The objective of the PhD program is to prepare students for careers in academia, industrial R&D and government research labs. Students from Science and Engineering will work side-by-side in world class laboratory facilities namely, the Giga-to-Nano Electronics Lab (G2N), Waterloo Advanced Technology Lab (WatLAB) and the new 225,000 gross sq. ft. Quantum-Nano Center expected to be completed in early 2011.
The Quantum-Nano Centre (QNC) will be a technology incubator for the 21st Century. From Nano Structures to Quantum Information Processing, the focus of the QNC will be to develop new and practical devices that exploit the laws of quantum mechanics with applications that include computation, information, metrology and material science.
The Waterloo Institute for Nanotechnology (WIN) is a world-class research centre, located at the University of Waterloo (UW) in Ontario, Canada. The campus is home to world-class researchers, flagship research facilities and Canada's largest nanotechnology undergraduate engineering program with over 450 students. The overall objective is to establish WIN as a global centre of excellence for nanotechnology and its applications.
This program investigates the basic theory and applications of nanotechnology in the biological and chemical sciences, in physics and in engineering science. One of these four streams is completed at Levels 2 and 3, with a major project unit in nanotechnology at Level 3.
Nanotechnology needs to be based on a holistic approach in which design embracing environmental issues, including toxicity, are factored in, and this is an integral part of the Centre's activities. The integrated core activities of the Centre cover nano-particles, nano-devices and nano-surfaces (based on biology and 'soft chemistry').
Medical Nanotechnology is the application of the methods and techniques of Nanotechnology to medical and health areas. The student may also choose to specialise in Nanophysics or Nanochemistry opening up alternative career paths in industry (biotechnology, pharmaceutical, health, defence, chemical, petroleum, materials and engineering).
This research theme encompasses applications to nanotechnology with particular emphasis on medical nanotechnology, Nuclear Magnetic Resonance (NMR) and Magnetic Resonance Imaging (MRI) for characterising molecular dynamics.
The lab interested in developing 'smart' biomaterials that mimic the complex signaling environments of natural tissue development. Particular emphasis is placed on temporal and spatial control over growth factor activity, gene transfer, and mechanical stimulation. Includes research on nanostructured materials.
The NSF-sponsored Materials Research Science and Engineering Center at the University of Wisconsin – Madison (UW MRSEC) is focused on the fundamental study of the structure and properties of interfaces at the nanoscale level of atoms and molecules. It is doing so across a wide array of materials platforms, from inorganic semiconducting materials to liquid crystals with engineered defects.
Current research areas include (1) relationship among morphology, size, reactivity and stability of nano-crystals; (2) nanoporous structures and pore surface properties in geological systems; (3) geochemical reactions (with focus on sorption, desorption, precipitation, dissolution, and replacement reactions) in the nanoporous environments; and (4) self-assembled nano-structures in the earth systems.
The National Science Foundation established the Nanoscale Science and Engineering Center at the University of Wisconsin - Madison to explore the self-assembly of complex materials and building blocks at the nanoscale and develop the means of communicating advances in nanotechnology to the public.
Aiming to explore the science of nanomaterials having an electron or charge transfer functionality; to prepare such nanomaterials, study and develop theories for their behaviour, and exploit these new behaviours in useful applications.
The Bachelor of Nanotechnology is an interdisciplinary degree which is jointly offered by the Faculties of Engineering and Science. The degree targets the emerging field of nano-materials, molecular machines and nano-science. The course draws on major research strengths at UOW including: the Intelligent Polymer Research Institute, the Institute for Superconducting and Electronic Materials, the BlueScope Steel Metallurgy Centre and the ARC Centre of Excellence for Electromaterials Science.
The thrust of the institute's activities to date has been to develop more processable Inherently Conducting Polymers and to integrate these functional materials with other host structures with desirable mechanical properties.
Soft Materials Laboratory is a multidisciplinary research team dedicated to understanding bionanomaterials, living polymerization, carbon recovery, polyionics, and molecular energy systems; the soft condensed matter province of physical and life sciences.
The group conducts research in the following areas: Research is in the following areas: Properties of microstructured photonic materials; Electronic and optical properties of nanostructures and other systems; Computer simulation of complex processes in materials using molecular dynamics; Computational micromagnetics and nanomagnetism; Electrons in nanostructures for spin electronics and quantum computing; Molecular modelling of biological macromolecules.
This official Master from Zaragoza University (Spain) has a duration of 18 months and comprises 75 ECTS credits. The course is suitable for graduates with science, engineering, medicine or related degrees keen to develop careers at the forefront of nanoscience and nanotechnology. The course is multidisciplinary and aims to provide students with fundamental knowledge, practical experience, and skills in the fabrication and characterization of nanostructured materials and devices with applications in key areas of nanochemistry, nanophysics, and nanobiomedicine.
The common thread linking the group's research areas is the use of nanoporous interfaces, in a multiplicity of shapes and textures. The group is interested in methods that allow them to develop and control porous structures, and to deploy these structures on a variety of surfaces and environments; they also try to find applications in which nanoporous structures can be employed to modify the performance of different types of devices.