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PDF Download [Attachment 1-5] List of IBS Research Centers (As of Dec. 21, 2020) □ Total 31 Centers (30 Directors and 3 CIs) ○ Nine HQ, thirteen Campus(five at KAIST alliance campus, seven at DUP alliance campus, one at GIST), and nine Extramural Centers Field (number of Center name Director·CI Photo Center type Research area centers) Center for Correlated External Condensed NOH Tae Won Electron Systems (Seoul Nat. Univ.) matter physics Center for Integrated External Nanostructure LEE Young Hee Nanostructure Physics (Sungkyunkwan Univ.) physics Center for Relativistic Campus NAM Chang Hee Optics Laser Science (GIST) Center for Axion and Yannis Campus Elementary Precision Physics Research SEMERTZIDIS (KAIST) particle physics Center for Artificial YEOM Han Campus Condensed Low Dimensional Woong (POSTECH) matter physics Physics Electronic Systems (10) Center for KIM Yeongduk HQ Particle physics Underground Physics Ceter for Theoretical HQ Theoretical CHOI Kiwoon Physics of the Universe (Co-director) physics Center for Theoretical HQ Theoretical Physics of Complex Sergej FLACH (Co-director) physics Systems Center for Quantum Andreas External Quantum Nanoscience HEINRICH (Ewha W. Univ.) nanoscience Center for Exotic Rare Isotope HAHN Kevin Insik HQ Nuclear Studies Sciences SHIN Hee-Sup Center for Cognition HQ Brain science and Sociality LEE Changjoon (Co-director) Justin Center for Synaptic Campus KIM Eunjoon Brain science Brain Dysfunctions (KAIST) Life Center for RNA External Molecular cell KIM V. Narry Sciences Research (Seoul Nat. Univ.) biology (6) Center for Plant Campus NAM Hong Gil Plant biology Aging Research (DGIST) Center for Genomic MYUNG Campus Genome Integrity Kyungjae (UNIST) biology Center for Vascular KOH Gou Campus Vascular Research Young (KAIST) biology Field (number of Center name Director·CI Photo Center type Research area centers) Center for Campus Nanoscience & Nanomaterials and RYOO Ryong (KAIST) physics Chemical Reactions Center for Campus Supramolecular Self-assembly and KIM Kimoon (POSTECH) chemistry Complexity Center for HYEON External Nanoparticle Nanoscience Taeghwan (Seoul Nat. Univ.) Chemistry Research (6) Center for Catalytic Campus Organic Hydrocarbon CHANG Sukbok (KAIST) chemistry Functionalizations Center for Materials Campus Multidimensional Rodney RUOFF chemistry(carbon (UNIST) Carbon Materials allotropes) Center for Molecular External Physical Spectroscopy and CHO Minhaeng (Korea Univ.) chemistry Dynamics Physical Center for Soft and Campus Steve GRANICK chemistry of Living Matter (UNIST) soft matter Center for External Systems Neuroscience Imaging KIM Seong-Gi (Sungkyunkwan neuroscience Inter- Research Univ.) discipli Center for Genome Genome KIM Jin-Soo HQ nary Engineering engineering (5) Center for External CHEON Jinwoo Basic medicine Nanomedicine (Yonsei Univ.) Center for Biomolecular HQ Protein structural (CI) KIM Ho Min and Cellular Structure (PRC) biochemisty Center for Geometry Campus OH Yong-Geun Geometry and Physics (POSTECH) Center for Complex Complex HWANG Jun-Muk HQ Mathe Geometry Geometry matics Combinatorics (2) Cneter for Mathematical (CI) OUM Sang-il and HQ and Computation graph theory (PRC) Sciences (CI) CHA Data science Meeyoung Earth Center for Climate Axel External Sciences Climate physics (1) Physics TIMMERMANN (Pusan Nat. Univ.) - 2 -.
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  • Tsvi Tlusty – C.V
    TSVI TLUSTY – C.V. 06/2021 Center for Soft and Living Matter, Institute for Basic Science, Bldg. (#103), Ulsan National Institute of Science and Technology, 50 UNIST-gil, Ulju-gun, Ulsan 44919, Korea email: [email protected] homepage: life.ibs.re.kr EDUCATION AND EMPLOYMENT 2015– Distinguished Professor, Department of Physics, UNIST, Ulsan 2015– Group Leader, Center for Soft and Living Matter, Institute for Basic Science 2011–2015 Long-term Member, Institute of Advanced Study, Princeton. 2005–2013 Senior researcher, Physics of Complex Systems, Weizmann Institute. 2000–2004 Fellow, Center for Physics and Biology, Rockefeller University, New York. Host: Prof. Albert Libchaber 1995–2000 Ph.D. in Physics, Weizmann Institute, “Universality in Microemulsions”, Supervisor: Prof. Samuel A. Safran. 1991–1995 M.Sc. in Physics, Weizmann Institute. 1988–1990 B.Sc. in Physics and Mathematics (Talpyot), Hebrew University, Jerusalem. Teaching: Landmark Experiments in Biology (2006); Statistical Physics (2007, 2017-20); Information in Biology (2012); Errors and Codes (IAS, 2012); Theory of Living Matter (2016); Students and post-doctoral fellows (03/2020) Pineros William (postdoc, 2019- ) John Mcbride (postdoc, 2018- ) Somya Mani (postdoc, 2018- ) Tamoghna Das (postdoc, 2018- ) Ashwani Tripathi (postdoc, 2018- ) Sandipan Dutta (postdoc, 2016-2021), Prof. at BIRS Pileni, India Vladimir Reinharz (postdoc, 2018-2020), Prof. at U. Montreal. YongSeok Jho (research fellow, 2016-2017), Prof. at GyeongSang U. Yoni Savir (Ph.D., 2005-2011) Prof. at Technion. Adam Lampert (Ph.D., 2008-2012) Prof. at U. Arizona. Arbel Tadmor (M.Sc., 2006-2008) researcher at TRON. Maria Rodriguez Martinez (Postdoc, 2007-2009), PI at IBM Zurich Tamar Friedlander (Postdoc, 2009 -2012) Prof.
