Programs & Events


Materials and Metallurgy Engineering is course for advance and high technology applications. These includes but not limited to; metals, non-metals, ceramics and polymers, composites. Also, an emerging trend in the Engineering industry is the development of new processes for producing specialty materials, such as plastics, lightweight metal alloys and nano-materials, for a wide variety of industrial and consumer applications. It is noteworthy that every product, regardless of size, shape and/or area of use, is made of materials. These materials must specify the correct properties; - first for the production and subsequently for service. The choice of materials must therefore ensure that the products will not fail in service. This course therefore covers these areas and is designed to provide the students with the skills for a successful career in the materials and related industries. As with most engineering courses, core engineering concepts are covered in earlier years of the (One and two hundred levels), with specialty materials-related topics being introduced at the later stages which include industrial polymer engineering, reaction engineering, materials properties and structures, and nano-technology.


The philosophy of this programme is to attain the ultimate height in the training of high level ICT compliant material Engineers. Such manpower should imbibe self-confidence, technical innovation based on sound scientific and technological knowledge to meet the daunting challenges of materials processing and application for the benefit of Nigerians and the World at large.


Our vision is to be an internationally recognized centre of excellent for training, research and development in the field of Materials and Metallurgical Engineering.


i. Providing high quality learning programme, training and research activities.
ii. Graduating students with required skills of national relevance to compete at international level.
iii. Attracting and developing high calibre faculty members for advancing cutting edge research in materials engineering.


The basic objectives of this programme include but not limited to:
i. To train and produce graduates with adequate knowledge and skills, to meet the national needs in all aspect of Materials and Metallurgical Engineering.
ii. To provide adequate platform for cutting edge research and development in Materials and Metallurgical Engineering.
iii. To conduct training and research aimed at adding value to raw materials endowment for national development.


The graduate from the programme will be expected to have competence in:
i. Satisfying the national and international needs in the area of materials development, selection and applications.
ii. Conducting experiments safely and accurately and being able to correctly analyse the results.
iii. Identifying and designing engineering processes and/or systems to meet human needs using modern techniques, skills and engineering tools.
iv. Possessing entrepreneurial and managerial skills to solve engineering problems in professional and ethically responsive ways.
v. Understanding the impact of engineering solutions in a global, economic, environmental and societal contest.
vi. Developing culture of life-long learning.


1. UTME requirement: Five ‘O’ Level Credits at GCE, SSCE, NECO or their equivalent which must include English Language, Mathematics, Chemistry, Physics and any other science subject preferably Biology.
2. Direct Entry Requirements:
GCE 'A' Level, IJMB or equivalent with credit passes in Mathematics, Physics and Chemistry.
OND or HND with at least Lower Credit in addition to possessing the requisite ‘O’ Level requirements as in (1) above.


The Bachelor of Materials and Metallurgical Engineering Programme is designed to last for a minimum of five (5) years for a UTME (100 – 500 level) candidate, four (4) years for a DE (A’ level, IJMB and ND candidate) and three (3) years for a HND candidate with maximum of 71/2 years, 6 years and 41/2 years respectively.

Minimum Academic Standard to Proceed from 100 Level to 200 Level:
All students are required to pass the following minimum credit loads taken in Chemistry, Mathematics and Physics, in addition to maintaining a minimum CGPA of 2.0 before proceeding from 100 to 200 level.
Chemistry 8 Credit units.
Physics 8 Credit units.
Mathematics 10 Credit units.

Industrial Training:
One year of industrial training is an integral part of the five year degree programme. This is made up of 10 weeks of students work experience programme (SWEP) which is executed internally at the end of 200 level, twelve weeks of student industrial work experience scheme (SIWES 1); which is done in an industry at the end of 300 level, and 24 weeks of student industrial work experience scheme (SIWES II) which is done at the end of first semester of 400 level. However, an academically weak student may defer SIWES II, until he/she clears the carry-over (failed) courses. Such students must satisfy the SIWES requirements before proceeding to 500 level.
NOTE: Student on SIWES cannot concurrently register for (or take) any course during the semester while undertaking the (SIWES) programme.
Training Facilities:
i) Laboratory Facilities:-
Experimental and research works are undertaken in various laboratory units in the department.
ii) Library Facilities:-
The University Library has a sizeable collection of books and journals mainly Technical and Scientific Titles. Most of the books are on open shelves and are available for borrowing on consultation by Students.
Registration of Courses:
The University operates an on-line registration, where all the courses the students in qualified to undertake must be registered on web, at the beginning of the session. All registrations must end before the matriculation exercise of new students into the University.
Students are required to register with the department and the Dean’s office for all courses to be taken in each semester of the session. A maximum of twenty-four (24) credit load/hours per week and a minimum of sixteen (16) credit load/hours per week only would be allowed in each semester of a session.
If a student decides to take an examination for a course for which he is not registered, such examination results would be cancelled by the department. All pre-requisite courses must be taken/registered and passed before other higher level courses can be registered by the student. Students on industrial training should not register for any course during their period of (SIWES) training. No student is allowed to repeat any course he/she had previously passed.
Grading System:
The Federal University of Technology Minna, Niger State Nigeria, operates a five (5.0) point grading system. Examination carries 60% while the continuous assessment (which is made up of class attendance/quiz/test/assignment/mini-project; (all at the discretion of the course lecturer) carries 40%.
Letter Grade Under 5 Point Grading System

0.0 70 and above

The class of degree, obtained at the end of the undergraduate programme, is classified as indicated in the table below:

(i) First Class
(ii) Second Class Upper Division
(iii) Second Class Lower Division
(iv) Third Class 4.50-5.00

SGPA Calculation
At the end of each Semester a student’s Semester Grade Point Average (SGPA) is calculated. This will give an indication of the performance of the student in the that particular semester. SGPA is derived by multiplying Credit Units and Grade Points obtained and by dividing the total Credit Units registered in that semester. The following example illustrates how SGPA is calculated:
Example of calculation of SGPA for student X:
Course Code Course Credits Grade obtained Points obtained Grade Points
(i) (ii) (iii) (iv) (v)
MAT 111 3 B 4 12
PHY 113 3 C 3 09
CHEM 111 2 A 5 10
GST 104 2 D 2 04
EHG 111 2 E 1 02
MAT 112 3 F 0 00
Total: 15 37
SGPA =37/15 = 2.47
CGPA Calculation
A series of SGPA’s weighed and averaged together over a member of semester will constitute the students Cumulative Grade Point Average (CGPA). It gives an indicator of how the student has performed so far at any point in time during his academic period. The following example shows how the CGPA of a student is calculated in one academic session:-
Academic Record of Student X ---- First Semester
Course Code Course Credits Grade obtained Points obtained Grade Points
(i) (ii) (iii) (iv) (v)
MAT 111 3 B 4 12
STA 112 3 F 0 00
PHY 113 3 C 3 09
CHEM 111 2 A 5 10
GST 104 2 D 2 04
EHG 111 2 E 1 02
TOTAL 15 37
SGPA = 37/15 = 2.47

Academic Record of Student X ---- Second Semester
Course Code Course Credits Grade obtained Points obtained Grade Points
(i) (ii) (iii) (iv) (v)
MAT 123 3 B 4 12
STA 127 3 C 3 09
PHY 100 2 A 5 10
PHY 123 2 B 4 08
CHEM 121 3 E 1 03
GST 103 2 A 5 10
GST 121 2 B 4 08
TOTAL 17 60
Second Semester GPA = 60/17 = 3.53

Total Credit Points of 1st and 2nd Semesters = 37 + 60 = 97
Total Credit Units of 1st and 2nd Semester = 15 + 17 = 32
CGPA at the end of the Second Semester = 97/32 = 3.03

12. Student Status:
At the end of a Semester or Session a student may fall into one of the following categories: -

i) Any student that has a GPA or CGPA of 4.0 and above at the end of a session shall be entitled to be listed on the Dean’s List of exceptionally good students.
ii) A student shall be deemed to be in good standing if he/she had earned a GPA/CGPA of 2.0 and above; and had not failed any course(s).
iii) Any student that had failed one or more courses in a semester shall be deemed to be deficient and must pass such registered course(s) at any available time the course(s) are available.
iv) Any student whose GPA/CGPA in a semester/session has fallen below 1.5 from 200 level and above shall be placed on probation.
v) Any student on probation for three consecutive semesters shall be advised to withdraw from the University.
To graduate from the department the students must meet the following conditions:

MODE OF ENTRY UTME, 200 LEVEL (D. E.) and 300 LEVEL (D. E.)
Basic Sciences 26
Major Engineering 127 127 89
Elective Within 4 4 4
Elective Outside - - -
Social Sciences 5 5 5
General Studies 10 7 5
SIWES 2 2 2
SWEP 0 0 0
Total 174 145 105


MAT 111 Algebra and Number Theory 3 2 1
MAT 112 Geometry and Trigonometry 3 2 1
PHY 113 General Physics I (Mechanics) 3 3
CHM 111 Physical Chemistry I 3 3
CHM 112 Inorganic Chemistry I 2 2
GST 104 Introduction to Principles of Economics 2 2
GST 110 Use of English I and Library 3 3
STA 117 Introduction to Statistic I 2 2
CPT 111 Introduction to Computer Science 2 2
Total 23 21 2


MAT 121 Differential and Integral Calculus 3 2 1
STA 127 Probability I 2 2
PHY 100 Experimental Physics (Lab) I 2 2
PHY 123 General Physics II 2 2
PHY 126 General Physics III 3 3
CHM 121 Organic Chemistry I 3 3
CHM 191 Practical Laboratory Chemistry I 2 2
EET 121 History and Philosophy of Science 1 1
GST 121 Use of English II 2 2
GST 103 Nigerian Peoples and Culture 2 2
Total 22 17 1 4

