Forces of Nature: Stretching Cells with ICCT Technologies' Bio-Stretch System

To study the effects of physical forces on cell growth and differentiation, researchers must stretch, strain, compress, shear, pull, or apply pressure to tissue culture cells. Numerous procedures have been created to apply force to cells in vitro. Designed to simulate forces encountered in vivo, such methods include cell wounding by cutting a monolayer and the application of tension or compression by means of hydraulic pressure. Now, with the development of the Bio-Stretch System from ICCT Tec

| 2 min read

Register for free to listen to this article
Listen with Speechify
0:00
2:00
Share

To study the effects of physical forces on cell growth and differentiation, researchers must stretch, strain, compress, shear, pull, or apply pressure to tissue culture cells. Numerous procedures have been created to apply force to cells in vitro. Designed to simulate forces encountered in vivo, such methods include cell wounding by cutting a monolayer and the application of tension or compression by means of hydraulic pressure.

Now, with the development of the Bio-Stretch System from ICCT Technologies R & D Center Inc. of Markham, Ontario, researchers have a computerized stretch instrument that enables the study of cells in a mechanically active environment. Through the use of highly controlled magnetic forces, the Bio-Stretch device allows researchers to apply user-defined, controlled, static, or variable cyclic stretches to cells cultured in two or three dimensions. As a result, the effects of mechanical stress as a regulator of cell growth, differentiation, structure, and function ...

Interested in reading more?

Become a Member of

The Scientist Logo
Receive full access to digital editions of The Scientist, as well as TS Digest, feature stories, more than 35 years of archives, and much more!
Already a member? Login Here

Meet the Author

  • Michael Brush

    This person does not yet have a bio.

Published In

Share
3D illustration of a gold lipid nanoparticle with pink nucleic acid inside of it. Purple and teal spikes stick out from the lipid bilayer representing polyethylene glycol.
February 2025, Issue 1

A Nanoparticle Delivery System for Gene Therapy

A reimagined lipid vehicle for nucleic acids could overcome the limitations of current vectors.

View this Issue
Enhancing Therapeutic Antibody Discovery with Cross-Platform Workflows

Enhancing Therapeutic Antibody Discovery with Cross-Platform Workflows

sartorius logo
Considerations for Cell-Based Assays in Immuno-Oncology Research

Considerations for Cell-Based Assays in Immuno-Oncology Research

Lonza
An illustration of animal and tree silhouettes.

From Water Bears to Grizzly Bears: Unusual Animal Models

Taconic Biosciences
Sex Differences in Neurological Research

Sex Differences in Neurological Research

bit.bio logo

Products

Photo of a researcher overseeing large scale production processes in a laboratory.

Scaling Lentiviral Vector Manufacturing for Optimal Productivity

Thermo Fisher Logo
Collage-style urban graphic of wastewater surveillance and treatment

Putting Pathogens to the Test with Wastewater Surveillance

An illustration of an mRNA molecule in front of a multicolored background.

Generating High-Quality mRNA for In Vivo Delivery with lipid nanoparticles

Thermo Fisher Logo
Tecan Logo

Tecan introduces Veya: bringing digital, scalable automation to labs worldwide