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Research in Biosystems Engineering is primarily focused on the following themes namely,
(i) Biomimetic Engineering
(ii) Engineered Nanoparticles for biological applications
(iii) Computer Aided Product and Process Design
(iv) Systems Biology.
In the area of Biomimetic engineering, inspired by the unique physical characteristics and
exceptional functional abilities of naturally adhesive surfaces, research groups in the
department have explored the effect of geometry of surface patterns, softness of materials
and resultant deformation in them by variety of forces including those induced by
solid-liquid interfacial interactions. Researchers here have designed hierarchically
structured adhesives, ones having viscoelastic inclusions, adhesive layers embedded with
liquid filled channels thereby mimicking adhesive pads of organisms containing fluidic
vessels and air pockets. In the area of engineered nanoparticles for biological
applications, the group has been focusing on designing of a novel class of multifunctional
nanoparticles (e.g. polymer nanoparticles/capsules, metal, magnetic, semiconductor, and
lanthanide-doped nanoparticles) for variety of bioapplications such as magnetic resonance
imaging (MRI) contrast agents, drug delivery vehicles, biolabels, and biosensors. Work in
the area of Computer aided product and process design focuses on health and environmental
applications using molecular biology and mathematical programming e.g. the aim of one of the
projects in this theme is to evaluate small interfering RNAs (siRNA) as a therapeutic for
the Alzheimer's disease (AD) using in silico and in vitro frameworks. The major aim of
another project is to develop a novel wastewater treatment technology using recombinant
bacteria for source point application. In the area of Systems Biology, the group is working
towards understanding the complex interactions between the transcription network and
signaling network. In biosystems, researchers here are interested in the underlying
mechanism of many such phenomena. For example, especially in cancer, homeostasis of the
tissue is important and can be perturbed by changes that occurs in signaling and
transcription network.