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MSc in Material Science

  • Master Degree
  • M.Sc Engineering
  • Tribhuvan University (TU)
Pulchowk Campus - Institute of Engineering (IOE) Pulchowk, Lalitpur
  • Duration2 Years
  • Total Seats20
  • Study ModeFull Time
  • MediumEnglish

About MSc in Material Science

The MSc in Material Science, formally titled MSc in Material Science and Engineering, is a two-year postgraduate program offered at Pulchowk Campus under the Institute of Engineering (IOE), Tribhuvan University. The program is associated with the Department of Applied Sciences and Chemical Engineering and is organized over four semesters.

Its academic scope combines the scientific study of materials with mathematical methods, quantum mechanics, spectroscopy, materials processing, characterization, research methods, electives, project work, and thesis research. The curriculum covers materials such as metals, ceramics, polymers, composites, biomaterials, electronic materials, and energy-related materials while allowing students to move toward more specialized areas through electives and research.

Quick Highlights

Field Details
Course MSc in Material Science and Engineering
Level Master’s degree
Campus Pulchowk Campus – Institute of Engineering
Department Applied Sciences and Chemical Engineering
University Tribhuvan University
Duration 2 years
Academic structure 4 semesters
Total curriculum 60 credits
Admission framework IOE postgraduate entrance
Major components Core courses, electives, project, thesis
Degree awarded MSc in Material Science and Engineering

Course Overview

The program approaches material science as an interdisciplinary subject linking physics, chemistry, mathematics, engineering, processing, characterization, and research.

Students study how materials are structured, how their physical and functional properties arise, how they are processed, and how they can be analyzed for engineering and scientific applications. The curriculum moves from fundamental material behavior into advanced electrical, optical, dielectric, magnetic, processing, computational, and characterization-related topics.

The course also has a substantial research component. Research Methods and Scientific Communication appears in the first semester, project work is placed in the third semester, and the fourth semester is devoted to thesis work.

At Pulchowk Campus – Institute of Engineering (IOE), the program sits within a wider postgraduate environment covering engineering, applied sciences, energy, computing, planning, and other interdisciplinary areas under Tribhuvan University.

Eligibility

Eligibility: BE/BArch/BSc Agriculture/MSc for 3-year Bachelor Degree, BSc (4 years) or equivalent.

The broad eligibility reflects the interdisciplinary character of material science. Students can enter from engineering, architecture, agriculture, science, or equivalent academic backgrounds that meet the prescribed requirement.

Admission to the program follows the IOE postgraduate admission framework. Candidates satisfying the applicable academic eligibility and passing the IOE postgraduate entrance examination become eligible for admission through the corresponding campus process.

Course Duration and Credit Structure

The MSc in Material Science and Engineering runs for two academic years across four semesters.

The curriculum carries 60 credits in total:

  • First semester: 16 credits
  • Second semester: 16 credits
  • Third semester: 12 credits
  • Fourth semester: 16 credits

The first two semesters concentrate mainly on taught courses. The third semester combines electives with project work, while the fourth semester is devoted to a 16-credit thesis.

Semester-Wise Curriculum

Semester Courses Credits
Year I, Part I Material Science I; Mathematical Methods in Material Science; Quantum Mechanics and Spectroscopy; Research Methods and Scientific Communication 16
Year I, Part II Material Processing; Material Science II; Elective I; Elective II 16
Year II, Part I Elective III; Elective IV; Project 12
Year II, Part II Thesis 16

The sequence moves from scientific and analytical foundations to processing, specialized electives, project work, and independent research.

First Semester: Scientific and Research Foundation

The first semester contains four 4-credit courses.

Material Science I

Material Science I develops an advanced understanding of material structure and physical properties. Topics include crystal and amorphous materials, bonding, crystal systems, Bravais lattices, symmetry, Miller indices, X-ray crystallography, crystal defects, reciprocal lattices, and thermodynamic concepts.

The course also connects crystal structure with electrical, thermal, optical, and related material behaviour.

Mathematical Methods in Material Science

This course provides mathematical tools used to formulate and analyze problems in material behaviour, transport phenomena, solid mechanics, and computational materials science.

