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B-TECH in Materials Science And Engineering at Indian Institute of Technology Kanpur
Kanpur Nagar, Uttar Pradesh
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About the Specialization
What is Materials Science and Engineering at Indian Institute of Technology Kanpur Kanpur Nagar?
This Materials Science and Engineering program at IIT Kanpur focuses on understanding, designing, and manipulating materials at atomic to macroscopic scales. With India''''s growing manufacturing, aerospace, and electronics sectors, there''''s a significant demand for materials engineers who can innovate sustainable and advanced materials solutions. This program distinguishes itself through a strong emphasis on fundamental science, computational tools, and hands-on experimental work, preparing graduates for cutting-edge R&D and industrial applications.
Who Should Apply?
This program is ideal for high-achieving 10+2 graduates with a strong aptitude for Physics, Chemistry, and Mathematics, demonstrated through their JEE Advanced performance. It also suits those passionate about scientific inquiry, problem-solving, and developing novel materials for diverse applications. Individuals interested in research, product development, or optimizing material performance in various industries will find this curriculum particularly rewarding.
Why Choose This Course?
Graduates of this program can expect diverse career paths in India''''s rapidly expanding materials-dependent industries, including automotive, defense, energy, and biomedical. Entry-level salaries typically range from INR 8-15 LPA, growing significantly with experience. Roles include R&D Engineer, Process Metallurgist, Quality Control Engineer, or Materials Consultant. The strong research focus also prepares students for higher studies (M.Tech, PhD) at leading institutions globally.
Student Success Practices
Foundation Stage
Master Core Science and Math- (Semester 1-2)
Focus on building a solid foundation in calculus, physics, and chemistry by diligently attending lectures, solving practice problems, and utilizing online resources like NPTEL lectures and Khan Academy. A strong grasp of these fundamentals is crucial for understanding advanced materials concepts and cracking competitive exams like GATE.
Tools & Resources
NPTEL, Khan Academy, Standard textbooks
Career Connection
A strong foundation in core sciences enhances problem-solving abilities, which is critical for R&D roles and for excelling in technical interviews and higher studies entrance exams.
Develop Programming Skills- (Semester 1-2)
Prioritize learning C/C++ or Python through courses like Introduction to Computing (ESC102A) and supplementing with self-study platforms. Programming skills are essential for computational materials science, data analysis, and modeling, opening doors to advanced research and tech-driven roles in materials informatics.
Tools & Resources
HackerRank, CodeChef, GeeksforGeeks
Career Connection
Proficiency in programming is highly sought after for roles in computational materials engineering, data science, and academic research, enabling students to tackle complex simulations and data analysis.
Engage in Early Research Exposure- (Semester 1-2)
Seek out professors for informal discussions, attend departmental seminars, or participate in Undergraduate Research Opportunity Programs (UROP) even in the first year. This helps in understanding various research areas, developing scientific temper, and identifying potential areas of specialization early on for future projects and electives.
Tools & Resources
Departmental faculty, UROP programs, Seminar series
Career Connection
Early research experience builds a strong academic profile, provides networking opportunities, and can lead to strong recommendation letters for higher studies or specialized job roles.
Intermediate Stage
Deep Dive into Materials Fundamentals- (Semester 3-5)
Systematically study core departmental courses like Materials Thermodynamics, Structure of Materials, and Mechanical Behaviour of Materials. Form study groups, participate in discussions, and clarify doubts promptly to ensure a robust grasp of foundational concepts, which is critical for advanced electives, laboratory work, and B.Tech projects.
Tools & Resources
Study groups, Peer discussions, Course textbooks and notes
Career Connection
A deep understanding of core materials science principles is indispensable for design, development, and failure analysis roles, making graduates highly competent in industry and research.
Gain Hands-on Lab Experience- (Semester 3-5)
Maximize learning from practical courses such as Materials Characterization Lab (MSE304A) and Mechanical Testing Lab (MSE313A). Actively participate in experiments, understand the working principles of equipment, and critically analyze results. Practical skills in microscopy, diffraction, and mechanical testing are highly valued in both industrial R&D and academic research settings.
