Published course
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Advanced Materials and Nanotechnology
Advanced course connecting atomic and mesoscale structure to defects, phase transformations, mechanics, transport, functional properties, surfaces, nanomaterials, composites, characterization and materials-system design.
By @apv
Course details
About this course
- Level
- advanced
- Language
- en-CA
- License
- CC-BY-4.0
- Duration
- Not declared
- Curriculum
- Not declared
- Prerequisites
- Not declared
- Attribution
- APV, Theoria
Technical metadata
Package format and contents
Show technical package details
- Format version
- MCF 1.1
- Lessons
- 45
- Activities
- 78
- Questions
- 220
- Files / assets
- Not reported / Not reported
- Validation
- valid
Learning outcomes
What learners can expect
- Relate bonding, crystal/disordered structure, defects and interfaces to measurable material behavior across length scales.
- Use thermodynamics and kinetics to analyze phase stability, diffusion, nucleation, growth and microstructural evolution.
- Analyze elastic/plastic response, strengthening, fracture, fatigue and anisotropy from underlying mechanisms.
- Calculate thermal, ionic, electrical, dielectric and magnetic response using transparent carrier and constitutive models.
- Distinguish surface, interface, quantum-confinement and boundary-scattering effects in nanoscale systems.
- Use mixture bounds, tensor directionality and architecture scalings to reason about composite and architected materials.
- Interpret diffraction, microscopy, spectroscopy and mechanical measurements with explicit resolution, uncertainty and model limitations.
- Design a materials system against coupled mechanical, thermal, electrical, manufacturing and reliability constraints with sensitivity analysis.
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