4-Year Curriculum & Unit Credit Matrix
Comprehensive Semester Syllabi Breakdown & University Credit Distribution
The Bachelor of Technology (B.Tech) program in Artificial Intelligence and Data Science is structured over eight academic semesters spanning four degree tiers. This matrix details the distribution of basic science, core engineering, professional electives, and capstone research requirements mandated by university accreditation standards.
Tier 1: First Year (FY) - Semester 1 & Semester 2
The foundational year establishes core competencies in computational programming, applied physical sciences, linear vector algebra, and discrete network architectures.
- Fundamentals of Python Programming (FPP): 4 Credits (3 Hrs Theory + 2 Hrs Practical) — Object-oriented execution, file memory models, and exception handling.
- Applied Engineering Physics: 4 Credits (3 Hrs Theory + 2 Hrs Practical) — Quantum wave mechanics, laser physics, and semiconductor devices.
- Vector Calculus & Matrix Algebra: 4 Credits (3 Hrs Theory + 1 Hr Tutorial) — Eigenvalues, gradient fields, and vector line/surface integrals.
- Introduction to Artificial Intelligence: 3 Credits (3 Hrs Theory) — State-space search, heuristic functions ($A^*$), and logic unification.
- Foundations of Computer Security & Networks: 3 Credits (3 Hrs Theory) — OSI model, TCP/IP protocols, routing algorithms, and RSA cryptography.
Tier 2: Second Year (SY) - Semester 3 & Semester 4
The intermediate tier transitions students into low-level data structures, algorithmic complexity, relational database optimization, and operating system kernels.
Tier 3: Third Year (TY) - Semester 5 & Semester 6
The advanced tier focuses on specialized statistical machine learning models, deep learning neural networks, distributed cloud compute frameworks, and big data streaming pipelines.
Tier 4: Final Year - Semester 7 & Semester 8
The terminal year is dedicated to applied industry capstone projects, natural language processing (NLP), generative LLM fine-tuning, computer vision systems, and peer-reviewed thesis publications.
"A well-structured engineering curriculum ensures that students master physical and mathematical fundamentals before tackling abstract algorithmic pipelines." — Sarthak Pawar, Lead Curator