2.5.1 Degree Classifications
The determination of the class of degree shall be based on the Cumulative Grade Point Average (CGPA) earned at the end of the programme. The GPA is computed by dividing the total number of credit points (TCP) by the total number of units (TNU) for all the courses taken in the semester. The CGPA shall be used in the determination of the class of degree as summarized in
Table 1.
Cumulative Grade Point Average (CGPA) |
Class of Degree |
4.50 – 5.00 3.50 – 4.49 2.40 – 3.49 1.50 – 2.39 |
First Class (Hons.) 2nd Class Upper (Hons.) 2nd Class Lower (Hons.) 3rd Class (Hons.) |
Table 1: Degree Classification
The maximum length of time allowed to obtain a degree in the Department of Chemical Engineering shall be fourteen semesters for the 5-year degree programme and twelve semesters for students admitted directly into 200 level. For extension beyond the maximum period, a special permission of Senate shall be required on the recommendation of the Faculty Board.
2.5.2 Weighting System:
The Cumulative Grade Point Average (CGPA) of a student can be determined by the addition of the Grade Point (GP) at each level taking into consideration the weighting percentage. To calculate the final class of degree for students, the following weighting system shall apply as shown in Table 2.
Table 2: Weighting System
S/N |
LEVEL |
5 YEARS (UTME) |
4 YEARS (DIRECT ENTRY) |
1. |
100 |
10% |
- |
2. |
200 |
15% |
10% |
3. |
300 |
20% |
20% |
4. |
400 |
25% |
30% |
5. |
500 |
30% |
40% |
2.5.3. Student Performance Standards:
The Chemical Engineering programme is run on a modularized system, commonly referred to as Course Unit System. All courses are therefore sub-divided into more or less self-sufficient and logically consistent packages that are taught within a semester and examined at the end of that particular semester. Credit weights should be attached to each course. Onecredit is equivalent to one hour per week per semester of 15 weeks of lectures or 2 hours of tutorials or 3 hours per week of laboratory/studio work per semester of 15 weeks.
2.5.5. Grade Point Average and Cumulative Grade Point Average
Grading of courses shall be done by a combination of percentage marks and letter grades translated into a graduated system of Grade Point Equivalents (GPE). For the purpose of determining a student’s standing at the end of every semester, the Grade Point Average (GPA) system shall be used. The GPA is computed by dividing the total number of credit points (TCP) by the total number of units (TNU) for all the courses taken in the semester. The credit point for a course is computed by multiplying the number of units for the course by the Grade Point Equivalent of the marks scored in the course. Each course shall be graded out of maximum of 100 marks and assigned appropriate GPE as in Table 3.
Table 3: Grade Point Equivalent
(i) Credit Units |
(ii) Percentage Scores |
(iii) Letter Grades |
(iv) Grade Points (GP) |
(v) Grade Point Average (GPA) |
(vi) Cumulative Grade Point Average (CGPA) |
(vii) Class of Degree |
Vary according to contact hours assigned to each course per week per semester, and according to load carried by students |
70 – 100
60 – 69
50 – 59
45 – 49 0 – 44 |
A
B
C
D F |
5
4
3
2 0 |
Derived by multiplying (i) and (iv) and dividing by Total Credit Units
|
4.50 – 5.00
3.50 – 4.49
2.40 – 3.49
1.50 – 2.39
|
First Class
2nd Class Upper
2nd Class Lower
3rd Class |
2.6 EVALUATION OF STUDENTS
2.6.1 Techniques of Student Assessment
(a) Practical: By the nature of the disciplines in Engineering, laboratory practical are very important in the training of the graduates. To reflect the importance of practical work, a minimum of 9 hours per week (3 credits) is spent on students’ laboratory practical. Furthermore, it is very important to determine performance of the student in the practical component of the programme. To achieve this, all the laboratory practical have been lumped together to form a course which the student must pass. It is expected that the weighting given in the various courses is reflected in number and nature in the design of the experiments. These practicalfollows the trend in the current development of the programmes.
(b) Tutorials: There is one hour of tutorial for every four hours of lecture. Thus, a course of one credit unit should comprise 12 hours of lectures and 3 hours of tutorials.