Study areas include:

  • matrices and linear algebra;
  • vector calculus;
  • ordinary differential equations;
  • partial differential equations;
  • probability and statistics;
  • mathematical modelling applied to material-science problems.

The subject gives students a quantitative base for later analytical and research work.

Quantum Mechanics and Spectroscopy

Quantum Mechanics and Spectroscopy introduces the concepts and formal methods required to understand microscopic material behaviour.

The course covers wave-particle behaviour, the uncertainty principle, wave functions, operators, eigenvalues, quantum states, quantum confinement, nanomaterials, band theory, and related concepts.

Spectroscopy is integrated into the course through topics involving interaction between radiation and matter, rotational and vibrational spectroscopy, UV-VIS spectroscopy, Raman spectroscopy, and related analytical principles.

Research Methods and Scientific Communication

Research training begins in the first semester rather than being postponed until the thesis stage.

The course covers:

  • research methodology;
  • research design and strategy;
  • literature review;
  • scientific writing;
  • proposal and thesis writing;
  • data collection and management;
  • statistical analysis;
  • research ethics;
  • scientific communication;
  • research tools used in material science.

Its technical component includes exposure to characterization tools such as UV-VIS, FTIR, Raman, NMR, XPS, SEM, TEM, AFM, optical microscopy, and thermal-analysis methods.

Second Semester: Processing and Advanced Material Properties

The second semester combines two core courses with two electives.

Material Processing

Material Processing examines how different materials are prepared, formed, modified, and processed.

Topics include advanced ceramics and glass processing, polymeric and composite materials, metallurgy, powder technology, resource extraction, carbon-related materials, circular-economy concepts, decarbonization, and processing methods relevant to engineering materials.

The course also addresses areas such as carbon capture, biodegradable plastics, biopolymers, carbon-fibre processing, and material-processing routes used for advanced applications.

Material Science II

Material Science II concentrates on functional properties and device-related material behaviour.

Its scope includes:

  • dielectric materials and polarization;
  • piezoelectric and pyroelectric behaviour;
  • ferroelectric materials;
  • semiconductor concepts;
  • electrical properties;
  • magnetic materials;
  • optical properties;
  • luminescence;
  • solar-cell and LED-related materials;
  • superconducting properties.

The subject moves the curriculum from basic material structure toward advanced functional behaviour and applications.

Elective Courses

Electives allow students to concentrate on particular areas of material science and related engineering applications.

Elective I

Options include:

  • Nanotechnology Equipment and Characterization Techniques
  • Semiconductor Devices and Circuits
  • Continuum Mechanics

Elective II

Options include:

  • Advanced Concrete Technology
  • Advanced Materials for Energy Storage
  • Environmental Impact Assessment and Policy
  • Digital System Design

Elective III

Options include:

  • Foundation of Data Science
  • Computational Methods for Material Science
  • Photovoltaic Materials and Technology

Elective IV

Options include:

  • Advanced Pre-Stressed Concrete
  • Biomaterials and Safety
  • Composite, Ceramic and Polymer Materials

The elective structure shows the range of disciplines connected with material science. Students can encounter nanotechnology, electronics, computational methods, energy storage, photovoltaic materials, biomaterials, concrete, and composite systems within the same degree.

Project Work

The third semester includes a 4-credit project alongside Elective III and Elective IV.

The project component is approximately three months of full-time work. Its theme can be developed around several types of material-science problems, including:

  • industrial or organizational problem assessment;
  • literature-based investigation;
  • analytical, experimental, or prototype-based work;
  • case-study research;
  • field-based investigation;
  • characterization of new material;
  • another subject considered relevant within the departmental academic framework.

This stage gives students an opportunity to apply coursework to a defined technical or research problem before undertaking the thesis.

Thesis

The fourth semester consists of a 16-credit thesis.

The thesis is the largest single academic component of the program and places independent research at the centre of the final semester.

Possible work can involve experimental, analytical, computational, characterization, field, industrial, or literature-based approaches, depending on the research question and academic direction.

The progression from research methods in the first semester to project work in the third semester and thesis research in the fourth gives the program a clear research sequence rather than treating the thesis as an isolated final requirement.

