Department of Mechanical Engineering

Mechanical Engineering

Name of Department:                             

Department of Mechanical Engineering

Name of Ag.Head Of Deparment:         

Dr. Ogheneruona E. Diemuodeke

Contact E-mail:                                         

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1: Brief Historical Background 1
Mechanical Engineering is one of the broadest of the engineering disciplines. In University of Port Harcourt, the Department of Mechanical Engineering was established in 1986 as the last of the five (5) Departments in the Faculty of Engineering.  Studying Mechanical Engineering offers students a wide choice of options in industry. The University of Port Harcourt produced its first graduates in Mechanical Engineering in 1991/92 session.
The undergraduate programme in Mechanical engineering is for a minimum duration of five (5) academic years and a maximum duration of seven (7) academic years.  On successful completion of the programme and fulfillment of other University requirements, a Bachelors of Engineering degree in Mechanical Engineering (B.Eng., Mech. E) is awarded.
The Department has made three revisions of the courses it offers in its programme of study since inception to keep abreast with the dynamics of the profession as well as to meet the requirements of both the Council for the Regulation of Engineering in Nigeria (COREN), the National University Commission (NUC) and the University Senate.
The Department also supports postgraduate programmes leading to Masters of Engineering in Mechanical Engineering (M. Eng, Mech. Engr.) with options in Applied Mechanics and Design, Engineering Materials Design, Industrial and Production Engineering, and Thermofluid Engineering, and Doctor of Philosophy in Mechanical Engineering (PhD, Mech. Engr.).
To achieve national goals and objectives of industrialization and self reliance, the Engineering and Technology education should be geared towards:
i. The development of a thorough practice in Engineering and Technology training.
ii. Broad - based training in general Engineering and Technology at the early stages of the programme.
iii. Practical application of Engineering, Technology and Manufacturing processes.
iv. Adequate training in human, organizational behaviour and management.
v. Introduction to entrepreneurial education and training.
vi. Close association of the programme with industries in the country.
vii. The general philosophy therefore is to produce graduates with high academic standard and adequate practical background for self-employment as well as being of immediate value to industry and the community in general.
1.2 Vision Statement
The Department of Mechanical Engineering, University of Port Harcourt, shall be a centre of excellence in producing well-trained mechanical engineering graduates and in conducting applied research and development in Nigeria and the world, by attracting and retaining high quality staff and admitting and teaching the best students from across the country and the world.
1.3 Mission Statement
The Department of Mechanical Engineering shall:
(i) provide high quality education to the best brains from the locality, Nigeria and the world at large;
(ii) engage in applied research, design and development to aid local and national industries and thus, foster the industrialization of Nigeria;
(iii) expand the available product line to include new undergraduate and postgraduate programmes so as to more fully satisfy societal needs;
(iv) diversify the available product line by establishing and running an Integrated Industrial Centre (IIC) for the development and production of mechanical engineering and allied products (components and systems) to meet immediate, short-and medium-term needs of the locality; and
(v) foster Engineering professional practice in Nigeria through active participation in the activities/programmes of, and strict adherence to the regulation of both the Council for the Regulation of Engineering in Nigeria (COREN) and the Nigerian Society of Engineers (NSE).
1.4 Aim and Objectives of the Programme
The general aim of the programme is to train and produce graduates in Mechanical Engineering with sufficient academic background and practical experience who would be able to rise to the challenges of a developing economy,  in consonance with the realization of national needs and aspirations vis-à-vis industrial development and technological emancipation. Such graduates must therefore be resourceful, creative, knowledgeable and able to perform several functions. 
The objectives of the programme involve producing Mechanical Engineering graduates who can perform the following functions:
i. To design engineering projects and supervise their construction.
ii. To design and make components, machines, equipment and systems.
iii. To design and develop new products and production techniques in industries.
iv. To install and maintain complex engineering systems so that they can perform optimally in our environment.
v. To adapt and adopt exogenous technology in order to solve local engineering problems.
vi. To be able to exercise original thought, have good professional judgment and be able to take responsibility for the direction of important tasks.
vii. To be able to manage people, funds, materials and equipment.
viii. To improve on indigenous technology to enhance local problems solving capability.
Entry Requirement
Credit passes at the SSCE, WASC/GCE O-Level, NECO in English, Mathematics, Chemistry, Physics, and any one of Biology, Agric. Science, Technical Drawing, Further Mathematics.
The minimum admission requirements for entry into the 5-year Bachelor of Engineering Degree programmes are five 0-level credits which must include English Language, Mathematics, Physics, Chemistry or equivalent qualifications.  Also, required is a score in JAMB not below the cut-off point for the 
Course Outline
GES 100.1:  Communication Skills in English (3 Credits)
Study skills and methods including use of language and use of the library. Listening comprehension skills.  Reading skills.  Using grammar in reading and writing.  Writing skills.  Examination techniques. 
GES 101.2:  Computer Appreciation and Applications (2 Credits)
History of Computers.  Generations and classification of computers.  IPO model of a computer.  Components of a computer system – hardware and software.  Programming languages, organization of data.  Data capture techniques.  Introduction to computer networks.  Software and its application.  Use of keyboard as an input device.   DOS, Windows, word processing, spreadsheets.  Application of computers in Medicine, Social Sciences, Humanities, Education and Management Sciences.