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    View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by IBS Publications Repository Catalytic enzymes are active matter Ah-Young Jeea, Yoon-Kyoung Choa,b, Steve Granicka,c,d,1, and Tsvi Tlustya,c,1 aCenter for Soft and Living Matter, Institute for Basic Science, Ulsan 44919, South Korea; bDepartment of Biomedical Engineering, Ulsan National Institute of Science and Technology, Ulsan 44919, South Korea; cDepartment of Physics, Ulsan National Institute of Science and Technology, Ulsan 44919, South Korea; and dDepartment of Chemistry, Ulsan National Institute of Science and Technology, Ulsan 44919, South Korea Contributed by Steve Granick, September 27, 2018 (sent for review August 17, 2018; reviewed by Changbong Hyeon and Elisha Moses) Using a microscopic theory to analyze experiments, we demon- All this signaled a paradigm shift in our understanding of en- strate that enzymes are active matter. Superresolution fluores- zymes. Large-scale internal mobility, such as hinge-like rotations, cence measurements—performed across four orders of magnitude twists, or shear-like sliding, was already linked to the function of of substrate concentration, with emphasis on the biologically enzymes (9–13) in the classical mechanisms of allostery (14) and relevant regime around or below the Michaelis–Menten constant— induced fit (15). However, energetically driven translational mo- show that catalysis boosts the motion of enzymes to be superdif- tion was considered the exclusive realm of molecular motors (16). fusive for a few microseconds, enhancing their effective diffusiv- In light of the evidence for boosted enzymatic mobility, this dis- ity over longer timescales. Occurring at the catalytic turnover tinction appears rather artificial, and one should see enzymes as rate, these fast ballistic leaps maintain direction over a duration nanomotors whose dynamic profile influences their function and limited by rotational diffusion, driving enzymes to execute worm- spatiotemporal organization (3, 17–19).
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  • Profile of Steve Granick PROFILE
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  • Viewpoint Confined Liquid Controversies Near Closure?
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    Macromolecules 1990,23, 3367-3374 3367 occur under dilute growth conditions. Quasielastic light (8) Martin, J. E.; Adolf, D.; Wilcoxon, J. P. Phys. Reo. Lett. 1988, scattering measurements then growth 61, 2620. (9) Martin, J. E.; Adolf, D.; Wilcoxon, J. p. Phys. Reu. A 1989, in time, as opposed to the critical growth observed close 39, 1325. to the gel Point. This exponentid growth and the observed (10) Durand, D.; Delsanti, M.; Adam, M.; Luck, J. M. Europhys. dimension of D = 2 indicate nonequilibrium cluster for- Lett. 1987, 3, 297. mation via reaction-limited aggregation. Thus different (11) Adolf, D.; Martin, J. E.; Wilcoxon, J. P. Macromolecules 1990, 23, 527. preparative pathways can be used to modify the strut- (12) de Gennes, P.-G. Scaling Concepts in Polymer Physics; Cor- ture of silica gels. ne11 University Press: Ithaca, NY, 1979. (13) Isaacson, J.; Lubensky, T. C. J. Phys. (Paris) 1980, 41, L469. References and Notes (14) de Gennes, P.-G. J. Phys. (Paris) 1979,40, L197. (15) Martin. J. E. J. Phvs. A: Math. Gen. 1985. 18. L207. (16) Martin; J. E.; Ackerson, B. J. Phys. Reu.'A 1985, 31, 1180. Martin, J. E. In Time-Dependent Effects in Disordered See also: Martin, J. E. J. Appl. Crystallogr. 1986, 19, 25. Materials; Pynn, R., Riste, T., Eds.; Plenum: New York, 1988. (17) Daoud, M.; Martin, J. E. In The Fractal Approach to Heter- Martin, J. E.; Keefer, K. D. Phys. Reu. A 1986, 34, 4988. ogeneous Chemistry: Surfaces, Colloids, Polymers;Avnir, D., Dubois, M.; Cabane, B. Macromolecules 1989,22, 2526.
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  • Matt Tirrell
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