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where science meets society

Where Science Meets Society

Learn More About IGB

The Carl R. Woese Institute for Genomic Biology (IGB) is an innovative research institute using cutting-edge genomic practices to tackle large-scale global challenges currently facing humanity.

Food security for a growing population. Effective therapeutic drugs and antibiotics. Automated synthesis of new molecules and proteins. Using a team-based, collaborative science approach, researchers at the IGB are addressing these and other complex issues. Our main areas of research below are each supported by our strong commitment to fundamental science – the pursuit of discovery.

Health & Wellness

Health +
Wellness

How the genome enhances, affects, or disrupts physical and mental wellbeing.

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Technology & Socety

Tech +
Society

Advancing our capability to shape the world and capacity to understand each other.

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Agriculture & Energy

Ag +
Energy

Sustainably feeding and fueling a planet impacted by a changing global climate.

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Outreach & Public Engagement

Outreach &
Public Engagement

Encouraging the public to understand how genomics affects daily life and society.

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Roots of Genomics installation at IGB

Spotlight

Roots of Genomics installation at IGB

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Featured Stories

Katherine Meacham-Hensold led work looking to improve the photorespiratory bypass of potato as a postdoctoral researcher in Don Ort’s lab at the University of Illinois Urbana-Champaign.
From left, postdoctoral researcher Bidhan Chandra De, chemistry professor Angad Mehta and their colleagues found evidence indicating that chloroplasts may have originated as energy-generating organelles and later evolved to support carbon assimilation in plant cells.  Photo by Fred Zwicky
A newly established partnership between the OSF Healthcare Cancer Institute in Peoria, IL and the Cancer Center at Illinois, called Breakthrough and Advanced Treatment of (BEAT) Cancer Initiative, facilitates collaboration to improve cancer diagnostics, treatment, and prevention. Dr. Timothy Fan, fourth from left, is shown here at the BEAT Cancer kickoff, hosted by the College of Veterinary Medicine.
Spatial transcriptomics data from osteosarcoma cells. Left) A spatial map of the transcriptome segmented into individual cells using machine learning, with each dot representing a RNA transcript and each color indicating a different gene. Right) Genes associated with cytoskeleton and robunucleoprotein complexes are frequently colocalized.
From left, ORNL’s Biruk Feyissa holds a five-month-old poplar tree expressing high levels of the BOOSTER gene, while colleague Wellington Muchero holds a tree of the same age with lower expression of the gene. Credit: Genevieve Martin/ORNL, U.S. Dept. of Energy
Prominent global change scientist joins crop sciences, plant biology