(c) Continuous Assessments: Continuous assessment isdone through essays, tests, and practical exercises.
(d)Examinations:In addition to the continuous assessment, final examinations shall normally be given for every course at the end of each semester. The basis for the final grade shall be as follows:
Final Examination – 70%,
Continuous assessment – 30% (Quizzes, Tutorials, Homework and Tests).
2.6.2 Moderation and Examiners
All question papers from 100 – 400 levels shall be moderated internally. The external examiner shall be used in the final year of the undergraduate programme (500 level) to assess final year courses and projects, and to certify the overall performance of the graduating students.
2.6.3 Board of Examiners
The Head of the Department (HOD) shall be the Chief Examiner. There shall also be an appointed Examination Officer who will be responsible to the HOD. He will be in charge of the conduct of examinations and the recording and return of results for the Department. The Board of Examiners in the Department consist of all Academic staff.
2.6.4 Course Advisers
There shall be appointed Course Adviser(s) who will be responsible to the HOD. The Course Adviser shall offer guidance and counselling services to students in their academic, social, personal and vocational life. He/she shall be responsible for the course registration of students, recording and returns of student’s sessional results and other duties as approved by the HOD.
2.6.5 SIWES Rating and Assessment
In Engineering Education, industrial attachment is very crucial. The students areto proceed on eight weeks Students’ Work Experience Programme (SWEP) during long vacation at the end of second semester examinations in 100 and 200 levels. At the end of 300 level second semester examinations Students Work Experience Programme (10 weeks – long vacation); Students Industrial Work Experience Scheme (24 weeks, one semester plus long vacation) is for all students at 400 level.
To make the training effective, it is important that the students learn how to operate some of the ordinary machines and tools they will encounter in the industry before they go for the attachment. Therefore they should start with Student Work Experience Programme, which is conducted in the Faculty Workshops, under strict industrial conditions. On successful completion of Students Work Experience Programme, the Students Industrial Work Experience Schemes can be done in industries under strict industrial conditions and supervision.
Normally, industrial attachment should be graded and no student should graduate without passing all the modules of the attachment and this shall be used in degree classification.
Any of the following shall,prima facie, constitute examination irregularity, misconduct or malpractice in the Department.
2.7.1 Irregularity
Irregularity shall be deemed to have occurred if the candidate sits for an examination for which he/she is not eligible, as may occur when the candidate:
Sanctions: Candidates whose positions are irregular as identified under this heading shall not be allowed to sit for the examination. Where the irregularity is discovered after the candidate might have sat for the examination, such paper(s) done under irregular conditions shall be nullified.
2.7.2 Misconduct
Misconduct shall be deemed to have occurred under the following instances:
Note: Gross misconduct shall be deemed to have occurred where there is evidence of membership in any secret cult or fraternal organization.
2.7.3 Malpractice
Examination malpractice shall be deemed to have occurred under the following:
Sanctions: Aside from expulsion or rustication, a candidate found guilty of any examination malpractice (i) to (p) above shall be punished by cancelling the relevant examination paper(s). Any candidate whose paper is cancelled shall be required to carry over the affected course(s).
2.8.1. Goal
To produce well-rounded morally and intellectually capable graduates with vision and entrepreneurial skills in an environment of peace and social cohesiveness.
2.8.2. Objectives
The objectives of the General Studies programme consist of the following:
In the first two years, all students in the Faculty of Engineering shall take common courses. The 200 level courses are foundation Engineering courses designed to expose students to the fundamentals of the Engineering discipline in a broad sense. Students can take 3 credits as electives from their programme of study.
It is believed that exposing engineeringstudents to the various aspects of the discipline in the first two years of their study, equips them with enough knowledge to determine their inclinations in terms of specialization at a later stage.
This view is further strengthened by the fact that an appreciable number of Engineering students have rural backgrounds which limit their perception of Engineering and the sub-disciplines therein. It is believed that after the second year, the wide Engineering horizon would have been sufficiently illuminated for such students, who are now better placed, to make a choice. In addition, a broad-based programme at these foundation levels becomes an asset to its beneficiaries in the future when they are invariably required to play managerial, supervisory and/or executive roles in Engineering areas that may not be strictly their areas of specialization.
