Advancing mechanism-based, non-opioid therapeutics
for chronic back pain and intervertebral disc degeneration
Advancing mechanism-based, non-opioid therapies for spine degeneration while building collaborative bridges across academia, medicine, engineering, and mentorship.
Interdisciplinary investigations spanning the full translational spectrum — from molecular mechanisms to clinical relevance
Bridging bench discoveries to clinical applications in spine degeneration, developing biologically relevant models that mirror human lumbar pathology.
Uncovering the molecular and cellular cascade through which IVD degeneration generates chronic low back pain, identifying actionable therapeutic targets.
Investigating bidirectional signaling between disc cells, bone cells, and sensory neurons that drive pain sensitization and tissue pathology.
Characterizing pathological sensory nerve ingrowth into degenerated disc tissue and the aberrant pain pathways that contribute to chronic discogenic pain.
Developing and evaluating non-opioid, biologically-based strategies targeting pain mechanisms and tissue restoration in degenerated intervertebral discs.
Cultivating the next generation of spine researchers through active mentorship, scientific community engagement, and collaborative bridge-building.
Current experimental platforms advancing our understanding of discogenic pain and translational non-opioid therapeutics
Development and characterization of clinically relevant preclinical rodent models of lumbar IVD degeneration, incorporating behavioral pain assessment, histological analysis, and transcriptomic profiling.
Investigating the role of TRPV1 channels in disc cell–nerve communication and pain sensitization, identifying targeted antagonist strategies as a non-opioid pain management approach.
Correlating biomechanical changes in degenerated spinal segments with nociceptive sensitization, establishing quantitative relationships between structural failure and aberrant pain signal generation.
Applying multiphoton microscopy and 3D tissue clearing to map sensory nerve distributions in degenerated disc tissue and correlate spatial innervation patterns with behavioral pain phenotypes in vivo.
Peer-reviewed contributions advancing translational spine science
Demonstrated differential TRPV1 upregulation in degenerated IVD tissue correlating with aberrant nociceptive innervation and mechanical allodynia across a time-course degeneration model.
Established an in vitro co-culture model revealing inflammatory cytokine-mediated sensitization of DRG neurons by degenerated disc-conditioned media, identifying IL-6 and TNF-α as key mediators.
First comprehensive 3D atlas of sensory nerve territories in healthy versus degenerated lumbar discs using whole-tissue optical clearing, revealing preferential innervation of the outer annulus fibrosus and endplate.
Characterized biomechanical load-sensitive gene expression profiles in nucleus pulposus cells, linking mechanical overload to NF-κB activation and downstream catabolic enzyme upregulation.
Identified the vertebral endplate as a critical interface for bone–disc–nerve crosstalk, with osteoclast-derived RANKL implicated in sensory neuron sensitization and pain amplification.
From foundational science in India to translational research leadership in the United States
Bachelor's degree in Life Sciences, India. Early immersion in cell biology, physiology, and biomedical research cultivated a deep commitment to understanding the mechanisms of human disease.
IndiaGraduate training in musculoskeletal biology and biomechanics. First introduction to spine research and intervertebral disc biology through supervised experimental investigations.
IndiaPhD in orthopaedic and spine research at a leading U.S. academic medical center. Pioneering work on TRPV1 nociception, neural mapping, spinal tissue crosstalk, and non-opioid therapeutic targets in disc degeneration.
United StatesActive engagement with the Orthopaedic Research Society Spine Section, presenting research and building collaborative networks with leading orthopaedic scientists worldwide.
Orthopaedic Research SocietyRecognized at the American Society for Bone and Mineral Research annual meeting; competitive international travel awards supporting presentations at global orthopaedic and musculoskeletal biology conferences.
ASBMR / InternationalBuilding toward an independent research program at the frontier of translational spine science — a laboratory dedicated to mechanism-based non-opioid therapies and global mentorship in spine health research.
The Road AheadContributing to the advancement of orthopaedic spine research through scientific exchange, collaborative initiatives, and emerging investigator networks within the Orthopaedic Research Society.
Contributing translational insights at the intersection of bone biology and discogenic pain, presenting work on vertebral endplate crosstalk and its role in sensory nerve sensitization.
Recognized for outstanding contributions in translational spine science, demonstrating exceptional scientific rigor, innovation, and meaningful impact in the mechanistic study of discogenic pain.
Competitively awarded travel grants enabling presentation of research at international orthopaedic and musculoskeletal biology conferences, fostering global scientific dialogue and collaboration.
"Science grows when scientists grow. My commitment to mentorship stems from the belief that the future of translational research depends not only on discoveries made today, but on the researchers we cultivate for tomorrow."
Dr. Bhadouria actively mentors undergraduate and graduate researchers, providing hands-on training in spine biology, preclinical research techniques, and scientific communication. Her mentorship extends beyond the laboratory — guiding students through the broader scientific journey with cultural awareness and sensitivity to the challenges facing international researchers in STEM.
Open to meaningful collaboration with clinicians, engineers, scientists, institutions, and students committed to translational research and transformative impact in spine health.