Steps Towards an Optimal Building-Integrated Photovoltaics (BIPV) Value Chain in the Netherlands, Sustainability in Energy and Buildings
Publication date
2020
Editors
Littlewood, J.
Howlett, R.J.
Capozzoli, A.
Jane, L.C.
Advisors
Supervisors
Document Type
Part of book
Metadata
Show full item recordCollections
License
Abstract
We assess the feasibility of renovation of a 22-story high-rise building from the 1960s to realize a near-zero energy building by cladding all usable parts of facades and roof using building integrated photovoltaic (BIPV) components. With the present building electricity demand, which includes all energy demand of the building except for heating, it is not possible to generate all demand by BIPV: an annual self-sufficiency ratio of 0.666 or 0.756 is found, using two different roof designs, and 60% coverage of all facades by highly efficient (20%) BIPV modules. Analysis of energy yield on different typical days in summer and winter reveals that the building is self-sufficient for many hours of the day. As on such days, self-consumption is relatively low, which leads to considerable feed-in of surplus electricity to the grid, application of local storage would increase self-sufficiency considerably. Furthermore, it is imperative to lower the electricity demand of the building to reach high self-sufficiency ratios.
Keywords
Building integrated photovoltaics, Self-consumption, Self-sufficiency, Renovation, Taverne, SDG 7 - Affordable and Clean Energy
Citation
van der Poel, E, van Sark, W G J H M, Aartsma, Y, Teunissen, E, van Straten, I & de Vries, A 2020, Steps Towards an Optimal Building-Integrated Photovoltaics (BIPV) Value Chain in the Netherlands, Sustainability in Energy and Buildings. in J Littlewood, R J Howlett, A Capozzoli & L C Jane (eds), Sustainability in Energy and Buildings 2019 : Smart Innovation, Systems and Technologies 163. Springer Nature, Singapore, pp. 409-419. https://doi.org/10.1007/978-981-32-9868-2_35