Development of the Nanoscale Properties and Materials web site was initiated by Dr. Miguel Jose Yacaman of the Chemical Engineering Department at The University of Texas at Austin. The site is intended to be used primarily by undergraduate and graduate students in Chemical Engineering, Biomedical Engineering, Physics, Chemistry, and related fields that deal with nanotechnology.
The Ruoff group is located in the department of Mechanical Engineering at the University of Texas. Major interests are: Synthesis and properties of nanostructures including CNTs and graphene; Energy and the Environment; Preparation and properties of composites; Nanomanipulation and nanorobotics; Instrument development and technology transition; New tools and methods for the biomedical sciences.
Students who have a strong background in any of the physical sciences or engineering disciplines are encouraged to apply to the Graduate Program in Materials Science and Engineering. MS&E students that select the Nanomaterials Thrust will take a sequence of courses from basic to advanced designed to train them in the fundamentals of materials science as well as critical skills in processing, characterization and applications of nanomaterials.
SWAN is one of the three centers created in 2006 by the Semiconductor Research Corporation Nanoelectronics Research Initiative ( SRC-NRI) to find a replacement to conventional metal oxide semiconductor field effect transistors. SRC-NRI is a consortium of TI, Freescale, AMD, MICRON, Intel and IBM.
The research group of Walter Hu focuses on integrating nanoscale elements of electronics, chemistry, and biology. Such nano-bio-engineering fusion may provide rare opportunities to explore new science and applications.
The Department of NanoMedicine and Biomedical Engineering is focused on inter-disciplinary research combining NanoMedicine, Biomedical Engineering and computational sciences to develop novel therapeutic and diagnostic platforms for combating diseases including cancer, cardiovascular diseases and infectious diseases.
Established by a research development grant from SHEFC, the Thin Film Centre aims to act as a centre of excellence in Scotland for the development of deposition processes for thin films, the design and fabrication of thin film products, the characterisation of thin films and the dissemination of information about the applications of thin films.
NCRC was established at University of Tokyo for the purpose of realizing core technologies for the development of the ubiquitous information devices based on nanotechnologies, and is aiming at becoming one of the Center of Excellence (COE) in the world of advanced nano-photonics and electronics.
The Advanced Micro and Nanosystems Laboratory's research has a strong focus on bio-oriented micro and nanosystems. The actively pursued areas are micro-nano device design and fabrication (MEMS sensors and actuators, bioMEMS, and NEMS); microrobotic biomanipulation; microstructure controls; cellular mechanobiology; nanorobotic manipulation of nanomaterials.
This option transcends the traditional boundaries between physics, chemistry, and biology. Starting with a foundation in materials engineering and augmented by research from the leading-edge of nanoengineering, students receive an education that is at the forefront of this constantly evolving area.
EPMG is a research group dedicated to the training of highly-qualified personnel in understanding the science and engineering of electronic materials suitable for advancing the performance of future generations of electronic and photonic devices.
The Sargent Group at the University of Toronto applies discoveries in nanoscience towards applications relevant to our health, environment, security, and connectedness. The team unites chemistry, physics, and engineering within six experimental laboratories at the University of Toronto.
The main goal of the Master is to train professionals in the design, fabrication and characterization of nano- and micro- systems for different applications, such as sensors and actuators, photonics, BioMEMS, with high scientific and industrial impact. The Master will offer an educational portfolio that includes four thematic areas: Bio NEMS - MEMS, photonic NEMS-MEMS, NEMS-MEMS for sensors and actuators, NEMS MEMS for the alternative energy sources and environmental monitoring.