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1) The colloidal nature of complexfluids enhances bacterial motility. Nature 2022
2) Subwavelength imaging anddetection using adjustable and movable droplet microlenses. Photonics Research2020
3) Constraint Dependence of ActiveDepletion Forces on Passive Particles. PHYSICAL REVIEW LETTERS 2020
4) Controllable CellularMicromotors Based on Optical Tweezers.Adv. Funct. Mater 2020
5) Single-cell biomagnifier foroptical nanoscopes and nanotweezers. Light: Science & Applications 2019
6) Sculpting stable structures inpure liquids. Sci. Adv. 2019
7) Mechanical properties of RBCsunder oxidative stress measured by optical tweezers. Optics Communications 2019
8) Measuring the activation energybarrier for the nucleation of single nanosized vapor bubbles. PNAS 2019
9) Long-wavelength fluctuations andstatic correlations in quasi-2D colloidal suspensions. Soft Matter 2019
10) In Situ Measurement of DepletionCaused by SDBS Micelles on the Surface of Silica Particles Using OpticalTweezers. Langmuir 2019
11) The effect of saliva on the fateof nanoparticles. Clin Oral Invest 2018
12) Studying on the Elasticity ofWhite Blood Cell in Vitro by Optical Tweezers. CSQRWC 2018
13) N-SmA-SmC phase transitionsprobed by a pair of elastically bound colloids. PHYSICAL REVIEW 2018
14) Migration of blood cells andphospholipid vesicles induced by concentration gradients in microcavities. NewBIOTECHNOLOGY 2018
15) Laser interference-basedtechnique for dynamic measurement of single cell deformation manipulated byoptical tweezers. Electrophoresis 2018
16) Interactions of singlenanoparticles in nematic liquid crystal. Journal of Molecular Liquids 2018
17) GPMVs in variable physiologicalconditions could they be used for therapy delivery. BMC Biophysics 2018
18) Geometric stabilisation oftopological defects on micro-helices and grooved rods in nematic liquid. SoftMatter 2018
19) Digital Holographic Methods -Low Coherent Microscopy and Optical Trapping in Nano-Optics and BiomedicalMetrology. Springer Series in Optical Sciences 2018
20) Study of in vitro RBCs membraneelasticity with AOD scanning optical tweezers. BIOMEDICAL OPTICS EXPRESS 2017
21) Optothermally driven colloidaltransport in confined nematic liquid crystal. Soft Matter 2017
22) Optofluidic organization and transportof cell chain. Journal of Biophotonics 2017
23) Modeling and Simulation of theInteraction Between Particles and Pulmonary Mucus. 2017
24) Experiment study and FEMsimulation on erythrocytes under linear stretching of opticalmicromanipulation. AIP ADVANCES 2017
25) Controlled shaping of lipidvesicles in a microfluidic diffusion chamber. The Royal Society of Chemistry2017
26) An early mechanical coupling ofplanktonic bacteria in dilute suspensions. NATURE COMMUNICATIONS 2017
27) Formation of vortices in long microcavitiesat low Reynolds number. Microfluid Nanofluid 2016
28) FACS-style detection forreal-time cell viscoelastic cytometry. RSC Adv. 2016
Effect of temperature and electricfield on 2D nematic colloidal crystals stabilised by vortex-like topological defects.Soft Matter 2016
29) Different macro- andmicro-rheological properties of native porcine respiratory and intestinalmucus. International Journal of Pharmaceutics 2016
30) Annihilation dynamics oftopological monopoles on a fiber in nematic liquid crystals. PHYSICAL REVIEW2016
31) Controllable CellularMicromotors Based on Optical Tweezers,Xiaobin Zou,Qing Zheng,Dong Wu,HongxiangLei,Advanced Functional Materials 2020
32)Surface charge and interactions of 20-nm nanocolloidsin a nematic liquid crystal,V. Ryzhkova, M. Škarabot, and I. Muševič,PHYSICAL REVIEW 2015
33)Viscoelastic properties of levan-DNA mixtures important in microbial biofilmformation as determined by micro- and macrorheology,Biljana Stojković,SimonSretenovic,2Iztok Dogsa, Igor Poberaj, and David Stopar,Biological of Journal2015
34) In situlaser-imprinted surface realignment of a nematic liquid crystal. Giorgio Mirri,Miha Škarabot and Igor Muševič,Electronic Supplementary Material (ESI) for Soft Matter 2015
