KAIST researchers create a breakthrough in solar energy: a stretchable solar cell that converts energy with 19% efficiency, even when stretched up to 40% - ideal for wearable
High power conversion efficiency (PCE) and mechanical robustness are dual requisites for wearable applications of organic solar cells (OSCs). Here, we simultaneously achieve high electronic and mechanical performances in OSCs using conjugated polymer donors (P D s) consisting of electroactive rigid and soft blocks.Specifically, we integrate rigid and soft
Stretchable organic solar cells (SOSCs) have advanced rapidly in the last few years as power sources required to realize portable and wearable electronics become available. Through rational
Flexible and stretchable organic solar cells (FOSCs and SOSCs) hold immense potential due to their versatility and applicability in emerging areas such as wearable electronics, foldable devices, and biointegrated systems. Despite these promising applications, several challenges remain, primarily related to the mechanical durability, material
Engineers have succeeded in implementing a stretchable organic solar cell by applying a newly developed polymer material that demonstrated the world''s highest
Stretchable organic solar cells for powering wearable devices have been achieved by blending a ductile donor semiconductor polymer with a plasticizing small-molecule acceptor to overcome
A new stretchable solar cell developed by researchers at the Center for Emergent Matter Science at Riken University in Japan can stretch to nearly 1.5 times its original size with only a 20
Scientists make groundbreaking discovery while working on stretchable solar cells: ''This came as a nice surprise for us'' Kristen Lawrence Mon, November 11, 2024 at 10:30 AM UTC
The cell''s power conversion efficiency drops by only 20% when the solar cell is stretched by 50% (i.e., stretched to 1.5 times its original, unstretched length). Furthermore, it retains 95% of its initial power conversion
The research team tackled these challenges by developing a new type of organic solar cell (OSC). These lightweight, flexible power sources can be processed in
A new stretchable organic solar cell may offer the efficient power needed for the next generation of wearable devices, according to a team of international researchers. Led by Zhenye Wang, a researcher at the Wuhan National Laboratory for Optoelectronics, Huazhong University of Science and
Stretchable solar cells have emerged as a groundbreaking technology that retains 95% efficiency even after being stretched 100 times. This innovative development opens up new possibilities for the integration of solar power in wearables, medical devices, and other applications that require flexibility and durability.
Emerging wearable devices would benefit from integrating ductile photovoltaic light-harvesting power sources. In this work, we report a small-molecule acceptor (SMA), also known as a non–fullerene acceptor (NFA), designed for stretchable organic solar cell (s-OSC) blends with large mechanical compliance and performance.Blends of the organosilane
KAIST unveils high-efficiency, stretchable organic solar cells by Riko Seibo Daejeon, South Korea (SPX) Jan 10, 2024 In
Scientists make groundbreaking discovery while working on stretchable solar cells: ''This came as a nice surprise for us'' If the technology is successfully developed, it could pave the way for the next generation of wearables. by Kristen Lawrence November 11, 2024. share; Facebook;
In this study, we propose a new molecular design to simultaneously achieve high photovoltaic and mechanical performances in organic solar cells (OSCs) using conjugated polymer donors (D18-s-PEHDT PDs) consisting of electroactive rigid D18 and soft PEHDT blocks. The D18-s-PEHDT OSCs achieve excellent power conversion efficiency (PCE = 19.0%) and stretchability (crack
4 天之前· The fabrication of Stretchable Organic Solar Cells: Photovoltaic devices were prepared with two conventional structures of PET/PH1000 (70 nm)/PEDOT: PSS/Active layer (80 nm)/EGaIn and PET/silver nanowires/PH1000/PEDOT: PSS/Active layer (80 nm)/EGaIn. The silver nanowires (AgNWs) were spin-coated onto clean PET substrate under a rotation speed
A stretchable solar cell was unveiled by researchers at Saudi Arabia''s King Abdullah University of Science and Technology in January. The Saudi group claimed to have stretched a crystalline
Strain-induced power output (power conversion efficiency × photoactive area) enhancement in intrinsically stretchable organic solar cells (IS-OSCs) is demonstrated. To facilitate power output increase of IS-OSCs through stretching, a polymer donor (PBET-TF) with exceptional stretchability is designed by incorporating (1) non-fused core units and (2) flexible
A stretchable solar cell developed by RIKEN physicists can be stretched without greatly affecting its ability to convert light into electricity 1. It is thus promising for powering the next generation of wearable electronics.
