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Professor Peng Huisheng from the School of Polymer Science at our university recently introduced an innovative technique for layering fabric electrodes, successfully creating fabric-based solar cells. These flexible solar cells can be woven into different types of fabrics, offering a new generation of wearable electronic devices. This breakthrough was published online in *Angewandte Chemie International Edition*, one of the most respected journals in the field of chemistry. The study, authored by Dr. Pan Shaowu, a Ph.D. student in Professor Peng’s research group, was recognized as a "Hot Paper" shortly after its release. The journal also issued a special press release titled "Wearable Solar Cells," highlighting the significance of this work.
This achievement follows the group's earlier success in developing stretchable linear supercapacitors in December 2013, which had been featured in a special issue of the same journal.
On May 30th, *Science* magazine covered the research under the title "Weaving Solar Energy into Fabrics," drawing global attention from both academic and public media.
Wearable technology is rapidly becoming a key trend in modern electronics. Beyond their functional roles, these devices are expected to be lightweight, flexible, and easy to integrate into everyday clothing. In recent years, researchers have explored linear micro-cells that are more compact and adaptable than traditional planar designs. While such devices can be woven into fabrics using textile techniques, the challenge of producing linear solar cells has remained a technical hurdle.
Building on previous research, Professor Peng’s team overcame this challenge. They first coated a titanium silk fabric with photoactive materials to create a working electrode. Then, they used aligned carbon nanotube fibers—known for their excellent mechanical and electrical properties—as the counter electrode. Finally, the two fabric electrodes were carefully combined, encapsulated with electrolytic liquid, and sealed to produce the final fabric solar cell.
Once commercialized, this technology could revolutionize how people use electricity daily. It would offer a practical solution for charging devices during outdoor activities, fieldwork, or scientific expeditions, reducing the risk of power shortages. The fabric-based equipment, being lightweight, comfortable, and cost-effective, could also merge with fashion design trends. The unique color patterns of the battery itself could even provide a dual experience of technological innovation and aesthetic appeal.