MNS 10 Materials and Nanosciences Seminar
Lectures, workshops, or seminars focusing on academic and professional development.
- Prerequisites
- Enrolled in H-Materials & Nanosciences
11 undergraduate courses in the 2026–27 Undergraduate Calendar.
Lectures, workshops, or seminars focusing on academic and professional development.
Overview of materials, including physical and chemical classification of materials, and structure-property relationships; survey of emerging fields in materials and nanoscience research such as nanotechnology, quantum materials and devices, bionic research; societal impacts of materials and nanoscience research.
Overview of materials synthesis, including both wet chemical and dry physical based methodologies; basic metrology and materials characterization of surface and bulk properties; introduction to the design, fabrication, and evaluation of simple devices; survey of emerging new techniques in materials and nanosciences.
The laboratory course is aimed at students enrolled in the MNS program and is composed of experiments involving the syntheses of materials and nanoparticles; in addition to their characterization and application using modern instrumentation techniques.
Crystal structures and bonding in solids; introduction to diffraction, solid state synthesis, and thermal analysis techniques employed in the study of materials; defects, non-stoichiometry, and solid solutions; phase diagrams for solid systems.
Physical properties of crystalline and amorphous solids; introduction to electric, magnetic and optical properties of solids.
Optical properties of and electrical transport in materials; topics may include insulators, semiconductors, metals, superconductors and their applications in photovoltaics, thermoelectrics, and nanocomposites.
Basic definitions and polymer nomenclature, molecular weight distributions and averages, molecular weight measurements, step-growth and radical chain polymerization reactions, chain conformations, glass transition, crystallization, mechanical properties of polymers, phase behaviour and morphologies, and self-assembly.
Mechanical, chemical and biological properties of biomaterials; relationships between biomaterials and their properties, functions, manufacture, and applications; applications of biomaterials in technologies, such as tissue engineering, prosthesis manufacture, drug delivery systems, bioreactors.
After a review of the essential concepts in solid-state materials, in-depth discussion includes two or three of the following topics: transistors, semiconducting materials and devices, superconducting materials and superconductivity-based devices (such as Josephson junctions, SQUIDS), effects of low dimensionality and interfaces, quantum dots, magnetoresistance, spintronics, multiferroics, topological phases, and, nanofabrication of new materials.
After a review of the essential concepts in nanobiomaterials, in-depth discussion includes two or three of the following topics: biomaterials on atomic and nanometre scales in which DNA, RNA, and/or polypeptides are incorporated as components; physical, chemical, and biological processes; nanoscale forces, adhesion, indentation; applications in nanomotors, nanobiomimetic materials, nanocomposite materials, and nanobiosensors.