Skip to main content

A New AI Tool Predicts Gene Expression in a Single Cell

An artificial intelligence tool, scGPT, can identify cell types, predict the effects of disrupting genes, and pinpoint which genes interact with each other.

Written byCarissa Wong, PhD
| 4 min read
A graph showing how scGPT groups cells, each represented as a dot, into cell types, shown as clusters of dots of the same color.
Register for free to listen to this article
Listen with Speechify
0:00
4:00

Scientists investigate disease targets by studying gene expression data often obtained by assaying entire cell populations. For instance, researchers used bulk RNA sequencing to discover druggable cancer-associated protein targets1 and to uncover potential blood-based biomarkers for the early diagnosis of Alzheimer’s disease.2

More recently, scientists have turned to single cell RNA sequencing (scRNA-seq), which provides insights into how gene expression varies between individual cells.3 Scientists typically analyze scRNA-seq data using machine learning tools that have been built from scratch to carry out specific individual tasks.

Bo Wang, a computational biologist, and his team of computer scientists and cell biologists at the University of Toronto have built a new artificial intelligence (AI) model called single cell generative pretrained transformer, or scGPT, which can be finetuned to carry out a diverse range of tasks using scRNA-seq data. These tasks include predicting the effects of manipulating specific genes and merging distinct batches of ...

Interested in reading more?

Become a Member of

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

Add The Scientist as a preferred Google source to see more of our trusted coverage.

Meet the Author

  • Carissa Wong, PhD

    Carissa Wong is a freelance reporter who writes stories on health, technology, nature and the environment. She was formerly a staff writer at New Scientist and continues to write for New Scientist, Live Science, Nature and more. She holds a PhD in cancer immunology from Cardiff University in the UK, and earned a Bachelor’s degree from the University of Bristol in the UK.

    View Full Profile

Related Topics

Related articles background image
The Scientist Digest cover September 2026
September 2026

Multiplex Microscopy Becomes Easier with Encoded Antibodies

A new system that enables researchers to uniquely tag monoclonal antibodies for use in microscopy could help simplify complex imaging studies.

View this Issue
Rethinking ALS Biomarkers: From Discovery to Clinical Impact

Rethinking ALS Biomarkers: From Discovery to Clinical Impact

Alamar Biosciences logo
Best Practices for qPCR Assay Design and Optimization

Best Practices for qPCR Assay Design and Optimization

Bio-Rad
Beyond the Basics: Strategies for Single-Cell and Spatial Transcriptomics Analysis

Beyond the Basics: Strategies for Single-Cell and Spatial Transcriptomics Analysis

bioxcell
Scientist reviewing cellular and molecular data on a computer in a laboratory.

Building Translation-Ready Biomarkers with Connected Workflows

Danaher Logo

Products

Closeup image of a multi channel pipette dispensing pink liquid into a 96-well plate.

The ASSIST PLUS pipetting robot for affordable workflow automation

Integra Logo
Single cells in suspension

Rapidly isolate primary cells and make uniform single-cell suspensions with Corning® Cell Strainers

Corning logo
Abstract image representing cell membranes linked together.

CellBrite® Steady Membrane Stain: Cell surface staining built for real-time imaging

Biotium
sino biological logo

Monod Bio Licenses AI-designed Protein Technologies to SignalChem Biotech for Custom Discovery Assays