Tools & Resources
Departmental laboratories, Lab manuals, Demonstrations
Career Connection
Practical laboratory skills are crucial for roles in quality control, process engineering, and research, providing a competitive edge in job placements and postgraduate studies.
Explore Departmental Electives Strategically- (Semester 3-5)
Research and choose Departmental Electives (DEs) that align with emerging fields like nanomaterials, biomaterials, or advanced manufacturing. Attend seminars and talk to seniors and professors to make informed choices, building specialized knowledge that can define your career path or focus for higher studies.
Tools & Resources
Departmental website, Faculty consultations, Alumni network
Career Connection
Strategic selection of electives allows for specialization, making graduates more attractive to specific industry segments or for pursuing niche research areas in higher education.
Advanced Stage
Excel in B.Tech Project- (Semester 6-8)
Treat B.Tech Project I & II (MSE498A, MSE499A) as a capstone experience to demonstrate your cumulative knowledge and skills. Choose a challenging topic, work closely with your advisor, aim for publishable quality research, and present your findings effectively. This showcases problem-solving abilities, research aptitude, and often leads to strong recommendation letters or direct job opportunities.
Tools & Resources
Faculty advisors, Research labs, Literature databases (Scopus, Web of Science)
Career Connection
A strong B.Tech project is a major asset for both placements and higher studies, demonstrating independent research capability and a deep understanding of a specialized area.
Network and Prepare for Placements/Higher Studies- (Semester 6-8)
Actively participate in departmental seminars, industry talks, and alumni events to build your professional network. Tailor your resume/CV, practice interview skills, and prepare for competitive exams (GATE for India, GRE/TOEFL for abroad) well in advance, leveraging career development resources provided by the institute.
Tools & Resources
Career Development Center, LinkedIn, Alumni association
Career Connection
Effective networking and rigorous preparation directly impact placement success and admission into top graduate programs, leading to accelerated career growth.
Develop Professional Communication- (Semester 6-8)
Enhance presentation and technical writing skills through seminars (MSE401A), project reports, and potential research papers. Practice articulating complex scientific and engineering ideas clearly and concisely. Strong communication is vital for conveying research findings, writing effective reports in industry, and collaborating with diverse teams.
Tools & Resources
Presentation software, Technical writing guides, Peer review
Career Connection
Excellent communication skills are essential for leadership roles, client interactions, and publishing research, significantly boosting career progression in any domain.
Program Structure and Curriculum
Eligibility:
- Passed 10+2 (or equivalent) examination with Physics, Chemistry, and Mathematics. Secured a valid rank in JEE Advanced. Minimum 75% aggregate marks in 10+2 or rank among top 20 percentile of respective board (for General/OBC-NCL/EWS) or 65% aggregate marks (for SC/ST/PwD).
Duration: 8 semesters / 4 years
Credits: 170 Credits
Assessment: Internal: Determined by individual course instructors through quizzes, assignments, projects, and laboratory work., External: Determined by individual course instructors through mid-semester and end-semester examinations. Relative grading system is followed.