EET 211 Engineering Mathematics I 3 2 1
EET 212 Applied Mechanics 3 2 1
EET 213 Engineering Drawing I 2 2
EET 214 Fundamental Fluid Mechanics 2 2
EET 215 Strength of Materials I 2 2
EET 216 Materials Science 2 1 1
EET 217 General Engineering Laboratory I 3 3
EET 218 Engineer in Society 1 1
EET 219 Basic Electrical Engineering Science I 3 2 1
Total 21 12 4 5

EET 221 Engineering Mathematics II 3 2 1
EET 222 Fundamental of Engineering Thermodynamics I 2 1 1
EET 223 Engineering Drawing II 2 2
EET 224 General Computer Programming 2 2
EET 225 Workshop Practice 2 1 1
EET 226 Information Technology in Engineering 2 2
EET227 General Engineering Laboratory II 3 3
EET 229 Basic Electrical Engineering Science II 2 2
MME 227 Materials in Human Experience 1 1
CHE 228 Fundamentals of Engineering Chemistry 2 1 1
CHE 229 Introduction to Chemical Engineering 1 1
Total 22
13 3 4


EET 311 Engineering Mathematics III 3 2 1 EET 211
MME 312 Mineral Processing 2 2
MEE 312 Engineering Economics 2 2
MME 313 Ceramics 2 2
MME 314 Mechanical Metallurgy I 2 2
MME 315 Thermodynamics of Materials 3 2 1 MEE 222
MME 316 Material Processing 3 3
MME 317 Materials Engineering Lab. I 2 2
MME 318 Phase Transformation 2 2
MME 319 Theory of Metallurgical Processes 2 2
Total 23 19 2 2


EET 321 Engineering Mathematics IV 3 2 1 EET 221
MME 322 Metallurgical Unit Processes 2 2
MEE 323 Manufacturing Technology 2 2
MME 324 Structural Metallurgy 2 2
MME 325 Mechanical Metallurgy 3 2 1
MME 326 Computers and Computing 2 2
MME 327 Materials Engineering Lab. II 2 2
MME 328 Metallurgical Analysis I 3 2 1
Total 19 14 3 2


MME 411 Non-Ferrous Extractive Metallurgy 2 2
MME 412 Ferrous Physical Metallurgy 2 2
MME 413 Corrosion Engineering 3 3 MME 315
MME 414 Non-Ferrous Physical Metallurgy 2 1
MME 415 Fundamental of Working of Materials 2 2 MME 314
MME 416 Polymer Engineering 2 2
MME 417 Materials Engineering Lab. III 2 2
GST 311 Entrepreneurial studies 2 2
MME 418 Micro/Nano Processing Technology 1 1
MME 419 Structural Examination of Materials 2 2
MME 410 Research/Technical Report Writing 1 1
Total 21 17 2




MME 511 Iron and Steel Making 2 2 MME 412
MME 512 Foundry Technology I 2 2
MME 513 Welding and Brazing 2 2
MME 514 Powder Metallurgy 2 2
MME 515 Composite Materials 2 2
MME 516 Production and Financial Management 2 2
MME 517 Metallurgical Lab IV 1 1
MME 518 Principle of Materials Selection 2 2
MME 519 Process Design 2 2
MME 510 Metallurgical Analysis II 2 2
Total 19 18 1 1


MME 522 Mechanical Working of Materials 2 2 MME 415
MME 523 Engineering Management and Law 2 2
MME 524 Entrepreneurship Studies II 2 2
MME 525 Project 2 2
MME 526 Foundry Technology II 6 6
MME 527 Furnace Technology 2 2
* Electives 4 4
Total 20 13 6


MME 528 Nuclear Engineering Materials 2 2
MME 529 Zeolitic Materials and Application 2 2
MME 530 Fundamentals of Fuel Cells 2 2
MME 531 Photovoltaic technology 2 2
MME 532 Technology of Silicate Materials 2 2
MME 533 Ceramic Engineering 2 2
MME 534 Wood Technology 2 2

General University and Faculty Courses (100Level)
Elementary set theory: set, subsets, union, intersection, complements, Venn diagrams. Mappings and Functions. Number systems: real number system, complex number system, real line, inequality, surds, indices and logarithms, mathematical induction, sequence and series, partial fraction. Equations, polynomials, remainder theorem, completing the square, change of variable, reciprocal equation, method of rationalization, simultaneous equation, theory of quadratic equations, Binomial theorem, Matrices and Determinants.
Geometric representation of vectors in 1 3 dimensions, components, direction cosines. Addition, scalar, multiplication of vectors, linear interdependence. Scalar and vector products of two vectors. Differentiation and integration of vectors with respect to a scalar variable. Two-dimensional coordinate geometry. Straight lines, circles, parabola, ellipse, hyperbola. Tangents, normals.
Effective communication and writing in English. Study skills, Language skills. Writing of essay answers. Instruction of Lexis sentence construction, outlines and paragraphs. Collection and organization of materials and logical presentation. Punctuation and logical presentation of papers. Use of library. Phonetics. Art of public speaking and oral communication.
Pre-requisite Credit in ‘O’ Level Physics and Mathematics. Space and Time, frame of reference, Units and dimensions, Kinematics; fundamental laws of Mechanics, Statics and dynamics; Galilean invariance; Universal gravitation; work and energy; rotational dynamics and angular momentum; Conservation laws. Kinematics of a particle. Components of velocity and acceleration of a particle moving in a plane. Force, momentum, laws of motion under gravity, projectiles, resisted vertical motion. Simple harmonic motion, elastic string, simple pendulum, impulse. Impact of two smooth spheres, and of a sphere on a smooth surface.
CHM 111: PHYSICAL CHEMISTRY I (3 Credit Units)
Atoms, molecules and chemical reaction; Chemical equations and stoichiometry, Atomic structure and periodicity; Modern electronic theory of atoms; Radioactivity; Chemical bonding; Properties of gases; Equilibrium and Thermodynamics; Chemical kinetics; Electrochemistry.
Inorganic chemistry; saturated hydrocarbons; unsaturated hydrocarbons. Periodic table and periodic properties; valence forces; structure of solids; the chemistry of selected metals and non-metals and qualitative analysis.

Statistical data, their sources, collection and preliminary analysis by tables and graphs, measure of location and dispersion in grouped and ungrouped data. skewness and kurtosis; simple regression and correlation analysis, index numbers.
CPT 111: Introduction to Computer Science (2 Credit Units)
Background: History of computing, overview of programming languages and the compilation process. Algorithms: Definition, design, and implementation; introduction to classical algorithms (sorting, searching, and pattern matching). Algorithmic analysis: Efficiency; asymptotic analysis; computational complexity; big-O notation; polynomial vs. exponential growth; computability. Fundamental programming constructs: Syntax and semantics of a higher-level language; variables, types, expressions, and assignment; simple I/O; conditional and iterative control structures; functions and parameter passing; structured decomposition; brief introduction to a programming language that supports the object-oriented paradigm. Hardware realizations of algorithms: Data representation; the von Neumann model of computation; the fetch/decode/execute cycle; basic machine organization. Operating systems and virtual machines: Historical evolution of operating systems; responsibilities of an operating system; basic components of an operating system. Networking and computer graphics: Brief introduction to some of the basic concepts in networking and computer graphics. Computing applications: Word processing; spreadsheets; editors; files and directories.
Function of real variable, graphs, limits and idea of continuity. The derivative, as limit of change, techniques of differentiation. Extreme curve sketching; Integration as an inverse of differentiation, method of integration, definite integrals, application to area, volume, etc.
STA 127: PROBABILITY I (2 Credit Units)
Generation of statistical events from set theory and combinatorial methods; Elementary principle of probability. Types and distribution of random variables; binomials, Poisson, hypergeometric, normal distributions. Statistical data, their sources, collection and preliminary analysis by tables and graphs; Measure of location and dispersion in single and grouped data regression, correlation and analysis of variance.
Study of Nigerian History and Culture in pre-colonial times. Nigerian perception of his world. Culture areas of Nigeria and their characteristics. Evolution of Nigeria as a political unit. Concept of functional education; National economy; balance of trade, economic self-reliance, social justice, individual and national development. Norms and values. Moral obligations of citizens. Environmental sanitation.

GST 121: USE OF ENGLISH II (2 Credit Units)
Reading Techniques and Study Skills: Definition / Concept of Reading, Reading Purposes, Reading Strategies, Reading Techniques, Skimming, Scanning SQ3R, main ideas in a passage and others, Summary Writing. Vocabulary Development: How to enrich your vocabulary, Registers / Lexis, American and British Vocabulary – differences. Oral Skills: Listening e.g. Comprehension, Speaking, Sound system in English e.g. Vowels, Constants and Diphthongs, Arts of Public Speaking. Elements of Literature: Literary terms e.g., Tragedy, Comedy, Autobiography, biography and poetic devices / figures of speech.
This introduction course emphasizes quantitative measurements, the treatment of measurement errors, and graphical analysis. A variety of experimental techniques will be employed. The experiments include studies of meters, the oscilloscope, mechanical systems, electrical and mechanical resonant systems, light, heat, viscosity, etc. covered in PHY 113, PHY 123, and PHY 126.
Pre-requisite Credit in ‘O’ Level Physics and Mathematics. Molecular treatment of properties of matter electricity; Hooke’s law, Young’s shear and bulk modulus. Hydrostatics; Pressure, buoyancy, Archimedes’ principles. Hydrodynamics; streamlines, Bernoulli and continuity equations, turbulence, Reynold’s number; viscosity; laminar flow. Poiseuille’s equation. Surface tension, adhesion, cohesion, capillary, drops and bubbles. Temperature; the zeroth law of thermodynamics; heat; gas laws; laws of thermodynamics, Kinetic theory of gases. Applications.
Pre-requisite Credit in ‘O’ Level Physics and Mathematics. Electrostatics; conductors and currents; dielectrics; magnetic fields and induction; Maxwell’s equations; electromagnetic oscillations and waves; Applications.
CHM 121: ORGANIC CHEMISTRY I (3 Credit Units)
Historical survey of the development and importance of organic chemistry, nomenclature and classes of organic compounds, homogeneous series, functional groups, isolation and purification of organic compounds. Qualitative and quantitative. Organic Chemistry; stereochemistry; determination of structure of organic compounds; electronic theory.
Topics in different areas of General Chemistry to be treated.

