Neeraj Katiyar
Postdoctoral position at Department of Materials Science and Engineering; Biomedical Engineering
- E-mail:
- neeraj.katiyar@angstrom.uu.se
- Visiting address:
- Ångströmlaboratoriet, Lägerhyddsvägen 1
- Postal address:
- Box 35
751 03 UPPSALA
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Short presentation
Neeraj joined the EMBLA research group in May 2022 as a postdoctoral fellow supported by the Olle Engkvists Foundation. His research focuses on designing and fabricating on-chip culture platforms to investigate the impact of physical factors on cellular behavior.
Keywords
- 3d cell cultures
- biomechanics
- data driven life science
- mechanobiology
- microfabrication
- microfluidics
- nanofabrication
- precision medicine
Biography
- 2022, Research Associate, Institute of Nano Science and Technology (INST), India
- 2021, Ph.D. in (Medical Science) Nanoscience & Technology “Axonal transport of topically applied gold nanoparticles in the sensory neurons of dorsal root ganglion” from Center for Nanosciences & Molecular Medicine, Amrita Vishwa Vidyapeetham University, India
Research
Microfluidic platforms, or Lab-on-a-chip, offer a promising alternative to animal models. By combining 3D cell cultures with microfluidic systems, we can create in vivo-like environments to study cellular responses to various stimuli. This approach could revolutionize drug discovery and development.
- Design and fabrication of an organ-on-chip platform for investigating the role of fluid shear stress in cellular physiology
- Design and fabrication of a micro-barrier entrapped 3D cell culture platform for studying gradient-dependent modulation of cellular response
Publications
Recent publications
- 2D chemical gradient enabled spheroid-on-chip platform to study gradient-dependent modulation in cellular response? (2024)
- Nerve terminals in the tumor microenvironment as targets for local infiltration analgesia (2023)
- Technology platform for facile handling of 3D hydrogel cell culture scaffolds (2023)
All publications
Articles
- Nerve terminals in the tumor microenvironment as targets for local infiltration analgesia (2023)
- Technology platform for facile handling of 3D hydrogel cell culture scaffolds (2023)