Journal of Undergraduate Research
Keywords
receptors for glycation end-products, RAGE, pulmonary inflammation, air quality
College
Life Sciences
Department
Physiology and Developmental Biology
Abstract
Funding available through this MEG award has provided an opportunity for me to meet many academic objectives I’ve determined to be important in the early stages of my faculty appointment at BYU. First of all, I have been able to move my on site research program forward and involve many undergraduates in the process. Specific to the current MEG award, involved students and I have been able to accomplish the proposed research. We have been successful in conducting pilot studies that reveal possible roles for RAGE in mechanisms of lung inflammation induced by both diesel particulate matter (PM) and cigarette smoke (CS). Despite improvement in air quality during the past few decades, the rationale for studying mechanisms leading to adverse health effects from air pollution remains important. This MEG award specifically provided opportunities for students to conduct meaningful research that led to the observation that alveolar epithelial cells and bronchiolar epithelial cells increased RAGE transcription after 24 hours of PM exposure. Because previous data reveals that molecules with binding affinity for RAGE are also induced, it was therefore an intriguing paradigm to consider the fact that the required molecules for RAGE signaling, while basally expressed under normal conditions, can be intensely activated in both the proximal and distal lung with the appropriate PM trigger.
Recommended Citation
Reynolds, Dr. Paul
(2013)
"Receptors for Advanced Glycation End-Products (RAGE) Mediates Particulate Matter-Induced Pulmonary Inflammation,"
Journal of Undergraduate Research: Vol. 2013:
Iss.
1, Article 1828.
Available at:
https://scholarsarchive.byu.edu/jur/vol2013/iss1/1828