The general courses to be offered by the students in the Faculty of Engineering during their 100 and 200 Levels are presented below, subsequently, by the detailed course description.
100 Level Courses
Course Code |
Course Title |
L |
T |
P |
Course Credits (Units) |
First Semester |
|
|
|
|
|
CHM 111 |
General Chemistry I |
3 |
0 |
0 |
4 |
CHM 112 |
General chemistry practical I |
0 |
0 |
1 |
1 |
PHY 111 |
General Physics I (Mechanics, Thermal Physics and Properties of matter) |
3 |
0 |
0 |
3 |
PHY 119 |
Experimental Physics I |
0 |
0 |
1 |
1 |
MTH 111 |
Elementary Mathematics I (Algebra and trigonometry) |
3 |
0 |
0 |
3 |
MTH 112 |
Elementary Mathematics II (Calculus) |
3 |
0 |
0 |
3 |
CMP 111 |
Introduction to Computer Science |
3 |
0 |
0 |
3 |
GST 111 |
Communication In English I |
2 |
0 |
0 |
2 |
GST 112 |
Logic, Philosophy and Human Existence |
2 |
0 |
0 |
2 |
GST 113 |
Nigerian People and Culture |
2 |
0 |
0 |
2 |
GEE 111 |
Introduction to Engineering |
1 |
0 |
0 |
1 |
|
Total Units |
|
25 |
||
Second Semester |
|
|
|
|
|
CHM 123 |
General Chemistry II |
3 |
0 |
0 |
4 |
CHM 124 |
General chemistry practical II |
0 |
0 |
1 |
1 |
PHY 121 |
General Physics II (Electricity, Magnetism and Modern Physics) |
3 |
0 |
0 |
3 |
PHY 129 |
Experimental Physics II |
0 |
0 |
1 |
1 |
MTH 123 |
Elementary Mathematics III (Vector and Coordinate Geometry) |
3 |
0 |
0 |
3 |
MTH 125 |
Elementary Mathematics IV (Statistics for Physical Sciences) |
3 |
0 |
0 |
3 |
GST 121 |
Use of Library, Studies Skills and ICT |
2 |
0 |
0 |
2 |
GST 122 |
Communication in English II |
2 |
0 |
0 |
2 |
GST 123 |
History and Philosophy of Science |
2 |
0 |
0 |
2 |
GEE 121 |
Basic Engineering Workshop |
1 |
0 |
0 |
1 |
GEE 199 |
Student’s Work Experience Programme (SWEP) |
|
|
|
0 |
|
Total Units |
|
21 |
||
Total Units (First & Second Semesters) |
|
47 |
200 Level
Course Code |
Course Title |
L |
T |
P |
Course Credits |
First Semester |
|
|
|
|
|
GEE 211 |
Basic Electrical Engineering |
3 |
|
|
3 |
GEE 212 |
Engineering Mechanics |
3 |
|
|
3 |
GEE 214 |
Engineering Drawing I |
2 |
|
|
2 |
GEE 215 |
Workshop Practice |
2 |
|
6 |
2 |
GEE 216 |
Computer and Computing |
2 |
|
|
2 |
GEE 217 |
Engineering Mathematics I |
3 |
|
|
3 |
ENT 211 |
Introduction to Entrepreneurial Studies I |
1 |
|
|
1 |
GEE 231 |
Basic Electrical Eng. Practical |
|
|
3 |
1 |
GEE 232 |
Engineering Mechanic Practical |
|
|
3 |
1 |
Electives |
|
|
|
|
|
GEE 213 |
Energy Efficiency and Waste Management |
2 |
|
|
2 |
CHM 211 |
General Chemistry III |
2 |
|
|
2 |
|
Total Unit |
|
22 |
||
Second Semester |
|
|
|
|
|
GEE 221 |
IT in Engineering |
2 |
|
|
2 |
GEE 222 |
Materials Science |
2 |
|
|
2 |
GEE 223 |
Engineering in society |
1 |
|
|
1 |
GEE 224 |
Engineering Drawing II |
2 |
|
|
2 |
GEE 225 |
Engineering Thermodynamics |
2 |
|
|
2 |
GEE 226 |
Strength of Materials I |
2 |
|
|
2 |
GEE 227 |
Engineering Mathematics II |
3 |
|
|
3 |
ENT 221 |
Introduction to Entrepreneurial Studies II |
1 |
|
|
1 |
GEE 241 |
Material Science and Strength of Materials I Practical |
|
|
3 |
1 |
GEE 242 |
Fluid Mechanics I and Eng. Thermodynamics Practical |
|
|
3 |
1 |
GST 221 |
Peace Studies &Conflict Resolution |
2 |
|
|
2 |
GEE 299 |
Students’ Work Experience Scheme (SIWES) I |
|
|
|
2 |
|
Total Unit |
|
19 |
||
Total Units (First & Second Semesters) |
|
43 |
CHE310: Chemical Engineering Laboratory I (1 Credit)
Determination of melting point of solids, saponification in a batch reaction, double pipe heat exchangers, mixing , filtration , sedimentation, and distillation.
