RESEARCH THEMES
Quantum Biotechnology
for Developing Therapeutic Interventions
​Quantum mechanical effects, previously thought to be irrelevant in biological systems, are now thought to play crucial roles in the magnetic-field based navigation of migratory birds, turtles and moths (Hore and Mouritsen, 2016). If quantum effects can indeed play functionally relevant roles inside these biological systems, then can we develop paradigms for treating diseases, that harness them?
Using time-resolved fluorescence spectroscopy, computational tools and In Vitro biochemistry, we aspire to understand how earth-abundant proteins can be put to use in a electronic devices. Ultimately, our work will enhance the development a new genre of 'quantum biomedical' disease treatment modalities.
Quantum Bioengineering for Disease Diagnosis
In the context of biochemistry, the quantum advantage is the increased generation rate of product species in a chemical reaction by implementing quantum effects. Examples of such an increased reaction rate include thermally-activated quantum tunnelling of electrons to increase enzymatic reaction rates during photosynthesis. Can we harness this quantum chemical advantage, already seen in such biological systems, for diagnosing diseases in human subjects?
We seek to develop quantum biosensing paradigms, which can transduce quantum chemical information in human physiological systems into electronic and photochemical cues.
Building a dielectric map of the cell
The biological cell has been known to interact with electromagnetic stimuli for centuries. Although progress is encouraging (see this book), we are still far from building a precise map to understand how electric fields and magnetic fields interact with various parts of the cell.
Using techniques from impedance spectroscopy, In Vitro biochemistry and microscopy, we seek to understand the electrical basis of the cell. As biophysicists, we aim to understand how electromagnetic stimuli influence various intracellular targets with special emphasis on proteins. Also as engineers, we then use our understanding to optimize disease-treatment using electromagnetic stimuli. Our present interests are centred around understanding the electromagnetic properties of proteins polymers of tubulin and actin, microtubules and actin filaments respectively (see previous work in Kalra et al., 2023a; Kalra et al., 2020).