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. Author manuscript; available in PMC: 2021 Jun 29.
Published in final edited form as: Phys Biol. 2020 Dec 1;18(1):011001. doi: 10.1088/1478-3975/abbcc2

Table 1.

Studies focusing on the mechanical effects of vimentin in the cell.

Method Main Results Reference
Rotational twisting cytometer Loss of vimentin decreases cortical rigidity only at large strains Wang & Stamenovic, 2000 [123]
Rotational twisting cytometer, active micro-rheology VIF contribute little to cortical stiffness but doubles cytoplasmic shear modulus Guo et al. 2013 [124]
Atomic force microscopy Vimentin’s effect on cell stiffness only apparent for maximally-spread cells or for cells under repeated deformations Mendez et al. 2014 [122]
Atomic force microscopy Deletion of vimentin decreases cortical stiffness by ~10% in MDA231 breast cancer cells Messica et al. 2017 [126]
Rotational twisting cytometer
Atomic force microscopy
Loss of vimentin decreased cell stiffness as measured by sharp-tip and round-tip AFM probes; yet, loss of vimentin increased cortex stiffness reported by twisting cytometry, attributed to reduced cell thickness Vahabikashi et al 2019 [121]
Optical tweezers VIF increases cytoplasmic stiffness and toughness Hu et al. 2019 [125]
Atomic force microscopy VIF increases cell stiffness only in the perinuclear region of the cell Patteson et al. 2019 [108]
Atomic force microscopy Re-expression of VIF in vim −/− mEFs rescues cell stiffness Patteson et al. 2019 [98]