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116 Artikel wurden gefunden.

Die folgenden Begriffe wurden einbezogen: 脂質二重層, Lipid-Doppelschicht, "lipid bilayer"

• 2024, Pogharian N, Vlahovska PM, Olvera de la Cruz M
  Effects of Normal and Lateral Electric Fields on Membrane Mechanical Properties [tech./dosim.]
  J Phys Chem B 128 (38): 9172-9182
• 2024, Tajima M, Nakamura H, Ohsaki S, Watano S
  Effect of cholesterol on nanoparticle translocation across a lipid bilayer [tech./dosim.]
  Phys Chem Chem Phys 26 (31): 21229-21239
• 2024, Lei M, Zhang T, Lu X, Zhao X, Wang H, Long J, Lu Z
  Membrane-mediated modulation of mitochondrial physiology by terahertz waves [med./bio.]
  Biomed Opt Express 15 (7): 4065-4080
• 2024, Guan L, Tan J, Qi B, Chen Y, Cao M, Zhang Q, Zou Y
  Effects of an external static EF on the conformational transition of 5-HT1A receptor: A molecular dynamics simulation study [tech./dosim.]
  Biophys Chem 312: 107283
• 2023, Nestorovich EM, Bezrukov SM
  Beta-Barrel Channel Response to High Electric Fields: Functional Gating or Reversible Denaturation? [med./bio.]
  Int J Mol Sci 24 (23): 16655
• 2023, Ito H, Shimokawa N, Higuchi Y
  Lateral Transport of Domains in Anionic Lipid Bilayer Membranes under DC Electric Fields: A Coarse-Grained Molecular Dynamics Study [tech./dosim.]
  J Phys Chem B 127 (41): 8860–8868
• 2023, Wilke N, Alvares DS
  Out-of-plane deformability and its coupling with electrostatics in biomembranes [tech./dosim.]
  Emerg Top Life Sci 7 (1): 111-124
• 2023, Taoka A, Eguchi Y, Shimoshige R, Fukumori Y
  Recent advances in studies on magnetosome-associated proteins composing the bacterial geomagnetic sensor organelle [Grundlagen]
  Microbiol Immunol 67 (5): 228-238
• 2022, Thomas N, Agrawal A
  A lateral electric field inhibits gel-to-fluid transition in lipid bilayers [tech./dosim.]
  Soft Matter 18 (34): 6437-6442
• 2021, Caramazza L, Marracino P, Schifaudo C, Liberti M, Apollonio F
  Response of Hydrated Lipid Bilayers to RF EM Fields: Molecular Dynamics Investigations [tech./dosim.]
  2021 IEEE MTT-S International Microwave and RF Conference (IMARC), KANPUR, India. IEEE: S. 1-4; ISBN 978-1-6654-5876-4
• 2021, Galassi VV, Wilke N
  On the Coupling between Mechanical Properties and Electrostatics in Biological Membranes [Grundlagen]
  Membranes 11 (7): 478
• 2020, Escobar JF, Vaca-González JJ, Guevara JM, Garzón-Alvarado DA
  Effect of magnetic and electric fields on plasma membrane of single cells: A computational approach [tech./dosim.]
  Eng Rep 2 (2): e12125
• 2020, Rems L, Kasimova MA, Testa I, Delemotte L
  Pulsed Electric Fields Can Create Pores in the Voltage Sensors of Voltage-Gated Ion Channels [med./bio.]
  Biophys J 119 (1): 190-205
• 2019, Zakhvataev VE
  Dynamic structure factor of a lipid bilayer in the presence of a high electric field [tech./dosim.]
  J Chem Phys 151 (23): 234902
• 2019, Bernardi M, Marracino P, Liberti M, Gárate JA, Burnham CJ, Apollonio F, English NJ
  Controlling ionic conductivity through transprotein electropores in human aquaporin 4: a non-equilibrium molecular-dynamics study [tech./dosim.]
  Phys Chem Chem Phys 21 (6): 3339-3346
• 2019, Rems L, Viano M, Kasimova MA, Miklavčič D, Tarek M
  The contribution of lipid peroxidation to membrane permeability in electropermeabilization: A molecular dynamics study [tech./dosim.]