DISCUSSION POINTS • Flexible solar cells based on inorganic materials can be divided into three main categories: thin film, low-dimensional materials, and bulk
Led by Professor Bumjoon Kim, the team from the Department of Chemical and Biomolecular Engineering (CBE) at KAIST (Korea Advanced Institute of Science & Technology) claim that their breakthrough material
High-performance intrinsically stretchable organic solar cells based on flexible spacer incorporated dimerized small-molecule acceptors Author links open overlay panel Jin-Woo Lee a 1, Cheng Sun b c 1, Seungbok Lee d, Dong Jun Kim e, Eun Sung Oh e, Tan Ngoc-Lan Phan a, Trieu Hoang-Quan Nguyen a, Soodeok Seo a, Zhengping Tan a, Michael J. Lee f,
In this study, we propose a new molecular design to simultaneously achieve high photovoltaic and mechanical performances in organic solar cells (OSCs) using conjugated polymer donors (D18-s-PEHDT PDs) consisting of electroactive rigid D18 and soft PEHDT blocks. The D18-s-PEHDT OSCs achieve excellent power conversion efficiency (PCE = 19.0%) and
A new stretchable solar cell developed by researchers at the Center for Emergent Matter Science at Riken University in Japan can stretch
High-performance intrinsically stretchable polymer solar cell with record efficiency and stretchability enabled by thymine-functionalized terpolymer. J. Am. Chem. Soc., 145 (2023), pp. 11914-11920, 10.1021/jacs.3c02764. View in Scopus Google Scholar. 48.
Intrinsically stretchable organic solar cells (IS-OSCs) are a promising class of wearable power sources. Although the power conversion efficiency (PCE) and mechanical stretchability of IS-OSCs have significantly improved, the current stretchability level still falls short of meeting the demands of wearable electronics. The power output (PCE × photoactive area) of these OSCs
Flexible and stretchable organic solar cells (FOSCs and SOSCs) hold immense potential due to their versatility and applicability in emerging areas such as wearable electronics, foldable devices, and biointegrated systems. Despite these promising applications, several challenges remain, primarily related to the mechanical durability, material
A stretchable, wearable dye-sensitized solar-cell textile is developed from elastic, electrically conducting fiber as a counter electrode and spring-like titanium wire as the working electrode. Dyesensitized solar cells are demonstrated with energy
The development of stretchable electrodes for intrinsically stretchable organic solar cells (IS-OSCs) with both high power conversion efficiency (PCE) and mechanical stability is crucial for wearable electronics. However, research on
Stretchable organic solar cells for powering wearable devices have been achieved by blending a ductile donor semiconductor polymer with a plasticizing small-molecule acceptor to overcome the inherent brittleness of the photoactive components.
A stretchable solar cell was unveiled by researchers at Saudi Arabia’s King Abdullah University of Science and Technology in January. The Saudi group claimed to have stretched a crystalline silicon cell’s surface by around 95% while maintaining conversion efficiency of approximately 19%.
The newly developed polymer is expected to play a role as a power source for next-generation wearable electronic devices. With the market for wearable electric devices growing rapidly, stretchable solar cells that can function under strain have received considerable attention as an energy source.
Flexible organic solar cells, particularly those based on the PM6:Y6:BCP material system, have a wide range of potential applications and broader implications for the field of renewable energy and wearable technology.
The fabrication of Stretchable Organic Solar Cells: Photovoltaic devices were prepared with two conventional structures of PET/PH1000 (70 nm)/PEDOT: PSS/Active layer (80 nm)/EGaIn and PET/silver nanowires/PH1000/PEDOT: PSS/Active layer (80 nm)/EGaIn.
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