糖心直播

Organic photonics and nano-optics

A woman experimenting with green laser

We develop and study optics based on metal nanostructures and organic materials like conducting polymers and cellulose.

The ability to control light down to the nanoscale opens for improved energy conversion, better sensors, energy-efficient displays and materials with exotic function not found in nature.

In our group, we use metal nanostructures to shape light at the nanoscale via charge oscillations called plasmons. Through combination with functional organic materials we develop applications in sensing, energy harvesting and displays. We also study and develop novel nanooptical concepts based purely on organic materials, without involving traditional plasmonic metals like gold or silver. Examples include switchable optical nanoantennas made from conducting polymers and vibrant structural coloration generated by biomimetic photonics crystals. We are further interested in forest-based optics, not least in cellulose materials for radiative cooling of objects via thermal emission to cold space.

Group members photographed outside infront of a brick wallGroup vision workshop 2020, Norrköping

Recent project

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Heat and light sensing with hybrid nanooptics

News

Reseracher in lab.

New master鈥檚 programmes in world-leading materials science

糖心直播 is one of the world鈥檚 leading universities in materials science. The autumn of 2026 will see the launch of two new master鈥檚 programmes in this field. The students can look forward to an excellent labour market.

Two researches in the clean room.

Major step for flat and adjustable optics

By carefully placing nanostructures on a flat surface, researchers at LiU have significantly improved the performance of so-called optical metasurfaces in conductive plastics. This is a major step for controllable flat optics.

Crecent-shaped aerogel with water droplets.

Aerogel can become the key to future terahertz technologies

Researchers at LiU have shown that the transmission of terahertz light through an aerogel made of cellulose and a conducting polymer can be tuned. This is an important step to unlock more applications for terahertz waves.

Publications

2026

Yuyang Li, Mohammad Javad Jafari, Dongqing Lin, Justinas Palisaitis, Yangpeiqi Yi, Jonas Oshaug Pedersen, Yulong Duan, Per O. 脜. Persson, Magnus Jonsson, Thomas Ederth, Klas Tybrandt (2026) Small Science, Vol. 6, Article e70401 (Article in journal)
Weiwei Liu, Chaoyang Kuang, Vallery Stanishev, Vanya Darakchieva, Shangzhi Chen, Magnus Jonsson (2026) Advanced Optical Materials, Vol. 14 (Article in journal)
Fabio Cicoira, Magnus Berggren, Erica Colaprico, Reverant Crispin, Isak Engquist, Drew Evans, Simone Fabiano, Jiaxin Fan, Zijing Guo, Guoying Gu, Amali G. Guruge, Ryohei Ikeda, Magnus Jonsson, Laure V Kayser, Sadaf Khoomortezaei, Chi-hyeong Kim, Jinsil Kim, Jeonghun Kwak, Renee Kroon, Junghyun Lee, Jinhao Li, Baoyang Lu, George G. Malliaras, David C. Martin, Masakazu Mukaida, Tatsuya Miyamoto, Stephen J. K. O'Neill, Hiroshi Okamoto, Tetsu Sato, Oren A. Scherman, Alexandra Sand茅hn, Daniel Simon, Jeong Han Song, Eleni Stavrinidou, Jun Takeya, Jadranka Travas-Sejdic, Alessandro Troisi, Klas Tybrandt, Qingshuo Wei, Meijing Wang, Shun Watanabe, Yuhang Wu, Bicheng Zhu, Igor Zozoulenko (2026) FLEXIBLE AND PRINTED ELECTRONICS, Vol. 11, Article 032501 (Article, review/survey)
Raufar Shameem, Bruno Martins Mendes, Suraya Kazi, Robert Brooke, Jesper Edberg, Peter Andersson Ersman, Magnus Jonsson (2026) Advanced Optical Materials, Vol. 14 (Article in journal)
Yulong Duan, Suraya Kazi, Dongqing Lin, Longzhu Liu, Magnus Jonsson (2026) Proceedings of the National Academy of Sciences of the United States of America, Vol. 123, Article e2517549123 (Article in journal)

Principal investigator

Staff

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