Neuro-Imaging and Brain Biochemistry Research (NIBBR) Lab
Neuro-Imaging and Brain Biochemistry Research (NIBBR) Lab
Dr. Vivek Tiwari’s Research Group is dedicated to identifying clinically relevant structural, metabolic, and epigenetic signatures of brain health and disease, with a particular emphasis on aging, age-associated neurological disorders, epilepsy, and brain tumors. The group seeks to unravel the molecular, cellular, and neurobiological mechanisms that drive neurodegeneration, cognitive decline, network dysfunction, and tumor progression, thereby bridging fundamental neuroscience with translational and clinical applications.
The laboratory adopts a multidisciplinary and integrative approach, combining advanced neuroimaging methodologies including structural and functional MRI, magnetic resonance spectroscopy, quantitative metabolic imaging, and fiber tractography—with genetic, epigenetic, and computational analyses. Leveraging artificial intelligence and image informatics, the group develops quantitative biomarkers and predictive models of brain health and disease.
A major focus of the research program is the development of novel metabolic and neuroanatomical frameworks that enable in vivo mapping of the aging brain, epileptogenic networks, and tumor microenvironments. Through these efforts, the group aims to characterize structural, metabolic, and functional heterogeneity across the lifespan and in neurological disorders, ultimately contributing to early diagnosis, prognosis, and precision medicine strategies for brain diseases.
Quantitative Neuroimaging and Artificial Intelligence to Study Brain Health & Disease
Meet the PI
Associate Professor
Dept. of Biological Sciences
vivekt[at]iiserbpr.ac.in
I am a neurochemist and biophysicist with research interests centered on the neurobiology of brain disorders and cancer biochemistry. My work focuses on uncovering clinically relevant genetic, epigenetic, and metabolic reprogramming events that drive glioma progression, brain aging, cognitive decline, and other neurological disorders. By integrating molecular, metabolic, and neuroimaging approaches, I seek to identify quantitative biomarkers and mechanistic pathways that can be translated into clinical practice.
My research employs multidisciplinary methodologies encompassing metabolic kinetics, advanced neuroimaging, cognitive assessments, and computational modeling across human cohorts, animal models, and cellular systems. Leveraging expertise in neuroscience, metabolism, and quantitative imaging, I aim to develop robust and clinically translatable neurofoundational frameworks that enable precise characterization of disease mechanisms and support diagnostic, prognostic, and therapeutic decision-making in neurology and neuro-oncology.
To further elucidate neurochemical and metabolic dynamics, my laboratory utilizes stable isotope tracing approaches based on ¹³C- and deuterium-labeled substrates, coupled with proton and carbon magnetic resonance spectroscopy. These isotopomer-based investigations provide unique insights into metabolic fluxes, neurotransmitter cycling, bioenergetics, and cellular reprogramming in both physiological and pathological states. Through the integration of imaging, metabolism, and systems-level analyses, our goal is to make the invisible biology of the brain measurable, interpretable, and clinically actionable.
BIO 302 : Biochemistry
BIO 403 : Advanced Biochemistry
BIO 404 : Fundamental of Neurobiology
BIO 426 : Neuroimaging : Understanding Brain Structure and Function
Bio202: Introduction to Moleculr Biology and Developmentl Biology
Bio204: Lab- course of Moleculr Biology and Developmentl Biology
BIO 308: Lab-Course in Biochemistry, Animal Form and Function
BIO 405: Lab-Course in Advanced Biochemistry, Neurobiology
3.0 T Human MRI @ IISER Bpr
In frame: IISER Berhampur Main Campus