A new study from OccHealthSci researchers examines a population of fish with adaptions that could help address lung cancer in humans.

The Oregon Institute of Occupational Health Sciences has named the recipients of the prestigious W. Kent and Billie F. Anger Impact Awards.

A recent study shares significant insights into fundamental mechanisms that affect an individual’s likelihood of developing liver cancer.

OccHealthSci researchers suggest that Gotu Kola may promote neuronal connectivity, which is vital for cognitive function and memory.

Associate Professor Matthew Butler received a five-year, $2.7M grant from the NIH to study how mistimed eating impacts reproductive health.

Environmental epigeneticist Caren Weinhouse studies the link between BPA and a common form of liver cancer called hepatocellular carcinoma.

OccHealthSci faculty receive grants from the Katherine Bisbee II Fund to study how environmental exposure can lead to genetic diseases.

OccHealthSci's research areas include basic, clinical and applied research, in addition to our very active outreach and education team.

Though Alzheimer’s disease is mostly known for its effects on memory, patients also show a disrupted sleep patterns.

Chlorpyrifos was shown to produce persistent nervous system damage measured by a test of visual search and shifting focus in a study.

Scientists are working to understand factors at the genetic, epigenetic, cellular and organism level that help us understand human health.

We wanted to send a warm welcome and feature one of our new faculty members, Dr. Caren Weinhouse, Ph.D., M.P.H.

At the  Oregon Institute of Occupational Health Sciences  and  Oregon Healthy Workforce Center,  we are excited to announce the launch of...

In a recent paper in  Nature Scientific Reports , Drs. McCullough and Lloyd report findings on prevention of skin cancer with DNA repair...

The Environmental Mutagenesis and Genomics Society has selected an article written by investigators in the  laboratory of R. Stephen...

Researchers study the molecular mechanisms by which changes in SWS cause neuronal damage and movement defects.