Results 41 to 50 of about 1,385,198 (299)
AFM Imaging of Lipid Domains in Model Membranes
The Scientific World Journal, 2003 Characterization of the two-dimensional organization of biological membranes is one of the most important issues that remains to be achieved in order to understand their structure-function relationships.Pierre Emmanuel Milhiet, Marie-Cecile Giocondi, Christian Le Grimellec +2 moredoaj +1 more sourceMembrane Flotation Assay
Bio-Protocol, 2015 Many postitive-stranded RNA viruses, such as Hepatitis C virus (HCV), highjack cellular membranes, including the Golgi, ER, mitchondria, lipid droplets, and utilize them for replication of their RNA genome or assembly of new virions. By investigating how Dorothee Vogt, Melanie Ottdoaj +1 more sourceTear of lipid membranes by nanoparticles
Soft Matter, 2022 Tear, a direct physical damage of lipid bilayers, can be inflicted by small enough nanoparticles.Er-Rafik, Meriem, Ferji, Khalid, Combet, Jérôme, Sandre, Olivier, Lecommandoux, Sébastien, Schmutz, Marc, Le Meins, Jean-François, Marques, Carlos +7 moreopenaire +4 more sourcesUnraveling membrane properties at the organelle-level with LipidDyn
Computational and Structural Biotechnology Journal, 2022 Cellular membranes are formed from different lipids in various amounts and proportions depending on the subcellular localization. The lipid composition of membranes is sensitive to changes in the cellular environment, and its alterations are linked to ...Simone Scrima, Matteo Tiberti, Alessia Campo, Elisabeth Corcelle-Termeau, Delphine Judith, Mads Møller Foged, Knut Kristoffer Bundgaard Clemmensen, Sharon A. Tooze, Marja Jäättelä, Kenji Maeda, Matteo Lambrughi, Elena Papaleo +11 moredoaj +1 more sourceMicromachined glass apertures for artificial lipid bilayer formation in a microfluidic system [PDF]
, 1998 The use of spark assisted chemical engraving (SACE) to produce glass apertures that are suitable for the formation of artificial bilayer lipid membranes is described.Uttamchandani, D.G., Syms, R., Aljada, Muhsen, Yan Xing, Zhu, YH, Shi, XM, Ashok, A, Xing, Yan, Hida, Hirotaka, Shikida, M, Li, Yongyao, Pirri C, F., Ballestra, A., Lee, TMH, Pirri, Candido, Cai, H, Xing, Y, Blue, Robert, Gautam, A K, Weng, C, Brown, J.G., Zhang, Xin, Zhang, P., Xu, Y, DEZEST, D, Wong, Man, Kwan, FY, Sucher, Nikolaus J., Zeng, Fan, Pal, Prem, Agrawal, A, Svetovoy, Vitaly, Soma', Aurelio, Xiao, G, Qu, Xiaopeng, Sharma, V, Dong, Shu Rong, Yan, X, To, S, Dutta, A, Wai, PKA, Chu, HK, Y Xing, Song, Y. J., Chan, CY, Yue, TM, Ferrando, N, NICU, L, Gu, Changdong, Goslvez, M A, V Svetovoy, Karyn Mutkins, De Pasquale, Giorgio, Amit Agrawal, Shiv G Singh, Luo, Yuan, Wang, K, Duryodhan, V S, Fukuzawa, K, MATHIEU, Fabrice, Agrawal, Amit, Flockhart, Gordon M H, Chen, Xuyuan, Lo, GQ, Veijola, T., Jiang, Linan, THOMAS, Olivier, Tam, KF, Hida, H., Ehmann, KF, Gadea Gironés, Rafael, JASINEVICIUS, R. G., Zhang, Y, Song, Liyan, Zhang, X, Liu, H, Zagnoni, Michele, Kang, C, Canavese, Giancarlo, Cocuzza, Matteo, Liu, B, Cui, Jingzhi, Ko, SM, Krijnen, G.J.M.; id_orcid, Zhou, Jianying, Wong, Kam Sing, Mei, SM, Chen, R., Polido Gomes, J.F., Stagg, J., Marasso, Simone Luigi, VALES, L. F., Zhang, Tong Yi, Farinelli, P, de Bree, H.E., Zhu, Z, REMIENS, D, Hau, Winky L.W., Singh, Shiv Govind, Zhu, W, COSTECALDE, J, Yick Chuen Chan, Li, Li, Svetovoy, V.B., G J M Krijnen, Yang, W. W., Xu, Hui, Sandison, Mairi E., Hida, H, Zhang, SJ, B