Conceptual clarity
Students retain far more when a governing principle is established before its applications are introduced.
Teaching
Building Scientific Understanding Through Fundamentals, Application and Research
A teaching outlook shaped by laboratory practice: concepts introduced first, then tested against measurements that students are asked to interpret for themselves.
Philosophy
What effective learning requires
Six commitments that shape how a course is structured and how students are assessed.
Real-world context
Thermodynamics and transport become memorable when anchored to a working cell, an electrode failure or a characterisation result.
Active participation
Sessions are structured so that students reason aloud, defend an approach and revise it in response to evidence.
Scientific questioning
Asking why a measurement looks the way it does matters more than reproducing a derivation from memory.
Experimental reasoning
Interpreting imperfect data — noise, artefacts, competing explanations — is treated as a core skill.
Constructive feedback
Frequent, specific and low-stakes feedback is used in preference to a single terminal judgement.
Approach
Classroom and laboratory practice
- Active learning
- Problem-based exercises
- Case studies
- Research-paper discussions
- Pre-class preparation
- Interactive quizzes
- Continuous assessment
- Laboratory integration
- Team-based projects
- Scientific communication
Research-Integrated Learning
Bringing current research into coursework
Where course level permits, students may be introduced to the working habits of research rather than only its conclusions.
- Current scientific literature
- Open-ended technical problems
- Experimental design
- Data interpretation
- Research-gap identification
- Presentation and technical writing
Course Areas
Potential teaching and course-contribution areas
These are areas in which Dr. Ayush Chandra Pundir is prepared to contribute. They are not a record of independently taught courses.
- 01Introduction to Materials Science and Engineering
- 02Energy Materials
- 03Electrochemistry for Engineers
- 04Battery Science and Technology
- 05Nanomaterials and Nanotechnology
- 06Functional Materials
- 07Materials Characterisation
- 08Sustainable Energy Technologies
- 09Electrochemical Characterisation
- 10Advanced Energy-Storage Systems
Potential teaching and course-contribution areas.
Course Design
Teaching workflow
A repeatable weekly structure that moves from preparation through application to feedback.
- 01Pre-Class Preparation
- 02Concept Foundation
- 03Application Example
- 04Problem Solving
- 05Laboratory or Data Analysis
- 06Discussion
- 07Assessment
- 08Feedback