CPT 121: Introduction to Programming II (2 Credit Units)
Programming languages: History of programming languages; brief survey of programming paradigms (procedural, object-oriented, functional). Algorithms and problem-solving: Problem-solving strategies; the concept of an algorithm; properties of algorithms; implementation strategies; sequential and binary search algorithms; quadratic sorting algorithms (selection, insertion). Principles of encapsulation: Encapsulation and information-hiding; separation of behavior and implementation. Fundamental data structures: Primitive types; arrays; records; strings and string processing; pointers and references; static, stack, and heap allocation; runtime storage management. Machine level representation of data: Bits, bytes, and words; binary representation of integers; representation of character data; representation of records and arrays.Assembly level machine organization: Basic organization of the von Neumann machine; instruction fetch, decode, and execution; assembly language programming for a simulated machine.
Software development methodology: Fundamental design concepts and principles; structured design; testing and debugging strategies; test-case design; programming environments; testing and debugging tools. Introduction to language translation: Comparison of interpreters and compilers; language translation phases (lexical analysis, parsing, code generation, optimization); machine-dependent and machine-independent aspects of translation
General Faculty Courses (200 Level)
Calculus and relevant theorems: Differentiation, integration; Taylor and Maclaurin’s series and equations. Elements of linear algebra; Determinants, Properties and Evaluation of Matrices; Differential equations: First and simple case of second order. Applications to engineering systems. Coordinate systems; Rectangular, cylindrical, spherical coordinate systems.
Number systems: binary, octal, decimal, hexadecimal and conversion. Logic gates: AND, OR, NOT, NAND, NOR, Exclusive-OR (symbol, truth table, logic expression, realization using switches). Obtaining logic circuit from logic expression. Obtaining logic expression from logic diagrams. Boolean algebra and simplification of logic expressions. Karnaugh maps, minterm, maxterm tables. Logic gates using transistors. Codes (BCD, ASCII, EBCDIC, Gray). Counters and registers. Applications: encoders, multiplexers, adders, RAM, ROM, PLAs. Introduction to microprocessors: basic microcomputer architecture, memory, applications.

EET 212: APPLIED MECHANICS (3 Credit Units)
Static’s: Laws of static’s, system of forces in equilibrium and resultant forces. Applications to simple engineering problems: Friction: Friction Laws, coefficient of friction, friction on horizontal and inclined planes. Particle dynamics: Kinematics and kinetics of particles, kinematics of plane motion. Newton’s laws of motions, momentum and energy methods. Mass, moment of inertia to simple common engineering shapes. Kinematics of rigid bodies. Two dimensional motions of rigid bodies, energy and momentum. Simple harmonic motions, as a to and fro motion. Harmonic motion as a projection of a point, moving on a circle. Free undamped vibration of a mass-spring systems: in translation and torsion, such as simple and compound pendulums.
Introduction to Engineering Drawing. Use of drawing equipment and instruments. Paper sizes, scales, drawing layout, lettering and line work. Introduction to standards. Lines and abbreviations. Simple interpenetration and developments of pyramids, cones, prisms, cylinders and spheres. Applications to engineering problems in sheet metal works. Loci: Ellipse, parabola, hyperbola, helixes and epicycloids. Freehand sketching. Principles of sketching, and applications to simple engineering components.
EET 214: FLUID MECHANICS I (2 Credit Units)
Properties of fluid: density, pressure, surface tension, viscosity, compressibility etc. Hydrostatics: Transmission of pressure, pressure in a fluid at rest, pressure on a fluid at rest, thrust on plane and curved surfaces and centre of pressure, stability and oscillation of floating body, pressure measurement. Introduction to fluid Dynamics: Definitions and concepts of fluid flow, pathline and streamlines, rotational and irrotational flow, laminar and turbutent flow, velocity distribution. Analysis of fluid flow: Concepts of system, boundary, control surface. Conservation of energy, continuity, momentum and applications. Bernoulli’s and continuity equations applications: to Pitot tube, tapering pipe, venturimeter, nozzles, pipe orifices, small and large orifices, notches and weirs, time to empty tank. Energy losses in pipes, elbows etc.

EET 215: STRENGTH OF MATERIALS I (2 Credits Units)
Simple stress and strain in tension, compression and shear. Hooke’s law and Elastic constants. Geometrical properties of area centroid, moment of inertia, second moment of area, product moment Theory of Bending: Bending moment and shear force diagrams of uniformly and concentrated loading of beams. Bending stresses, neutral axis. Determination of Youngs Modulus from bending tests. Slope and deflection of cantilever and simply supported beams, using integration and Castigliano theorem: Eccentric loading of beams and buckling of struts. Theory of torsion: Torsion of circular shafts. Relation between stress, strain and angle of twist. Relation between twisting couple and shear stress. Applications to transmission of power by shafts. Stresses and strains in thin cylinders’ spheres and composite bars. Thermal stresses and strains.
EET 216: MATERIAL SCIENCE (2 Credit Units)
Atomic structures and bonding in various solid materials, including metals and alloys, polymers and plastics, and ceramics. Electrical Properties of Materials: Electrical and electronic properties of conductors, semi-conductors and super-conductors. Magnetic and dielectric properties. Thermocouple phenomenon Mechanical Properties: The tension test, elastic-plastic deformation of metals, temperature effects on mechanical properties, hardness test. Introduction to creep and fatigue tests. Thermal properties: Thermal capacity, thermal expansion, thermal conductivity. Chemical properties of materials: Corrosion phenomenon and its prevention. Phase Equilibrium: Liquid and solid solutions. Introduction to phase equilibria in metal alloy systems and application of phase diagram to simple alloy systems. Non-metallic Materials: Structures and properties of polymeric materials and engineering ceramics.
Relevant experiments to illustrate topics covered in courses MEE 212, MEE 214, MEE 215, MEE 216, EEE 219.
Philosophy of Science. History of Engineering and Technology. Safety in Engineering and Introduction to Risk Analysis. The Role of Engineers in Nation Building. Invited Lectures from professionals.

Circuit-elements, DC and AC circuits, Basic circuit laws and theorems. Resonance, power, power factors, 3-phase circuits. Introduction to electrical machines and machine designs. Physics of devices, discharge devices, semi-conductors diode, and transistors. Transistor characteristics, devices, and circuits. Electrical power measurements.
Complex analysis: Review of complex algebra, elementary complex numbers, functions. Sequences and series; Vectors: Vector algebra in general and component forms with greater emphasis on application to engineering systems in scalar and vector products of 3 or more vectors. Numerical analysis: Error and error propagation, roots of non-linear equations. Gaussian, Gauss-Siedel, Gauss-Jordan. Interpolation. Lagrangian and finite differences; use of Fortran and Basic Languages in numerical analysis.
Free electron motion in static electric, magnetic and electromagnetic fields. Atomic theory: Bohr’s model, quantum theory. Electron emission Engineering-band theory of conductors, insulators and semiconductors. Semi-conductor theory: intrinsic and extrinsic semiconductors, n-type and p-type semi-conductors and their formation, Fermi energy level, pn-junction: operation & characteristics and applications pn-junction diodes: operation, characteristics and application of rectifier diodes, varactor diode, Schottky diode, Zener diode. Bipolar junction transistors: types, operation, characteristics, modes of connection, application. Field effect transistors: types, operation, characteristics, modes of connection, application. Thyristors; operation, characteristics, application. Introduction to semiconductor technology.
Basic concepts and definitions: Thermodynamics, matter, space, time and their properties, working substance, pure substance, fluid, system, surroundings, property and state, dimensions and units, mass and weight, temperature and zeroth law, thermodynamic process (cyclic), reversibility. Energy concept, definition and types, work and heat, first law of thermodynamics and consequences. The non-flow energy equation and application to non-flow processes. The steady-flow energy and application to open systems. Second law of thermodynamics: Heat engine, efficiency process, efficiency, statements due to Plank, Kelvin and Classius, Carnot principle. Thermodynamic temperature scale, reversibility and irreversibility, entropy. Properties of pure substance and property relations for a perfect gas. Application of combined first and second Laws to various systems and processes and to perfect gases and systems.
Project of points, line and solids. Orthographic projections. First and third angle projections; Auxiliary projections, Isometric and oblique projections. Dimensioning, sectional at views: Threaded fasteners; free-hand sketching to more complex engineering components. Introduction to assembly drawing.
Introduction: Types of computers and components, their uses, industrial and scientific. Computer logic, software and hardware. Introduction to computer languages: Fortran, Basic, Cobol etc. Applications to Fortran and Basic to simple problems. Flow charts. Practical exercises in the use of computer and in writing programs in any of the above languages.
EET 225: WORKSHOP PRACTICE (2 Credit Units)
Elementary introduction to types and organization of engineering workshop (jobbing, batch and mass production). Safety in workshop and safety practices with various workshops’ tools. Bench work and fittings: Measurements and markings for benchwork with hand tools and instruments. Practical demonstrations of hand tools/instruments in bench works and fittings. Carpentry: Hand tools and their applications in making various joints’ types in timber/wooden materials. Blacksmithing: Hand tools used and their working principles and applications for making simple engineering components by bending, upsetting etc. operations. Standard measuring tools such as Vernier caliper and micrometer gauges etc. used in the workshops. Welding processes: Descriptive features and principles of operations of welding equipment for arc welding, gas welding brazing and soldering Engineering materials: Definitions, types of engineering materials: Uses, mechanical and mechanical properties. General principles of working of standard metal cutting machines’ tools and the practical applications on such machines. Simple individual small projects in the above workshop practices are required.
Identification of PC parts and peripheral devices. Functions, applications and how to use them, safety precautions and preventative maintenance of PC. Filing system; directory, sub-directory, file, path and how to create them. Word Processing; Principles of operation, applications, demonstrations and practical hand-on exercise in use of a popular word processing package. Internet available services, principle of operation, applications, demonstrations, and practical hand-on exercise in e-mail and www Spreadsheet; Principle of operation, application demonstrations, and practical hand-on exercise in use of spreadsheets to solve problem. Data-base Management package: Principle of operation, applications, demonstrations and practical hand-on exercise in use of DBMS. Report Presentation Software Packages: Principle of operation, applications demonstrations and practical hand-on exercise in use of a popular report presentation (such as power point). Mini-project to test proficiency in use of software packages.
Relevant experiments to illustrative topics covered in these courses EET 222, EEE 221, and EET 225.

