Microphysiometer Could Open New Avenues In Research

A unique silicon potentiometric sensor, now in its final stages of development, will give researchers an innovative tool for monitoring the effects of drugs, toxic agents, enzymes, and other substances in mammalian and bacterial tissue cultures. The device, called a silicon microphysiometer, uses photocurrent technology to measure cells' real-time metabolic responses to physical and chemical stimuli (Entrepreneur Briefs, The Scientist, Nov. 13, 1989, page 11). One feature that is certain to be

| 7 min read

Register for free to listen to this article
Listen with Speechify
0:00
7:00
Share

A unique silicon potentiometric sensor, now in its final stages of development, will give researchers an innovative tool for monitoring the effects of drugs, toxic agents, enzymes, and other substances in mammalian and bacterial tissue cultures. The device, called a silicon microphysiometer, uses photocurrent technology to measure cells' real-time metabolic responses to physical and chemical stimuli (Entrepreneur Briefs, The Scientist, Nov. 13, 1989, page 11). One feature that is certain to be a major benefit to users is the microphysiometer's ability to operate with a sample size as small as 1,000 cells.

The sensor, expected to be commercially available next year, will enable scientists to conduct a variety of tests, some of which were previously impossible. New research avenues that the device is likely to open include an in vitro adjunct to the Draize ocular irritancy test and a screen for the efficacy of chemotherapeutic agents in human cells.

Researchers ...

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

  • Carole Gan

    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