35) Temperaturedependence of equilibrium separation and lattice parameters of nematicboojum-colloids,K. P. Zuhail and Surajit Dhara,APPLIED PHYSICSLETTERS 2015
36) Topologicalbinding and elastic interactions of microspheres and fibres in a nematicliquid crystal,M. Nikkhou,M. Škarabot,and I. Muševič, The European Physical Journal 2015
37) LiquidCrystals in Aqueous Ionic Surfactant Solutions:Interfacial Instabilities& Optical Applications,Karthik Reddy Peddireddy,2014
38)Cytoskeleton Modification and Cholesterol Depletion Affect Membrane Propertiesand Caveolae Positioning of CHO Cells,Maja Grundner • Špela Zemljič Jokhadar,Journal of Membrane Biology 2014
39)Laser-driven microflow-induced bistable orientation of a nematic liquid crystalin perfluoropolymer-treated unrubbed cells,V. S. R. Jampani,1 M. Sǩarabot,1 H.Takezoe,3 I. Muševič,1,2 and S.Dhara,OPTICS EXPRESS 2013
40) ForceMapping during the Formation and Maturation of Cell Adhesion Sites withMultiple Optical Tweezers,Melanie Schwingel, Martin Bastmeyer,PLOS ONE 2013
41) ChiralityScreening and Metastable States in Chiral Nematic Colloids,V. S. R. Jampani, M.Škarabot, S. Čopar,S. Žumer, and I. Muševič,PHYSICALREVIEW LETTERS 2013
42) Measuringforces with magneto-optical tweezers in biologicalandbiomimetic systems,2013
43) Observationof condensed phases of quasiplanar core-softened colloids,N. Osterman, D. Babič, I. Poberaj, J.Dobnikar, andP. Ziherl,Physical Review Letters 2013
44) CRYSTALMICRODROPLETS AS OPTICAL MICRORESONATORS AND LASERS,Matjaž Humar,LIQUID 2012
45) Multipletrap optical tweezers for live cell force measurements,Melanie Schwinge，MartinBastmeyer,Live Cell 2012
46) Rapidprototyping system with sub-micrometer resolution for microfluidicapplications,BlažKavčič,Dušan Babić,Natan Osterman,Boštjan Podobnik,Igor Poberaj,Microsyst Technol 2012
47) Analysis offluid flow around a beating artificial cilium,Gašper Kokot,Andrej Vilfan,NatanOsterman,Blaž Kavčič,Igor Poberaj,and Dušan Babič,Beilstein Journal of Nanotechnology 2012
48)Reconfigurable Knots and Links in Chiral Nematic Colloids,Uroš Tkalec,MihaRavnik,Simon Čopar,Slobodan Žumer,IgorMuševič,science 2011
49) Colloidalentanglement in highly twisted chiral nematic colloids:Twisted loops,Hopf links, andtrefoil knots,Venkata Subba Rao Jampani,Miha Škarabot,MihaRavnik,Simon Čopar,Phys Rev E Stat Nonlin Soft MatterPhys 2011
50)Light-driven oscillations of entangled nematic colloidal chains,M. Gomilšek, D. Seč, M. Škarabot, M. Ravnik, S. Žumer, and I. Muševič,THEEUROPEAN PHYSICAL JOURNAL 2010
51)Electrically tunable liquid crystal optical microresonators,M. Humar, M.Ravnik, S. Pajk and I. Muševič,NATUREPHOTONICS 2009
52) Design of2D Binary Colloidal Crystals in a Nematic Liquid Crystal,Uliana Ognysta,AndriyNych and Miha Škarabot,Langmuir 2009
53)Field-Induced Self-Assembly of Suspended Colloidal Membranes,N. Osterman,I.Poberaj, J. Dobnikar,D. Frenkel,P. Ziherl, and D. Babić,PHYSICAL REVIEWLETTERS 2009
54) Micromanipulation of superparamegnetic particles using magneto-optic tweezers,IgorPoberaj, Dusan Babic, Natan Osterman, Jurij Kotar, Mojca Vilfan, BlazKavcic,Proc. of SPIE 2008
55) Confinementeffect on interparticle potential in nematic colloids,Mojca Vilfan,NatanOsterman,Martin Čopič,Miha Ravnik,Slobodan Žumer, Jurij Kotar,Dušan Babič,and Igor Poberaj,PHYSICAL REVIEW LETTERS 2008
56) Nematiccolloidal assemblies:towards photonic crystals and metamaterials,Slobodan Žumer, Igor Muševič, Miha Ravnik, Miha Škarabot, Igor Poberaj, Dušan Babič,Uroš Tkalec,Proceedings of SPIE - TheInternational Society for Optical 2008
57) Two-dimensionaldipolar nematic colloidal crystals,M. Škarabot,M. Ravnik,S. Žumer,U. Tkalec,I. Poberaj,D. Babič, N.Osterman, and I. Muševič,PHYSICALREVIEW2007
58) Observationof condensed phases of quasi-planar core-softened colloids,N. Osterman, D. Babič, I. Poberaj, J.Dobnikar, and P. Ziherl,Cond-mat.soft 2007
59)Two-Dimensional Nematic Colloidal Crystals Self-Assembled by TopologicalDefects,Igor Muševič,Miha Škarabot,UrošTkalec,Miha Ravnik,Slobodan Žumer,science,2006
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声光偏转器AOD的工作过程示意图
Tweez300采用xy双向AOD共同定位