GES 102.1:   Introduction to Logic and Philosophy (2 Credits)
The nature, definition and branches of Philosophy.  Philosophy and other disciplines.  Nature of philosophical problems.  Periods in the history of Philosophy.  Philosophy and  national development.  Types of argument and reasoning.  Inferences.
GES 103.2:  Nigerian Peoples and Culture (2 Credits)
The concept of culture.  Pre-colonial cultures and languages of Nigeria.  Principles of kinship, descent and marriage in Nigeria cultures.  Nigerian economic institutions.  Nigerian political institutions.  Education and development in Nigeria.  Religion in Nigerian culture.  Culture, environment and health practices in Nigeria.
GES 300: Fundamentals of Entrepreneurship 
The course discusses the Concept, history and the development of entrepreneurship; The Entrepreneur Qualities and Characteristics; The Entrepreneur and Business Environment; Identifying Business Opportunities; Starting and Developing New Business Ventures; Legal  Forms of Business Ownership and Registration; Types of Business Ownership; Feasibility Studies; Role of Small and Medium Scale Enterprise (SME) in the Economy; Role of Government on Entrepreneurship; Business Location and Layout; Accounting for SME; Financing SME; Managing of SME; Marketing in SME; Risk.
Management of SME; Success and Failure factors of SME; Prospects and Challenges of Entrepreneurship and Intrapreneurship, Ethical Behaviour in Small Business. 
ENG 101.1: Engineering Drawing I (2 Credits)
Introduction to drawing instruments, scales, draughting aids and their proper use. Size of paper and drawing layout.  Dimensioning, line work  and lettering. Geometrical constructions and Engineering graphics.  Development of geometrical figures and intersection of solids and curves.  Introduction to projections.
ENG 102.2: Engineering Drawing II (2 Credits)
Orthographic projections in first and third angles. Isometric Projection; sections and sectioning, auxiliary views and staggered sectioning.  Freehand sketching.  Conventional practices with Simple examples, including threads and threaded fasteners, cam profiles and Assembly drawing from detailed  components.  Pre-requisites  ENG 101.1.
ENG 103.2:  Engineer-in-Society (1 Credit)
History of Engineering and technology and the Philosophy of Science.  Development of the Engineering industry up to the present day.  Safety and health at work. The role of engineers in Nation Building.  Food production, housing, transportation, employment opportunities, energy supply, communication and social infrastructure, etc.  The choice of Engineering solutions and decision-making process, risk analysis, etc. Lectures by invited professionals.
ENG 104.2:  Manufacturing Technology/Workshop Practice (2 Credits)
Manufacturing methods with metal materials (cold and hot workings) such as deep drawing; wire  drawing; spinning and rolling; extrusion.  Machine-tool manufacture (turning, milling and shaping, etc), Fabrication by welding and threaded fasteners and riveting etc., metal-casting;  Manufacture of plastic products (moulding and blowing).  Use of hand-tools, bench work and measuring instruments.  Fitting and joining processes (soldering, brazing) wood-working and machinery.  Surface finishes, forging, etc
ENG 201.1:  Engineering Mathematics I Mathematical          Analysis (3 Credits)
Functions of several variables: functions of 2, 3 or more variables, partial derivatives, differentials, total differentials, application to approximate computations, Higher-order partial derivatives and differentials.  Differentiation of composite, and implicit functions of several variables. Extrema and Conditional extremum.  Change of variables.  Multiple integrals: Double and triple integrals, analysis in Cartesian coordinates, change of variables to polar, cylindrical, and spherical coordinates, curvilinear coordinates, application to problems of mechanics.  Integral  dependent on parameters, improper integrals, line integrals, Green’s  formula, conditions for independence of line integral on path, application of problems of mechanics and thermodynamics.  Surface integrals, fluid flux across a surface, properties, Stroke’s formula.  Field theory, vector field and vector lines.  Applied series: Expansion of power series, applications of Taylor’s series, Fourier series orthogonal systems of functions, the Parseval’s relation. Hilbert space, orthogonality with weight function, Fourier integral, Fourier transformation, applications. Special  Functions, Gamma, Beta, Error, Bessel, Legendre and hypergeometric functions.  Introduction to analytic functions, Cauchy-Riemann equations, conformal mappings. Pre-requisite: MTH 120.1
ENG 202.1:  Engineering Mathematics II (Linear Algebra and Analytic Geometry) (2 Credits)
Surfaces and curves in space, cylinders, cones, and surfaces of revolution.  First and  second-order algebraic surfaces, ellipsoids, hyperboloids and paraboloids.  Systems of linear equations:  Determinants, minors and  cofactors, evaluation methods.  Vector space, linear spaces, Euclidean space, orthogonality,  change of basis, inverse matrix,  eigenvectors and eigenvalues of a matrix, rank.  Linear mappings, symmetric, bilinear and quadratic forms.  Differentiation and integration of matrices.  Applications of matrix algebra Pre-requisite MTH 110.1 and 124.2.
