles
British Library Conference Proceedings | 2010
|