Materials Testing
Industrial Materials
Advanced Materials
Materials Engineering

Metallurgical & Materials Engineering

Advanced Materials for Modern Industry

Department of Metallurgical and Materials Engineering

School of Infrastructure, Manufacturing and Minerals (SIMME)• Federal University of Technology, Akure

Materials Science Metallurgical Processing Microstructure Analysis Phase Transformation Corrosion Engineering Advanced Composites

About the Department

The Department of Metallurgical and Materials Engineering at the Federal University of Technology, Akure (FUTA), within the School of Engineering and Engineering Technology, is dedicated to advancing knowledge and application of materials science and metallurgical processes. Our department trains highly skilled engineers capable of developing, designing, and optimizing materials and processes for advanced technological applications across aerospace, automotive, energy, manufacturing, and other critical sectors.

Metallurgical and Materials Engineering involves the mastery of the science and engineering of metals, ceramics, polymers, and composite materials. Our comprehensive curriculum integrates materials science, metallurgical thermodynamics, physical metallurgy, mechanical metallurgy, materials processing technology, and advanced characterization techniques. Students develop expertise in materials selection, processing, microstructure analysis, property prediction, phase transformation, corrosion control, and materials failure analysis.

The department features state-of-the-art materials laboratories equipped with sophisticated analytical instruments including scanning electron microscopes, X-ray diffractometers, thermal analysis systems, mechanical testing equipment, and metallographic workstations. We maintain strong partnerships with industries in aerospace, automotive, energy, and mining sectors, providing students with industrial projects, research collaborations, and practical exposure to metallurgical plant operations and advanced materials processing facilities.

Graduates of Metallurgical and Materials Engineering are highly sought professionals in aerospace industries, automotive manufacturing, energy sectors, mining operations, materials research institutions, and quality assurance roles. They excel as materials engineers, process engineers, quality control specialists, research scientists, and technical consultants. Our alumni contribute significantly to innovation in materials technology, industrial productivity, and development of sustainable advanced materials for next-generation applications.

What We Offer

Academic Programs

  • B.Eng in Metallurgical and Materials Engineering - 5-year undergraduate program
  • B.Tech in Metallurgical and Materials Engineering - 4-year technology program
  • M.Eng in Materials and Metallurgical Engineering - Postgraduate specialization program
  • Ph.D in Materials Science & Engineering - Advanced research degree

Core Focus Areas

  • Materials Science & Characterization
  • Metallurgical Thermodynamics
  • Physical Metallurgy & Phase Transformations
  • Mechanical Metallurgy & Failure Analysis
  • Extraction & Mineral Processing
  • Corrosion Engineering
  • Advanced Composites & Nanomaterials
  • Materials Processing & Manufacturing

Laboratory Facilities

Metallography & SEM Laboratory

Scanning electron microscopy, microstructure analysis, specimen preparation

X-ray Diffraction Laboratory

Crystal structure analysis, phase identification, crystallography

Materials Testing Laboratory

Tensile testing, hardness testing, thermal analysis, mechanical properties

Research Focus Areas

Our department conducts advanced research in metallurgical and materials engineering disciplines:

Materials Science & Characterization

Microstructure analysis, crystal structure determination, phase identification, advanced microscopy, spectroscopy analysis.

Metallurgical Thermodynamics & Kinetics

Equilibrium calculations, phase diagrams, thermodynamic modeling, reaction kinetics, transport phenomena.

Physical Metallurgy & Phase Transformation

Crystallization, precipitation, diffusion, grain growth, martensitic transformation, heat treatment optimization.

Mechanical Metallurgy & Failure Analysis

Stress-strain behavior, fatigue analysis, fracture mechanics, failure investigation, material selection for applications.

Extraction & Mineral Processing

Ore processing, metal extraction, pyrometallurgy, hydrometallurgy, waste reduction and recycling.

Corrosion Engineering

Corrosion mechanisms, material degradation, protection systems, coating technology, high-temperature corrosion.

Advanced Materials & Composites

Polymer engineering, ceramic materials, composite design, nanomaterials, smart materials development.

Materials Processing & Manufacturing

Casting technology, foundry processes, welding engineering, powder metallurgy, metal working operations.

Career Opportunities

Metallurgical and Materials Engineering graduates pursue diverse careers across multiple industries:

Aerospace Materials Engineer

Design aerospace materials and components for flight

Automotive Materials Engineer

Develop materials for automotive performance and safety

Process Engineer

Optimize metallurgical production and manufacturing processes

Materials Scientist

Research and develop new advanced materials

Quality Assurance Engineer

Ensure materials meet specifications and standards

Production Manager

Oversee metallurgical plant operations

Failure Analysis Engineer

Investigate material failures and prevent recurrence

Corrosion Control Specialist

Develop corrosion protection strategies

Academic & Researcher

Teach and conduct research at universities

Course Materials & Resources

Access comprehensive metallurgical and materials engineering materials, laboratory manuals, processing guides, and research resources organized by academic level.