Treatment of D.C circuits: D.C steady state response, Transients in first order circuits; Analysis by superposition, Thevenin, Norton and Reciprocity principles. Treatment in AC circuits: AC’ circuit elements; voltage and current phasors, inductive/capacitive reactances, impedances, conductance, suseptance and admittance complex j-operator notations and its application in AC circuits. Introduction to electrical machines, Transformers, constructional features, types, connections (single and three phase), and its applications. Measurement and Instrumentation: General principles of measuring instruments; (Torque and restraining spring relationship) Types of measuring instruments: Ammeter, voltmeters, wattmeters watt-hour meters. Transducers and bridge measurement, cathode ray oscilloscope and its applications: Introduction to digital electronics: Binary numbers, binary and arithmetic, logic gates, OR, AND, NOT; Boolean algebra and identities, simple truth tables and Karnagh maps.
The earliest ceramics (the stone age), ceramics in ancient civilizations, clay, types of pottery, glazes, development of a ceramics industry, plaster and cement, brief history of glass and refractory. Primitive Iron making, depletion of forests and charcoal scarcity, substitution of coke for charcoal, industrial revolution. Chemically modified natural polymers: - the stories of rubber, Parkesine and Celluloid. Development of formaldehyde-based polymers, evolution of vinyl polymers, plastics and new trends towards vegetable-based plastics.

Introduction to practices and skills in general engineering through instruction in operation of hand and powered tools for wood and metal cutting and fabrication. Supervised hands on experience in safe usage of tools and machines for selected tasks. Ten to twelve weeks during the long vacation.


Linear Algebra – Elements of matrices, determinants, inverse of matrix. Theory of linear equations, eigen-values and eigen-vectors. Analytic geometry – co-ordinate transformation – solid geometry, polar, cylindrical and spherical co-ordinates. Elements of functions of several variables. Numerical differentiation, solution of ordinary differential equations. Curve fitting. Simple linear programming. Solving problems using Material and Metallurgical Engineering case studies.
Introduction: Origin and formation of mineral deposits. Principal ores of common metals. Discussion of the mineral wealth of Nigeria, their location and type. Scope, objects and limitations of mineral dressing. Comminution and Liberation: Theory and practice of crushing and grinding. Typical equipment used, their field of application and limitations.
Sizing and Classification: principle of sizing and Classification. Equipment used for Laboratory and industrial sizing. Law of settling of solids in fluids. Types of classifiers. Classification as a means of sizing and concentration.
Concentration: Gravity concentration methods using jig, spirals, tables, and heavy media separators. Application and limitations of each method. Froth flotation and physicochemical principles involved therein. Flotation machines and flotation of simple ores. Electrostatic and electromagnetic methods of concentration.
Dewatering and Drying: Theory and practice of thickening, Filtration and Drying.
Coal/washing: Coal/shale separation, coal flotation & Cleaning.
Flow sheets: Simplified flow sheets for the beneficiation of simple ores of copper, tin, lead, zinc, iron, gold, and other ores of local importance.

Breakeven analysis: Linear models, including dumping and production above normal capacity; Non-linear models; Time value of money: Reasons for charging interest; Simple interest; Compound interest; Nominal and effective interest rates; Cash flow diagrams; Compound interest formula and factors: Derivation of P/F, F/P, A/P, P/A, F/A and gradient series factors (P/G, etc); Deferred annuities; Capital recovery; Continuous compounding; Basic methods of evaluating a single proposal: Present worth, annual worth, future worth, internal rate of return, pay-out period, etc.; Depreciation: Concept and reason for depreciation of assets; Depreciation as an expense; Depreciation methods (straight line, sum-of-the-year’s-digit, declining balance); Switching between depreciation methods; Equipment replacement analysis: Reasons for replacement of assets (economic advantage, technological obsolesce, expensive maintenance, etc.); Basic replacement models, dynamic replacement models; After tax economic analysis: Effects of taxes on economic analyses.

Introduction: General definition of ceramics, Classes of ceramics e.g.: -
a) Traditional ceramics in the group of domestic and art wares; pottery etc.
b) Engineering or industrial ceramics e.g. bricks, tiles, abrasives, dielectric insulators semiconductor, glass, etc.
Clays: Formation and types of clays. Structures of clay minerals such as kaolin, montorillonite, illite etc. Clay-water system, cation exchange. Raction on firing. Properties of fried clay products.
Manufacture of Clay products: Sizing, mixing, moulding and slip casting processes, firing, finishing and testing.
Silica: Nature and occurrences, types and structures of silica inversion and conversion of silica. Effects of impurities and flu xers on the properties of silica.
Ceramics: Selection and preparation of ceramics raw materials. Mixing, moulding and drying procedures. Firing of the conventional ceramics products. Blending, mixing and siutening (or possing) of special ceramic products e.g. cermets and abrasives structure and application of ceramics abrasives insudating, magnetic and dielectric materials etc.
Glass: Definition and general properties of glass. Types and composition of different glasses and their applications. Manufacture of glass. Shaping and heat-treatment of glass products. Mechanical properties of glass. Special glasses e.g. glass-metal, glass-ceramics, photo sensitive, and high refractive index glasses.
Refractory: Definition and general properties of refractory, Types and composition of different refractory and their applications. Manufacture
of refractory.
Elastic deformation of Metals: Principles of stresses, strains in metals. Complex stresses on two planes at right angles. Mohr’s circle. Principal stresses and strains. Maximum shear stresses. Distortion energy and yield criteria.
Plastic Deformation of Metals:
Concept of plastic Deformation: Point defects; vacancies interstitial and impurity atoms. Line defects – slips, twins e.t.c.
Dislocation Theory: Review of crystal geometry, crystallographic planes and directions. Stress field and strain energy of point-defects. Dislocation – types and properties. Burgers vector, stress field and strain energy of a dislocation. Forces between dislocations. Partial and supper dislocations. Dislocation glide and climb, jogs, inter-action with vacancies, interstitials and solute atoms. Dislocation density.
Plastic Deformation of single Crystals: Deformation by slip system of ECC, BCC and HCP single crystals. Critical resolve stress. Deformation by twinning. Twin planes and directions.
Stacking faults, deformation bands and kink bands. Lattice fragmentation. Theoretical strength of single crystals.
Plastic Deformation of Polycrystalline Metals: Structure of grain boundaries. Effect of grain size and grain boundary structure on plastic flow. Theory of yielding, necking and failure, yield and ultimate strengths. Strain rate effect, Bauschinger effect. Residual stresses. Internal Friction. Mechanical working of metals; texturing (preferred orientation), stress concentration.
Hardening and Strengthening: Hardening or strengthening by point defects, (including solution hardening), second phase particles and other phase structures. Work hardening.
Fracture Analysis: Fracture curves in single crystals and polycrystallines. Metals e.g. cleavage, shear, ductile etc. Theoretical cohesive strength. Factor affecting the initiation
and propagation of cracks.
Review: of part I Thermodynamics, Treatment of the laws of thermodynamics and their applications to equilibrium and the properties of materials. Provides a foundation to treat general phenomena in materials science and engineering, including chemical reactions, magnetism, polarizability, and elasticity. Develops relations pertaining to multiphase equilibria as determined by a treatment of solution thermodynamics. Develops graphical constructions that are essential for the interpretation of phase diagrams. Treatment includes electrochemical equilibria and surface thermodynamics. Introduces aspects of statistical thermodynamics as they relate to macroscopic equilibrium phenomena.

MME 316 Materials Processing (2 Units)
The goal of this course is to teach cost-effective and sustainable production of solid material with a desired geometry, structure or distribution of structures, and production volume. Towards this end, it is organised around different types of phase transformations which determine the structure of various processes for making materials, in roughly increases order of entropy change during those transformations: solid heat treatment, liquid-solid processing, fluid behaviour, deformation processing, and vapour-solid processing.

