Nanochemistry Lab
@nanochemistrylab.bsky.social
810 followers 1.4K following 71 posts
Nanochemistry Lab | Paolo Samorì | @unistra.fr | @cnrs.fr 👩‍🔬👨‍🔬🇮🇹🇵🇱🇫🇷🇪🇸🇨🇳🇺🇦🇵🇰🇧🇪 in 🇫🇷 Strasbourg, France https://nanochemistry.isis.unistra.fr/
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nanochemistrylab.bsky.social
🚨 New breakthrough in light detection! 🌈 Our single-channel, filter-free transistors can distinguish red and blue light with ultra-high sensitivity and long-term stability. Ideal for reconfigurable and neuromorphic circuits! 🧠⚡
doi.org/10.1021/acsa...
Selective Photodetection at Specific Wavelengths in Filterless Single-Channel Field-Effect Transistors
Photodetectors are optoelectronic devices that output an electric signal when illuminated, with a wide range of uses in modern technologies from the fields of biomedical imaging to communications. However, further improving the sensitivity and functionality of these devices to achieve even broader applications would require further development of devices with selective detection capability over wide ranges of wavelengths. In this study, we present a novel photodetector capable of multiwavelength visible light detection using a blend of organic semiconductors and inorganic perovskites as active material. In this photofield-effect transistor (photoFET), the photogating effect of CsPbBr3 nanocrystals upon illumination below 520 nm triggers a large shift in threshold voltage while illumination over 600 nm results in an increase in current without threshold voltage shift. As a result, the device exhibits the capability to discriminate red and blue light, while being sensitive to the intensity of incident light within the visible spectrum. This innovative device opens the door to the development of single photodetector devices capable of recognizing multiple wavelengths and shows strong promise for increased photosensitivity due to the lack of power losses from filters. Furthermore, the combination of transistor operation and detection functions has strong promise for the development of reconfigurable and neuromorphic circuits.
doi.org
nanochemistrylab.bsky.social
🤝🇫🇷🇵🇹🇪🇸🇩🇪🇮🇪 @unistra.fr @cnrs.fr @cnrs-alsace.bsky.social @ipcmslab.bsky.social @cinbio.bsky.social @uvigo.bsky.social @tudresden.bsky.social #tcd

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nanochemistrylab.bsky.social
💡 Turning defects into design! We’ve developed a toposelective way to decorate 2D transition metal dichalcogenides with noble metal nanoparticles 💎 By exploiting defects, we unlock new hybrid materials for sensing, catalysis & electronics 🚀
Read more 👉 doi.org/10.1002/adma...
nanochemistrylab.bsky.social
🗞️ Advanced Optical Materials

🤝🇫🇷🇨🇳🇸🇪 @unistra.fr @cnrs.fr @cnrs-alsace.bsky.social #tju #chalmers

💰 @agencerecherche.bsky.social #iuf
nanochemistrylab.bsky.social
🌈 No UV needed! Our new thin-film transistor switches states using only low-power visible light ☀️ Combining quantum dots and photochromic molecules for smarter, longer-lasting optoelectronics! 🚀
doi.org/10.1002/adom...
nanochemistrylab.bsky.social
A MoS₂–Prussian Blue nanosystem turns light ☀️ and chemistry 🧪 into a cancer-fighting duo – boosting reactive oxygen species to damage mitochondria and trigger ferroptosis! 🧬
doi.org/10.1016/j.ac...
nanochemistrylab.bsky.social
📖 @pubs.acs.org @acs.org

🤝🇨🇳🇫🇷 #nju #cas @unistra.fr @cnrs.fr @cnrs-alsace.bsky.social

#nano #chemistry #materials #research #science #technology #engineering #innovation
nanochemistrylab.bsky.social
🤝🇺🇸🇫🇷 @ygogotsi.bsky.social @unistra.fr @cnrs.fr @cnrs-alsace.bsky.social

💰 @ec.europa.eu @agencerecherche.bsky.social

#nano #chemistry #materials #research #science #technology #engineering #innovation
nanochemistrylab.bsky.social
Two MXenes, same light absorption – totally different heat behavior 🔦🔥 Our study shows Ti₂CTx cools ~1000× slower than Ti₃C₂Tx, revealing exotic photothermal dynamics that could power the next wave of printed, wearable & neuromorphic electronics! 🧠🚀
doi.org/10.1002/aelm...
Exotic Photothermal Response in Ti‐Based MXene Optoelectronic Devices
This work uncovers the photothermal response of Ti-based MXene devices to laser irradiation under different experimental conditions. Ti2CTx exhibits an asymmetric photothermal response, characterized....
doi.org
nanochemistrylab.bsky.social
#nano #chemistry #materials #research #science #technology #engineering #innovation #master #student #shu #shanghai #china #unistra #cnrs #strasbourg #france
nanochemistrylab.bsky.social
Big cheers for our newest Visiting Master Student, Wen Xu from Shanghai University! 🙌👩‍🔬🇨🇳 in 🇫🇷 @unistra.fr @cnrs.fr @cnrs-alsace.bsky.social
nanochemistrylab.bsky.social
#nano #chemistry #materials #research #science #technology #engineering #innovation #phd #student #jlu #changchun #jilin #china #unistra #cnrs #strasbourg #france
nanochemistrylab.bsky.social
Welcome Yingying Xu and Shulei Zhang from Jilin University 🎉 Thrilled to have you in the lab as Visiting PhD Students! 🙌👩‍🔬👨‍🔬🇨🇳 in 🇫🇷 @unistra.fr @cnrs.fr @cnrs-alsace.bsky.social
nanochemistrylab.bsky.social
#nano #chemistry #materials #research #science #technology #engineering #innovation #phd #student #udc #spain #unistra #cnrs #strasbourg #france
nanochemistrylab.bsky.social
A warm welcome to Mónica Andrea Paz Insua, who is spending time with us as a Visiting PhD Student from the University of A Coruña! 🙌👩‍🔬🇪🇸 in 🇫🇷 @unistra.fr @cnrs.fr @cnrs-alsace.bsky.social
nanochemistrylab.bsky.social
#nano #chemistry #materials #research #science #technology #engineering #innovation #postdoc #postdoctoral #researcher #unistra #cnrs #strasbourg #france