Anesthesia Research
Jankowski Lab

Jankowski Research Lab

Our lab is interested in the mechanisms of sensory neuron sensitization with a particular emphasis on nociceptive processing. We have two main focuses: peripheral mechanisms of musculoskeletal pain and the sensitization of developing sensory neurons.

Pain is a major health issue that affects a large number of people worldwide. The mechanisms by which pain develops in children may be distinct from adults and influenced by non-neuronal communication. While we do know a great deal of information about the role of nociceptors in the development of pain states, we do not have a comprehensive understanding of how distinct subtypes of sensory fibers modulate pain after muscle injury, during development or as a result of neonatal insults which may alter the function of sensory neurons into adulthood.

In order to increase our knowledge of these fibers, we utilize several ex vivo recording preparations that enable us to comprehensively phenotype sensory afferent fibers before and after peripheral insults in neonatal and adult mice. In addition to electrophysiological recording, we also utilize a variety of other techniques including RNA interference, chemogenetics, transgenics, viral delivery methods, realtime RT-PCR, single cell transcriptomics, western blotting, immunocytochemistry, fluorescence and confocal microscopy, electron microscopy, mechanical and thermal hyperalgesia, spontaneous pain measurements, cardiovascular monitoring, primary neuron and heterologous cell cultures, and second messenger signaling methodologies to obtain a broad understanding of sensory function.

These studies will hopefully lead to the development of treatments for adverse changes in cardiovascular reflexes or musculoskeletal pain and will generate novel information on the development of both nociceptive and non-nociceptive afferents in relation to how they communicate with non-neuronal cells.

Our lab is also actively involved in the Neuromuscular Development Group. Our collaborations aim to accelerate research in the development and diseases of the neuromuscular system. We are also members of the Center for Understanding Pediatric Pain (CUPP) which highlights the breadth of expertise in pain research at Cincinnati Children’s.

Publications

Dourson, AJ; Willits, A; Raut, NG R; Kader, L; Young, E; Jankowski, MP; Chidambaran, V. Genetic and epigenetic mechanisms influencing acute to chronic postsurgical pain transitions in pediatrics: Preclinical to clinical evidence. Canadian Journal of Pain. 2022; 6:85-107.

Dourson, AJ; Ford, ZK; Green, KJ; McCrossan, CE; Hofmann, MC; Hudgins, RC; Jankowski, MP. Early Life Nociception is Influenced by Peripheral Growth Hormone Signaling. The Journal of neuroscience : the official journal of the Society for Neuroscience. 2021; 41:4410-4427.

Queme, LF; Weyler, AA; Cohen, ER; Hudgins, RC; Jankowski, MP. A dual role for peripheral GDNF signaling in nociception and cardiovascular reflexes in the mouse. Proceedings of the National Academy of Sciences of USA. 2020; 117:698-707.

He, X; Zhang, L; Queme, LF; Liu, X; Lu, A; Waclaw, RR; Dong, X; Zhou, W; Kidd, G; Yoon, S; et al. A histone deacetylase 3-dependent pathway delimits peripheral myelin growth and functional regeneration. Nature Medicine. 2018; 24:338-351.

Ross, JL; Queme, LF; Lamb, JE; Green, KJ; Ford, ZK; Jankowski, MP. Interleukin 1β inhibition contributes to the antinociceptive effects of voluntary exercise on ischemia/reperfusion-induced hypersensitivity. PAIN. 2018; 159:380-392.

Queme, LF; Ross, JL; Jankowski, MP. Peripheral Mechanisms of Ischemic Myalgia. Frontiers in Cellular Neuroscience. 2017; 11:419.

Raut, NG; Maile, LA; Oswalt, LM; Mitxelena, I; Adlakha, A; Sprague, KL; Rupert, AR; Bokros, L; Hofmann, MC; Patritti-Cram, J; et al. Schwann cells modulate nociception in neurofibromatosis 1. JCI insight. 2024; 9:e171275.

Dourson, AJ; Fadaka, AO; Warshak, AM; Paranjpe, A; Weinhaus, B; Queme, LF; Hofmann, MC; Evans, HM; Donmez, OA; Forney, C; et al. Macrophage epigenetic memories of early life injury drive neonatal nociceptive priming. 2023; 4:2023.02.13.528015.

