RC-PV/T · A Novel Integration of Radiative Cooling into Photovoltaic/Thermal Panel in Buildings by Applying a Spectrally Selective Micro/Nano Coating
Horizon 2020 — Marie Skłodowska-Curie Actions
- Duration
- 2019-12-01 → 2021-11-30
- EU contribution
- €224,934
- Participants
- 1
- Scheme
- MSCA-IF-EF-ST
Lines connect the coordinator with its partners.
Results in brief
A Novel Integration of Radiative Cooling into Photovoltaic/Thermal Panel in Buildings by Applying a Spectrally Selective Micro/Nano Coating
Common solar photovoltaic/thermal (PV/T) collectors are unproductive at night and show low efficacy on hot days, while typical radiative cooling (RC) devices suffer from poor effectiveness in non-cooling seasons. In this context, this project proposes a novel idea of incorporating the RC scheme into a PV/T collector for combined solar energy and radiative cooling utilization. The developed novel collector, namely, RC-PV/T collector, runs as a solar PV/T collector to provide electricity and heat during the daytime and acts as an RC collector to harvest cooling energy during the nighttime. Lighting, heating and cooling are essential for modern buildings, which has incurred a huge energy demand. In the EU, buildings consume around 40% of the total energy supply. To tackle this challenge, the EU has been endeavouring to implement effective policies and technologies for developing Zero Energy Buildings (ZEB) and is actively seeking collaboration with countries and personnel worldwide to promote its scientific excellence and societal impact. Therefore, it is of significance and urgency to develop effective technology for providing part of the energy consumed in buildings by green, renewable alternatives such as solar energy and radiative cooling energy. By integrating the RC-PV/T collector with building envelops properly, this tri-functional collector can supply domestic electricity and hot water throughout the year, provide hot air for space heating in winter daytime, and collect cold air for space cooling in summer nighttime, thereby showing a multifunction in renewable energy harvesting and good seasonal adaptability. The integrated RC-PV/T collector can also be more cost-effective than stand-alone RC collectors. Therefore, the RC-PV/T technology can contribute to decarbonization in buildings. The overall objective of this project is to develop a novel tri-functional RC-PV/T prototype which is superior to the mono-functional PV or PT collector, RC device and dual-functional PV/T collector. The scientific objectives are: (1) to carry out micro/nano structural design, optimization and manufacturing of the spectrally selective RC-PV/T coating; (2) to develop a computerized mathematic model for the use in characterization and optimization of the RC-PV/T collector; (3) to conduct field experiments of the RC-PV/T collector under different working conditions; (4) to numerically evaluate the RC-PV/T collector for building integrated applications; (5) to carry out economic and environmental assessment of the building integrated RC-PV/T (BiRC-PV/T) system.
Data: CORDIS, © European Union
Project objective
This fellowship aims to train a talented early career researcher and contribute to the EU scientific excellence by investigating and developing an innovative coupled radiative cooling and photovoltaic/thermal (RC-PV/T) collector for building-integrated applications. The Incoming Researcher is a winner of Grand Gold Medal of Geneva International Exhibition of Inventions, Excellent Doctoral Dissertations Award of Chinese Academy of Sciences (CAS) and Excellent PhD Graduate Award of the President of CAS, attributed to his original proof-of-concept study of the novel RC-PV/T technology.The Incoming Researcher is a highly dedicated and motivated young researcher and has been stimulated to devise this novel design. Solar thermal collection and photovoltaics are the dominating technologies, however, the combined photovoltaic/thermal (PV/T) technology is expected to become popular due to its higher overall efficiency, more cost effective and better match with building energy demand as well. Integration of radiative cooling into a PV/T collector can further contribute to such merits by adding a night sky cooling function, so a RC-PV/T collector can produce electricity and heat during the daytime and provide cooling during the nighttime. To achieve such triple functions, the applicants have analysed and proposed the ideal spectral selective characteristics of the RC-PV/T panel, and a desirable RC-PV/T micro/nano coating as well as a RC-PV/T collector will be designed and trial-manufactured.The project has been carefully designed to match the Incoming Researcher’s profile with the strengths of the University of Nottingham in solar energy, micro/nano coating and low carbon buildings, and thus facilitates a two-way knowledge transfer and training. Successful completion of this fellowship will contribute to the European excellence in renewable energy technologies for Zero Energy Buildings, and promote the professional competence and career prospect of the Incoming Researcher.
Original text from CORDIS.
Participants
- THE UNIVERSITY OF NOTTINGHAM · NottinghamCoordinatorUnited Kingdom
Links
- View on CORDIS
- DOI: 10.3030/842096
- https://www.researchgate.net/project/Integration-of-radiative-cooling-and-solar-photovoltaic-thermal-technologies-RC-PV-T
Data: CORDIS, © European Union
