Sökresultat - "Liquid–liquid phase separation"

Assessing the Effect of Chromatin-Binding Enzymes on Condensed Chromatin with Optical Tweezers

Kamp, Dieter^Aff4, Vizjak, Petra^{Aff5, Aff6}, Stigler, Johannes^Aff4

Lavelle, Christophe^Aff2, Le Gall, Antoine^Aff3, Walker, John M.^Aff1

Method to Purify Phase-Separated p62 Bodies Using Fluorescence-Activated Particle Sorting

Takada, Shuhei^Aff3, Komatsu, Masaaki^Aff3, Morishita, Hideaki^{Aff3, Aff4}

Nezis, Ioannis P.^Aff2, Walker, John M.^Aff1

Investigating Liquid-Liquid Phase Separation in Virus-Generated Inclusion Bodies Using Fluorescence Recovery After Photobleaching of Fluorescently Labeled Host Proteins

Asuelime-Smith, Matthew B. T.^Aff4, Ma, Dzwokai Z.^Aff5

Ma, Dzwokai Z.^Aff2, Pfaller, Christian K.^Aff3, Walker, John M.^Aff1

Preparation of Tau Condensates by Liquid–Liquid Phase Separation to Study Tau Amyloid Aggregation

Lin, Yanxian^Aff3

Smet-Nocca, Caroline^Aff2, Walker, John M.^Aff1

Engineered Peptide Coacervates Enable Efficient Intracellular Delivery of the MYC Inhibitor omoMYC

Cerrato, Carmine P.^aff1, Krkoška, Martin^{aff1, aff2}, Sun, Yue^aff3, Liaño-Pons, Judit^aff1, Neo, Qi Ying^aff3, Vosselman, Thibault^aff1, Alzrigat, Mohammad^aff1, Vojtěšek, Borek^aff2, Lane, David P.^aff1, Arsenian Henriksson, Marie^aff1, Miserez, Ali^{aff3, aff4}, Landreh, Michael^{aff1, aff5}

4‑Amino-3′,4′-dihydroxychalcone Increases Tau Dynamics in Phase-Separated Droplets and Inhibits Tau Aggregation

Gop, Rajeshkumar S.^aff1, Adhikary, Rishav^aff1, Venkatramani, Anuradha^aff1, Sengar, Neha^aff2, Singh, Inder Pal^aff2, Panda, Dulal^{aff1, aff3}

Recombinant Elastin-Based Bioelastomers for Biomedical Applications

Babiak, Paulina M.^Aff5, Minnich, Jason, II^Aff5, Torres, Jessica E.^Aff5, Madduri, Sathvik^Aff6, Liu, Julie C.^{Aff5, Aff7}

Sullivan, Millicent O.^Aff2, Chackerian, Bryce^Aff3, Chen, Wilfred^Aff4, Walker, John M.^Aff1

Gain-of-Function Variomics and Multi-omics Network Biology for Precision Medicine

Li, Mark M.^Aff4, Awasthi, Sharad^Aff5, Ghosh, Sumanta^Aff5, Bisht, Deepa^Aff5, Coban Akdemir, Zeynep H.^Aff11, Sheynkman, Gloria M.^{Aff12, Aff13, Aff14}, Sahni, Nidhi^{Aff5, Aff6, Aff7}, Yi, S. Stephen^{Aff4, Aff8, Aff9, Aff10}

Kasid, Usha N.^Aff2, Clarke, Robert^Aff3, Walker, John M.^Aff1

Mechanistic Investigation into the Phase Separation Behavior of Soluplus in the Presence of Biorelevant Media

Lange, Justus Johann^aff1, Senniksen, Malte Bøgh^{aff2, aff3}, Wyttenbach, Nicole^aff4, Page, Susanne^aff2, Bateman, Lorraine M.^{aff1, aff5}, O’Dwyer, Patrick J.^aff1, Saal, Wiebke^aff4, Kuentz, Martin^aff6, Griffin, Brendan T.^aff1

Predicting Liquid–Liquid Phase Separation of Submicrometer Proxies for Atmospheric Secondary Aerosol

Huang, Qishen^{aff1, aff2}, Pitta, Kiran R.^aff2, Zuend, Andreas^aff3, Freedman, Miriam Arak^{aff2, aff4}

Genetically-Encoded Phase Separation Sensors Enable High-Fidelity Live-Cell Probing of Biomolecular Condensates

Avecilla, Alexa Regina Chua, Thomas, Jeremy, Quiroz, Felipe Garcia

Graphene Biosensor Differentiating Sensitive Interactions between Ribonucleic Acid and Dipeptide Repeats in Liquid–Liquid Phase Separation