  Bioelectrochemistry 125: 46-57
• 2018, Marracino P, Bernardi M, Liberti M, Del Signore F, Trapani E, Gárate JA, Burnham CJ, Apollonio F, English NJ
  Transprotein-Electropore Characterization: A Molecular Dynamics Investigation on Human AQP4 [tech./dosim.]
  ACS Omega 3 (11): 15361-15369
• 2018, Gupta R, Rai B
  Electroporation of Skin Stratum Corneum Lipid Bilayer and Molecular Mechanism of Drug Transport: A Molecular Dynamics Study [tech./dosim.]
  Langmuir 34 (20): 5860-5870
• 2018, Fernández ML, Risk MR, Vernier PT
  Electropore Formation in Mechanically Constrained Phospholipid Bilayers [tech./dosim.]
  J Membr Biol 251 (2): 237-245
• 2018, Castellani F, Teissié J, Vernier PT
  Permeabilizing Phospholipid Bilayers with Non-normal Electric Fields [tech./dosim.]
  J Membr Biol 251 (2): 229-236
• 2018, Lew WZ, Huang YC, Huang KY, Lin CT, Tsai MT, Huang HM
  Static magnetic fields enhance dental pulp stem cell proliferation by activating the p38 mitogen-activated protein kinase pathway as its putative mechanism [med./bio.]
  J Tissue Eng Regen Med 12 (1): 19-29
• 2017, Yusupov M, Van der Paal J, Neyts EC, Bogaerts A
  Synergistic effect of electric field and lipid oxidation on the permeability of cell membranes [tech./dosim.]
  Biochimica et Biophysica Acta - General Subjects 1861 (4): 839-847
• 2016, Casciola M, Tarek M
  [Details] A molecular insight into the electro-transfer of small molecules through electropores driven by electric fields [Review]
  Biochim Biophys Acta (BBA) - Biomembranes 1858 (10): 2278-2289
• 2016, Perrin Jr BS, Pastor RW
  Simulations of Membrane-Disrupting Peptides I: Alamethicin Pore Stability and Spontaneous Insertion [tech./dosim.]
  Biophys J 111 (6): 1248-1257
• 2016, Sengel JT, Wallace MI
  Imaging the dynamics of individual electropores [med./bio.]
  Proc Natl Acad Sci USA 113 (19): 5281-5286
• 2015, Sahakyan G, Harutyunyan H, Arzruny GG
  Biological Activity of External Electrostatic Field Exceeding the Natural Background: Erythrocyte Plasma Membrane Target [med./bio.]
  IJSRES 3: 88-98
• 2015, Kohler S, Levine ZA, Garcia-Fernandez MA, Ho MC, Vernier PT, Leveque P, Arnaud-Cormos D
  Electrical Analysis of Cell Membrane Poration by an Intense Nanosecond Pulsed Electric Field Using an Atomistic-to-Continuum Method [tech./dosim.]
  IEEE Trans Microw Theory Tech 63 (6): 2032-2040
• 2015, Ye H, Curcuru A
  Vesicle biomechanics in a time-varying magnetic field [tech./dosim.]
  BMC Biophys 8 (1): 2
• 2014, Shneider MN, Pekker M
  Initiation and blocking of the action potential in an axon in weak ultrasonic or microwave fields [tech./dosim.]
  Phys Rev E Stat Nonlin Soft Matter Phys 89 (5): 052713
• 2014, Gekle S, Netz RR
  Nanometer-resolved radio-frequency absorption and heating in biomembrane hydration layers [tech./dosim.]
  J Phys Chem B 118 (18): 4963-4969
• 2014, Mir LM
  Electroporation-based gene therapy: recent evolution in the mechanism description and technology developments [Grundlagen]
  Li S, Cutrera J, Heller R, Teissie J (Hrsg.): Electroporation Protocols. Methods in Molecular Biology, Band 1121; Humana Press, New York; S. 3-23; ISBN 978-1-4614-9631-1
• 2013, Arzruny GG, Saakian GV, Pogosian GA
  [The in vitro influence of the external electrostatic field on the physical parameters of erythrocyte membranes] [fremdsprachig]
  Biofizika 58 (6): 1022-1027
• 2013, Madrid E, Horswell SL
  Effect of headgroup on the physicochemical properties of phospholipid bilayers in electric fields: size matters [tech./dosim.]