MME 317 Laboratory Course Work I (1Unit)
A laboratory course work involving laboratory experiments and practical in the following courses:
a. Mineral processing
b. Material processing
c. Ceramics
d. Mechanical Metallurgy (I)

MME 318 Phase Transformation (2 Units)
Equilibrium Diagrams
Binary Equilibrium Diagrams: phase rule, phase diagrams of single phase eutectic, peritectic, intermediate, monotectic and syntactic allays. Always of complex phase diagrams. Study of equilibrium structures.
Ternary Equilibrium Diagrams: Representation of the phase diagrams, Horizontal and vertical sections of simple systems.
Solidification: Liquids-solid transformation
Nucleation and Growth: Atomic structure of liquids, Homogenous and heterogeneous nucleation. Growth forms of crystals in the melt. Planar and dendric growths. Growth forms of non-meals.
Freezing of metals: Cooling curves from pure and alloy metals. Structure of an ingot. Non-equilibrium freezing of single-phase alloys, constitutional supper cooling, cellular structures.
Freezing of Eutectic Alloys: Eutectic morphology. Nucleation and growth mechanism of eutectic structures and factors influencing them. Application to metal- metal, metal- non metal and non- metal eutectics. Ternary eutectic structures freezing and structures of peritectic and monotectic alloys, grain shape, size and grain boundary migration. Phase distribution.
Solid- Solid Transformation
Solid- Solid Phase mixtures: Structure of solid- solid interphase (boundaries) e. g. coherent, semi- coherent and non- coherent boundaries.
Structure of Alloys: Homogeneous and heterogeneous solid solutions. Primary solid solutions, intermediate phase, theory of alloy phases. Solutions, stability of phases and equilibria.
Order- Disorder Structures: Order- disorder structures in alloys. Theoretical bases for order- disorder changes. Long- range and short- range order, anti- phase domains, clustering etc.
Nucleation Process: Homogeneous and heterogeneous solid- solid nucleation. Nucleation rate and C- curve. Nucleation sequence of typical precipitation processes e. g. Al- Cu, Al- Ag, etc. Nucleation at grain boundaries.
Growth Mechanisms: Military and civilian transformation, rates of transformation, TTT curves. Treatment of typical growth morphologies- single- phase growth from solid solutions. Widmanstantten structures. Eutechtoidal transformation pearlittic growth. Bainitic transformation (lower and upper baintes). Martensitic transformation, massive transformation.
Structure Modification: Homogenization, sphroidization, gain refinement, annealing, age hardening, zone refining etc.

MME 319 Theory of Metallurgical Processes (2 Units)
Thermodynamics of Solutions: A review of concepts of thermodynamics of ideal and non-ideal solutions.
Kinetics: Rate of reaction, collision theory, Arrhenius equation, Order of reaction cleation and growth.
Diffusion: Steady state and non-steady state diffusions. Fick’s laws, simple diffusion equations, chemical potential and atomic mobility, temperature and concentration dependence of diffusion, Kirkendall effect. Measurement of diffusion.
Metallurgical Processes: Thermodynamics and Kinetics of dissociation of solid oxides and carbonate; Kinetics of metal oxidation; Mechanism and kinetics of metal reduction by solids and gases; Thermodynamics and kinetics of metallurgical slag formation; Chemical reaction of metals and oxide melts; Thermodynamics and kinetics of the formation of non-metallic inclusion in melts; Electro- chemistry of melts and slags.

Advanced topic in Differentiation and Integration of Complex functions. Cauchy-Remman and
related functions, conformal mapping. Partial Differential equations and applications. Line and
Multiple Integrals. Advanced Numerical Analysis numerical solutions to ODE, finite differences.
Numerical Iterations. Runge-Kutta, Euler, Predictor-corrector methods. Computer Aided Design.

MME 322 Metallurgical Unit Processes (2 Units)
Introduction: Scope of metallurgical/Materials industries.
Fundamentals: Fundamental idea about decomposition, reduction and slagging. Basic principles of extraction of Ci. Zn, Pb, Al, Fe, Sn, Au, with simplified flowsheets.
Unit Processing: Treatment of some important unit processes including the chemistry involved and the type of equipment used in palletizing, briquenting, sintering, roasting smelting, converting, leaching, concentration, electrolysis and refining.

Mechanical Testing and properties of materials: Tensile, compressive and hardness testing. True stress versus true strain curves in metal forming. Analytical and descriptive principles of operations of metal forming processes such as forging, rolling rod drawing, extrusion, and sheet metal forming (shearing, punching, bending and deep drawing).
Principles of metal cutting, fundamentals of cutting, cutting tool, materials and cutting, tool geometry. Practice of various machine tools operations, using the basic machine tools in the workshop-lathe, milling machine and drilling. Calculations of cutting speeds, and depth of cuts, metal removal rates and power consumption during machining operations. Cutting forces in machining.

MME 324 Structural Metallurgy (2 units)
Structure of Atoms: Components of the atom, electrons, protons, neutrons e.t.c. Quantum number, electronic structure of atoms, periodic table, chemical behavior of elements, metals and non- metals.
Electronic Theory: Free electron theory, atomic and molecular energy levels, energy band, zone theory, Brillouin zone. Electronic structure of transition metals. Applications of electronic theory in metallurgy.
Inter- Atom: Aggregate of atoms, origin of inter- atom forces, homopolar and metallic bonding, structure of gases, liquid and solids.
Structure of Metallic Crystals: Transition formhomopolar to metallic bonding, structure of crystalline solids, unit cell of the Bravais lattices, simple crystal structures, atomic packing in FCC, BCC, and HCP crystals, octahedral and tetrahedral coids, stacking faults in HCP and FCC crystals, allotropy.
Other Crystals: Caesium Chloride, diamond cubic, sodium chloride, zinc blend, wurtite and selenium. Ideal and real crystals, crystal imperfections.
Stereographic projection: Notation, location of poles standard projection, rotation of poles, pole of a zone, standard triangles inter, planar angles, etc.
X-Ray Techniques: Properties and production of X-rays, continuous and characteristics spectra absorption of X-ray, filters, scattering microscopy. Application of X-ray techniques to precise lattice determination, phase diagram determination, chemical analysis, stress measurement, grain size determination, detection ordering, lattice defects and imperfections.
Electron Techniques: Theory of electron diffraction and electron microscopy. Metallurgical applications. Electron micro-probe analyzer, principle and application.

MME 325 Mechanical Metallurgy II (2 Units)
Plastic Deformation of Polycrystalline Metals:Structure of grain boundaries. Effect of grain size and boundary structure on plastic flow. Theory of yielding, necking and failure, yield and ultimate strengths. Strain rate effect, Bauschinger effect. Residual stress stresses. Internal friction. Mechanical working of metals; texturing (preferred orientation), stress concentration.
Hardening and strengthening: Hardening or strengthening by point defects, (including solution hardening), second phase particles and other phase structures. Working hardening.
Fracture Analysis: Fracture curves in singles crystal and polycrystalline. Metals e.g. cleavage. Shear, ductile etc. Theoretical cohesive strength. Factor affecting the initiation and propagation of cracks.

Number system, Logical operations, Algorithm, Flow Charts and procedures. Object oriented programming concepts. Details of C++, C# language with engineering applications. Comparison of BASIC, PASCAL, C++. MATLAB, PRO-ENGINEERING

MME 327 Laboratory Course Work II (1 Unit)
A laboratory course work of experiments and practical in the following courses:
a. Metallurgical Unit Processes
b. Phase Transform
c. Mechanical Metallurgy II
MME 328 Metallurgy Analysis I (3 Units)
Physical Analysis
Electrical Measurement: Resistance measurements and application to metallurgical measurements. Useful methods-potentiometer and bridge methods. Application in strain, load and phase transformation measurements.
Thermal Analysis: Method of temperature measurements, principles of thermo-electric effects and application to temperature measurement. Other temperature measuring instrument, pyrometers, etc. Thermal analysis in metallurgy dilatometry and D.T.A. techniques
Optical Metallography: Metallographic microscopes principle and construction. Types of lenses (objectives and eye pieces) and illumination. Use of hot stage, polarized light and phase contrast. Macro-techniques, Micrographic techniques in metallurgy.
Chemical Analysis
Introduction: The need for analysis in the metallurgical industries. Quantitative and Qualitative methods of analysis.
Preparation of Solutions: For analysis of Ores of Fe, Pb, Sn, Mn, Cu, Al, etc.; Slags, fluxes, scrap, metals and alloys.
Method of Analysis:Classification methods (Titremetic and Gravimetric), Instrumental methods.
Titremetric Methods of Analysis: Qualitative and quantity methods, simple calculations in qualitative and quantitative analyses, calculation of pit of solutions, preparation of standard solution for Titration. Gravimetric method of Analysis. Analyses and identification of groups: I, II, III, IV and V cations.
Specific Analysis of: Alloys, iron Ores and their slags, Tin Ores and their slang, fireclay and sand used for making refractories.
Analysis of Metallurgical Fuels: Solid fuels e.g. coal, liquid fuel, fuel gases and flue gases.
Physical (Instrumental) Method Analysis: Instrumental Method of analysis such as: Electrochemical colorimeter, spectrophotometric and spectrographic analyses, flarueemmussion photometry, X-ray methods etc. Only principle and the application of the methods should be covered.


MME 411 Non-Ferrous Extractive Metallurgy: (2 Units)
Fundamentals: General classification of metals. Periodic Table. Industrial classification into Heavy, Light, minor, Noble, Refractory, Rare-earth, Disseminated and Radio – active metals. Extraction of Metals.
Chemical Reaction Processes: Chemical reaction of specific metals by reduction. Hyro-metallurgical, electro-metallurgical, and pyro-metallurgical processes, limitations and factors influencing the choice of a refining process.
Application: Refining and typical flow sheets of extraction of specific metals. Particular reference being made to aluminium, Copper, Zinc, Lead, Tin, Nickel, Gold, Magnesium etc.
Refining Plants: A study of the design and operations of extraction equipments and plants. Problems encounted in various plants, e.g. environmental pollution etc.

