Metallurgical & Materials Engineering / MG Curriculum Highlights
B.Tech · AI-Integrated Curriculum

From Metals to Smart Materials
Build the Future.

A future-ready curriculum designed to meet industry and research demands simultaneously. Our "Materials Innovation Spine" runs across all semesters — integrating Advanced Materials, Artificial Intelligence, Sustainability, and Digital & Smart Manufacturing. Instead of treating them as optional topics, they are embedded into the core learning experience from Year 1.

AI & Data-Driven
Materials Engineering
Industry 4.0 &
Smart Manufacturing
Sustainability &
Green Metallurgy
100% Placement
Assistance
4 Years 8 Semesters
170 Total Credits
4 Elective Groups
20+ Elective Options
10+ Labs
Materials Innovation Spine
01 · Curriculum Navigator

Programme at a Glance

The B.Tech Metallurgical & Materials Engineering programme runs for 4 years across 8 semesters, with a total of 170 credits. The curriculum offers 4 elective groups with 20+ elective options, including industry-linked electives, multiple specialisation pathways, Minor and Honours tracks, MOOC integration, mandatory industry internships, and 10+ advanced laboratories.

4 Years · 8 Semesters
Duration

Structured progression from foundation through specialisation, with flexibility in final-year electives and pathways.

170 Credits
Total Credits

Balanced distribution across theory, labs, projects, electives, internships and skill-based courses.

4 Groups · 20+ Options
Electives

Industry-linked electives covering AI, Smart Manufacturing, Green Metallurgy, and Advanced Materials.

Minor & Honours
Pathways

Multiple Minor options (15 credits) and Honours pathways (15 credits) with MOOC / self-paced integration.

02 · Programme Philosophy

Materials Innovation Spine

Designed to meet industry and research demands simultaneously. This programme is built with a "Materials Innovation Spine" running across all semesters — integrating:

  • Advanced Materials — nanomaterials, smart materials, high-entropy alloys, biomaterials
  • Artificial Intelligence — materials informatics, generative AI for engineers, data analytics
  • Sustainability — green metallurgy, recycling, waste utilisation, pollution control
  • Digital & Smart Manufacturing — Industry 4.0, automation, digital twins, robotics

Instead of treating these as optional topics, they are embedded into the core learning experience from Year 1.

03 · Why this Curriculum Stands Out

Distinctive Features

  • "Materials Innovation Spine" instead of traditional metallurgy-only approach
  • Strong integration of AI + Data + Materials Engineering from Semester 2
  • Strong focus on Sustainability & Green Metallurgy across all semesters
  • Hands-on learning through labs, projects & internships
  • Multiple Specialisation Pathways — AI, Smart Manufacturing, Advanced Materials, Digital Metallurgy
  • Industry-linked electives & real-life exposure
  • Additional skill development certifications
  • Flexible learning via Minor & Honours pathways

Unlike traditional metallurgy programmes, this curriculum prepares students for core industries and emerging technology domains simultaneously.

04 · Core Strength of the Curriculum

Foundation Pillars

Metallurgical Core

  • Ironmaking & Steelmaking
  • Extractive Metallurgy
  • Thermodynamics & Phase Transformations

Materials Engineering

  • Polymers, Ceramics & Composites
  • Mechanical Behaviour of Materials
  • Corrosion & Surface Engineering

Manufacturing & Processing

  • Casting, Forming & Welding
  • Additive Manufacturing
  • Powder Metallurgy

Sustainability

  • Green Manufacturing
  • Recycling & Waste Utilisation
  • Environmental Pollution Control

Unlike conventional programmes, modern materials and digital concepts are introduced from early semesters.

05 · Emerging Technology Integration

Modern Tools, Deeply Embedded

  • Artificial Intelligence in Materials Engineering
  • Materials Informatics & Data Analytics
  • Computational Materials Engineering
  • Python Programming for Engineers
  • Industry 4.0 & Digital Manufacturing
06 · Multiple Specialisation Pathways

Choose Your Focus Track

Students can choose focused tracks in the later semesters — aligned with industry and research demand:

1

Sustainable & Green Metallurgy

  • Materials Recycling & Waste Utilization
  • Green Manufacturing
  • Environmental Pollution Control
  • Materials for Renewable Energy
2

Advanced & Functional Materials

  • Nanomaterials & Smart Materials
  • High Entropy Alloys & Superalloys
  • Materials for Aerospace & Automotive
  • Biomaterials
3

Smart Manufacturing & Industry 4.0

  • Industrial Robotics
  • Automation & Process Control
  • Digital Manufacturing
  • Smart Metallurgical Systems
4

Digital & Computational Metallurgy

  • Materials Informatics
  • Generative AI for Materials Engineers
  • Computational Materials Engineering
  • Digital Twin Systems
07 · Industry-Linked Ecosystem

Industry-Oriented Learning

Industry-Linked Electives
Curriculum

Electives designed in consultation with industry partners — directly aligned with current sector demands.