CHE320: Chemical Engineering Laboratory II (1 Credit)
Laboratory experiments in transport phenomenon, kinetic and separation processes
CHE311: Chemical Engineering Thermodynamics I (2 Credits)
Cycles, Carnot; thermodynamic Turbines Steam and Gas, Refrigeration; General P-V-T Relations. The P-V-T behaviour of pure substances; Equation of state for gases; The principle of corresponding state; Compressibility relations; reduced pressure; reduce volume; temperature; pseudo critical constants. P-V-T approximations for gaseous mixture ideal gas mixtures.Dalton’s law of additive pressure; Amagat’s law of additive volumes; Pseudo-critical point method; Kay’s rule, Gililland’s method; Behaviour of liquids.Heat Effects. Heat capacities as a function of temperature, specific heats of liquids and solids; Heat effects accompanying phase change Clasius-Clapeyron equation, standard heats of reaction formation and combustion effect of temperature on heat reaction. Heat of mixing and solution, Enthalpy concentration diagrams for H2SO4,H2O, etc., partial enthalpies, single and multiple effect evaporators with regards to heat effects. Thermodynamics of Flow Processes. Fundamental equations, continuity equation; equation of motion; energy equation; Bernoulli’s equation; Flow in pipes, laminar and turbulent flows; Reynolds number, friction factor. Fanning equation; Flow meter, Nozzles; Compressors single stage and multistage, effect of Clearance.
CHE312: Separation Processes I (3 Credits)
Stage-wise and continuous contact equipment. Isothermal gas absorption. Binary distillation, Principle of distillation - flash distillation, differential distillation, steam distillation, multistage continuous rectification, Number of ideal stages by McCabe - Thiele method and Ponchan - Savarit method, Total reflux, minimum reflux ratio, optimum reflux ratio. Leaching. Humidification operations; Drying, Crystallization, Hydrodynamics of packed and plate columns.
CHE313: Biochemical Engineering (4 Credits)
Introduction to Microbiology and Biochemistry.Classification and growth characteristics of micro-organisms.Enzymes in Engineering. Microbial culture processes in manufacturing industries. Theory of Batch, Semi-continuous and cultures. Mass and energy balances in microbial cultures. Oxygen transfer in microbial culture. Design of Fermentors, Mathematical modelling of Batch and Continuous stirred Fermentots. Concepts of Mechanical, Bubble, Column and Air-lift fermentors.Media sterilisation using air-filtration.Instrumentation and control of fermentation systems.Introduction to brewing technology.Antibiotic production, lactic Acid Production, Biological waste treatment.Biomass conversion and utilisation of waste.
CHE314: Introduction to Material & Energy Balances (3 Credits)
Units and Dimensions. The mole unit. Conventions in the method of analysis and Measurement.Temperature. Pressure. Physical and chemical properties and measurement.Techniques of solving problems. The chemical equation stoichiometry, material balances. Program of analysis of material balances. Program of analysis of material balances problems with direct solutions. Material balances using algebraic techniques control surface and stage balances for open and closed system. Problems involving components (elements).Recycle, Bypass, Purge; Effect of recycle and purge on mass and energy balances.Gases, vapours, liquid and solids. Ideal gas law, Real gas relationships. Vapour pressure. Saturation. Partial saturation and humidity. Material balanced involving condensation and vaporization phase phenomena.
