The research of the Fischer group at the University of Pennsylvania, Department of Materials Science and Engineering covers the novel nanomaterial systems such as carbon nanotube and semiconductor nanowires
The University of Pennsylvania's School of Engineering offers new Master of Science Degree program in Nanotechnology. The program has options for Nano Enabling Energy, Nano Enabling Medicine, Nanoelectronics and more.
The group's research lies at the interface of engineering, physics, material science, and biology with the main themes of nanophotonics and nanotechnology. Diffraction limit of light need be overcome in order for us to investigate the optical properties of matter on the nanoscale. Plasmonics, due to the interaction of light with conduction electrons in a metal nanoparticle, offers confinement of light on the nanometer scale along with the enhancement of local electric fields. These properties make plasmonics crucial for nanooptics.
The Krishna P. Singh Center for Nanotechnology integrates state-of-the-art nanocharacterization, nanofabrication, and property measurement facilities at the University of Pennsylvania. The Center houses several multi-user experimental laboratories critical to advanced research and development.
A certification in Nanoscale Science and Technology documents that a graduate student has mastered fundamental principles and practical implications in the core areas of the field. The certification program is open to all graduate students in good standing at Penn and is designed such that students in BE, CBE, ESE, MEAM, and MSE can accomplish this within their degree program, i.e. without extending the time to graduation.
The Institute of NanoScience and Engineering is an integrated, multidisciplinary organization that brings coherence to the University's research efforts and resources in the fields of nanoscale science and engineering.
Project areas include: Nanostructured materials for biological sensing; Nanoporous membranes; Nanoparticle-based drug delivery; Imaging, transport, and toxicity properties of semiconductor nanocrystals; Nanobiomechanics
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.