ENG 203.1: Engineering Mechanics (Statics and Dynamics ) (3 Credits)
Basic concepts and principles of mechanics, equilibrium of particles in 2- and 3 – dimensions, moment and couple , system of forces, equilibrium of rigid bodies, friction – wedges, screw, wheel bolts and statically determinate structure -  beams, trusses, frames and machines.  Linear and curvilinear motions, acceleration, Kinetics of parties, Newton’s Second law, impulse , momentum, impact and restitution, work, energy, power and efficiency. Pre-requisite: PHY 101.1 and MTH 120.1
ENG 204.1: Basic Engineering Materials (2 Credits)
Atomic and crystal structures, Crystal  imperfections and impurities in solids.  Fundamentals of crystallography.  Atomic vibrations and diffusion.  Mechanical properties – Engineering and true stress – strain  curves, ultimate strength, ductility, impact strength, hardness.  Electrical properties- conductivity, semi-conductivity and super-conductivity. Optical and magnetic properties of materials.  Simple  phase diagrams  of alloys, with emphasis on the iron-iron carbide system.  The relationship between structure and properties. Creep, fatigue.  Heat treatment processes.  Stability of materials in the services environment – corrosive media, sub-zero and elevated temperatures, irradiation. Basic criteria for the selection of materials for Engineering  applications.  Engineering  properties of wood, concrete, ceramics, polymers, and non-ferrous metals and  allovs.  Pre-requisite:  CHM 131.2 and MATH 124.2
ENG 205.1:  Engineering Laboratory I (3 Credits)
Assigned laboratory exercises to reflect the basic Engineering courses in Applied Mechanics, Materials Science, Fluid Mechanics, Strength of materials.  Thermodynamics and Heat transfer. Guidance on specific experiments and calculations will be provided by the various Lecturers.
ENG 206.2:  Engineering Mathematics III (Differential          Equations) (3 Credits)
Ordinary differential equations; First-order equations, examples of Engineering models, equations with variables separable, Bernoulli’s  equation; exact equations; the envelops of a family of curves, singular solutions, Clairaut’s  and Lagrange’s equations, orthogonal and isogonal  trajectories. Second-and higher-order equations and systems of equations, transformation of higher-order equations to system of first-order equations, first integrals.  Linear equations, general theory, boundary value problems.  Euler’s equations, geometrical and physical interpretation of solutions.  Operators and the operator method of solving equations, system of linear equations.  Operational calculus, Laplace transform, theory and application to initial-value problems.  Introduction to partial differential equations elliptic, hyperbolic and parabolic equations.  Pre-requisite: MTH 120.1 and 124.2
ENG 207.2:  Basic Fluid Mechanics (2 Credits)
Fluid properties, fluid statics, principles of fluid flow and applications, flow measurements.  Real fluid flow, curvilinear flow (2-dimensional).  Dimensional analysis and similitude. Pipe flow and friction factors.  Boundary layers and drag Pre-requisite:  PHY 101.1 and ENG 211.1
ENG 208.2:  Basic Strength of Materials (2 Credits)
Force equilibrium – free body diagrams, centroids and second  moment of area.  Concept of stress and strain; stress-strain diagram.  Axially  loaded members, composite bars; temperature stresses; relation between elastic constants.  Thin cylindrical spherical and conical pressure vessels, cylindrical shells with rings, torsion of circular shafts and power transmission of shafts.  Axial force, shear force and bending moment diagrams.  Pure bending of beams,  bending stresses in composite  beams, shearing stresses in beams, complex  stresses; principal stresses.  Pre-requisite: ENG 211.1.
ENG 209.2: Basic Thermodynamics and Heat Transfer (3     Credits)
Engineering Thermodynamics: Basic concepts definitions, thermodynamic properties; the thermodynamic system units; equations of state for perfect and real gases, and gas mixtures, thermodynamics  work and  heat; the First law of thermodynamics, energy equations and  analysis; basic thermodynamic processes and cycles for ideal gas, pure substance and mixtures; reactive systems; thermodynamic relations; the  Second law of thermodynamics and introduction to irreversible processes.  Heat Transfer Basic concepts, heat transfer modes and rate processes. Fourier’s law of heat  conduction; Newton’s law of cooling; Stephan-Boltzmann law of thermal radiation and configuration factor algebra; stationary heat conduction in simple geometries and composite bodies; correlational equations for convective heat transfer, boiling and condensation; heat transfer by combined modes; insulation and intensification of heat transfer; electrical and triple analogies; introduction to heat exchangers.  Pre-requisite: PHY 101.1
ENG 210.2: Basic Electrical Engineering (3 Credits)
Circuit elements (R, L, C,) DC and AC circuits and signals Electrostatics and Electromagnetism, Basic circuit laws and theorems. Three phase circuits, power and  power factor. Electrical and electronic measurements and measuring instruments.  Introduction to machines. Introduction to Electronics; Semi-conductors.  Pre-requisite; PHY 101.1
ENG 211.2:  Engineering Laboratory II (1 Credit)
Assigned laboratory exercises to reflect the basic Engineering course in Electrical/Electronics.  Guidance on specific experiments and calculations will be provided by the Lecturer.
ENG 212.2:  Community Service (1 Credit)
Civil works beneficial to the University community and its environs including but not limited to farming, road building and maintenance, landscaping, planting of flowers and hedges, grass-cutting and general cleaning of  campus and its environs, concreting and laying of seating and footpath slabs.
ENG 213.1 Computer Programming for Engineers (2 Credits)
Computers, Computing and Engineering, Algorithms, flour chart and pseudo code.  Computer languages, programming in Fortran?  Or later versions.  Debugging  techniques.  Computer code security. Laboratory: Hands-on experience on computers through the use of  Compilers to run  programs’ and to solve  simple analysis problems in fluid, the thermodynamics, heat transfer and electrical systems.