Tang, Cheng, Zaijun, Pan, W., Ferrando, Néstor, Chan, Mansun, Yung, KC, Xiao, K., M C Elwenspoek, CUNHA, L. S., N Ferrando, Lee, Yi Kuen, Yung, KL, BALLESTRA A., Chan, Yick Chuen, NICU, Liviu, Sharma, A K, COSTECALDE, Jean, Lee, Sylvanus Yuk Kwan, Lijie Li, M Shikida, Bhide, R R, J Cerdá, Giuri, E., Gosalvez Ayuso, Miguel Angel, Zagnoni, M., Trau, Dieter W., Tan, Q, Singh, S S, Wu, Zhangming, Shu, Yi, Prem Pal, Pandey, A K, Morgan, Hywel, H-e De Bree, Burn, Paul, Sridharan, A, H Hida, Singh, S G, Li, Y, Ricciardi, Carlo, SOYER, C, Sato, Kazuo, Zhao, T. S., Qiu, H. H., Zhangming Wu, Wright, Mike T., R Gadea, Sandison, M.E., Abu-Hantash, Mustafa, ANDREETA, M. R. B., Meredith, Paul, Pal, P, Bai, G, Zhang, XM, 伞海生, Liu, AQ, Jin, Baidong, Li, Lijie, Yu, MB, CARASCHI, L. C., Wang, Wentao, Samuel Cheng, George Vamvounis, Tagliaferro, Alberto, Vamvounis, George, Li, Juntao, Deladi, S., Haldar, S, Cheng, CH, Bhide, Rohit R, J W Van Honschoten, Krijnen, G.J.M., Robert Blue, Jin, Hao, Duttagupta, S P, Gosalvez, M A, Liu, Bo, van Honschoten, J.W., Wu, Zhang Ming, Ma, Wei, Miguel A Gosálvez, Kwong, DL, SINGH, SG, Pandey, Ashok Kumar, DEÜ, Jean-François, Li Li, A Sridharan, Abu-Hantash, M., Lowrie, C., Ma, Xianghong, E. GIURI, Elwenspoek, M.C., Xianghong Ma, Lina Stankovic, Morgan, H., Chi, Guanxin, Desmulliez, M.P.Y., Cerda, J, Sharma, Vandana, Begbie, M., Stankovic, Lina, Rohit R Bhide, Mutkins, Karyn, DEZEST, Denis, V B Svetovoy, Liang, Bing, Lee, WB, Li, L., M A Gosalvez, Gordon M H Flockhart, Shin, Dong Youn, Zheng, YP, Feng, Zhihong, Sato, K, Yuan Li, Demarchi, Danilo, Ren, Tian Ling, Wentao Wang, Stankovic, Vladimir, Qiu, Huihe, Wang, Zhenlong, Yao, J., MATHIEU, F, Deepak Uttamchandani, DEÜ, J F, Kazuo Sato, Liu, Yikun, Vladimir Stankovic, Cerdá Boluda, Joaquín, San, Haisheng, Yi-Kuen Lee, Elwenspoek, Michael Curt, BHIDE, RR, Muhsen Aljada, Perrone, Denis, MAZENQ, L, Giorcelli, Mauro, Shin, Dong-Youn, Paul Burn, Sato, K., Mike T Wright, Yobas, Levent, Gosálvez, M. A., Wu, Q. X., Cheng, S., Li, Gang, Tang, B, Wang, Yuelin, Gadea, R, Krijnen, Gijsbertus J.M., Xiaopeng Qu, Uttamchandani, Deepak, Sandison, M E, Weiland, D., Cheung, CF, Zhou, Changjian, Huihe Qiu, MAZENQ, Laurent, S Deladi, Veerla, S, Grassia, Paul, Sun, D, Ferrando Jódar, Néstor, Zohar, Yitshak, Wang, Rong Xin, Svetovoy, V., Singh, Shiv G, Amakawa, H, REMIENS, Denis, Quaglio, Marzia, Li, Yuan, SOYER, Caroline, Morgan, H, Zou, H., Sanginario, Alessandro, VEIJOLA T., Paul Meredith, K Sato, Yang, Yi +288 morecore +2 more sourcesThe Application of Lipid Membranes in Biosensing [PDF]
Membranes, 2018 The exploitation of lipid membranes in biosensors has provided the ability to reconstitute a considerable part of their functionality to detect trace of food toxicants and environmental pollutants. This paper reviews recent progress in biosensor technologies based on lipid membranes suitable for food quality monitoring and environmental applications ...Georgia-Paraskevi Nikoleli, Dimitrios P. Nikolelis, Christina G. Siontorou, Marianna-Thalia Nikolelis, Stephanos Karapetis +4 moreopenaire +4 more sourcesModeling and Simulation of Lipid Membranes
Membranes, 2022 Cell membranes separate the interior of cells and the exterior environment, providing protection, controlling the passage of substances, and governing the interaction with other biomolecules and signalling processes [...]Jordi Martí, Carles Caleroopenaire +6 more sources