MME 412 Ferrous Physical Metallurgy (2 Units)
Heat-Treatment: Review of iron as a solvent, phase diagrams of binary iron-cabon alloy. A study of the effects of other alloying elements on the Fe-C phase diagrams. As cast structures of steels and csat irons. Basic principles heat-treatment of plain carbon steels, cast-irons and commercially important non-ferrous alloys, annealing normalizing hardening and tempering treatments. Pearlitic, bainite and martenstic transformations in steels. Special treatment austempering, martempering, mar-ageing, strain ageing, etc. Quench media and mass effect. Measurement and control of the austenic grain size. Hardenability and its determination. Surface a hardening methods and processes.
Alloy Steels: Effect of alloying elements on the iron-cement diagram, properties of the iron-cabon phases, transformation temperature, critical colling rate, hardenability, tempering, carbide formation, etc. Alloy steels and the special features of the heat treatment adopted for each case. Role of impurities and non-metallic inclusions in the steels.

MME 413 Electrometallurgy And Corrosion (2 Units)
Electro-Chemistry: Review of basic principles, Theory of conduction, electrodes potentials, e.m.f. series and standard electrodes and electrolytes. Motten electrolytes decomposition potential, polarization and over cottage.
Electro-Deposition: Theory of single metal and alloy plating. Factors influencing the nature and distribution of electro-deposits, plating of Cu, Ni, Cr, Zn, Ag, Au, Cu-Zn and Ni-Co. Testing of electrodeposites. Anodizing.
Corrosion: Direct chemical attack, electro-mechanical corrosion, Corrosion prevention methods – inhibition, passivation, metallic metallic coating, etc.

MME 414 Non ferrous Physical Metallurgy (2 Units)
Aluminium Base Alloys: (Casting) Al-Si, Al-Cu-Si and Al-Mg alloys. A close examination of various intermetallic such as CuAl2, Mg2Si, Al-Fe, etc. Wrought: Al-Mg-Si and Al-Mg-Cu alloys.
Copper Base Alloys (As-cast and wrought)
Brasses: free-cutting, hot-hand cold-working, etc.
Bronzes: Tin Bronzes, phosphor bronzes, bronzes containing zinc and lead Aluminium bronzes, etc.
Copper-Nickel, Copper-Chromium etc.
Magnessium-Base Alloys (As-Cast)
Bearing Metals: Properties of bearing metals, and general structures. Commercial bearing metal, Cu-base, white bearings metals, lead-base, cadmium-base, zinc-base alloys etc.

MME 415 Fundamental of Working of Materials I (2 Units)
Mechanical Working of Metals: Principles of hot and cold working of metals. Structural and property changes during hot and cold working. Nature o stresses, strains and metal flow in various metal working operations.
Heating of Stock: Soaking pits and re-heating furnaces, descaling of steels, precaution to be taking during reheating of ferrous and non-ferrous metals.

MME 416 Polymer Engineering (2 Units)
This course offers and overview of engineering analysis and design techniques for synthetic polymers. Treatment of materials properties selection, mechanical characterization, and processing in design of load-bearing and environment-compatible structures are covered.
Polymer Structures: Introductions, Hydrocarbon Molecules, Polymer Molecules, The chemistry of polymer molecules, Molecular weight, Molecular shape, Molecular structure, Molecular Configurations, Copolymers, Polymer Crystallinity, Polymer, Crystals.
Mechanical and Thermomechanical Characteristics: Stress-Strain Behavior, Deformations of Semi-crystalline polymer, Crystallization, melting and glass Transition phenomena, Thermoplastic and thermosetting polymers, Viscoelasticity
Deformation and Elastomers, Fracture of polymers.
Polymer Applications and Processing
Polymerization, Polymer Additives, Polymer Types, Plastics, Elastomers

MME 417 Laboratory Course Work III
This cover laboratory practical in the following courses where possible:-
Non-ferrous Extractive Metallurgy
Process Metallurgy
Polymer Engineering
Micro/Nano processing technology
Fundamentals of working of materials

MME 418 Micro/Nano Processing Technology (1 Unit)
This course introduces the theory and technology of micro/nano fabrication. Lectures and laboratory sessions focus on basic processing techniques such as diffusion, oxidation, photolithography, chemicals vapor deposition, and more. Through team lab assignments, students are expected to gain an understanding of these processing techniques, and how they are applied in concert to device fabrication. Students enrolled in this course have a unique opportunity to fashion and test micro/nano-devices, using modern techniques and technology.

MME 419 Structural Examination Materials (2 Units: LH 30)
This course is essentially a practical nature and will be best taught mainly in the laboratory. It deals with the study of the microstructure and their effects on the properties of metallic alloys.
The followings are covered:-
a) Review of the basic principles of the metallography specimen preparation, etching, unicroscopy, photomicrography, etc.
b) As-cast structure of non-ferrous alloys of Al, Cu, Mg, Zn, Pb, Sn, etc.
c) Structure and properties of heat treated non-ferrous alloys.
d) As-cast structure of plain carbon steels, and cast iron.
e) Effect of carbon content on the microstructure of plain carbon steels.
f) Microstructure of alloys structures e.g. tool steels, stainless steels etc.
g) Microstructure of heat-treated plain carbon steels and cast irons.
h) Effect of composition and microstructure on the mechanical properties of steels.
i) Microstructure of composites, ceramics and polymer
MME 410 Research/Technical Report Writing (1 Unit)
Nature and types of research process, elements of research proposal, methods of data collection and analysis, planning scientific research. Designing and administering of experiments, technical report writing and oral presentation techniques of research reports, referencing and citation.

SIWES (2 Units)
Practical work experience to be acquired at accepted professional firms, industries, research institutes, and relevant public and private organizations.


MME 511 Iron and Steel Making (3 Units)
Ores: Classification, distribution (world and Nigeria), Evolution and beneficiation.
Physical Chemistry of the Blast Furnace: Decomposition of materials, Reduction of iron oxides, Direct and Indirection reduction of iron in the Blast furnace (equilibrium diagram of Fe-O-C and Fe-O-H should be looked at); Rates of reduction by hydrogen and carbon-monoxide; The effect of temperature, velocity and pressure of gases on reduction. Physical and chemical properties of ores and how it affect rate of reduction advantage and disadvantages. Manganese, Silcon, phosphorus sulphur reduction and desulphurization in the blast furnace. Pig Iron and slag formation. Properties of slag. Methods of blast furnace intensification.
Blast Furnace Operation: Blast furnace operations irregularities (The peripheral furnace run, channelling, change hanging, cold and hot run of the furnace, etc).
Blast Furnace Equipment: Ladles Topedoes, Anzitiaryequipments e.g. for cleaning and utizations of blast furnace gases, etc.
Alternative Methods of Iron Making: Pellet production (Green ball formation its composition, binder and machine etc), sintering (flared and unflared), direct iron reduction and coke production. High Manganese; pighon production its uses.
Blast Furnace Design and Operation: General design principle; Blast furnace profile; refractories instrument, Blast furnace assay calculation and thermal balance.
Physical Chemistry in Steel Making: Thermodynamics oxidations reactions e.g. Carbon, sulphur, phosphorus, manganese etc. De-oxidation of steels by Mn, Si, Ti, Al, Si-Ca, Si-Mn etc. recipitaion de-oxidation. Diffusion de-oxidation. De-oxidation. De-oxidation using vaccum, and synthetic slags. Gases and non-metallic inclusions in steels. Steel maing slags, classification of steels.
Open-Hearth Process: Principles of the open-hearth Process.
Bessemer Processes: Construction of the converters. Acid and Basic processes (Advantages and Disadvantages). Modifications of the processes.
Oxygen Process: Developments of LD Converters. Construction of LD converter (Linings & Raw materials). Oxidation of impurities in the LD process. Steel making practice. Merits and Demerits of the process. Modifications – KALDO, ROTOR, LD-AC Processes. Electric Arc
Furnace Process (EAF): Advantages of the EAF process. Construction of EAF and RA materials. Technology of EAF steelmaking (Basic & Acid). Steelming in Induction furnaces. Production of steel from sponge Iron.
Special Treatments: Iron gas (especially Argon) injection. Injection of powdered materials. Naccum Treatment of Steels (RH, DH, ladle, etc). Treatment of steel with synthetic slags.
Casting Technology: Crystallization of steel. Ingot structure. Types of Ingots and their casting. Ingot Defects and their control. Continuous casting of steel – Types, practice Merits and Demerits.
Special Steel Production: Stainless steel production using AOD, VOD methods. High-Speed steel production. Alloy-steel production. Ball-Beating steel production, and ferro-alloy productions.
Secondary Steelmaking Practice: Electro-slag remelling (ESR). Vaccum EAF and vaccum Induction furnace. Plasma
Process Design (2 Units: LH 30)
Fluid Flow: Viscocity and Viscous Flow; The differential equations of fluid motion; Turbulent flow; Overall energy balances in fluid flow;
Heat Transfer: Thermal conductivity and steady state conduction, Unsteady state conduction of heat, Convective heat transfer, Radiation heat transfer, Heat transfer with phase changes.
Diffusion and Mass Transfer: Diffusivity and steady state diffusion, Unsteady state mass transfer, Mass transfer coefficients, Simultaneous heat and mass transfer, Coupled transport phenomena.
Techniques of Process Analysis: Staged operations, continuous flow systems, Similarity criteria, dimensional analysis and modelling.
Metallurgical Reaction Systems: Single particle reaction systems, packed bed and fluidized bed system, Gas bubbles in liquids, Gas jet liquids systems, Hydrometallurgical systems, Slag-Metal reactions, Steelmaking.