ENG 300.3: Industrial Training I (0 Credit: Pass or Fail)
The practical exposure of the student through direct participation in the work of an industry, to real life working condition.  During the training, the student acquires a familiarity with Engineering works, organization. Physical layout, and the flow of information, materials and operations.  This information is expected to complement and integrate the student’s classroom instruction and laboratory/workshop exercises. Duration: 3 months
ENG 301.1:  Engineering Mathematics IV (Probability and      Statistics) (3 Credit)
Theory of probability: Motivation, probability models, probability axioms, combinatorial problems. Conditional probability, independence of events, Bernoulli trials. Discrete and continuous random variables, mass, distribution, and generating functions, random vectors, independent random variables, exponential distribution, reliability, failure density, hazard function, some important distributions, functions of two random variables, transform methods, computation of mean time to failure, inequalities and limit theorems. Conditional distribution  and expectation, Stochastic process, Bernoulli, Poission, and Renewal processes, availability analysis, random incidence. Introduction to discrete and continuous Markov  chains.  Measures of central tendency.  Statistical inference,  parameter estimation, Hypothesis testing.  Regression, correlation and analysis of variance.  Elements of experimental design.  Pre-requisite:  ENG 201.1
ENG 302.1: Technical Writing and Presentation (2 Credits)
Data gathering and presentation.  Technical correspondence:  letters of inquiry and replies, letters  of application and memoranda. Illustrating technical writing using tables, graphs, diagrams, equations and  appendices.  Report writing: progress reports, proposals, students project, thesis and dissertations. Oral and visual presentations.  Computer-aided technical writing and presentation; word processing and word-processing software packages.
ENG 303.2:  Engineering Mathematics V (Numerical Methods     and Computer Applications) (3 Credits)  
Review of the number systems and error analysis.  Numerical schemes, error analysis, computer algorithms and program for the solution of the following problems of linear equations, determinants and matrix eigenvalue problems; approximations; data fitting, orthogonal polynomials, least-squares, splines and fast  Fourier transforms; differentiations and integration; difference equations; differential equations by Runge-Kutta and other methods; boundary-value problems in ODE.  Introduction to the finite-difference method for partial differential equations.  Pre-requisite: ENG. 202.1 & ENG. 206.
ENG. 401.1:Engineering Mathematics VI (Mathematical     Modeling and Operations Research) (3 Credits)
Basic concept methodology, structures, information support and systems approach.  Synthesis, analysis, validation and computer simulation of mathematical methods.  Mathematical modeling of engineering problems at micro, micro and meta-levels.  Inverse problems; unconstrained and constrained problems.  Introduction to Operations Research.  Sensitivity analysis; linear, integer, goal, geometric, dynamic, nonlinear and stochastic mathematical programming.  Allocation, routing, searching, project scheduling, sequencing, replacement, inventory, gaming and queuing problems.  Computer aided mathematical modeling of engineering systems, processes and operations.  Application software packages.  Pre-requisite:  ENG. 206.2, 301.1 & 303.2.
ENG. 402.1:   Engineering Economics (3 Credits)
Scope of Engineering investment decisions; compounding, discounting, and economic equivalence; cash flow analysis and inflation.  Choosing between alternatives: methods for evaluating investments; depreciation, taxes, and cost of capital; comparing alternative investment; replacement analysis budget and budget control, evaluation of public projects.  Decisions and cost analysis; lease-or-by decisions; economic feasibility study of Engineering projects.  Computer-aided Engineering economics.  Pre-requisite:  ENG. 301.1
ENG. 501.1:  Professional Practice and Procedures (2 Credits)
Registration of engineering, duties and code of conduct and practice.  Ethics, professional responsibilities and practice of Engineering in Nigeria.  Typical problems and solutions in various areas of Engineering.  Engineering projects, planning, feasibility studies and their relevance, guide pre-design survey and stages of Engineering design project scheduling.  Law: sources and branches of Nigeria Law, courts and tribunals.  Law of contracts, the engineer as an expert witness.  Industrial legislation concerned with incapacity or injury, working conditions, wages, redundancy, Trade Unions, structure, right and liabilities.  Industrial disputes, safety and environmental protection.  Pre-requisite:  Good academic standing.
ENG. 502.1:  Engineering Management (2 Credits)
Organizational structure, goals and functions. Project planning and control.  Cost Engineering; capital and operating cost estimating, contingencies and allowances.  Production forecasts.  Phases and constraints, decline functions.  Productivity improvement.  Purchasing and materials management.  Maintenance management.  Contract management.  Pre-requisite: Good academic standing.
MEG 200.0 Introduction to Manufacturing Processes (2 Credits)
Workshop practice on: Enhancement of the properties of materials by heat treatment; Foundry and forging practice; Machine work; Joining/Fabrication. Pre-requisite: Good academic standing.
MEG 202.2: Basic Software Engineering (2 Credits)
Review of computers: hardware, peripherals and applications. Information processing; the Babbage engines. Formal languages; the syntax and semantics of programming languages: Assembly and high-level languages. Design of algorithms: Stepwise refinement, modularity, recursion and parallelism. Data structures: arrays, records, files, lists, stacks and queues. Sorting and searching. Computability, complexity and correctness of algorithms. Computer arithmetic. Introduction to computer architecture. Data processing and application packages. Systems analysis. Computer installations and networks. Software design and implementation in FORTRAN, Pascal and Visual Basic or C involving practice in DOS and Windows environments.
