Pioneering Cancer Discoveries

A New Marker of Cancer

New research shows that cancer cells often develop unusual “wrinkles” in the nucleus—the center of the cell where genetic information is stored. While these wrinkles are hard to see with traditional lab tests, advanced imaging and computer technology can uncover them. Identifying these nuclear wrinkles could provide doctors with a new, more precise way to detect and diagnose cancer, offering hope for earlier treatment and better outcomes.

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Faculty

Jason George, PhD, MD

Texas A&M College of Engineering

Biana Godin, MScPharm, PhD

Houston Methodist

Tanmay Lele, PhD

Texas A&M School of Engineering Medicine

Hui-Wen Lo, PhD, MA, MS

Texas A&M University

Raksha Raghunathan, PhD

Houston Methodist

Jiho Shin, PhD

Texas A&M College of Engineering

Stephen Wong, PhD

Houston Methodist

Hong Zhao, MD, PhD

Houston Methodist

Publications and Grants

Our interdisciplinary research brings together clinical expertise and cutting-edge engineering to transform cancer research and careWe are committed to creating tangible improvements for patients and making a positive impact on the broader healthcare community. 

Recent breakthroughs reveal that early tumors begin as diverse groups of cooperating cell clones, a process called polyclonality. Using artificial intelligence and computational modeling, scientists can now track how these clones interact and evolve, uncovering new targets for personalized cancer treatments. Learn how AI-driven insights may disrupt harmful cell collaborations and improve patient outcomes.

Why do some prostate cancers become resistant to treatment over time? Researchers have developed an AI-powered model that learns how cancer cells adapt based on past therapies. By combining computer modeling, lab experiments, and patient data, this approach predicts resistance and helps design smarter, personalized treatment plans, offering new hope for longer-lasting cancer control.

Cells often need to move through narrow spaces, whether during healing or when cancer spreads. But squeezing their large, bulky nuclei through tight gaps seemed almost impossible—until now. Scientists have discovered that the surface of the cell’s nucleus has extra “wrinkles,” allowing it to change shape and pass through tiny constrictions without damaging its contents. This new understanding of nuclear flexibility could offer insights into cancer invasiveness and how our bodies heal.