Assessment Structure

Core courses in the first and second semesters carry 4 credits each and use an assessment structure of 40 marks for internal assessment and 60 marks for the final examination.

The third-semester electives follow the same 40/60 assessment pattern. The project is assessed for 100 marks without a separate final written examination.

The fourth-semester thesis carries 16 credits and is assessed for 100 marks.

This structure combines formal examinations with research-oriented assessment.

Areas of Learning

The curriculum allows students to work across several branches of material science rather than concentrating on one material family.

Academic areas represented in the course include:

  • crystal structure and solid-state material behaviour;
  • metals and alloys;
  • ceramics and glass;
  • polymers and composites;
  • biomaterials;
  • semiconductor and electronic materials;
  • dielectric and magnetic materials;
  • optical materials;
  • photovoltaic and energy-related materials;
  • nanotechnology and characterization;
  • materials processing;
  • computational and mathematical methods;
  • scientific research and communication.

This interdisciplinary mix is particularly relevant to students whose interests sit between pure science and engineering applications.

Skills Students May Develop

Through coursework, electives, project work, and thesis research, students may develop abilities in:

  • analysis of material structure and properties;
  • mathematical modelling;
  • material-processing concepts;
  • interpretation of physical and functional behaviour;
  • use and understanding of material-characterization methods;
  • research design;
  • scientific data analysis;
  • technical writing;
  • scientific presentation;
  • experimental or computational investigation;
  • independent project and thesis work.

The degree provides an academic and research foundation. The depth of individual skills depends on elective choices, project work, thesis topic, laboratory exposure, and continued professional or academic experience.

Career and Research Directions

Material science connects with several technical and research environments because materials are used across manufacturing, construction, energy, electronics, biomedical applications, and scientific research.

Graduates may consider roles related to:

  • materials engineering;
  • materials research;
  • metallurgy;
  • product and process development;
  • engineering design;
  • physical-science research;
  • materials testing and quality work;
  • technical sales;
  • higher education and research.

Possible sectors include steel and metal industries, cement, chemical and allied industries, paint, biotechnology, environmental work, research and development, academic institutions, consultancy, and technology-related organizations.

Career outcomes depend on academic performance, technical skills, research experience, employer requirements, and available opportunities.

Who May Consider This Program

The program may suit students interested in understanding how the structure, composition, processing, and physical properties of materials influence their engineering or scientific use.

It is particularly relevant to students who want a postgraduate course combining:

  • physics and chemistry of materials;
  • mathematics and computation;
  • laboratory and characterization concepts;
  • engineering applications;
  • research methodology;
  • project work;
  • thesis-based study.

The broad eligibility also makes the program accessible to applicants from several academic backgrounds, provided they meet the prescribed admission conditions.

Frequently Asked Questions

What is the official name of the course?

The degree is titled MSc in Material Science and Engineering.

How long is the program?

The program runs for two years across four semesters.

How many credits are required?

The curriculum contains 60 credits, including a 4-credit project and a 16-credit thesis.

Which department offers the program?

The program is associated with the Department of Applied Sciences and Chemical Engineering at Pulchowk Campus.

What is the eligibility for admission?

The stated eligibility is BE/BArch/BSc Agriculture/MSc for 3-year Bachelor Degree, BSc (4 years) or equivalent.

Is there an IOE entrance examination?

Yes. Admission follows the IOE postgraduate entrance framework.

Does the program include research work?

Yes. Research Methods and Scientific Communication is included in the first semester, followed by project work in the third semester and thesis work in the fourth semester.

What types of electives are available?

Electives cover areas such as nanotechnology and characterization, semiconductors, continuum mechanics, energy-storage materials, data science, computational material science, photovoltaic materials, biomaterials, concrete, and composite materials.

Does the course include a thesis?

Yes. The fourth semester consists of a 16-credit thesis.

Course Details

  • Course TypeM.Sc Engineering
  • LevelMaster Degree
  • Duration2 Years
  • Affiliated To Tribhuvan University (TU)
  • Study ModeFull Time
  • Total Seats20
  • MediumEnglish
  • RecognitionNepal Engineering Council
  • Offered At Pulchowk Campus - Institute of Engineering (IOE)
    Pulchowk, Lalitpur

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