MME 512 Foundry Technology I (2 Units)
Introduction: Present status and scope of foundry industry in the country.
Moulding and Casting Processes: Sand, mould, permanent mould, plaster mould, shell mould, centrifugal, investment and diecasting methods, shell moulding and CO2 processes.
Sand Technology: Moulding and core sands- (sand aggregate, bonding materials and special additives), Mechanism of bonding. Testing of foundry sands. Effects of variable of the properties of moulding and core sands. Sand preparation- method, equipments and control.
Pattern: Functions and classification. Pattern and materials.
Casting Defects: Defects due to incorrect moulding practices (sand and cores, etc.)
Casting Design: With relevance to moulding materials, gating and risening.
MME 526 Foundry Technology II(2 Units: LH 30)
Solidification of Casting: Principles of solidification of metals and alloys, directional solidification, coring and segregation.
Gases in Metals: Oxides, nidtrides and carebids, porosity, nitrogen and hydrogen. Their solubility with particular reference to sulphur and phosphorus below.
Melting: Melting furnaces, melting and pouring practices.
Ferrous Foundry Practices: Cast irons, white, gray, ductile, malleable and heavy duty and steel melting and foundry characteristics.
Non-Ferrous Foundry Practices: Melting, alloying, fluxing and casting practices of Al-base and Cu-base alloys.
Casting Defects: Defects due to incorrect melting alloying practices. Inspection, Salvaging and Finishing of Castings.

MME 513 Welding and Brazing (2 Units)
Introduction: Role of welding and brazing as manufacturing processes.
Welding: Types of welding processes- gas, arc resistance, flash, friction lector-and electro-slag welding, etc. Brief treatment of newer processes such as explosive, plasma arc and electron beam welding. Welding rods and fluxes, protective atmospheres, welding defects and weldability of metals and alloys. Effect of welding processes and parameters on the structure and mechanical properties of weldments. Heat-treatments of welds. Design and Testing of Welded Joints
Brazing: Scope and limitations types of processes, brazing alloys, brazing of commercially important ferrous and non-ferrous metals and alloys.

MME 510 Metallurgical Analysis II (2 Units)
Introduction: General properties of metals. Full explanation of mechanical properties parameters, e.g. Strength, ductility, hardness, toughness, etc. Typical Mechanical properties values of common metals and alloys.
Testing of Materials
Shear Testing: Transverse and torsion tests. Significance of shears properties of materials.
Creep Testing: Cree curves, short-term and long-term creep tests, strength.
Fatigue Testing: S-N curves, fatigue limit and fatigue testing machines.
Impact Testing: Notch Sensitivity in materials. Stress concentration effects of imperfection, notches, voids and inclusion. Impact testing Machines, Izod and Charpy. Transistion temperatures of materials.
Hardness Testing: Types of testing machines (indentation tester, micro-hardness tester and shore so leroscope) and their principles.
Non-Destructive Testing: Principles, scope and limitations of radiographic, magnet, electric, ultrasonic and fluorescent methods including their applications.

MME 514 Powder Metallurgy (2 Units)
Introduction: Historical Background of powder Metallurgy. Comparison of LP/M principles of forming with other methods of forming metals viz plastic deformation of hot and cold metals, casting of molten metal and machining.
General Principles of Powder Metallurgy: Various stages of powder metallurgy process (Process Flow Sheet).
Equipment: Plant and equipment used to implement the various stages of production.
Metal powder Production: Different methods for the manufacturer of metal powder.
Powder Characterization and Testing: Sampling of powder, Chemical tests, Particle size distribution; Particle shape and structure.
Compacting: Mixing of metal powders, Behavior of metal powders under pressure, Density and stress distribution within compacts under pressure in rigid dies. Automatic compacting, Compacting other than rigid dies.
Sintering practice: Batch and continuous types of furnaces with protective atmospheres. Vacuum sintering furnaces, purpose of sintering atmosphere. Description of sintering atmospheres. Thermodynamic background of sintering atmospheres. Dimensional and weight changes of sintering products.
Finishing operations: Machining and joining of sintered parts. Electroplating and Electroless plating, evaporation coating, surface treatments; impregnation treatments, combination treatment.
Defects in sintered parts: Special techniques to overcome limitations or defect.
Products applications: Application of P/M structural parts and powder forgings, their economics and the energy requirements to produce them.

MME 515 Composites (2 Units)
Historical background of composites and definition of base terms particle- reinforced.
Composites: large-particle composites, dispersion strengthened composites.
Fiber- Reinforced Composites: Influence of fiber length, influence of fiber orientation and concentration, the fiber phase.
The Matrix-Phase: Polymer-Matrix composites, Metal- Matrix composites, Ceramic- Matrix composites, Carbon-Carbon composites, Hybrid composites, Processing of fiber-reinforced composites.
Structural Composites: Laminar composites, Sandwich panels
Test Applicable to composites: Mechanical, physical and chemical

MME 516 Production and Financial Management (2 Units)

Production economics; Nature and significance of production costs; Objectives of cost analysis and cost control; Standard and marginal costing; Allocating of overheads; Overhead absorption and brake-even analysis; Variance analysis and budgetary control; Profit planning and planning and profitability analysis; Project cost control analysis.

MME 517 Metallurgical/ Laboratory Course Work IV (1 Unit)
These covers laboratories practical in the following course and where possible:-
a. Electrometallurgy and Corrosion
b. Foundry Technology
c. Welding and Brazing
d. Mechanical Working of Materials
e. Furnace Technology
f. Composites
g. Engineering Plastics

MME 518 Principle of Materials Selection (2 Units)
A professional approach to stress the metallurgical view point of composition, micro-structure, heat-treatment, influences of impurities, mechanical and environmental considerations involved in the following commercial methods and alloys and their application: -
1. Metals and alloys for heavy, medium and light castings.
2. Light weight structural alloys of aluminum, magnesium and titanium.
3. Structural steels (plain carbon, alloys steels and ultra -high strength steels).
4. Tool steels (carbon, low alloy and high speed tool steels).
5. Bearing materials (white metals, aluminum-and –copper-base materials).
6. Materials for electrical conductors, contacts and resistance (heating elements etc).
7. Magnetic materials.
8. Corrosion - and heat resistant alloys.
9. Alloys for low and high temperature application.
10. Alloys for forming operations.
Economic and Environmental Issues in Material Selection
Engineering Economics: Introduction, time Value of Money, Single Payment Discounting, Value, Multi-payment Discounting, Non- uniform Cash Flows, Effective Interest Rates, Evaluating Alternatives, MARR, PW, AW, IRR, Uncertainty, Comparing Alternatives, Dealing with Changing Prices.
Materials selection: Concepts of Materials indices, Material and Shape Selection, Process Selection.
Cost Modeling: Using Cost Models, Concepts and Principles, Tackling Variable Costs, Modeling Fixed Costs.
Life Cycle Assessment: Introduction, What is the Cost of Material Usage?, An Overview of Life Cycle Assessment, Analysis Goal and Scope; Inventory methods, Impact Assessment.

MME 521 Heat Treatment of Materials (2 Units)
Heat treatment processes: annealing, normalizing, quenching, tempering, austempering, case hardening, precipitation hardening, solution treatment. Basic principles of selection of heat treatment conditions using the phase diagram. Heat treatment of ferrous metals and alloys, cast irons, carbon steels, low alloy steels, tool steels, stainless and heat resisting steels. Heat treatment of non-ferrous metals, aluminium and alloys, copper and alloys. Heat treatment defects. Safety considerations in heat treatment plant.

MME 522 Mechanical Working of Materials (2 Units)
Rolling of Metals: Rolling mills and accessories, elements of all pass design, manufacture of rolled products.
Forging and Extrusion: Type of forging processes, forging equipment’s, and forging defects. Roll forging and rotary swaging, Type of and variables in extrusion. Extrusion Equipment.
Miscellaneous Metal Working Processes: Wire drawing, tube making, sheet metal forming, manufacture of wheels, axles and tyres. Explosive forming. Powder Metallurgy (Metal powder production, compacting and sintering).

Management Functions: (Organizing, staffing, controlling, coordinating, directing). Organization charts and organizational levels. Organization structures: (line, line and staff, functional, matrix, informal). Use of committees, organizational planning (short-term, intermediate-term and long-term). Personnel management: Role of people in an organization. Functions of personnel department (employment, training, health, safety, benefits, incentive schemes, services etc). Financial management: Basic cost elements (direct labour cost, direct material cost, overhead, factory cost). Quality Management: Product life cycle, quality assurance, quality control techniques, organizing for quality, economics of quality (appraisal, failure and prevention costs). Product liability: Total Quality Management, Maintenance; Types of maintenance (corrective, preventive, predictive). Nigeria Legal System as it affects engineering: Industrial safety laws; industrial law and labour relations, law of contracts and torts; agency law. Principles and types of business ownership, including advantages and disadvantages of each; steps in setting up a partnership.

MME 525 Final Year project (6 Units)
This involves a research work of a chosen and approved topic of which a student is assigned a supervisor to guide him/ her in the course of research. A bound copy of the write up on the research will be submitted to the department at the end of the semester after having defended it before the departmental board of examiners.

MME 527 Furnace Technology (2 Units)
Fuels: comparative study of solid, liquid and gaseous fuel and factors governing their choice. Manufacture of metallurgical coke. Choice, preparation and blending of coal. Types of coke ovens and recovery of by -products fuel economy – numerical calculations on combustion and fuel efficiency.
Furnaces: furnace as a system involving heat generation, utilization and losses. Construction and operation of melting, reheating and kiln type of furnaces. Sources of heat loss in furnaces and their prevention – insulation, recuperation, regeneration, waste heat boilers, furnaces atmosphere and control. Fuel economy and thermal efficiency of furnaces. Natural, induced, force and balance draft. Calculation of natural draft. Regulation of primary, secondary and excess air in furnaces.
Refractories: Types, properties, applications and manufacture of refractories.

