Neurochemical Modulation of Cardiorespiratory Control (NMCC) Lab
"We study autonomic control of cardiorespiratory function through brainstem circuit analysis and neurotransmitter modulation mechanisms."
Recent Publications
Orexin 1 receptors in the paraventricular nucleus of the hypothalamus (PVN) facilitate the peripheral chemoreflex
Ben Musa, R., Li, D.-P., Kline, D. D., Hasser, E. M., & Cummings, K. J. (2024). Physiology, 39(S1), 850. American […]
A serotonin-deficient rat model of neurogenic hypertension: Influence of sex and sympathetic vascular tone
Spinieli, R. L., Cornelius-Green, J., & Cummings, K. J. (2022). Journal of Neurophysiology, 128(5), 1199-1206.
The effect of orexin on the hypoxic ventilatory response of female rats is greatest in the active phase during diestrus
Ben Musa, R., Cornelius-Green, J., Hasser, E. M., & Cummings, K. J. (2023). Journal of Applied Physiology, 134(3), 638-648.
Orexin facilitates the hypoxic ventilatory response via the activation of corticotropin-releasing hormone neurons that project to the nucleus of the solitary tract
Ben Musa, R., Cornelius-Green, J., Hasser, E., Kline, D., & Cummings, K. (2023). Physiology, 38(S1), 5733602.
Orexin Facilitates the Peripheral Chemoreflex via Corticotropin-Releasing Hormone Neurons Projecting to the Nucleus of the Solitary
Ben Musa, R., Cornelius-Green, J., Zhang, H., Li, D.-P., Kline, D. D., Hasser, E. M., & Cummings, K. J. (2024). […]
Paraventricular nucleus projections to the nucleus tractus solitarii are essential for full expression of hypoxia‐induced peripheral chemoreflex responses
Ruyle, B. C., Lima-Silveira, L., Martinez, D., Cummings, K. J., Heesch, C. M., Kline, D. D., & Hasser, E. M. […]
Altered 5-HT2A/C receptor binding in the medulla oblongata in the sudden infant death syndrome (SIDS) …
Cummings, K. J., Leiter, J. C., Trachtenberg, F. L., Okaty, B. W., Darnall, R. A., Haas, E. A., Harper, R. […]
About Us
Primarily located in the brainstem (medulla oblongata), these clusters of neurons control vital cardiorespiratory functions and dynamically adapt to physiological challenges, maintaining homeostasis during stress or environmental changes, including hypoxia.
The Cummings Lab focuses on understanding how the brainstem integrates signals from central autonomic pathways to regulate critical functions such as blood pressure and heart rate. Our research investigates the impact of neurochemical imbalances on these pathways, leading to maladaptive cardiovascular and respiratory responses.
Dr. Kevin J. Cummings leads a multidisciplinary team of postdoctoral researchers and collaborators in neuroscience, electrophysiology, and autonomic regulation.
Using advanced techniques including In Vivo Rodent Models, Electrophysiology, Neuroimaging, Nerve Recordings, Optogenetics, Chemogenetics,
Electrophysiology, Photometry, In Vivo monitoring of blood pressure, heart rate, and respiratory function in awake, behaving rodents, we aim to uncover deeper insights into disorders such as Sudden Infant Death Syndrome (SIDS) and cardiorespiratory maladaption during hypoxia in both infants and adults.
Science News
A revolutionary cancer treatment could transform autoimmune disease
Researchers are testing CAR T cell therapy as a way to reset the immune system in lupus, Graves’ disease and […]
A social compass in the brain
People with a rare genetic disorder that damages the amygdala are helping neuroscientists rethink how the brain shapes fear, trust […]
They call it stupid hot for a reason: Heat muddles animal brains
As temperatures rise, some creatures pick fights while others struggle to learn. The consequences of these behavioral changes may ripple […]
How to tame AI’s voracious appetite for energy
Scientists are exploring new algorithms, hardware and computing methods to lower AI’s power demands. Strategic siting of data centers and […]
Blood, poop and carcasses: How feasting bugs are helping map biodiversity
Critters that dine on flesh and waste also consume the animal’s DNA. That genetic material is helping scientists detect and […]
Human organoids reveal how to reverse “irreversible” nerve damage
Cambridge researchers created miniature brain-and-spinal-cord systems in the lab that can send signals and even trigger tiny muscle contractions. They […]
Collaborate With Us
We actively seek partnerships with researchers, institutions, and clinical professionals to foster collaboration and advance scientific discovery. We welcome opportunities to share expertise, contribute to ongoing projects, and explore innovative research directions. We invite proposals for joint studies, grant applications, and academic exchanges, recognizing the value of diverse perspectives in driving impactful research. Our multidisciplinary team is committed to collaborative efforts that enhance the scope and depth of our investigations.
Current opportunities:
We are constantly seeking passionate and driven researchers to join our dynamic team. We provide exciting opportunities for graduate students, postdoctoral researchers, and lab assistants to collaborate on cutting-edge projects and contribute to groundbreaking discoveries. Join us to advance your career in a supportive and innovative research environment.