100 Level Resources - Engineering Foundations

General science and mathematics foundations common to all engineering disciplines.

First Semester

Foundation Sciences

Mathematics I, Physics I, Chemistry, Engineering Drawing.

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Second Semester

Engineering Basics

Mathematics II, Physics II, Engineering Mechanics, General Studies.

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Foundation Year

100 Level covers engineering foundations. Courses include Mathematics, Physics, Chemistry, Engineering Drawing, and introductory materials science.

200 Level Resources - Core Materials Science

Fundamental materials science, crystallography, and materials characterization.

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Materials science, crystallography, phase diagrams, and materials testing basics.

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Materials Science

Atomic structure, bonding, crystal systems, defects

Crystallography

Crystal structures, Miller indices, X-ray diffraction

Phase Diagrams

Binary and ternary diagrams, phase equilibrium

Mechanical Properties

Stress-strain, elasticity, plastic deformation

Laboratory Techniques

Specimen preparation, microscopy, testing

Materials Calculations

Composition analysis, property estimation

300 Level Resources - Metallurgical and Materials Engineering

Courses covering physical metallurgy, polymer science, thermodynamics, phase diagrams, mechanical behavior, and foundry technology.

First Semester - Physical Metallurgy, Polymers, Thermodynamics

Group 5 MME 301

Group 5 project materials for MME 301

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MME 305 ms

Materials science notes for MME 305

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MME 307

General physical metallurgy notes for MME 307

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MME 307 Chapter 6

Chapter 6 notes on physical metallurgy

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MME 307 Initial

Introductory notes for MME 307

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MME 307 Termpaper

Term paper guidelines and topics for MME 307

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MME 307...

Additional physical metallurgy resources

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MME 307 Oxford Materials

Oxford materials science references for MME 307

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MME 307 Physical Chemistry in Brief

Concise physical chemistry notes for metallurgy

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MME 307 Physical Chemistry

Comprehensive physical chemistry for metallurgy

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MME 307 Principles of Physical Metallurgy

Core principles of physical metallurgy

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MME 307 Solid State Physics

Solid state physics concepts for materials engineering

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MME 313 Activation Energy Assignment

Assignment on activation energy in thermodynamics

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MME 313 Thermochemistry

Thermochemistry principles for materials processing

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MME 313 Thermodynamics - An Engineering Approach

Thermodynamics textbook for engineering applications

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MME 313 Thermodynamics Document

Supplementary thermodynamics notes for MME 313

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MME 317 Assignment

Polymer science assignment for MME 317

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MME 317 Bulk Polymerization

Notes on bulk polymerization techniques

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MME 317 Chapter 10

Chapter 10 notes on polymer science

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MME 317 Polymer Assignment

First polymer assignment for MME 317

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MME 317 Polymer Assignment 2

Second polymer assignment for MME 317

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MME 317 Polymer and Structures

Polymer structures and properties

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MME 317 Polymers and Composites

Polymer composites and their applications

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MME 317 Polymers

General polymer science notes

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MME 317 Properties of Polymeric Materials

Mechanical and thermal properties of polymers

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MME 317 Thermosoftening and Thermosetting Plastics

Properties of thermoplastics and thermosets

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MME 319

General materials engineering notes for MME 319

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Second Semester - Mechanical Metallurgy, Phase Transformations, Foundry

MME 302

General metallurgy notes for MME 302

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MME 302 Chapter 12 Coagulation

Chapter 12 notes on coagulation in metallurgy

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MME 302 Problems and Prospects of Iron and Steel Development

Challenges and opportunities in iron and steel industry

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MME 302 Material

Supplementary metallurgy materials for MME 302

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MME 302 Major

Major topics in metallurgy for MME 302

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MME 302 MCO Title Holders

Metallurgy notes focusing on key title holders

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MME 302 Metallurgy

Core metallurgy concepts for MME 302

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MME 302 Ohimain

Metallurgy notes by Ohimain for MME 302

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MME 302 Strengthening Mechanism One

First part of strengthening mechanisms in metallurgy

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MME 302 Strengthening Mechanism Two

Second part of strengthening mechanisms in metallurgy

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MME 304 Introduction to Phase Diagrams for Material Science