Laboratory:  Laboratory sessions emphasise hands-on computer practice. Pre-requisite: GES 101.2 and ENG 213.1
MEG 251.1:  Machine Drawing 1 (1 credit)
Review of joints – permanent and separable and shaft fittings. Advanced problems in development of curved surfaces and intersections. Complicated working drawings of machine components. Machine drawings of units and assemblies. Pre-requisite. ENG 102.2.
MEG 252.2: Machine Drawing II (1 Credit)
Assembly and working drawings of bearings, gears, valves, engine details and other units of machines. Fits, limits and tolerances and their specifications. Intechangeability requirements for machine units and assemblies. Introduction to Computer Graphics.
MEG 301.1: Fluid Mechanics II (2 Credits)
Continuity, energy and momentum equations and their applications. Ideal flow, vorticity, potential and stream functions, irrotational flows, flow fields. Viscous flow, Prantdl mixing length, fluid resistance: laminar and turbulent, flow through pipe systems. Boundary layer theory, drag on immersed bodies. Lift aerofoil theory. Compressible flow, 1-D isentropic flow, venturies and orifices, De-Laval nozzle, shock waves. Fanno and Rayleigh flows, isothermal flow. Introduction to Turbomachinery, cavitation. Pre-requisite: ENG 207.2
MEG 300.0: System Instrumentation Workshop Practice  (1 Credit)
Intensive practice covering the following topics: Basic tools. Measuring instruments and sensing devices; transducers and attenuators. Indentification, symbols and testing of electronic components. Circuit diagrams and processes. Construction and testing of power supplies, amplifiers, thermocouples, simple control systems, CCTV monitoring systems, power inverters and motor-driven control systems. Projects. Co-requisite; MEG 311.1.
MEG 302.2: Fluid Mechanics III (Turbomachinery) (2 Credits)
Unified principles underlying the design of pumps, turbines, compressors and fans. Similarity and scaling laws. Cavitation. Aerodynamic analysis and design of axial flow and radial flow compressors, steam and gas turbines. Meridional flow analysis for general equilibrium. Centrifugal compressor modeling; unsteady flow; rotating stall and surge. Turbomachinery selection. Computer aided turbomachinery design and selection.
Laboratory:  Laboratory sessions involve experimentation/testing of fluid flow machines and networks. Pre-requisite: MEG 301.1
MEG 303.1: Strength of Materials II (2 Credits)
General state of stress and strain at a point. Bening of beams with unsymmetrical sections, skew bending, bending of curved bars, thin plates, beams on elastic foundations. Torsion of thin walled sections. Statically indeterminate systems and stability analysis. Introduction to plastic behaviour of materials, elastic, perfectly plastic and strain hardening materials, linear viscoelastic materials, theories of failure. Problems in stress analysis; thin shells of revolution, pressure vessels, stresses due to shrinkage fit, concentrated forces, contact stresses. Computational methods and software design for analysis of strength of the materials.  Pre-requisite: ENG 208.2
MEG 304.2: Mechanical Engineering Design I (2 Credits)
The design process. Reliability and economics in design for production, strength, wear and material consideration. Review of the basic types of force systems and stresses encountered in design. Design of keys and pins, bolted riveted, welded, brazed and bonded joints. Design of springs and cast structures. Review of interchangeability problems. Design of thin pressure vessels, tanks, and thick walled vessels. Computer algorithms and programs for designing mechanical components. Design Projects.
Laboratory: Laboratory sessions are individual/group projects on design of basic mechanical components using computer and manual drafting facilities. Completed design projects are properly presented and assessed. Pre-requisite: ENG 208.2, MEG 303.1 and MEG 309.1.
MEG 305.1:   Theory of Machines & Mechanisms (3 Credits)
Concepts of mechanisms, linkages, kinematic pairs, kinematic chains and kinematic inversion. Types of mechanisms, slider crank mechanisms. Kinematic and kinetic analysis; coupler curves, velocity and acceleration, static and dynamic forces. Kinematic synthesis, computer techniques. Cam design. Theory of involute gearing; simple, compound and epicyclic gear trains. Dynamics of rotating and reciprocating machines; static and dynamic balancing of machines. Balancing of rotating masses, governors. Computer algorithms and programs for analysis of machines and mechanisms. Design projects. Pre-requisite: ENG 203.1.
MEG 306.2: Manufacturing Processes (2 Credits)
Review of the basic manufacturing processes: solid state, plastic, material removal and forming. Mechanics of metal cutting and machining. Tools, speeds and feeds in machining, cutting tool geometry, tool signature. Drilling and reaming. Multipoint cutting tools. Grinding wheels. Tool failure and tool wear mechanisms. Cutting fluids. Machinability. Drilling, planning and milling machines-block diagrams. Surface finish of machine parts. Production, turning and milling operations and machines. Gear cutting broaching, sawing. Production grinding, tool and cutter grinding, surface and abrasive belt grinding. Precision and surface finishing, lapping, horning, polishing and buffing. Chipless material removal processes. Compute algorithms and programs for the design and control of manufacturing processes. Pre-requisite: Good academic standing. 
