Living Cell Mechanics
Living Cell Mechanics - Related Videos
07:42
Live Cell Imaging during Mechanical Stretch
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Cited by 12 •
2015
A novel imaging protocol was developed using a custom motor-driven mechanical actuator to allow the measurement of real time responses to mechanical strain in live cells. Relevant to mechanobiology, the system can apply strains up to 20% while allowing near real-time imaging with confocal or atomic force microscopy.
08:41
Measuring the Mechanical Properties of Living Cells Using Atomic Force Microscopy
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Cited by 160 •
2013
This paper demonstrates a protocol to characterize the mechanical properties of living cells by means of microindentation using an Atomic Force Microscope (AFM).
09:20
Live Cell Response to Mechanical Stimulation Studied by Integrated Optical and Atomic Force Microscopy
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Cited by 17 •
2010
This paper aims to instruct the reader in the operation of an integrated atomic force-optical imaging microscope for mechanical stimulation of live cells in culture. A step-by-step protocol is presented. A representative data set that shows live cell response to mechanical stimulation is presented.
09:52
Characterizing Mechanical Properties of Primary Cell Wall in Living Plant Organs Using Atomic Force Microscopy
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Cited by 2 •
2022
Studies of cell wall biomechanics are essential for understanding plant growth and morphogenesis. The following protocol is proposed to investigate thin primary cell walls in the internal tissues of young plant organs using atomic force microscopy.
09:57
Live Cell Imaging of Mitosis
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2023
Mitosis is a form of cell division in which a cell’s genetic material is divided equally between two daughter cells. Mitosis can be broken down into six phases, during each of which the cell’s components, such as its chromosomes, show visually distinct characteristics. Advances in fluorescence live cell imaging have allowed scientists to study this process in great detail, providing important insights into the biological control of this process and how it might go wrong in diseases such as...
FAQs
Force generation and transmission depend on coordinated activity among actomyosin networks, microtubules, intermediate filaments, membranes, and cell-matrix adhesions. Together, these components influence how a cell maintains shape, changes stiffness, moves, and communicates mechanical information across its interior and surroundings. Studying their combined behavior is therefore more informative than treating any single structural component as an isolated mechanical system.
Substrate rigidity can alter cellular mechanical properties and behavior, making it an important external condition in experiments and models. Changes in rigidity may influence cell shape, stiffness, movement, and force transmission through interactions involving cell-matrix adhesions. Controlling or comparing substrate rigidity helps bioengineers examine how physical environments affect cellular responses and tissue-related processes.
These structures contribute to mechanics in complementary ways. Cytoskeletal networks help generate and distribute internal forces, membranes participate in maintaining cell form, and cell-matrix adhesions connect cellular mechanics with the surrounding material. Their interaction links force production to sensing and transmission, allowing external physical conditions to influence cell behavior rather than merely changing cell shape passively.
A typical bioengineering approach combines mechanical measurements with models to characterize properties such as cell stiffness, shape, movement, and force transmission. Measurements provide evidence about how cells behave under particular physical conditions, while models help organize and interpret those observations. Together, they support more predictive analysis of cellular function and guide the evaluation of engineered biological environments.
Researchers apply these principles when designing biomaterials and tissue scaffolds intended to produce specific cellular responses. Mechanical characterization can reveal how cells interact with an engineered environment, including changes in shape, stiffness, movement, or force transmission. This information helps connect material design with tissue development and supports more predictive strategies for regenerative medicine and engineered tissues.
Mechanical analysis provides a way to examine how physical forces relate to major cellular and tissue processes. In migration studies, it can address movement and force transmission; in differentiation and tissue development, it can clarify how physical conditions influence cell behavior; and in cancer research, it can help investigate altered mechanical properties and interactions with the surrounding environment.