Industrial Training & Internships
Mandatory

Hands-on industry exposure through structured internships at partner companies and R&D labs.

Real-Time Projects
Applied

Project work on industry problems and real engineering challenges, not abstract textbook exercises.

Interaction Areas
Sectors

Steel & metallurgical industries, Manufacturing & Automotive, Energy & Sustainability, R&D Labs.

08 · Hands-on Learning & Laboratories

10+ Advanced Laboratories

Strong emphasis on learning by doing, not just theory. The department operates ten-plus specialised labs that back every core area of the curriculum:

Metallography & Microscopy Lab
Heat Treatment Lab
Foundry & Welding Lab
Corrosion & Surface Engineering Lab
Material Characterization Lab
Computational Materials Lab
Materials Joining Lab
Foundry Lab
Process Metallurgy Lab
Polymers & Composites Lab
Materials Testing Lab
Non-Destructive Testing Lab
09 · Projects & Innovation Ecosystem

From Mini Projects to Industry Internships

  • Interdisciplinary Innovation Projects
  • Industry-based Problem Solving
  • Mini Project (from early semesters)
  • Major Project / Industry Internship (final year)
  • Interdisciplinary Projects with other departments

Students are also encouraged to participate in:

  • Technical competitions
  • Research projects
  • Startup & incubation support (via Startups Valley TBI)
10 · Additional Skill Development Courses

Job-Ready Skills, Built In

Along with regular subjects, students can pursue specialised certifications:

  • Python & Data Analytics
  • CAD / Simulation Tools
  • Materials Testing & NDT
  • Industrial Safety & Practices
  • Additive Manufacturing
11 · Placement & Career Outcomes

Strong Placement Track Record

  • 100% Placement Assistance
  • Strong placement trends year-on-year
  • Opportunities in Core + IT + Interdisciplinary sectors
  • Recruiters from Steel, Manufacturing, Energy & R&D sectors
₹9 LPA
Highest Package
₹3–6 LPA
Average Range
12 · Career Opportunities

Where Our Graduates Go

Steel & Metallurgical Industries
Core Sector

Iron & steel plants, non-ferrous metallurgy, process engineering roles.

Aerospace & Automotive
High-Tech

Advanced materials for airframes, engine alloys, lightweight composites, EV batteries.

Energy & Renewable Sector
Future Focus

Solar, wind, nuclear materials, battery technology, fuel cells, energy storage.

Semiconductor & Advanced Materials
Emerging

Electronic materials, semiconductor fabrication, nano-devices, functional materials.

Research & Development
Academia

R&D labs (DRDO, ISRO, IISc, IITs, NITs), higher studies and doctoral research.

IT & Data Analytics
Interdisciplinary

Materials informatics, AI/ML engineering roles, data science for manufacturing.

13 · Department Highlights

What Sets Us Apart

  • Only specialised MME programme in the region
  • Experienced & research-oriented faculty
  • Advanced laboratories & research facilities
  • Strong Academic & Industry Integration
  • Proven track record in placements & higher studies
  • Collaborations with industries & research labs
  • Focus on innovation & future technologies
  • Modern curriculum aligned with NEP 2020
14 · Student Journey

Year-by-Year Roadmap

Year 1
Foundation & Exposure
Year 2
Core Metallurgy + Labs
Year 3
Specialisation + Internship
Year 4
Major Project + Placement
15 · Industry Readiness Model

From Classroom to Industry

Step 1
Foundation
Step 2
Core Skills
Step 3
Hands-on Labs
Step 4
Internship
Step 5
Industry Project
Step 6
Placement
16 · MoUs & Industry Collaborations

Industry Partnerships

Peekay Steel CastingsCalicut
Vijay SpheroidalsBengaluru
LG & BCoimbatore
Diamond NDT InspectionHosur
CUSAT STICSophisticated Testing & Instrumentation Centre
KEMPIIIndustry Partner
META GATEIndustry Partner
JSWIndustry Partner

Shape the Future with Materials Engineering

Be part of a future-ready programme that combines core engineering with cutting-edge technologies.