  Langmuir 29 (5): 1695-1708
• 2013, Romeo S, Wu YH, Levine ZA, Gundersen MA, Vernier PT
  Water influx and cell swelling after nanosecond electropermeabilization [med./bio.]
  Biochim Biophys Acta Biomembr 1828 (8): 1715-1722
• 2013, Huang F, Fang Z, Mast J, Chen W
  Comparison of membrane electroporation and protein denature in response to pulsed electric field with different durations [med./bio.]
  Bioelectromagnetics 34 (4): 253-263
• 2012, Di Donato L, Cataldo M, Stano P, Massa R, Ramundo-Orlando A
  Permeability changes of cationic liposomes loaded with carbonic anhydrase induced by millimeter waves radiation [med./bio.]
  Radiat Res 178 (5): 437-446
• 2012, Zakhvataev VE, Khlebopros RG
  [The Kupershtokh-Medvedev electrostrictive instability as possible mechanism of initiation of phase transitions, domains and pores in lipid membranes and influence of microwave irradiation on cell] [fremdsprachig]
  Biofizika 57 (1): 75-82
• 2012, Berghoefer T, Flickinger B, Frey W
  Aspects of plant plasmalemma charging induced by external electric field pulses [med./bio.]
  Plant Signal Behav 7 (3): 322-324
• 2012, Nesin V, Pakhomov AG
  Inhibition of voltage-gated Na(+) current by nanosecond pulsed electric field (nsPEF) is not mediated by Na(+) influx or Ca(2+) signaling [med./bio.]
  Bioelectromagnetics 33 (6): 443-451
• 2010, Alekseev SI, Fesenko EE, Ziskin MC
  Enhanced absorption of microwaves within cylindrical holes in Teflon film [tech./dosim.]
  IEEE Trans Biomed Eng 57 (10): 2517-2524
• 2010, Wang Z, Che PL, Du J, Ha B, Yarema KJ
  Static Magnetic Field Exposure Reproduces Cellular Effects of the Parkinson's Disease Drug Candidate ZM241385 [med./bio.]
  PLoS One 5 (11): e13883
• 2010, Lin YS, Lin JH, Chang CC
  Molecular dynamics simulations of the rotary motor F(0) under external electric fields across the membrane [tech./dosim.]
  Biophys J 98 (6): 1009-1017
• 2010, Falzone N, Huyser C, Franken DR, Leszczynski D
  [Details] Mobile Phone Radiation Does Not Induce Pro-apoptosis Effects in Human Spermatozoa [med./bio.]
  Radiat Res 174 (2): 169-176
• 2009, Alekseev SI, Ziskin MS, Fesenko EE
  On the mechanism of microwave action on bilayer lipid membranes: The role of the membrane-forming hole in Teflon film [tech./dosim.]
  Biophysics 54 (3): 340-342
• 2009, Alekseev SI, Ziskin MS, Fesenko EE
  [Effect of microwaves on bilayer lipid membranes: role of a membrane-forming hole in the Teflon film] [fremdsprachig]
  Biofizika 54 (3): 488-491
• 2009, Mohammadzadeh M, Mobasheri H, Arazm F
  [Details] Electromagnetic field (EMF) effects on channel activity of nanopore OmpF protein [med./bio.]
  Eur Biophys J 38 (8): 1069-1078
• 2009, Ramundo-Orlando A, Longo G, Cappelli M, Girasole M, Tarricone L, Beneduci A, Massa R
  [Details] The response of giant phospholipid vesicles to millimeter waves radiation [med./bio.]
  Biochim Biophys Acta Biomembr 1788 (7): 1497-1507
• 2009, Merla C, Liberti M, Apollonio F, D'Inzeo G
  Quantitative assessment of dielectric parameters for membrane lipid bi-layers from RF permittivity measurements [med./bio.]
  Bioelectromagnetics 30 (4): 286-298
• 2008, Jeuken LJ
  AFM study on the electric-field effects on supported bilayer lipid membranes [med./bio.]
  Biophys J 94 (12): 4711-4717
• 2007, Petrov E, Martinac B
  Modulation of channel activity and gadolinium block of MscL by static magnetic fields [med./bio.]
  Eur Biophys J 36 (2): 95-105