Skip to main content

Welcome to the Bergan Lab

Photos of the team

Our laboratory is dedicated to uncovering previously unknown regulatory pathways that govern essential biological processes. We aim to identify and develop novel therapeutics that target these pathways, advancing them from discovery to clinical application in individuals affected by cancer or at risk of developing it. Our approach emphasizes scientific rigor and innovation, with a central focus on understanding how chemical therapeutics engage and influence their biological targets.

Research Strategies

Cartoon illustration of a purple germ-like character running into a glowing shield with a stop sign, while a smiling capsule pill and a bone with a protective shield icon stand behind it, representing protection against infection.

Approach 1

In one of our research strategies, we began with chemical probes to explore how they interact with specific protein targets. This approach led to the discovery of previously unrecognized biological mechanisms that govern cellular movement, as well as the development of novel therapeutics designed to modulate these processes. This work is critical, as dysregulated cell movement underlies approximately 90% of cancer-related deaths.

Cartoon illustration of tangled protein strands labeled “Untapped Site” under a magnifying glass, with a capsule pill targeting a surprised purple germ-like character standing on an extracellular matrix platform with visible cracks, representing targeted treatment or drug discovery.

Approach 2

In another approach, we focused on unique protein structures to determine whether they represented untapped sites of biological regulation. This research uncovered a new class of therapeutics that induce anoikis — a form of programmed cell death triggered upon detachment. Understanding and leveraging this mechanism is vital, as cancer cells must evade anoikis to survive and metastasize.

Research Projects

Ongoing research in our lab examines how each of these biological processes regulates the behavior of cancer cells and how each of these therapeutics work on cells. Further, it seeks to use this information to advance novel therapy into ultimate testing in humans, with the goal of developing new treatments that can treat or prevent cancer in people.

Project One

Click to view larger image

Scientific illustration showing cells interacting with bone tissue and causing damage that leads to a fracture, represented by an X-ray image. A second diagram shows a treatment approach blocking harmful cell activity and protecting the bone from further damage.

Qiao, F., Gordon, R., Pattanayak, A., Li, W., Knibbe-Hollinger, J., O’Neill, K., Chen, W., Mukthapuram, P. R., Natarajan, A., & Bergan, R. (2025). A New Class of Precision Therapeutics That Inhibit Prostate Cancer Mediated Bone Destruction. https://doi.org/10.1101/2025.05.20.654990

We are examining the role of cancer cell motility after cells have already moved to bone. We have synthesized a novel therapeutic that binds bone, inhibits cell movement, and demonstrated that it potently inhibits cancer from destroying bone. This is a major problem for patients with prostate, breast, lung, and other cancers. (BioRxiv 2025)

Project Two

Click to view larger image

Research workflow diagram showing the compound KBU2046 interacting with cellular proteins and a proteomics analysis process using TMT labeling and LC-MS/MS to identify signaling pathways involved in inhibiting cell motility.

Created with BioRender.com

We are examining the fundamental biological pathways by which cells regulate motility and drive them to become cancer. (Nature Communications 2018, 2019; Molecular Cancer Therapeutics 2020).

Project Three

Click to view larger image

Scientific illustration showing a protein structure and small-molecule compound linked to experimental results demonstrating cancer cell detachment and cell death after treatment, including microscopy images and western blot analysis of cleaved caspase 3 expression.

Qiao, F., Binkowski, T. A., Broughan, I., Chen, W., Natarajan, A., Schiltz, G. E., Scheidt, K. A., Anderson, W. F., & Bergan, R. (2024). Protein Structure Inspired Discovery of a Novel Inducer of Anoikis in Human Melanoma. Cancers, 16(18), 3177. https://doi.org/10.3390/cancers16183177

We are examining the mechanism of action by which a potent inducer of anoikis operates in cancer cells. (Cancers 2024).

Bergan Lab Team

Raymond Bergan, MD
Raymond Bergan
Kavita and Lalit Bahl Endowed Cancer Center Director, Vice Dean for Cancer Medicine, Vice President for Cancer Services
Fangfang Qiao
Fangfang Qiao
Principal Research Scientist
Weining Chen
Weining Chen
Graduate Student

Alumni

Katelyn O’Neill
Katelyn O’Neill
Research Instructor
Brylie Hartwig
Brylie Hartwig
Graduate Student
Back to top