MEG 307.1:  Engineering Thermodynamics (3 Credits)
Review of the Second Law of thermodynamics: entropy, availability, irreversibility, Helmoholtz and Gibbs functions. Gas and vapour cycles-ideal and modified. Imperfect gases. Relations between thermodynamic properties. Mixtures of gases and vapour. Reactive systems. Gas compressors, turbines and jet engines. Reversed cycles. Nozzles and diffusers. Thermodynamics of irreversible processes. Computational methods, computer algorithms and programs for energy audit and other thermodynamic analysis.
Laboratory: Laboratory sessions are based on materials covered in this course. Pre-requisite: ENG 209.2.
MEG 308.2 Engineering Materials Production (2 Credits)
Metal casting technology: Introduction to the basic elements in foundry practice-pattern making, moulding, melting and pouring. Principles of solidification of metals and alloys, design of gates and risers, design of castings. Metal working and fabrication techniques: rolling, extrusion, forging, wire drawing, welding, brazing, soldering, riveting. General techniques of production and processing of glasses, ceramics, polymers and composite materials. Powder metallurgy. Engineering applications of non-metals. Failure analysis. Computer-aided materials production. Pre-requisite: MEG 309.1
MEG 309.1: Basic Metallurgy and Materials Selection (3 Credits)
The scope of Metallurgy: Metallurgical operations in Nigeria. Modern metallurgical processes and operations. Extracting metals from ores. The manufacture of steel products, identification and selection of iron and steel and other non-ferrous metals. Heat treatment equipment and procedures. Theories of corrosion and oxidation. Corrosion prevention, measurement and monitoring. Evaluation of the relevant factors in materials selection, technical and economic considerations. Materials for structural, high-temperature, cryogenic, electrical, electronic and nuclear applications. Principles and economics of recycling. Computer-assigned materials selection.
Laboratory: Laboratory sessions are based on materials covered in this course. Pre-requisite: ENG. 204.1
MEG 310.2:   Heat and  Transfer (3 Credits)
Steady and unsteady state heat transfer in 1-, 2- and 3- dimensional geometries. Systems with heat source. Heat transfer in extended surfaces. Combined modes. Mass diffusion. Convective heat and mass transfer. Analogy between momentum, heat and mass transfer. Forced and free convection in ducts and over surfaces. Evaporation and condensation. Heat radiation. Radiation heat transfer between black bodies and between ray surfaces. Configuration factor algebra. Radiation shields, radiation from gases and vapours. Heat exchangers. Thermal design of heat and mass exchangers. Computational methods. Computer algorithms, programs and software packages for Heat and Mass Transfer analysis.
Laboratory: Laboratory  sessions are based on materials covered in this course. Pre-requisite: ENG 209.2
MEG 311.1: System Instrumentation (3 Credits)
General characteristics of measuring systems; error analysis. Mechanical instrumentation: Interferometry; dimensional and angular measurement; assessment of surface finish; measurement of strain, time, speed, acceleration, frequency, force, power, pressure, fluid flow and temperature.  Intelligent instrumentation: sensing elements, transducers and interfaces; analog-digital data sampling and conversion; semiconductor devices; oscillators; amplifiers; filters and rectification process; logic gates and switching devices; microprocessors and control; computer hardware and peripheral. Pre-requisite: ENG 210.2 Co-requisite: MEG 300.0
MEG 312.2:   Mechanics of Machines (3 Credits)
Friction, wear and lubrication; applications in kinematics, selection of power screws, belt and rope drives, chains, brakes and clutches.  Hydrodynamic and hydrostatic lubrication; journal bearings, Reynolds equation, graphical solutions, oil and gas bearings. Hydrodynamic drives; torque converters. Vibrations. Computational procedures and software packages for the analysis of tribological problems.
Laboratory: laboratory sessions are based on materials covered in this course. Pre-requisite; MEG 305.1
MEG 352.2:  Mechanical Engineering Laboratory I (3 Credits)
Laboratory experiments on strength of materials, metallurgy, materials production, and manufacturing processes.
MEG 401.1: Mechanical Engineering Design II (2 Credits)
Shafting and the design of shafts and axles, pulleys and belt drives. Design of gears, gear tooth loads, surface strength and wear. Spur, helical, worm and bevel gear design. Bearings and bearing selection. Design of miscellaneous machine components. Design procedures, computer algorithms, programs and software packages for design for machine elements.
Laboratory: Laboratory sessions are individual/ group projects on design of major machine elements using computer and manual drafting facilities. Completed design projects are properly presented and assessed. Pre-requisite: MEG 304.2
MEG 403.1: Computer-Aided Design & Manufacturing (2 Credits)
Review of computer hardware and software. Introduction to CAD/CAM and Computer integrated Manufacturing (CIM). Geometric modeling. Engineering analysis. Automated drafting and manufacturing systems. Work piece handling. Continuous and intermittent transfer. The general mechanism. Programmable controllers and their programming. Numerical control and robotics, motion control, linear and circular interpolation. Programming numerically control machines. Basic concepts of robotics. 
Laboratory:  Practice using AUTOCAD for computer-aided drafting. CNC part programming to manufacture selected jobs using computer. Design analysis and drafting with Personal Computers. Pre-requisite. Good academic standing.
