The group manipulates materials on the micro, nano and molecular level scales to design novel biomedical devices. In particular they exploit the optical, morphological and surface chemical properties of nanomaterials and investigate their potential toxicity in developing Smart Bandages for treatment of chronic skin disorders and wound healing.
The group's research goal is a complete understanding of the fundamental properties of materials with a size in between individual molecules and the bulk. Currently, their investigations are focused on fundamental studies of carbon nanotubes and semiconductor nanocrystals, and the integration of these materials into both novel non-linear optical devices and biological sensors.
The group works on the design, synthesis, characterization and evaluation of lipid- and/or polymer-based nanostructured biomaterials. One specific interest lies in developing nanomaterials for healthcare and other medical applications, for example, drug delivery to improve or enable treatments of human diseases. In addition, we also seek to understand the fundamental sciences underlying the arenas of nanomedicine.
The group's overall research objective focuses on the development of hierarchically structured nanomaterials to study cell-cell interactions and the cooperative response of cells to extracellular matrixes.
The NNRC is a university-wide user fabrication and metrology center providing state-of-the-art equipment, professional support personnel and infrastructure to enable multidisciplinary research in nanomaterials and nanomanufacturing methods related to fundamental materials science, sensors, actuators, electronics, bio-systems, medical products, optics and integrated nanoscale systems.
The Madhukar Group's research has revolved around electronic response (electrical and optical) of synthesized materials and structures in reduced (two, one, and zero) dimensions and their potential use in electronic and optoelectronic devices for information sensing, processing, imaging and computing technologies. The emphasis for some time has been on three dimensionally confined (i.e. zero dimensional) nanostructures called quantum dots and the scope in recent years has expanded to include biochemical materials (peptides, proteins) and hybrid semiconductor-biomolecular nanostructures for biomedical applications, particularly neural prostheses.