Biography
Malavika Nair is an Associate Professor in Biomaterials at the Institute of Biomedical Engineering. Malavika is a materials scientist by training, obtaining a BA, MSci in Natural Sciences (2012-2016) and a PhD (2016-2019) from the University of Cambridge. Malavika's doctoral work was focused on the multiscale characterisation of ice, collagen, and ice-templated collagen scaffolds for tissue engineering.
This was followed by post-doctoral research in 2020 combining machine learning techniques with experimental biomaterials datasets, and the award of a research fellowship at Emmanuel College where Malavika began working on electroactive biomaterials for tissue regeneration.
In 2022, Malavika moved to the Oxford Institute of Biomedical Engineering to expand the work on electroactive biomaterials for use in bio-stimulation, bio-sensing and drug delivery.
Teaching
I currently lecture the following undergraduate courses in Engineering Science:
First year:
P1 - Ordinary Differential Equations (Modelling)
Third year:
B6 – Engineering Alloys
B8 – Polymers
B17 - Biomechanics
B18 - Cellular Physiology
Fourth year:
C28 - Mechanics and Connective Tissue
Most Recent Publications
Current and emerging strategies for biocompatible materials for implantable electronics
Current and emerging strategies for biocompatible materials for implantable electronics
Sonosensitive cavitation nuclei-a customisable platform technology for enhanced therapeutic delivery
Sonosensitive cavitation nuclei-a customisable platform technology for enhanced therapeutic delivery
Reversible Microscale Assembly of Nanoparticles Driven by the Phase Transition of a Thermotropic Liquid Crystal.
Reversible Microscale Assembly of Nanoparticles Driven by the Phase Transition of a Thermotropic Liquid Crystal.
Optimising aerosol jet printing of collagen inks for enhanced piezoelectricity and controlled surface potential
Optimising aerosol jet printing of collagen inks for enhanced piezoelectricity and controlled surface potential
Conducting Polymer-ECM Scaffolds for Human Neuronal Cell Differentiation.
Conducting Polymer-ECM Scaffolds for Human Neuronal Cell Differentiation.
Research Interests
Malavika's research aims to bridge the gap between existing electronic devices for healthcare, and regenerative implants by exploiting the electromechanical behaviour of biopolymers.
The current research focus covers the full scope of materials synthesis and discovery, with the goal of producing medical devices with optimised electromechanical and biological responses.
Research Team
Ms Samantha Baker-Jones - DPhil Student
Ms Veronica Lucian - DPhil Student
Kae Nicolson - DPhil Student
Most Recent Publications
Current and emerging strategies for biocompatible materials for implantable electronics
Current and emerging strategies for biocompatible materials for implantable electronics
Sonosensitive cavitation nuclei-a customisable platform technology for enhanced therapeutic delivery
Sonosensitive cavitation nuclei-a customisable platform technology for enhanced therapeutic delivery
Reversible Microscale Assembly of Nanoparticles Driven by the Phase Transition of a Thermotropic Liquid Crystal.
Reversible Microscale Assembly of Nanoparticles Driven by the Phase Transition of a Thermotropic Liquid Crystal.
Optimising aerosol jet printing of collagen inks for enhanced piezoelectricity and controlled surface potential
Optimising aerosol jet printing of collagen inks for enhanced piezoelectricity and controlled surface potential
Conducting Polymer-ECM Scaffolds for Human Neuronal Cell Differentiation.
Conducting Polymer-ECM Scaffolds for Human Neuronal Cell Differentiation.
DPhil Opportunities
DPhil students looking to join the research team are very welcome to get in touch with me directly for any opportunities. Please include a draft research proposal/some elements of what you hope to be working on in your email so that I can advise you of the fit to the projects and areas on offer.
Please check DPhil in Engineering Science for specific guidance on the admission requirements and application process.
Most Recent Publications
Current and emerging strategies for biocompatible materials for implantable electronics
Current and emerging strategies for biocompatible materials for implantable electronics
Sonosensitive cavitation nuclei-a customisable platform technology for enhanced therapeutic delivery
Sonosensitive cavitation nuclei-a customisable platform technology for enhanced therapeutic delivery
Reversible Microscale Assembly of Nanoparticles Driven by the Phase Transition of a Thermotropic Liquid Crystal.
Reversible Microscale Assembly of Nanoparticles Driven by the Phase Transition of a Thermotropic Liquid Crystal.
Optimising aerosol jet printing of collagen inks for enhanced piezoelectricity and controlled surface potential
Optimising aerosol jet printing of collagen inks for enhanced piezoelectricity and controlled surface potential
Conducting Polymer-ECM Scaffolds for Human Neuronal Cell Differentiation.
Conducting Polymer-ECM Scaffolds for Human Neuronal Cell Differentiation.
Talks
I am passionate about using the platform I have to engage people in the fields of Biomaterials and Biomedical Engineering, as well as sharing my team’s work on developing smart biomedical devices. The following videos are grouped as either ‘General’ or ‘Technical’ talks, lectures and podcasts on biomaterials.
University of Oxford 2023 Open Days
019 Naked Scientists’ Podcast on Scaffolds for Skin Tissue played live on BBC Cambridgeshire
Most Recent Publications
Current and emerging strategies for biocompatible materials for implantable electronics
Current and emerging strategies for biocompatible materials for implantable electronics
Sonosensitive cavitation nuclei-a customisable platform technology for enhanced therapeutic delivery
Sonosensitive cavitation nuclei-a customisable platform technology for enhanced therapeutic delivery
Reversible Microscale Assembly of Nanoparticles Driven by the Phase Transition of a Thermotropic Liquid Crystal.
Reversible Microscale Assembly of Nanoparticles Driven by the Phase Transition of a Thermotropic Liquid Crystal.
Optimising aerosol jet printing of collagen inks for enhanced piezoelectricity and controlled surface potential
Optimising aerosol jet printing of collagen inks for enhanced piezoelectricity and controlled surface potential
Conducting Polymer-ECM Scaffolds for Human Neuronal Cell Differentiation.
Conducting Polymer-ECM Scaffolds for Human Neuronal Cell Differentiation.