This concentration allows students to study atoms and molecules used to create computer chips and other devices that are the size of a few nanometres - thousands of times smaller than current technology permits. Such discoveries will be useful in a number of fields, including aerospace, medicine, and electronics.
At Carleton, you will examine nanoscience through the disciplines of physical chemistry and electrical engineering to understand the physical, chemical and electronic characteristics of matter in this size regime. The combination of these two areas of study will equip you to fully understand nanoscience in photonic, electronic, energy and communication technologies. The focus of the program will be on materials - their use in electronic devices, their scalability and control of their properties.
The group studies the link between structure and mechanical properties in biological systems. They are particularly interested in self-assembled protein filaments like collagen fibrils, intermediate filaments and myosin thick filaments.
Through courses already offered in the Faculties of Science, Engineering, and Medicine, depending on the courses completed, undergraduate students will acquire knowledge in areas related to nanotechnology.
Investigation of semiconductors and devices for optoelectronic applications including photovoltaic energy conversion and optical communications. Development of thin film transistors for electronic displays and imaging systems.
The group's research in micro- and nanobioengineering is focused on miniaturizing biological experimentation to microscopic scales and progresses along two axes: Firstly, create tools and use them for precisely controlling and varying the cellular microenvironment, which will allow studying the response of cells and groups of cells to external cues and stimuli applied to single cells. Secondly, the large scale parallelization of the biological experiments for both protein analysis and cell biological experiments.
The group's research focuses on the application and development of advanced microscopy techniques to study the structure of materials at very high spatial resolution. The core area of research is based on transmission electron microscopy methods but they also use scanning probe techniques and other characterization techniques to provide information on how the structure of materials affects the properties these materials exhibit.
The Research center NanoQAM is a grouping of five laboratories in nanotechnologies of the Université du Québec à Montréal which offer their knowledge and expertise in nanomanufacturing using polymers, development of high-energy nanomaterials, renewable energies, nanoimaging, green chemistry as well as the development of biological membranes, biomaterials and biosensors. NanoQAM allows access to its infrastructures and scientific equipment, either for industries and other academic institutions.