Agrivoltaics

An EU-funded Laperitivo project was launched earlier this month, focused on manufacturing large-area stable perovskite solar modules. Laperitivo stands for “large-area perovskite solar module manufacturing with high efficiency, long-term stability, and low environmental impact.” The project aims to achieve 22% efficiency for 900 cm² opaque panels and 20% for semi-transparent modules with more than 95% bifaciality.

The team will focus, among other things, on solving scalability challenges, to promote large-scale mass production with minimized losses. The abstract of the project’s EU funding paper also states that: “Indoor and outdoor field tests will be performed to monitor module reliability. Safety, circularity, and sustainability will be assessed to demonstrate products with minimized environmental impact.”

Sekisui Chemical and TERRA recently announced that they have commenced the first joint demonstration test in Japan to install film-type perovskite solar cells for agrivoltaics (solar sharing) at Sosa City, Chiba Prefecture on August 2, 2024.

Sekisui Chemical has created a 30 cm-wide roll-to-roll manufacturing process utilizing its original “sealing, film formation, materials and process technology,” and has reportedly confirmed 10 years equivalent of outdoor durability, which is critical to the development of film-type perovskite solar cells. Furthermore, this manufacturing process has been successfully used to produce film-type perovskite solar cells with a power generation efficiency of 15.0%. Development is being accelerated to further improve durability and power generation efficiency, as well as to establish manufacturing technology for 1 m-wide rolls.

A collaborative project by leading Helmholtz Centers for photovoltaic research aims to accelerate the deployment of multi-benefit photovoltaics based on emerging printed PV-Technologies like organic photovoltaics and perovskites. 

Core Lab Perovskite PV at KIT. Image from Solar TAP website

The Solar Technology Acceleration Platform (Solar TAP) for emerging Photovoltaics brings together 3 Helmholtz Centers, 9 major research infrastructures, and more than 25 scientists. The three Helmholtz centers are: Forschungszentrum Jülich, Helmholtz Zentrum Berlin and Karlsruhe Institute of Technology. They are aligning their world-class infrastructures in order to create the joint Technology Acceleration Platform and providing fast and simple access to laboratories, equipment and scientists through collaborative pre-financed projects.

PeroNova, a U.S.-based climate technology company, has announced its entrance into the renewable energy market, unveiling its perovskite technology. 

PeroNova claims to have achieved significant enhancements in the stability and reliability of perovskite films, which are critical factors for commercial viability. The Company plans to launch several pilot programs in the U.S. later this year. Specifically, it mentions a collaboration with real estate developers which will bring large-scale implementation of BIPV and agrivoltaics across the country.

As part of the Investing in America agenda, the U.S. Department of Energy (DOE) recently announced a $71 million investment in research, development, and demonstration projects to grow the network of domestic manufacturers across the U.S. solar energy supply chain. 

The selected projects will address gaps in the domestic solar manufacturing capacity for supply chain including equipment, silicon ingots and wafers, and both silicon and thin-film solar cell manufacturing. The projects will also open new markets for solar technologies such as dual-use photovoltaic (PV) applications, including building-integrated PV and agrivoltaics. 

France-based Armor Group has acquired a 20% stake in French solar module maker HoloSolis. 

In 2025, HoloSolis plans to open a TOPCon PV cell and panel factory in France. At full capacity from 2027, the factory is expected to employ 1,700 people and produce 10 million modules per year, for a total capacity of 5 GW per year. HoloSolis is also working on the next generation of solar panels and the perovskite-silicon tandem cells.

The perovskite solar industry is emerging and becoming a vibrant industry, with dozens of companies that are developing and starting to produce perovskite-based and perovskite-enhanced solar panels, for many applications.

While the industry is still at an early stage, we can see that almost half (43%) of the active perovskite developers are focused on solutions for outdoor applications – mainly roof top and utility scale applications – for generating electricity on a large scale, a replacement for current silicon-based solutions. While this is a challenging area (requires low cost, high performance and very high stability), the size of this market is large and proven. Perovskite has some inherent advantages in this area – low weight, low cost, high return on investment, high efficiency and excellent light absorption properties.

Silicon-based solar cells currently dominate the solar market. It is a proven technology, with established manufacturing processes. However, it is also quite expensive to produce, yields rigid cells and has an estimated efficiency limit of around 29%. In recent years, perovskite-based solar technologies have been drawing a lot of attention, and many academics and companies believe they are the future of the solar industry.

Perovskite Solar Cell (PSC) technology is a photovoltaic (PV) technology based on the use of perovskite materials, mostly in the light-absorbing layers of the cell. There are many types of perovskite materials, and several processes used to deposit these materials to create efficient solar panels. PSCs have potential for creating solar panels that are easily deposited onto most surfaces, including flexible and textured ones. They can also be lightweight, cheap to produce, and more efficient than silicon-based solar cells (efficiencies in the lab have already crossed 30%). 

The major advantages of perovskite-based solar cells are factors of performance, applicability and sustainability:

Researchers from CNR-IMM,CNR-IPCB, CNR-NANOTEC, Università Degli Studi di Messina and the University of Basel have shown that lead leakage can be prevented by applying a transparent titanium dioxide (TiO₂) sponge in a semitransparent solar cell. The device has demonstrated comparable efficiency to semi-transparent perovskite devices and has an average visible transmittance (AVT) of 31.4%.

The team designed the solar cell for applications such as building-integrated photovoltaics (BIPV) and agrivoltaics, in which the potential lead leakage can be seen as a serious public environmental and health risk source. 

Italian solar company, FuturaSun, has acquired Solertix, a start-up specialized in perovskite solar cell research and upscaling for industrial applications.

This acquisition represents a major investment for FuturaSun in scientific research and in the development of innovative technologies. Alessandro Barin, CEO of FuturaSun, emphasizes the strategic importance of this step, stating, “Perovskite is the future of high-efficiency photovoltaics, and in this specific R&D segment, we couldn’t afford not to be key players, working alongside those who are dedicated to scientific research at the highest academic levels.”