Teaching

An overview of my teaching experience at Texas A&M University

Teaching Philosophy

My teaching approach emphasizes building intuition and understanding foundational concepts, particularly for students from diverse academic backgrounds. I believe in creating accessible learning materials that bridge theoretical concepts with practical applications, while maintaining academic rigor appropriate to the course level. In laboratory settings, I prioritize hands-on learning, safety, and the development of experimental skills critical to engineering practice.


Teaching Experience

Statistical Inference (STAT 201)

Role: Teaching Assistant | Students: 200+ | Level: Undergraduate

A mandatory statistics course serving students from diverse majors and backgrounds, requiring tailored pedagogical approaches to accommodate varying levels of mathematical preparation.

Responsibilities:

  • Curriculum Development: Created comprehensive tutorial materials and teaching modules that became the standard for subsequent course offerings
  • Examination & Assessment: Designed and graded exams and assignments for over 200 students per semester
  • Tutorial Instruction: Conducted weekly tutorial sessions, focusing on building intuitive understanding for students without strong mathematical backgrounds
  • Technical Training: Developed and taught modules on statistical software tools (R and JMP) for data analytics applications
  • Online Learning Adaptation: During COVID-19, transitioned to remote instruction including recording lectures and creating online course materials
  • Student Support: Provided extensive support to students from non-quantitative majors, using intuition-based explanations and detailed conceptual breakdowns

Key Achievements:

  • Developed reusable curriculum materials adopted by subsequent course sections
  • Successfully taught complex statistical concepts to students with minimal mathematical background
  • Managed large-scale course logistics with diverse student population
Course Syllabus (Click to expand)
  • Chapter 1: Introduction to Data
  • Chapter 2: Exploratory Data Analysis
  • Chapter 3: Association and Correlation
  • Chapter 4: Probability and Distributions
  • Chapter 5: Sampling Distributions
  • Chapter 6: Statistical Inference
  • Chapter 7: Hypothesis Testing
  • Chapter 8: Regression

Heat Transfer (MEEN 641)

Role: Teaching Assistant | Level: Senior Undergraduate / Graduate

An advanced technical course in thermal sciences requiring rigorous understanding of heat transfer principles and their engineering applications.

Responsibilities:

  • Office Hours & Student Support: Conducted regular office hours to assist with complex problem-solving and conceptual understanding
  • Assessment Development: Created and graded assignments, exams, and course projects with advanced technical content
  • Tutorial Instruction: Led tutorial sessions covering advanced heat transfer topics
  • Guest Lecturing: Substituted for professor when necessary, delivering lectures on course material
  • ABET Assessment: Conducted program accreditation assessments in compliance with ABET standards
  • Advanced Problem Support: Provided guidance on complex assignments appropriate for senior and graduate-level students

Key Skills:

  • Managing technically rigorous coursework at advanced undergraduate/graduate level
  • ABET accreditation documentation and assessment
  • Balancing theoretical foundations with engineering applications
Course Syllabus (Click to expand)
  • Chapter 1: Introduction to Heat Transfer - Physical origins and three modes of heat transfer, rate equation
  • Chapter 2: Introduction to Conduction - Conduction rate equation, boundary and initial conditions
  • Chapter 3: One-Dimensional, Steady-State Conduction - Plane wall, radial systems, thermal energy generation, extended surfaces
  • Chapter 4: Two-Dimensional, Steady-State Conduction - Shape factor, finite-difference equations, nodal network, energy balance
  • Chapter 5: Transient Conduction - Lumped capacitance method, spatial effects in plane wall and radial systems
  • Chapter 6: Introduction to Convection - Boundary layers, local and average coefficients, laminar and turbulent flow
  • Chapter 7: External Flow - Empirical method, flat plate in parallel flow, cylinder and sphere in cross flow
  • Chapter 8: Internal Flow - Hydrodynamic and thermal conditions, laminar and turbulent flow in circular tubes
  • Chapter 9: Free Convection - Physical considerations, laminar free convection, combined free and forced convection
  • Chapter 10: Heat Exchangers - Types, overall heat transfer coefficient, LMTD, effectiveness-NTU method
  • Chapter 11: Radiation Processes and Properties - Basic concepts, blackbody radiation, gray surface
  • Chapter 12: Radiation Exchange Between Surfaces - View factor, blackbody and gray surface radiation exchange

Heat Transfer Laboratory (MEEN 461 Lab)

Role: Instructor (Independent) | Level: Undergraduate

A hands-on laboratory course where I served as the sole instructor, with full responsibility for course delivery, safety management, and student assessment.

Responsibilities:

  • Independent Course Instruction: Sole instructor with complete responsibility for all aspects of course delivery (no faculty involvement)
  • Instructional Material Development: Created comprehensive lecture slides and notes explaining experimental theory, significance, and procedures
  • Lab Manual Creation: Developed detailed laboratory manuals for all experiments corresponding to MEEN 461 course chapters
  • Experimental Demonstrations: Performed live demonstrations of experimental procedures and equipment operation
  • Safety Management: Ensured strict adherence to laboratory safety protocols and proper handling of expensive experimental equipment
  • Equipment Stewardship: Supervised the safe operation and maintenance of costly thermal science laboratory apparatus
  • Group Management: Facilitated effective team dynamics within student groups of 4-5 members
  • Assessment: Graded laboratory reports and exams, evaluating both technical understanding and experimental proficiency

Key Challenges Addressed:

  • Full instructional autonomy requiring comprehensive preparation and subject mastery
  • Balancing educational objectives with critical safety requirements
  • Managing group dynamics and ensuring equitable participation
  • Teaching practical experimental skills alongside theoretical concepts
  • Maintaining expensive equipment while enabling hands-on learning

Laboratory Experiments:

Experiments aligned with heat transfer theory covering:

  • Conduction experiments (steady-state and transient)
  • Convection measurements (forced and natural)
  • Radiation heat transfer
  • Heat exchanger performance analysis

Skills Developed Through Teaching

Pedagogical Skills:

  • Curriculum development and instructional design
  • Adapting teaching methods for diverse student backgrounds
  • Online course delivery and remote instruction
  • Large-scale classroom management (200+ students)
  • Laboratory instruction and experimental demonstration
  • Independent course leadership

Technical Skills:

  • Statistical software instruction (R, JMP)
  • ABET accreditation processes and assessment
  • Advanced engineering problem-solving instruction
  • Experimental equipment operation and troubleshooting
  • Laboratory safety protocols and risk management

Leadership & Management:

  • Group dynamics facilitation
  • Safety compliance and enforcement
  • Equipment stewardship and resource management
  • Autonomous course delivery

Communication:

  • Translating complex technical concepts into accessible explanations
  • Building conceptual intuition for mathematically challenging topics
  • Providing effective feedback through grading and office hours
  • Demonstrating experimental procedures clearly and safely