MIT scientists have taken a deep dive into solar technology markets in search of an economically sustainable path to commercialization for perovskites. The group estimates $1 billion of capital expenditure would be required to achieve the economies of scale necessary to compete with rival solar module technologies. However, several alternative suggestions for scaling up with lower investment costs were also considered.
Solar has a small but increasingly important role to play in the Nordic energy transition. And while there is still a gap in PV cost-competitiveness across some markets, interest in solar facades, BIPV solutions and C&I applications is growing.
Solar module manufacturers should begin testing new technologies in higher-value niche markets, say scientists at the U.S. institution. For example, bringing perovskite technology directly to the mainstream market remains prohibitive in terms of initial investment but segments such as building-integrated PV or microelectronics devices may offer better routes to commercial maturity.
In sunny San Diego for Intersolar 2020, we’re seeing a new idea for tracking rooftop solar modules, diodes moving to cell level, two types of building-integrated solar products and some solar hot water.
Product development company the Cambridge Design Partnership, working with compatriot solar business Solivus, has developed a curved solar module featuring an organic thin film. The design is based on Solivus’ desire to “create a product so attractive that people would be happy to have one in their garden”.
In 2020, perovskite cells could pass the IEC tests intended for the standardization of solar modules, and in 2022, they could even be mass-produced. In an interview with pv magazine, Tom Aernouts explains the status of work on the new PV technology. He is a research and development manager for thin film photovoltaics at the Belgian research institute Imec.
Building integrated PV has been described as a place where uncompetitive PV products attempt to go to market. But this may be unfair, says Björn Rau, the technology manager and deputy director of PVcomB at the Helmholtz-Zentrum Berlin. Rau argues that the missing link to BIPV deployment lies at the intersection of the architectural community, construction industry, and PV manufacturers.
Now Chinese state-owned, the developer appears to want to draw a line under a traumatic two-year period which saw its fortunes reversed in dramatic fashion. Effectively now part of China’s Shuifa construction conglomerate, the proposed new name is intended to reflect the fact.
The Japanese chemical company has supplied panels for a PV system on the roof of a 7-Eleven store in Kanagawa prefecture.
Scientists at Germany’s Karlsruhe Institute of Technology have received €4.5 million from the Carl Zeiss Foundation to begin a project developing an entirely new solar cell concept they say will combine the printability of organic PV, long-term stability of crystalline solar cells and ferroelectricity of lead-halide perovskites.
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