Kikuchi, Kantaro^aff1, Yamazaki, Yui^aff1, Kanekura, Kohsuke^aff2, Hayamizu, Yuhei^aff1

Metabolite-Responsive Control of Transcription by Phase Separation-Based Synthetic Organelles

Jerez-Longres, Carolina^{aff1, aff3}, Weber, Wilfried^{aff1, aff2, aff3}

Impact of Microemulsion Oil Components on Liquid–Liquid Phase Separation of a Supersaturated Drug Revealed by Cryo-TEM and 1H NMR Analysis

Edera, Risa, Ueda, Keisuke, Tomita, Saeko, Higashi, Kenjirou, Moribe, Kunikazu

Graphene Quantum Dots Attenuate TDP-43 Proteinopathy in Amyotrophic Lateral Sclerosis

Park, Na Young^aff1, Heo, Yunseok^aff2, Yang, Ji Won^aff1, Yoo, Je Min^aff3, Jang, Hye Ji^aff1, Jo, Ju Hee^aff1, Park, Su Jeong^aff1, Lin, Yuxi^aff2, Choi, Joonhyeok^{aff2, aff4}, Jeon, Hyeonjin^aff5, Cha, Sun Joo^aff5, Bae, Gaeun^aff6, Kim, Donghoon^{aff1, aff7}, Kim, Juhee^aff8, Zeno, Wade^aff8, Park, Jong Bo^aff9, Isozumi, Noriyoshi^aff10, Saio, Tomohide^aff11, Kim, Seung Hyun^aff12, Lee, Hojae^aff13, Hong, Byung Hee^aff6, Nahm, Minyeop^aff5, Lee, Young-Ho^{aff2, aff14, aff15, aff16, aff17}, Hong, Young Bin^{aff1, aff18}

Amyloid Targeting-Gold Nanoparticles-Assisted X‑ray Therapy Rescues Islet β‑Cells from Amyloid Fibrils and Restores Insulin Homeostasis

Forgham, Helen^aff1, Matre, Stetson Van^aff2, Karen Chung, Ka Hang^aff1, Tahir, Muhammad Sajid^aff3, Ali, Syed Aoun^aff1, Kikuchi, Kai^{aff4, aff5}, Kaur, Amandeep^{aff4, aff5}, Qiao, Ruirui^aff1, Kakinen, Aleksandr^aff1, Qamar, Ahmad Zaman^aff2, Davis, Thomas Paul^aff1, Javed, Ibrahim^{aff1, aff6}

Emerging of Ultrafine Membraneless Organelles as the Missing Piece of Nanostress: Mechanism of Biogenesis and Implications at Multilevels

Liu, Jia^aff1, Zheng, Liuting^aff1, Li, Xinyue^aff1, Tang, Wei^aff1, Guo, Manyu^aff2, Wang, Yuxing^aff1, Tan, Xiaoqi^aff1, Chang, Jiajia^aff1, Zhao, Huiyue^aff3, Zhu, Dongsheng^aff2, Ma, Yu-qiang^aff4, Huo, Da^aff1

Catalytic Assembly of Peptides Mediated by Complex Coacervates

Li, Wang^{aff1, aff2}, Zhou, Yang^aff1, Tong, Tianyi^aff1, He, Sheng^aff1, Wang, Congsen^aff1, Zhang, Xinran^aff1, Cao, Xiao-Yu^aff1, Yang, Liulin^aff1, Tian, Zhong-Qun^aff1

Native Mass Spectrometry Captures the Conformational Plasticity of Proteins with Low-Complexity Domains

Osterholz, Hannah^aff1, Stevens, Alexander^aff1, Abramsson, Mia L.^aff2, Lama, Dilraj^aff2, Brackmann, Klaus^aff7, Rising, Anna^{aff3, aff4}, Elofsson, Arne^aff5, Marklund, Erik G.^aff6, Deindl, Sebastian^aff7, Leppert, Axel^{aff1, aff2}, Landreh, Michael^{aff1, aff2}

In Vitro Characterization of Protein:Nucleic Acid Liquid–Liquid Phase Separation by Microscopy Methods and Nanoparticle Tracking Analysis

do Amaral, Mariana J.^Aff3, Passos, Yulli M.^Aff3, Almeida, Marcius S.^Aff4, Pinheiro, Anderson S.^Aff5, Cordeiro, Yraima^Aff3

Cieplak, Andrzej Stanisław^Aff2, Walker, John M.^Aff1