Semester-wise Curriculum Table
Semester 1
| Subject Code | Subject Name | Subject Type | Credits | Key Topics |
|---|---|---|---|---|
| MTH101A | Mathematics I | Science Core | 4 | Calculus of one variable, Sequences and series, Limits and continuity, Derivatives and applications, Integration techniques |
| PHY101A | Physics I | Science Core | 4 | Classical mechanics, Special relativity, Oscillations and waves, Conservation laws, Gravitation |
| TA101A | Engineering Graphics | Engineering Science Core | 3 | Orthographic projections, Isometric drawing, Sections and developments, Introduction to CAD software, Geometric constructions |
| ESC101A | Introduction to Engineering | Engineering Science Core | 1 | Engineering disciplines, Design process, Engineering ethics, Problem-solving approaches, Case studies in engineering |
| HSS Elective I | Humanities and Social Sciences Elective I | Humanities and Social Sciences | 3 | Varies by chosen elective |
| Open Elective I | Open Elective I | Open Elective | 3 | Varies by chosen elective |
| PE101 | Physical Education I | Non-credit | 1 | Sports activities, Physical fitness, Health and wellness |
| LIF101 | Life Skills | Non-credit | 1 | Communication skills, Teamwork, Problem-solving, Emotional intelligence, Leadership fundamentals |
Semester 2
| Subject Code | Subject Name | Subject Type | Credits | Key Topics |
|---|---|---|---|---|
| MTH102A | Mathematics II | Science Core | 4 | Multivariable calculus, Vector calculus, Linear algebra, Partial differential equations, Matrices and determinants |
| CHM101A | Chemistry I | Science Core | 4 | Quantum mechanics, Chemical bonding, Organic reactions, Inorganic chemistry, Electrochemistry |
| ESC102A | Introduction to Computing | Engineering Science Core | 4 | Programming fundamentals, Data structures, Algorithms, Problem-solving, Introduction to Python/C++ |
| ESC103A | Introduction to Electrical Engineering | Engineering Science Core | 3 | Circuit analysis, Electromagnetism, Basic electronics, Transformers, Power systems |
| HSS Elective II | Humanities and Social Sciences Elective II | Humanities and Social Sciences | 3 | Varies by chosen elective |
| Open Elective II | Open Elective II | Open Elective | 3 | Varies by chosen elective |
| PE102 | Physical Education II | Non-credit | 1 | Sports activities, Team sports, Advanced fitness techniques |
Semester 3
| Subject Code | Subject Name | Subject Type | Credits | Key Topics |
|---|---|---|---|---|
| MTH203A | Numerical Analysis | Science Core | 3 | Solutions of equations, Interpolation and approximation, Numerical differentiation, Numerical integration, Ordinary differential equations |
| MSE201A | Introduction to Materials Science and Engineering | Departmental Core | 4 | Atomic bonding and crystal structures, Crystallography, Imperfections in solids, Diffusion in materials, Mechanical properties |
| MSE202A | Materials Thermodynamics | Departmental Core | 4 | Laws of thermodynamics, Free energy and equilibrium, Phase diagrams, Thermodynamics of solutions, Phase transformations |
| MSE203A | X-Ray Diffraction and Electron Microscopy | Departmental Core | 3 | X-ray diffraction principles, Electron microscopy techniques (SEM, TEM), Microstructural characterization, Crystal structure determination, Image analysis |
| ESC201A | Engineering Mechanics | Engineering Science Core | 4 | Statics of rigid bodies, Dynamics of particles, Dynamics of rigid bodies, Work, energy, momentum, Friction and distributed forces |
| HSS Elective III | Humanities and Social Sciences Elective III | Humanities and Social Sciences | 3 | Varies by chosen elective |
Semester 4
| Subject Code | Subject Name | Subject Type | Credits | Key Topics |
|---|---|---|---|---|
| MSE211A | Structure of Materials | Departmental Core | 3 | Crystalline solids, Amorphous materials, Defects and dislocations, Interfaces and grain boundaries, Polymer structures |
| MSE212A | Mechanical Behaviour of Materials | Departmental Core | 4 | Stress-strain relationships, Elasticity and plasticity, Fracture mechanics, Fatigue and creep, Hardness and impact testing |
| MSE213A | Phase Transformations | Departmental Core | 4 | Nucleation and growth, Diffusion-controlled transformations, Solidification processes, Heat treatments (annealing, quenching), Phase transformation kinetics |
| MSE214A | Kinetic Processes in Materials | Departmental Core | 4 | Diffusion mechanisms, Reaction kinetics, Surface phenomena, Grain growth, Sintering |