MEG 405.1: Principles of Automotive Engineering (2 Credits)
Review of thermodynamics cycles of internal and external combustion engines; theoretical and actual cycles. Spark ignition and compression ignition engines. Cycles of supercharged and turbocharged engines. Operating principles of two stroke and four stroke engines. Principles of carburetor and diesel fuel injection systems. Combustion in internal combustion engines. Microprocessors in automotive engines. Computer-aided analysis. Pre-requisite. ENG 209.2.
MEG 407.1: Principles of Air-conditioning and Refrigerating Engineering (3 Credits)
Refrigeration: Production of low temperatures. Applications of the Second Law. Thermodynamics of vapour compression: vapour compression cycle, Pressure-Enthalpy diagram and analysis, standard rating cycle and effect of operating conditions, actual compression cycle. Refrigerants: designation, selection, and requirements; secondary refrigerants; binary mixture. Introduction to multipressure systems. Vapour absorption systems. Ejection-compression system. Air-conditioning: Properties of moist air. Psychrometric properties. Psychrometric processes in air-conditioning equipment. Simple air-conditioning systems and state and mass rate of supply air. Summer and winter air-conditioning. Design conditions. Introduction to ventilation. Aspects of design and application of air-conditioning and refrigerating systems. Microprocessors in system controls. Computer-aided system design and analysis. Pre-requisite: Good academic standing. 
MEG 451.1: Mechanical Engineering Laboratory II (2 Credits)
Laboratory experiments on electrical machines, machine elements, automotive engineering, air-conditioning, refrigeration and ventilation.
MEG 453.1: Airconditioning and Automotive Workshop Practice         (1 Credits)
General shop practice, use of tools, safety requirements and service operations for airconditioning and refrigeration and automobile workshops. Airconditioning and Refrigeration Practice: Evaluation and charging, units, fans and air distribution systems, evaporators and condensers. Troubleshooting. Automobile practice: Engine diagnosis, servicing valves and valve train, cylinder block, crankshaft, bearings, connecting rod, piston and rings, cooling system, fuel systems and ignition systems, frame and suspension system, steering system, braking system, clutch and power transmission systems and drive shafts. Lubrication. Pre-requisite: MEG 405.1 & 407.1.
MEG 500.2: Final Year Project (6 Credits)
An individually supervised research / design project on any mechanical engineering (or related) subject chosen by the student-Lecturer team. Pre-requisite; Good academic standing. 
MEG 502.2: Control Engineering (3 Credits)
Mathematical models of systems. Analogous electrical circuits. Transfer functions and Laplace transforms in simple and multi-loop control systems. Servomechanisms, components transfer functions and analysis. Mechanical, electrical, hydraulic and thermal control systems. Steady and transient state analysis and frequency response. Root Loci. Bode and Nyguist plots.  Stability of linear systems. Control system design. Non-linear control systems, computers controls. Simulation of control systems.
Laboratory: Laboratory sessions are based on materials covered in this course. Pre-requisite; Good academic standing.
MEG 503.1: Principles of Industrial Engineering (2 Credits)
A brief history of Industrial Engineering. Plant layout and organization of industry. productivity analysis, production fundamentals and manufacturing economics. Quality control, inventory control, cost control, Operations planning and control. Financial compensation. CAD/CAM, robotics and automation. Ergonomics. Resource management. 
Application of operations research techniques to Industrial Engineering problems. Computer methods and software packages for industrial Engineering analysis. Pre-requisite: Good academic standing. 
MEG 504.2:  Theories of Elasticity and Plasticity (3 Credits)
Three dimensional analysis of Hooken stress and strain in Cartesian and curvilinear co-ordinates and applications to axi-symmetric problems. Equations of equilibrium and compatibility. Stress function. Applications to Engineering problems-beams, rings, concentrated loads. Introduction to the theory of plates and shells. The laws of plastic flow. Theories of plastic failure. Plastic bending and torsion. Application to metal-working processes and thick pressure vessels. Pre-requisites. Good academic standing. 
MEG 505.1: Mechanical Vibration and Noise (2 Credits)
Detailed treatment of the one-degree-of-freedom systems in mechanical vibrations. Multi-degree-of-freedom systems by receptance and impedance methods; selected topics, including rigid body vibrations on elastic soils and perturbation methods of non-linear vibrations. Vibration and Noise control. Computer-aided vibration and noise analysis and control. Pre-requisite: Good academic standing. 
MEG 506.2:  Applied Thermofluids (2 credits)
Thermodynamics of irreversible processes; the exergy methods. The Navier-Stokes equations; approximate solution methods. Unified  equations of heat and mass diffusion and convection; analytical solution methods. Numerical solution of thermofluid problems by finite difference method. Selected topics in thermofluids. Computer-aided design of thermofluid systems. Pre-requisite: Good academic standing. 
MEG 507.1:  Mechanical Engineering Design III (3 Credits)
Methods of systems analysis and synthesis applied to complete machines and systems of interest to the mechanical engineer. Algorithms, computer programs for mechanical systems design. System design projects taken from the local industry, mechanical Engineering case studies and applications of lecture material.
Laboratory: Laboratory sessions are individual/ group projects on design of mechanical Engineering systems using computer and manual drafting facilities. Completed design projects are properly presented and assessed. Pre-requisite. MEG 401.1.
