NC State Biochemistry receives state and federal revenues, but these sources represent a fraction of the support required to maintain successful programs and facilities. Your donations will make the difference for our faculty and students to meet the global challenges of 21st Century:

- Enhancing the production, quality, accessibility and proftability of food, plant, animal and bioenergy products for North   Carolina, the nation and the world
- Ensuring environmental stewardship and sustainability of air, land, soil and water resources
- Creating a food supply that is safe, secure, healthy, affordable and of high quality
- Improving human health and well-being for individuals, families and communities and
- Preparing students and stakeholders for leadership and success in the global workforce.

NC State Biochemistry



Colleen J. Doherty
Assistant Professor of Molecular and Structural Biochemistry

PhD, Michigan State University
Postdoctoral, University of California, San Diego

Office: 30A Polk Hall
   Office: 919.515.5802
Email: Colleen Doherty

Colleen Doherty

Website: Visit our Lab Home Page

Research Areas: Abiotic stress | Circadian Rhythms | Transcriptional regulation | Systems Analysis of Transcriptional Networks

The Doherty Lab seeks to understand how plants integrate many different environmental signals when responding to an external abiotic stress such as drought.

Our goal is to improve plant yield in response to stress.

In particular, we are interested in how plants measure and track time to coordinate their activities. How do time cues affect responses to abiotic stresses such as drought and salinity?

Abiotic stresses prevent crops from attaining optimal yields and cause significant variability in food production. Understanding how plants perceive and respond to these stressors can improve yield stability.

We are interested in the intersection between the circadian clock and stress responses and are investigating how plants integrate time cues in how they respond to a stressful environment.  We focus on how the transcriptional regulatory networks of stress response change over time.

We employ biochemistry, molecular biology, network analysis, and statistical learning to identify the molecular signaling networks and changes in these networks that orchestrate adaptive stress responses in plants.

Keywords Abiotic stress, osmotic stress, Circadian networks, gene regulation, dynamic transcriptional responses, systems analysis of adaptation