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.
The MOSE laboratory deals with theory, simulation and modeling in three different areas: process simulation, material science (mesoscale modeling and simulation in the field of nano science and nanotechnology) and life science.
MESA+ institute for nanotechnology, trains graduate students and PhD-students and conducts research in the fields of nanotechnology, microsystems, materials science and microelectronics. Unique of MESA+ is its multidisciplinary composition. Many research groups of the faculties Electrical Engineering, Mathematics, Computer Science (EEMCS) and Science and Technology (S&T) participate in the MESA+ institute.
The MSc Nanotechnology is a 2 year programme for anybody having a BSc degree in any applied science. The educational programme is offering you a multidisciplinary approach to this new emerging field, forming an excellent preparation for a scientific career both at the university or in industry.
The graduate research programmes of the Twente Graduate School are set up as a coherent and integrated master and doctorate course that runs over a period of five to at most six years leading to a PhD degree.
In order to obtain a deeper insight into the behavior of nanoscale devices the group of Prof. Zandvliet studies their physical, chemical and especially electronic properties with high spatial resolution techniques. For that purpose they mainly apply Scanning Probe Microscopy (SPM) and Spectroscopy (SPS). Further development of SPM-based probes for electrical characterisation of nanostructures is a key part of their described research area.
(German language site) The center's objectives are technology and know-how transfer; to develop dedicated solutions and materials; to develop market-oriented innovative products by utilising the know-how of the partners
Nanotechnologies and aligned industries are now well established at the Nanotechnology & Integrated Bioengineering Centre (NIBEC) at the University of Ulster. The teaching and NIBEC research facilities are truly world class and are supported by a team of dedicated staff who are active in a number of research areas. NIBEC will give you the opportunity first hand to use and become an expert in advanced instruments and facilities.
The Unit has brought together a multi-disciplinary group of staff from a range of disciplines to undertake various forms of advanced materials research, including such topics as composites, materials characterisation, sensors, biomaterials, plasma processing, metal forming, nanoscience and nanofabrication.
NIBEC represents a consolidation of eight advanced functional materials research groups, dealing with thin film material types used in electronics, photonics, nanotechnology, sensors, MEMS, optical, environmental, magnetic and bio-material devices.
The research lab of Prof. Massood Tabib-Azar at the University of Utah's Department of Electrical and Computer Engineering studies include non-volatile memory devices, microfluidics, microwave technologies for nanometrology, MEMS and NEMS, molecular electronics, and novel electronic materials (carbon nanotubes, and nano-particles) and devices.
Research interests of the group is focused on quantum nanophysics with large molecules and nanoparticles: Matter-wave coherence, interference and decoherence; Quantum-enhanced molecule & cluster metrology; New trapping and cooling schemes; New molecular beam and detection methods.
The research activity of the Colloid Chemistry Group is focused on the synthesis and formation mechanisms of metal, semiconductor, magnetic and hybrid nanoparticles with controlled composition, size and morphology; the creation of colloidal composites; nanostructured thin films and nanoparticle ordered arrays in two and three dimensions; the optical characterization of nanoparticles and their assemblies; and the use of metal nanoparticles as biosensors. The group is closely linked to the BioNanoPlasmonics Lab at CIC biomaGUNE.