about
The Application of Micropipette Aspiration in Molecular Mechanics of Single CellsMEDYAN: Mechanochemical Simulations of Contraction and Polarity Alignment in Actomyosin NetworksA microfluidic pipette array for mechanophenotyping of cancer cells and mechanical gating of mechanosensitive channelsRing-Shaped Microlanes and Chemical Barriers as a Platform for Probing Single-Cell MigrationEndogenous species of mammalian nonmuscle myosin IIA and IIB include activated monomers and heteropolymers.Myosin II Activity Softens Cells in Suspension.Both contractile axial and lateral traction force dynamics drive amoeboid cell motilityFormation of contractile networks and fibers in the medial cell cortex through myosin-II turnover, contraction, and stress-stabilizationMechanobiological oscillators control lymph flow.Architecture and Connectivity Govern Actin Network Contractility.Photothermally triggered actuation of hybrid materials as a new platform for in vitro cell manipulation.Cell mechanics: a dialogueProbing the mechanical properties of magnetosome chains in living magnetotactic bacteria.Nanoclustering as a dominant feature of plasma membrane organization.Genetic suppression of a phosphomimic myosin II identifies system-level factors that promote myosin II cleavage furrow accumulation.Kinetic Monte Carlo simulations of the assembly of filamentous biomacromolecules by dimer addition mechanism.A biomechanical model for fluidization of cells under dynamic strain.Pharmacological activation of myosin II paralogs to correct cell mechanics defects.Mechanical tension drives cell membrane fusion.Fluorescence Readout of a Patch Clamped Membrane by Laser Scanning Microscopy.Talin determines the nanoscale architecture of focal adhesions.Fibroblast Migration in 3D is Controlled by Haptotaxis in a Non-muscle Myosin II-Dependent Manner.Active Biochemical Regulation of Cell Volume and a Simple Model of Cell Tension ResponseMechanoaccumulative Elements of the Mammalian Actin Cytoskeleton.Mechanosensitive subcellular rheostasis drives emergent single-cell mechanical homeostasisActin binding domain of filamin distinguishes posterior from anterior actin filaments in migrating Dictyostelium cellsMimicking the mechanical properties of the cell cortex by the self-assembly of an actin cortex in vesicles.Cytokinesis: Robust cell shape regulation.From actomyosin oscillations to tissue-level deformations.IFT88 influences chondrocyte actin organization and biomechanics.Cellular mechanosensing of the biophysical microenvironment: A review of mathematical models of biophysical regulation of cell responses.Improved Measurement of Elastic Properties of Cells by Micropipette Aspiration and Its Application to Lymphocytes.A single-cell correlative nanoelectromechanosensing approach to detect cancerous transformation: monitoring the function of F-actin microfilaments in the modulation of the ion channel activity.Mechanochemical Signaling Directs Cell-Shape Change.Mechanical Control of Myotendinous Junction Formation and Tendon Differentiation during Development.Molecular stretching modulates mechanosensing pathways.Multiscale force sensing in development.The fifth sense: Mechanosensory regulation of alpha-actinin-4 and its relevance for cancer metastasis.MechanoepigeneticsInfluence of the PDMS substrate stiffness on the adhesion of Acanthamoeba castellanii.
P2860
Q27002348-D772E3F3-FF59-4986-88B5-AA95EEDFE86AQ27316439-C6AF9A58-F782-47CE-A47A-9CD6D29E75F9Q27335311-A0664DE3-29A3-458D-8E73-8628A19CECD2Q27349210-D5025CF6-9423-488D-BC59-48FF2725B465Q29347015-1AAC2802-CDE4-4037-8261-11361E74BD3DQ30385390-67231447-E406-4350-985B-988343BC1973Q30576931-4235E770-DB98-46B7-B682-18F8D19FE0D7Q30628187-28D07E94-89EF-4500-9A0F-922B2E7A15CFQ30664292-66BFBF62-E008-4041-B873-0A0B28D23833Q30788896-FB5A9438-DE5E-491C-9363-7A6A58B044FFQ30842147-E1E1B772-2B2D-4E74-9539-F806404CFF53Q33920044-EE2872DD-D4F1-40AE-B096-489133CEE040Q34046496-A056D47E-08D1-43F7-9828-81FAD75FE5FEQ34662384-A17593B9-7180-4627-A14A-CBEDD8A89896Q34680405-3946D59A-A3BE-4635-AFB2-760C74D22912Q34822175-C8A8A301-F3A6-498F-B4BA-72D7238FDB04Q34863097-8078A685-FBA2-4A8D-99BE-8A3AEA23CC28Q35062582-A6EDCF79-B81E-4963-A486-D954ACF48AEFQ35171103-595BCD70-B7F4-435E-8833-F5C041213082Q36043668-38D02C19-48F8-48F8-B342-7E67713CB6C1Q36055656-55746DAF-8D09-4C8E-B04C-EF68AA9F8267Q36214808-1181DD1F-0223-4DEA-9797-51CE58B225EBQ36218584-60E655B1-23F0-4C0A-AE80-F3E17B90437EQ36984445-3C781FC5-4B07-47BA-8AF7-3B17C7A97C3BQ37201342-4AAEAE5D-03DF-455F-8E8E-F3F44D3BF186Q37616260-F757ABDA-B21D-440B-B80B-D6A00CA782C4Q37724449-4F0155FB-6949-4371-840E-2BAA1AA900CEQ38611293-4D3F0AEA-D419-4E20-B423-2FEA8168634BQ38618372-C2EA04C9-1180-4515-81A1-8530E7B43F9BQ38652731-03F02C8F-4BFB-4529-B83E-2FCBFEDA5B6DQ38660989-282DC948-A08B-41A5-99EF-A62F18CE17F6Q38769207-7259F197-56AD-4AE2-A698-4DD5C0044913Q38927023-28BD9169-5667-4C0B-865B-65F47109964EQ39103098-EBE12D6E-7A6F-447A-9CD2-33E226335D3CQ39225632-8983D8B5-16C0-4326-85E1-3C1CF4F5E42BQ39285525-C17B13D7-40D7-426D-99DE-2DD3BAD00B8FQ39340128-82246F88-A21A-4B46-B9F3-0026C55EDF33Q39349470-027A5FE3-76CD-4594-903B-0B3143CF193FQ41461098-CAC82129-2F1E-408D-90A1-021383D1E0A6Q41729174-C9BDF74D-1E94-47A8-9CB3-F0C8FAB82F95
P2860
description
article científic
@ca
article scientifique
@fr
articolo scientifico
@it
artigo científico
@pt
bilimsel makale
@tr
scientific article published on 20 October 2013
@en
vedecký článok
@sk
vetenskaplig artikel
@sv
videnskabelig artikel
@da
vědecký článek
@cs
name
Molecular mechanisms of cellular mechanosensing.
@en
Molecular mechanisms of cellular mechanosensing.
@nl
type
label
Molecular mechanisms of cellular mechanosensing.
@en
Molecular mechanisms of cellular mechanosensing.
@nl
prefLabel
Molecular mechanisms of cellular mechanosensing.
@en
Molecular mechanisms of cellular mechanosensing.
@nl
P2860
P356
P1433
P1476
Molecular mechanisms of cellular mechanosensing.
@en
P2093
Douglas N Robinson
Krithika Mohan
P2860
P2888
P304
P356
10.1038/NMAT3772
P407
P577
2013-10-20T00:00:00Z