Concepts and Units. Heat capacity. Calculation of enthalpy changes without change phase. Enthalpy for phase transition. General Energy balance. Reversible process the mechanical energy balance. Heat of Reaction. Heat of Solution and mixing combine material and energy balances; Application of fundamental concept of Mass and Energy Balances and Mass Transfer to Unit Operations in Distillation. Simultaneous use of material and energy balances for the steady state. Enthalpy concentration chart. Humidity chart and their use.Complex problems; Lever rule Geometrical construction for mass. Energy balances for adiabatic and non-adiabatic process. Unsteady state material and energy balances.
CHE315: Process Instrumentation (2 Credits)
Measuring instruments for level, pressure, flow, temperature and physical properties. Chemical composition analysers.Measurement.Gaschromatograph.MassSpectrometer.Samplingsystems.Elements of Process Instrumentation Diagrams (PID).
Principles of measurements and classification of process instruments, Basic principles, instrumentation and applications of potentiometry, UV – visible spectroscopy, infrared spectroscopy, atomic absorption spectroscopy and flame photometry, Gas chromatography.
CHE316: Polymer Process Engineering (3 Credits)
Introduction to the manufacture, processing, and applications of organic polymeric materials.The chemistry of polymer manufacture, the molecular structure of polymers, and the structure-property relationships for thermoplastic and thermosetting polymers.
Engineering application in the manufacture of adhesives, rubber, plastics, coatings and fibres.
GEE 311: Engineering Mathematics III (3 Units)
Numerical methods and digital computer methods applied to various engineering problems including matrix inversion, approximation of functions, integration, differentiation – ordinary and partial, and optimization. Application in Engineering, fast Fourier analysis, transportation and other optimization problems, dynamic programming, Monte-Carlo simulation, design and simulation of simple engineering components and systems. Introduction to space formulation, analysis and applications.
ENT 311: Entrepreneurial Skills I (2 Units)
The course focuses the attention of the students to the practical aspects of entrepreneurship by venturing into the following categories: Agriculture/Agro Allied (fish farming, crop production, animal husbandry such as poultry, piggery, goat etc, groundnut oil making, horticulture (vegetable garden, flower garden), poultry), Services (bakery, radio/TV repairs, barbing/ hair dressing salon, car wash, catering, courier, event planning, fashion design, vehicle maintenance, film production, interior decoration, laundry, music production, phone call centre, rental, restaurant, tailoring/ knitting, viewing centre), Manufacturing (carving, weaving, sanitary wares, furniture making, shoe making, plastic making, table making, bead making, bag making, sachet water production, cosmetics, detergents), Commerce (buying and selling, purchasing and supply, bookkeeping, import and export etc), Information & Communication Technology (ICT) (business centre, computer maintenance, handsets repairs, internet cafe etc), Mining/Extraction (kaolin, coal mining, metal craft such as blacksmith, tinsmith etc, vegetable oil/and salt extractions etc), Environment (fumigation, household cleaning waste disposal etc), Tourism (car hire, craft work, hotel/catering, recreation centre), Power (generator mechanic, refrigeration/air conditioning, electricity wiring etc), Production/Processing (glassware production/ceramic, metal working/fabrication, steel and aluminum door and windows, paper production water treatment/conditioning/packaging, brick laying, bakery, iron welding, building drawing, tailoring, carpentry, leather tanning, printing, food processing/packaging/preservation). Students are to select two of the following areas of interest for practical. Topics should also include Products/Service Exhibition and Quality Control, Business Ownership Structures, Mentorship.
