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Liquid Metal Sensors for Soft Robots
Advanced Robotics Research, Volume 2, Issue 2, April 2026.This review thoroughly reviews liquid metal sensors in soft robots. Their unique material properties like high conductivity and good biocompatibility are analyzed. Working principles are classified, and applications in environmental perception, motion detection, and human—robot interaction are introduced.Qi Zhang, Nan Li, Yujia Song, Chen Hua, Tangzhen Guan, Yibing Ma, Cai Cheng, Jing Liu +7 morewiley +1 more sourceDesign of the Flowing LIquid Torus (FLIT)
Nuclear Materials and Energy, 2019 The design of the Flowing LIquid Torus (FLIT) at Princeton Plasma Physics Laboratory (PPPL) is presented. FLIT will focus on the development of a liquid metal (LM) diagnostics and divertor system (without a plasma source) suitable for implementation in ...E. Kolemen, M. Hvasta, R. Majeski, R. Maingi, A. Brooks, T. Kozub +5 moredoaj +1 more sourceMicrofabricated tactile sensors for biomedical applications: a review [PDF]
, 2014 During the last decades, tactile sensors based on different sensing principles have been developed due to the growing interest in robotics and, mainly, in medical applications. Several technological solutions have been employed to design tactile sensors; Guglielmelli, Eugenio, Oddo, Calogero Maria, Saccomandi, Paola, Schena, Emiliano, Silvestri, Sergio, Zollo, Loredana +5 morecore +2 more sourcesOxide Interface of Gallium‐Based Liquid Metals: Beneficial Bridge or Hidden Risk?
ChemistryEurope, Volume 4, Issue 4, April 2026.Discussion on oxide interfaces in gallium‐based liquid metals have concentrated on their properties, behaviors, and related applications. However, the molecular mechanisms underlying effects, as well as the differences between the presence and absence of the oxide layer, have been less thoroughly discussed.Yi Fan, Shuai Wang, Xu Houwiley +1 more sourceAdvanced Fluorescence Microscopy Techniques-FRAP, FLIP, FLAP, FRET and FLIM [PDF]
, 2012 Fluorescence microscopy provides an efficient and unique approach to study fixed and living cells because of its versatility, specificity, and high sensitivity.Abbe, Abbe, Ai, Airy, Alivisatos, Alivisatos, Ando, Aoki, Auksorius, Auzel, Auzel, Axelrod, Axelrod, Bacskai, Bader, Bader, Balse, Barroso, Bastiaens, Bates, Beaudouin, Beaurepaire, Becker, Benninger, Berezin, Berney, Betzig, Bianchini, Biju, Binnemans, Borst, Brakemann, Bretschneider, Bunt, Campagnola, Campagnola, Campbell, Cantor, Carrero, Chalfie, Chalfie, Chatterjee, Chen, Chen, Clapp, Clapp, Clapp, Cole, Coons, Dahan, Dedecker, Del Pozo, Deng, Denk, Diaspro, Diaspro, Dickson, Digman, Drobizhev, Drummen, Dundr, Dundr, Dunn, Dunn, Dunn, Durr, Dyba, Ehrlicher, Einstein, Elangovan, Elder, Ellenberg, Elsner, Feige, Fereidouni, Festenstein, Frommer, Förster, Förster, Gamelin, Garcia-Mira, Garcia-Parajo, Gerlich, Giese, Giordano, Goodson, Gopich, Gordon, Gregor P. C. Drummen, Grotjohann, Gu, Gunnlaugsson, Gurskaya, Gustafsson, Göppert-Mayer, Ha, Haugland, Heimstädt, Hellen C. Ishikawa-Ankerhold, Hemmila, Hiller, Hitakomate, Hofkens, Hofmann, Houtsmuller, Houtsmuller, Howell, Hu, Hu, Huang, Ishihama, Jacobson, Jares-Erijman, Jiang, Johannes, Johnson, Jonkman, Jose, Jovin, Jovin, Kaiser, Kambara, Kapustina, Karasawa, Kardash, Kasha, Kawashima, Kenworthy, Kerppola, Kerppola, Kerppola, Kerppola, Kimura, Kinoshita, Klonis, Kner, Knoblauch, Konig, Koppel, Koster, Kota, Koushik, Kremers, Kremers, Kuningas, Kuningas, Kuningas, Laforge, Lakowicz, Lakowicz, Larson, Lee, Lichtman, Liebman, Lippincott-Schwartz, Liu, Llères, Loura, Lukyanov, Lundin, Mansfield, Mathew-Fenn, Mattheyses, Matz, Medintz, Mills, Mitchell, Miyawaki, Miyawaki, Moerner, Moneron, Monetta, Mueller, Mueller, Nagai, Nehls, Ormö, Paddock, Parsons, Patterson, Patterson, Patterson, Pawley, Pawley, Persechini, Peters, Phair, Phair, Phillips, Piston, Piston, Planck, Pockwinse, Politz, Poo, Puliti, Rajaram, Rantanen, Reinhard, Reits, Reymann, Richard