Phase diagrams and their applications in materials science

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MME 304 Deformation

Deformation mechanisms in materials

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MME 304 Note

General notes for MME 304 phase transformations

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MME 304 Pattern Making

Pattern making techniques for foundry processes

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MME 304 Phase

Phase transformation principles and diagrams

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MME 304 Termpaper

Term paper guidelines for MME 304

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MME 304 Phase Transformation

Detailed notes on phase transformations

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MME 304 Document

Supplementary documents for MME 304

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MME 306 Fundamentals of Metal Working

Principles of metal forming and working

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MME 306 Document (2)

Additional mechanical metallurgy documents

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MME 306 Fracture

Fracture mechanics in materials

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MME 306 Tension

Tensile properties and behavior of materials

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MME 306 Creep and Stress Rupture

Creep and stress rupture mechanisms

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MME 306 Chapter 1-3 Mechanical Metallurgy

Chapters 1-3 of mechanical metallurgy

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MME 306 Crystal Structures

Crystal structures and their impact on material properties

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MME 306 Mechanical Behaviour of Materials

Mechanical behavior and testing of materials

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MME 306 Mechanical Properties of Engineered Materials

Properties of engineered materials under mechanical stress

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Foundry MME 308

Introduction to foundry technology for MME 308

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MME 308 - Is Fluid Important for Predicting Solidification

Fluid dynamics in solidification processes

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MME Textbook

Standard textbook for metallurgical engineering

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MME 308 Binder MCM

Binder materials in metal casting

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MME 308 Casting

Casting processes and techniques

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MME 308 Chapter 10 Fundamentals of Metal Making

Chapter 10 on metal making fundamentals

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MME 308 Chapter 10 Fundamentals of Casting

Chapter 10 on casting fundamentals

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MME 308 Foundry

General foundry technology notes

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MME 308 Foundry Lecture 3 Slide

Lecture 3 slides on foundry technology

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MME 308 Foundry Technology

Comprehensive foundry technology notes

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MME 308 Foundry Technology by Peter Beley (LEGACY)

Classic foundry technology textbook by Peter Beley

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MME 308 Gating and Risering

Gating and risering systems in casting

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MME 308 Handout

Foundry technology handout for MME 308

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MME 308 MAT

Materials and techniques for foundry processes

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MME 308 Mr Dara Assignment (LEGACY)

Legacy assignment by Mr. Dara for MME 308

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MME 308 New

Updated foundry technology notes for MME 308

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MME 308 Note Pattern Making

Pattern making notes for foundry technology

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MME 308 Solidification Metal Flow Principles Lecture 1

Lecture 1 on metal flow and solidification principles

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MME 308 Solution Manual Chapter 11-20

Solution manual for chapters 11-20 of foundry technology

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MME 308 Technical Report Writing Lesson 1

Lesson 1 on technical report writing for MME 308

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MME 308 by LEGACY

Legacy foundry technology materials for MME 308

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400 Level Resources - Advanced Metallurgy

Advanced materials, extraction metallurgy, welding, and specialized applications.

Advanced Metallurgical Engineering

Extraction metallurgy, corrosion engineering, mechanical metallurgy, welding technology.

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Extraction Metallurgy

Pyrometallurgy, hydrometallurgy, metal recovery

Corrosion Engineering

Corrosion mechanisms, prevention, materials selection

Mechanical Metallurgy

Deformation, strengthening, fracture analysis

Welding Engineering

Weld metallurgy, joint design, quality control

Foundry & Casting

Casting processes, mold design, defect prevention

Engineering Design

Materials selection, design criteria, optimization

500 Level Resources - Research & Specialization

Advanced specialization, research projects, and cutting-edge materials technology.

Research & Innovation

Advanced materials specialization, final year project, research methodology, emerging technologies.

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Physical Metallurgy II

Advanced transformations, theory of dislocations

Advanced Composites

Composite design, nanomaterials, biomaterials

Aerospace Materials

High-temperature alloys, composite structures

Powder Metallurgy

Powder production, sintering, advanced applications

Final Year Project

Research thesis, experimental work, innovation

Professional Practice

Ethics, standards, industry best practices

Admission Requirements

UTME Requirements

  • Minimum UTME score as set by JAMB and FUTA
  • Subject combination: English Language, Physics, Mathematics, and Chemistry
  • Five O'Level credit passes in no more than two sittings
  • O'Level credits must include: English, Mathematics, Physics, and Chemistry

Direct Entry Requirements (200 Level)

  • A'Level passes in Mathematics and Physics (minimum grade C)
  • ND Upper Credit in Metallurgical Engineering or related discipline
  • GCE Advanced Level passes in science subjects
  • Plus O'Level requirements as stated above