Atomic structures; nuclear structure and binding forces. The decay of radioactive nuclei. Introduction to nuclear reactions. Classification and use of reactors. Reactor components and materials. The behaviour of fuel, moderator, reflector shielding, control rod and structural materials in nuclear reactor environments with emphasis on the mechanism and effects of radiation damage – swelling and structural changes. Reprocessing of nuclear fuels and nuclear waste management.

Introduction to zeolite Technology ( Natural and synthetic zeolites ), Synthesis mechanism of zeolites ( crystal growth and nucleation) structural chemistry of zeolites, post-synthetic treatment and modification of zeolites, characterization of zeolitic materials, Application of zeolitic materials ( Catalysis, Ion exchange and membranes)

MME 530 FUEL CELLS (2 Units)
Introduction to fuel cells, Concepts of fuel cells, Types of fuel cells: Alkaline fuel cells, proton exchange membrane fuel cells, molten carbonate fuel cells, phosphoric acid fuel cells, solid oxide fuel cells, direct methanol fuel cells. Electrochemistry of fuel cells, Transport phenomena in fuel cells.

Fundamentals of photoelectric conversion: charge excitation, conduction, separation, and collection. Commercial and emerging photovoltaic (PV) technologies. Cross-cutting themes in PV: conversion efficiencies, loss mechanisms, characterization, manufacturing, systems, reliability. Life-cycle analysis, risk analysis. Photovoltaic technology evolution in the context of markets, policies society, and environment.

Framework silicates . Feldspars and feldspathoids: Structure types, ordering processes, exsolution and twinning. Scapolites. Zeolites and zeolitic water. Geological and practical significance of zeolites. Borosilicates. Sheet silicates . Kaolinite. Alteration of feldspars. Serpentine and serpentinites. Asbestos and related health hazards. Talc and related minerals. Chlorite group. Mica group. Smectites, mixed-layer sheet silicates and the mineralogy of soils. Chain silicates . Wollastonite and pectolite. Rhodonite. Pyroxenes and amphiboles: The primary source of petrogenetic information. Ultramafic rocks. Green and blue schists, amphibolites. Biopyriboles. Ring silicates . Cordierite and beryl: Transitional structures. Tourmaline group: A rainbow of colors. Dioptase. Eudialyte. Axinite. Neso- and sorosilicates . Olivine and related structures. Mineral composition of the Earth’s upper mantle. Garnet group: From the transition zone to low-grade metamorphism. Zircon. Titanite. Andalusite, kyanite and sillimanite: The metamorphic trio. Staurolite. Topaz. Humite-group minerals. Chloritoid. Hemimorphite. Epidote-group minerals and saussuritization. Vesuvianite.
Introduction; Structure of ceramic materials; Structure of glass; Transformation Temperature of glass. Fracture strength; Impact resistance and toughness; statistical variations in strength and Weibull distribution. Thermal shock resistance and Thermal spalling resistance; Refractoriness.
Glass-Ceramics: Properties and Applications.
Deterioration: Chemical attack (e.g. on concrete) at high temperatures (e.g. on ceramic refractories); Nuclear radiation damage.

Introduction: General definition of Wood , Classes of Wood
c) Traditional Wood in the group of domestic and art wares; etc.
d) Engineering or industrial Wood
e) Processing of wood
f) Structure of wood
Properties of Wood e.g mechanical, physical and chemical properties
Preservation of wood for industrial used.
Application of wood in Metallurgy e.g pattern making in foundry

Programme/Sub-discipline/Discipline Structure to include period of formal Studies in the University, Industrial training, planned visit and projects. This is made up of four parts, which are:
a.. 100-200 Levels: General Studies, Basic Sciences, and General Engineering Courses. General Studies and Basic Science courses are normally taught by Lecturers from other Schools/Departments.
b.. 300 - 500 Levels: Core Materials and Metallurgical Engineering Courses/Electives.
c. Student's Work Experience Programme (SWEP) 3 months.
d. Student's Industrial Work Experience Scheme (SIWES) 9 months.
e. Research Projects

The student is expected to go for a one year industrial training; which is an integral part of the five year degree programme. This is made up of ten (10) weeks of Students Work Experience Programme (SWEP ) at the end of 200 level, Twelve (12) weeks of Student Industrial Work Experience Scheme (SIWES I) which is done in an industry at the end of 300 level, and twenty – four (24) weeks of Student Industrial Work Experience Scheme (SIWES II) during the second semester 400 level. i.e. at the end of the students first semester 400 level examination.
However, an academically weak student may be advised to defer SIWES II, until clears all carry-over (failed) courses. Such student must satisfy the SIWES requirements before proceeding to 500 level.
Note: Students on SIWES cannot concurrently register for (or take) any course during the semester while undertaking the programme (SIWES).

1. Except where specifically stated, materials relevant to the examination should not be brought into the examination Hall.
2. The Senate shall impose penalties for any examination malpractices after thorough investigation.
3. Proven cases of cheating shall be punished with dismissal from the University. Other cases will be treated on their individual merits.
4. Suspected examination malpractices shall be investigated by the School panel and its report and recommendations submitted to the Students’ Disciplinary Committee through the Registrar for determination subject to approval by the Vice-Chancellor.
5. Graded punishments include the following:

1. Writing Before an Exam was officially started First offender: Warning. Second offender: Suspension for one semester
2. Writing beyond the official termination of examination Letter of warning and deduction of 5 marks. To be done at the spot by the invigilator.
3. Talking to another candidate during examination First offender; Warning. Second offender: Suspension
4. Writing on question paper Letter of warning and deduction of 5 marks.
5. Being caught with extraneous material not relevant to the examination Cancellation of paper of the affected student.
6. Anyone caught using foreign materials inside the examination hall that are relevant to the Examination/course. Expulsion
7. Anyone who brought relevant materials into the hall but was not caught using it. Suspension for two semesters
8. Unruly behaviour e.g. changing position without permission Suspension for one semester
9. Smuggling in/out of the examination hall, Blank answer booklet or continuation Sheet. First offender: Minimum of 2 Years suspension. Those with previous records, expulsion.
10. Anyone who brought into the examination hall already written answer script or continuation sheet. Expulsion
11. Aiding and abetting ‘grafting’ Suspension for one semester
12. Giving false evidence Suspension
13. Refusal to give evidence on request Suspension
14. Previous involvement in two examination misconduct with penalties less severe than rustication Explosion
15. Assaulting/Fighting an invigilator or any officer of the University Expulsion
16. Being in possession of dangerous weapon in and around the examination hall. Expulsion
17. Involvement in examination leakage Expulsion
18. Impersonation (both the impersonator and collaborator Expulsion
19. Those who fail to submit answer scripts at the end of examination Suspension for one session
20. Students who failed to sign out after Examination First offender: Warning, Second offender: Suspension for one semester
21. Refusal to surrender incriminating evidence, chewing or destruction of materials. Expulsion
22. Refusal to write statement Expulsion
23. Forging any document relevant to the Examination Expulsion
24. Anyone who refused to be identified and/or searched at the entrance of an examination hall. Suspension from the examination for that particular paper, through Examination Officer and Dean.
25. Staff harassment or intimidation for leakage of examination questions Expulsion
26. Writing on question paper Letter of warning and deduction of 5 marks.
27. Anyone who takes GSM handset into the Examination hall. Suspension for one semester
28. Refusal to appear before the Students Disciplinary Committee within a session following examination misconduct. Expulsion
29. Those who exchange or transfer calculator in the examination hall. Expulsion.
30. Exchange of answer booklets Expulsion
31. Writing on any part of the body and clothes Expulsion
32. Discussion in the course of writing an examination. Letter of warning
33. Making some writings relevant to the course at the back of calculators including placing relevant material inside Mathematical-set. Expulsion
Exchanging answer script or question papers or any relevant writing materials during Examination. Expulsion. Note. Relevant material: Suspension for one semester.

Students’ dressing should reflect a high sense of morality and decency and show respect for the sensibilities of other members of the community. Therefore, the following types of dressing and physical appearances re prohibited on the University campus:
1. Short and skimpy dresses e.g. Body hugs, Show-me-your chest/back/stomach; Spaghetti wears and dresses exposing sensitive parts.
2. Tight shorts and skirts that are above the knees (except for sporting purposes).
3. Tattered jeans with holes and/or patches.
4. Transparent and see-through dresses.
5. Tight fittings e.g. Jeans, Shirts, Hip Star, Patra, Lactra, Cross-No Gutter, Mini-micro and others that reveal the contour of the body.
6. Under clothing, such as singlets worn publicly.
7. Unkempt and haggard appearance, including bushy hair and rough beards.
8. Dresses that make it impossible to wear laboratory coat during practicals or participate actively in practicals.
9. Long and tight skirts, with long slits that reveal sensitive parts.
10. Wearing of T-shirts with offensive captions.
11. Shirts without buttons or not properly buttoned leaving the wearer hare chested.
12. Wearing of earrings by male students.
13. Plaiting or weaving of hair by male students.
14. Wearing of coloured eye glasses, except on medical grounds in the classrooms/lecture halls/library/offices.
15. Wearing bathroom slippers to class/library/offices (except on medical grounds).


Our vision is to be an internationally recognized centre of excellence for training, research and development in the field of Materials and Metallurgical Engineering.


i. Providing high quality learning programme, training and research activities.
ii. Graduating students with required skills of national relevance to compete at international level.
iii. Attracting and developing high calibre faculty members for advancing cutting edge research in materials engineering.

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