Ankerhold, Richards, Riven, Rizzo, Rizzo, Robinson, Roduner, Rotblat, Roy, Rust, Sakon, Sbalzarini, Schawlow, Schönle, Seabrooke, Seah, Selvin, Shaner, Shav-Tal, Shaw, Shchyolkina, Shimomura, Shimomura, Shroff, Shu, Shyu, Smith, So, Solon, Soukka, Soumpasis, Sprague, Sprague, Stasevich, Stelzer, Stepanenko, Stokes, Stryer, Stryer, Subach, Sun, Suyver, Swaminathan, Swift, Sönnichsen, Tagawa, Taylor, Thaler, Tian, Tian, Tinnefeld, Tisler, Tocanne, Tomosugi, Tripathi, Tsien, Tsien, Uphoff, Valentin, van Driel, Van Munster, Van Munster, van Munster, van Rheenen, van Royen, van Royen, van Royen, Varghese, Venetta, Vogelsang, von Wichert, Vosch, Wallrabe, Wang, Wang, Wang, Wang, Wang, Wang, Welch, White, Williams, Willig, Wouters, Wouters, Wouters, Wouters, Wright, Xia, Yang, Youvan, Zhang, Zhang, Zimmer, Zipfel +295 morecore +2 more sourcesLight‐Driven Reconfigurable Logic in a Monolithic Perovskite Device via Nonlinear Photoresponse Switching
Advanced Materials, Volume 38, Issue 14, 6 March 2026.This study demonstrates a monolithic perovskite OELG device that performs all eight logic operations, including XOR and XNOR, without external bias. Enabled by trap‐engineered MAPbI3:PLL and dual photogates, it achieves reconfigurable logic and parallel decoding of amplitude–frequency signals, supporting scenario‐configured logic‐level separation for ...Dante Ahn, Youngsoo Jang, Minz Lee, WooKyung Jeon, Yohan Yoon, Heon Lee, Assa Aravindh Sasikala, Namsoo Lim, Chandran Balamurugan, Hyeonghun Kim, Gun‐Young Jung, Sooncheol Kwon, Minah Seo, Yusin Pak +13 morewiley +1 more sourceLiquid marbles: topical context within soft matter and recent progress [PDF]
, 2015 The study of particle stabilized interfaces has a long history in terms of emulsions, foams and related dry powders. The same underlying interfacial energy principles also allow hydrophobic particles to encapsulate individual droplets into a stable form ...Aberle, Abkarian, Ahn, Arbatan, Arbatan, Arbatan, Aussillous, Aussillous, Aussillous, Bajwa, Bhosale, Biance, Bico, Binks, Binks, Binks, Binks, Binks, Bormashenko, Bormashenko, Bormashenko, Bormashenko, Bormashenko, Bormashenko, Bormashenko, Bormashenko, Bormashenko, Bormashenko, Bormashenko, Bradley, Braun, Callies, Cengiz, Chin, Chu, Dickey, Dixit, Doganci, Dupin, Dyab, Erbil, Eshtiaghi, Fernandes, Fletcher, Fujii, Fujii, G. McHale, Gao, Gao, Geraldi, Gokmen, Haller, Hamlett, Hashmi, Hu, Hu, Hu, Ihara, Inoue, Kawamura, Khalil, Khan, Kralchevsky, Laborie, Ladd, Lagubeau, Lai, Lee, Li, Li, Li, Liang, Liyanaarachchi, M. I. Newton, Mahadevan, Marston, Matsubara, Matsukuma, Matsukuma, McHale, McHale, McHale, McHale, McHale, McHale, McHale, Mejia, Mele, Mertaniemi, Miao, Murakami, Nakai, Nakai, Nguyen, Ogawa, Oliveira, Palleau, Pike, Planchette, Planchette, Planchette, Py, Quéré, Quéré, Quéré, Roach, Rykaczewski, Saleh, Sarvi, Serrano, Shirato, Shirtcliffe, Shirtcliffe, Sivan, Smith, Su, Subramaniam, Subramaniam, Tang, Tang, Tian, Tippkötter, Ueno, Vakarelski, Vella, Vella, Walker, Whitby, Whitby, Wong, Wu, Xu, Xue, Yang, Yang, Yildirim, Yusa, Zang, Zang, Zhang, Zhang, Zhang, Zhao, Zhao +143 morecore +1 more sourceLaser Micromachining of Liquid Metal Patterns for Stretchable Electronic Circuits
Advanced Materials Technologies, Volume 11, Issue 6, 18 March 2026.A cleanroom‐free fabrication strategy combines UV‐laser micromachining with a copper foil wetting layer to rapidly produce high resolution, liquid metal based stretchable electronic circuits on diverse substrates. The scalable, maskless process enables complex circuit designs (<$<$3 h, ∼$\sim$15/device) with excellent electrical stability under strain, Merjen Palvanova, Patrick McManigal, Grace Fredrickson, Eric J. Markvicka +3 morewiley +1 more source