Dourson, AJ; Jankowski, MP. Developmental impact of peripheral injury on neuroimmune signaling. Brain, Behavior, and Immunity. 2023; 113:156-165.

Tripathi, G; Propsom, K; Kellerman, KM; Jankowski, MP. Role Of T-Cell Mobilizing Chemokine, Ccl27A, In Muscle Hypersensitivity After Repetitive Ischemia With Reperfusion Injury. Pain Forum. 2023; 24:7-8.

Adlakha, A; Howerton, EM; Raut, NG R; Jankowski, MP. Sensory Neuron-Derived CCL2 Corresponds To Inflammation In Ulcerative Colitis. Pain Forum. 2023; 24:1.

Amir, A; Kim, S; Stecco, A; Jankowski, MP; Raghavan, P. Hyaluronan homeostasis and its role in pain and muscle stiffness. PM&R. 2022; 14:1490-1496.

Dourson, AJ; Willits, A; Raut, NG R; Kader, L; Young, E; Jankowski, MP; Chidambaran, V. Genetic and epigenetic mechanisms influencing acute to chronic postsurgical pain transitions in pediatrics: Preclinical to clinical evidence. Canadian Journal of Pain. 2022; 6:85-107.

Queme, LF; Dourson, AJ; Hofmann, MC; Butterfield, A; Paladini, RD; Jankowski, MP. Disruption of Hyaluronic Acid in Skeletal Muscle Induces Decreased Voluntary Activity via Chemosensitive Muscle Afferent Sensitization in Male Mice. eNeuro. 2022; 9:ENEURO.0522-ENEU21.2022.

Queme, LF; Jankowski, MP. Single-Unit Electrophysiological Recordings of Primary Muscle Sensory Neurons Using a Novel Ex Vivo Preparation. Contemporary Approaches to the Study of Pain. : Springer Nature; Springer Nature; 2022.

Nagaraja, S; Queme, LF; Hofmann, MC; Tewari, SG; Jankowski, MP; Reifman, J. In silico Identification of Key Factors Driving the Response of Muscle Sensory Neurons to Noxious Stimuli. Frontiers in Neuroscience. 2021; 15:719735.

Patritti-Cram, J; Coover, RA; Jankowski, MP; Ratner, N. Purinergic signaling in peripheral nervous system glial cells. Glia. 2021; 69:1837-1851.

Dourson, AJ; Ford, ZK; Green, KJ; McCrossan, CE; Hofmann, MC; Hudgins, RC; Jankowski, MP. Early Life Nociception is Influenced by Peripheral Growth Hormone Signaling. The Journal of neuroscience : the official journal of the Society for Neuroscience. 2021; 41:4410-4427.

Yang, L; Slone, J; Zou, W; Queme, LF; Jankowski, MP; Yin, F; Huang, T. Systemic Delivery of AAV-Fdxr Mitigates the Phenotypes of Mitochondrial Disorders in Fdxr Mutant Mice. Molecular Therapy-Methods & Clinical Development. 2020; 18:84-97.

Slone, JD; Yang, L; Peng, Y; Queme, LF; Harris, B; Rizzo, SJ S; Green, T; Ryan, JL; Jankowski, MP; Reinholdt, LG; et al. Integrated analysis of the molecular pathogenesis of FDXR-associated disease. Cell Death and Disease. 2020; 11:423.

Yang, L; Slone, J; Li, Z; Lou, X; Hu, Y; Queme, LF; Jankowski, MP; Huang, T. Systemic administration of AAV-Slc25a46 mitigates mitochondrial neuropathy in Slc25a46-/- mice. Human Molecular Genetics. 2020; 29:649-661.

Queme, LF; Weyler, AA; Cohen, ER; Hudgins, RC; Jankowski, MP. A dual role for peripheral GDNF signaling in nociception and cardiovascular reflexes in the mouse. Proceedings of the National Academy of Sciences of USA. 2020; 117:698-707.

Contact Us

A photo of Michael Jankowski.

Michael P. Jankowski, PhD  
Associate Professor
UC Department of Anesthesiology

Member, Division of Pain Management, Department of Anesthesia, & Department of Pediatrics, Cincinnati Children's Hospital Medical Center

Mailing Address:
Cincinnati Children’s Hospital Medical Center
3333 Burnet Ave
MLC 6016
Cincinnati, OH 45229

Email: michael.jankowski@cchmc.org
Phone: 513-803-7966