| ESC202A | Introduction to Electronics | Engineering Science Core | 3 | Semiconductor devices (diodes, transistors), Amplifier circuits, Digital electronics fundamentals, Operational amplifiers, Feedback principles |
| HSS Elective IV | Humanities and Social Sciences Elective IV | Humanities and Social Sciences | 3 | Varies by chosen elective |
Semester 5
| Subject Code | Subject Name | Subject Type | Credits | Key Topics |
|---|---|---|---|---|
| CHM201 | Chemistry II | Science Core | 3 | Advanced organic chemistry, Coordination chemistry, Polymer chemistry, Spectroscopic techniques, Surface chemistry |
| MSE301A | Functional Materials | Departmental Core | 3 | Electronic materials, Magnetic materials, Optical materials, Ferroelectric materials, Smart materials |
| MSE302A | Materials Processing | Departmental Core | 4 | Casting and solidification, Deformation processing (rolling, forging), Welding and joining, Powder metallurgy, Advanced manufacturing techniques |
| MSE303A | Computational Materials Science | Departmental Core | 3 | Simulation methods (DFT, MD), Finite element analysis, Phase-field modeling, Statistical mechanics in materials, Materials databases |
| MSE304A | Materials Characterization Lab | Departmental Core | 3 | X-ray diffraction experiments, Scanning electron microscopy (SEM) techniques, Transmission electron microscopy (TEM) experiments, Optical microscopy, Spectroscopic analysis |
| Departmental Elective I | Departmental Elective I | Departmental Elective | 3 | Varies by chosen elective |
| HSS Elective V | Humanities and Social Sciences Elective V | Humanities and Social Sciences | 3 | Varies by chosen elective |
| Open Elective III | Open Elective III | Open Elective | 3 | Varies by chosen elective |
Semester 6
| Subject Code | Subject Name | Subject Type | Credits | Key Topics |
|---|---|---|---|---|
| MSE311A | Corrosion Engineering | Departmental Core | 3 | Electrochemistry of corrosion, Types of corrosion (uniform, pitting, galvanic), Corrosion prevention methods, Materials selection for corrosion resistance, High-temperature corrosion |
| MSE312A | Composites and Polymers | Departmental Core | 3 | Polymer structure and properties, Polymerization techniques, Composite manufacturing methods, Fiber-reinforced composites, Applications of polymers and composites |
| MSE313A | Mechanical Testing Lab | Departmental Core | 3 | Tensile testing, Compression testing, Hardness testing, Impact testing, Fatigue and creep testing |
| Departmental Elective II | Departmental Elective II | Departmental Elective | 3 | Varies by chosen elective |
| Departmental Elective III | Departmental Elective III | Departmental Elective | 3 | Varies by chosen elective |
| HSS Elective VI | Humanities and Social Sciences Elective VI | Humanities and Social Sciences | 3 | Varies by chosen elective |
| Open Elective IV | Open Elective IV | Open Elective | 3 | Varies by chosen elective |
| MSE391A | Summer Project | Project | 0 | Independent research, Literature review, Experimental design, Data analysis, Technical reporting |
Semester 7
| Subject Code | Subject Name | Subject Type | Credits | Key Topics |
|---|---|---|---|---|
| MSE401A | Seminar | Departmental Core | 2 | Technical presentation skills, Literature review, Current topics in materials science, Scientific communication, Critical analysis |
| MSE498A | B.Tech Project I | Departmental Core | 6 | Problem identification, Project planning and execution, Experimental work/simulations, Data interpretation, Interim report writing |
| Departmental Elective IV | Departmental Elective IV | Departmental Elective | 3 | Varies by chosen elective |
| Departmental Elective V | Departmental Elective V | Departmental Elective | 3 | Varies by chosen elective |
| Departmental Elective VI | Departmental Elective VI | Departmental Elective | 3 | Varies by chosen elective |
| Open Elective V | Open Elective V | Open Elective | 3 | Varies by chosen elective |
Semester 8
| Subject Code | Subject Name | Subject Type | Credits | Key Topics |
|---|---|---|---|---|
| MSE499A | B.Tech Project II | Departmental Core | 12 | Advanced experimental design, In-depth analysis of results, Scientific writing and publication, Project defense, Innovation and problem-solving |
| Departmental Elective VII | Departmental Elective VII | Departmental Elective | 3 | Varies by chosen elective |
| Departmental Elective VIII | Departmental Elective VIII | Departmental Elective | 3 | Varies by chosen elective |
| Open Elective VI | Open Elective VI | Open Elective | 3 | Varies by chosen elective |
