This MURI project at Georgia Tech is focused on a revolutionary new paradigm for fabricating micro/nanodevices: the synergistic use of genetic engineering, biological replication, and shape-preserving chemical conversion to generate enormous numbers of identical Genetically-Engineered Micro/nanodevices (GEMs) with tailored 3-D shapes, fine (meso-to-nanoscale) features, and chemistries.
The CNCF in the School of Materials Science and Engineering, is a multi-user facility. Its mission is to provide the Georgia Tech campus with state-of-the-art tools for performing advanced research on a variety of nanoscale materials.
The lab is currently working on Electrochemical Double Layer Supercapacitors based on carbon nanotubes, carbon nanotube alignment, field emission properties of carbon nanotubes, and carbon nanotube applications for solar cells.
Since 2001 and the invention of graphene electronics the Georgia Tech epitaxial graphene research team led by Walt de Heer and its collaborators are developing the new field of epitaxial graphene electronics.
Dr. Filler's research group works at the interface of chemical engineering and materials science, emphasizing the atomic-level engineering of nanoscale semiconductors for applications in energy conversion, electronics, and photonics.
The Institute for Electronics and Nanotechnology (IEN) at Georgia Tech was established as an Interdisciplinary Research Institute (IRI) with the goals of providing a central entry point and a central organization to enable interdisciplinary E&N related training, education, and research at Georgia Tech in partnership with outside entities.
The mission of the group is to advance the science and engineering of organic and hybrid nanostructured materials and enable technological innovations for applications in communications, sensing, displays, energy efficient solid-state lighting, and power generation.
The group's research focuses on nanostructured functional materials (NanoFM), including polymer-based nanocomposites, block copolymers, polymer blends, conjugated polymers, quantum dots (rods, tetrapods, wires), magnetic nanocrystals, metallic nanocrystals, semiconductor metal oxide nanocrystals, ferroelectric nanocrystals, multiferroic nanocrystals, upconversion nanocrystals, thermoelectric nancrystals, core/shell nanocrystals, hollow nanocrystals, Janus nanocrystals, nanopores, nanotubes, hierarchically structured and assembled materials, and semiconductor organic-inorganic nanohybrids. The goal of the research is to understand the fundamentals of these nanostructured materials.
Tech's Center for Nanoscience and Nanotechnology is drawing in experts from across Tech's campus, and high-profile sponsors, including the National Science Foundation, the Department of Defense, and the Army Research Office, as well as numerous business and industry sponsors. Areas of research include sensors, microelectromechanical systems (MEMS), nanophotonics, bioelectronics, molecular diagnostics, nanomedicine, and drug delivery.
Georgia Tech is one of the world leaders in nanoscience and nanotechnology research. As the southeast US node in the NSF-supported National Nanotechnology Infrastructure Network, the Nanotechnology Research Center (NRC) serves nearly 600 researchers per year, with more than one-third of these coming from other universities, colleges, companies, and government labs. Researchers from any science or engineering discipline are invited to take advantage of NRC's infrastructure, facilities, equipment and expertise to enable and facilitate interdisciplinary research in micro- and nano-fabrication and characterization.
Zhong L. Wang's research group at Georgia Institute of Technology focuses on the fundamental science in the physical and chemical processes in nanomaterials growth, unique properties of nanosystems, novel in-situ measurement techniques, and new applications of nano-scale objects.
A cooperative effort of 8 institutions, the nanomedicine development center focuses on a model nucleoprotein machine that carries out non-homologous end joining (NHEJ) of DNA double strand breaks. This machine has a simple structure and significant clinical relevance.
Atomic, Molecular, Optical, and Chemical (AMOC) Physics is mainly concerned with the common building blocks of the world around us (and beyond), i.e., with atoms, ions, electrons, molecules, and photons, and their mutual interactions. Of special interest are those phenomena that occur at temperatures and energies which are typical of the Earth's atmosphere, the atmospheres of other planets and comets, the atmospheres of stars, the gas found in interstellar clouds, and the ultracold regime of Bose-Einstein Condensates.