MEG 508.1:  Power Plant Engineering (3 Credits)
The world and Nigeria’s energy demands. Methods of electrical power generation. Steam power generation cycles, steam generators and turbines, condensers, water heaters, pumps and auxiliaries. Gas power generation cycles, gas turbines, combustors and auxiliary equipment. Nuclear power generation. Hydropower generation. Alternative energy sources and their power cycles. Energy storage. Economics of power generation. Computer-aided power plant Engineering, Industrial visits to at least one each of the hydro-, steam- and gas-turbine power stations in the country. Pre-requisites: Good academic standing.
MEG 531.1:  Airconditioning Engineering (3 Credits)
Advanced psychrometry and airconditioning processes. Design conditions. The flow of air in duct systems. Airconditioning equipment. Airconditioning systems. Solar radiation. Heat transfer in building structures. Load calculation. Design of airconditioning units. Transmission and distribution of air. Fans. Automatic control. Applications. Computer-aided design and analysis of airconditioning units and systems. Pre-requisite: MEG 407.1.
MEG 532.2: Industrial Ventilation and Air-Pollution Control System (3 Credits)
The role air pollution control in modern society. Scope and nature of industrial ventilation and air-pollution control. Dynamics of particles in fluids. Pollutant distribution and collection efficiencies. Design of industrial ventilation systems. Setting chambers. Inertial devices. Electrostatic precipitators. Particulate scrubbers. Filters. Absorption and adsorption devices. Combustion and condensation devices. Computer algorithms and programs for design and analysis of ventilation and pollution control systems. Pre-requisite: Good academic standing.
MEG 533.1  Refrigerating Engineering (3 Credits)
Multipressure systems. Refrigerant compressors and their design, performance and selection. Design of refrigerant condensers, expansion devices and evaporators. Complete vapour compression system. Gas cycle refrigeration. Vapour absorption systems. Ejector-compression system. Refrigeration control systems. Application. Computer applications in refrigerating engineering. Pre-requisite: MEG 407.1.
MEG 534.2  Vehicle Dynamics (3 Credits)
Characteristics of motor vehicle engines. Internal resistance. Direct and reverse transmission efficiency. Rolling resistance an air resistance. The dynamic characteristics of a motor vehicle during starting, acceleration, and braking. Stability and steereability of a motor vehicle. Computer-aided vehicle dynamics. Pre-requisite; MEG 535.1.
MEG 535.1:   Automotive Engineering (3 Credits)
The cooling, lubricating, ignition and fuel supply systems. Valves and valve train design, operating mechanism and valve timing. Engine cylinder block and head design. Pistons and connecting rods. Crankshaft and engine balancing. The automobile, body, chassis and engine design. Frame and suspension systems. Steering, braking and transmission systems. Drive shafts, differentials and axles. Analysis and design algorithms and programs for computer treatment of automotive Engineering problems. Pre-requisite: MEG 405.1
MEG 536.2:  Numerical Control Machine Tools (3 Credits)
The basic design structure of numerical control (NUC) machine tools. Open-and-close-loop NC. Input media and data coding in NC. Point to point manual programming. Economics of NC and selection of machines. NC manual part programming for manufacturing jobs requiring linear and circular interpolations. Continuous part programming. Special NC languages, the Automatically Programmed Tools (APT) language. Advances in numerical control machine tools. Pre-requisite: Good academic standing.
MEG 537.1:  Production Engineering (3 Credits)
Advanced topics in machine tool analysis and cutting tool design,  Gear and cam design and manufacture. Gear cutting machines. Unconventional machining techniques. Tools and die design. Facilities design. Production Planning and Control. Group technology. Production economics. Computer-aided production analysis and design. Pre-requisite: MEG 306.2.
MEG 538.2 Computational Transport Phenomena (3 Credits)
Applications of computational methods to fluid mechanics and heat transfer problems. Formulation of initial value, boundary value and mixed type problems and their disretisation. Stability, convergence and accuracy of numerical solutions. Discretisation of boundary conditions. Methods of characteristics, finite difference, relaxation and finite element. computer solutions to problems considered. Pre-requisite: Good academic standing.
MEG 539.1:  Quality Reliability Assurance (3 Credits)
Review of probability and statistics. Control charts; acceptance sampling plans for attributes, for continuous production and for variables. Reliability. Data collection and analysis. Quality and reliability costs. Product liability. Reliability of machine elements and mechanical systems. Maintenance Engineering. Ergonomic, environmental and safety assurance. Computer algorithms and program packages for Quality and Reliability Assurance. Introduction to Total Quality Management (TQM). Pre-requisite: Good academic standing. 
MEG 540.2 Building Services Engineering (3 Credits)
Basic concepts of the built environment; building energy economics; thermal analysis of buildings; heating, cooling, ventilating and air-conditioning of buildings; hot and cold water supplies; soil and waste systems; surface water and below-ground drainage; condensation in buildings; lighting; gas services; electrical installations; mechanical transport, fire protection; refuse disposal; plant and service areas. Installation and maintenance of mechanical and electrical equipment for buildings. Computer controls and methods in building services Engineering. Design Projects. Pre-requisite: Good academic standing.
MEG 551.1:   Mechanical Engineering Laboratory III (3 Credits)
Laboratory experiments in vibration and noise, industrial, production, automotive, airconditioning and refrigerating Engineering.
MEG 561.1:   Mechanical Engineering Seminar (1 Credit)
This course is designed to allow project, research and industrial training topics to be discussed by both staff and students. in the process, the students learn how to initiate, design, communicate and implement Engineering Projects. pre-requisite: Good academic standing. 
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