Second Semester Courses
CHE321: Transport Phenomena I (4 Credits)
Compressible flow, normal shock wave, Non-Newtonian Fluids, Introduction and Concepts on the Mechanism of Heat flow.Modes of heat transfer, one dimensional steady state heat conduction equation for flat plate, hollow cylinder, Heat conduction through a series of resistances, Steady state conduction – multiple direction, Concepts of heat transfer by convection, Natural and forced convection, analogies between transfer of momentum and heat, Reynold’s analogy, Prandtl and Coulburn analogy. Radiation, Mechanism of radiative heat transfer, heat exchange between radiating surfaces, unsteady state conduction, free and force convection heat transfer, determination of heat transfer coefficient. Application to design of heat exchanges, diffusion of vapours, diffusions in liquids and solids.
CHE322: Chemical Reaction Kinetics (3 Credits)
Classification and types of chemical reactions. Measurement and analysis of chemical reactions. Rate expressions.Analysis of experimental kinetics data, integral and differential analysis.Homogeneous reactions. Catalysis. Chain reactions.Kinetics of homogeneous and fluid – solid (heterogeneous) catalytic reactions. Interpretation of batch reaction data. Photochemistry. Absorption of gases on solids. Application to gas chromatography.
CHE323: Process Simulation (2 Credits)
Solutions to chemical engineering problems using computer packages, Introduction to process simulation using the HYSYS software or any other process simulation software such as UNISIM, ChemCAD etc. Introduction to programming in C++ and Artificial Neural Networks (ANN).Introduction to AutoCAD.
GEE 321: Engineering Mathematics IV (3 Units)
Statics of rigid bodies in three dimensions; Distributed Force-Centroids and Centres of Gravity; Analysis of Structures – Internal Forces, Newton’s Third Law, Trusses, Frames, and Machines; Forces – moment of inertial – areas and masses; Rotation of rigid body about a fixed axis, plan motion of rigid body; Relative motion; Applications. Principles of virtual work, Efficiency of simple machines. Review and engineering applications of Differential Equations; Partial Differential Equations; Laplace Transformation and other transform methods. Series solutions and special functions such as Bessel’s functions, Fourier series.
GEE 322: Engineering Communication (1 Unit)
Professional use of English Language for letters, specification, description of charts, graphs, tables and writing of proposal and reports. Case studies of major professional presentation of reports and proposal.
GEE 323: Engineering Economics (3 Units)
The nature and scope of economics.Basic concepts of engineering economy. Interest formulae, discounted cash flow, present worth, equivalent annual growth and rate of return comparisons. Replacement analysis.Breakdownanalysis.Benefit-cost analysis.Minimum acceptable rate of union.Judging attractiveness of proposed investment.
ENT 321: Entrepreneurial Skills II (2 Units)
The course is a continuation of ENT 311. It focuses the attention of the students on creativity, feasibility study, legal framework, governmental policies, business negotiation, etc. Students should select two areas of interest for practical and exhibition. At the end of the semester students will undertake excursion and internship and produce report.
400 LEVEL COURSES
CHE410: Chemical Engineering Laboratory III (2 Units)
Laboratory experiments in transport phenomena. Separation processes and thermodynamics.
CHE411: Transport Phenomena II (4 Units)
Boundary layer theory and turbulence.Navier-Stokes equations. Universal velocity profile. Condensation and boiling. Eddy diffusion. Theories of mass transfer.Mass transfer with chemical reaction.Fick’s Law. Maxwell’s law of diffusion. Boundary Layer theory and turbulence. Inter- phase mass transfer.
CHE412: Chemical Engineering Thermodynamics II (3 Units)
Phase Equilibria; Criteria of equilibrium; Fugacity of pure component; General Fugacity relations for gases; Fugacity of gas mixtures, Effects of temperature and pressure of fugacity, pressure temperature composition relationship; phase behaviour at low and elevated pressure, Raoult’s law Henry’s Law, Equilibrium constant; Activity coefficient, Gibbs-Duhem equation; Margueles and Van Leer equations Chemical Reaction Equilibria; Standard free energy change and equilibrium constant, Evaluation of equilibrium constants. Effects of temperature and pressure on equilibrium constants; calculation of conversion; Gas phase reactions, Percentage conversion; Liquid phase reaction Heterogeneous reactions.
CHE 413: Separation Processes II (3 Units)
Drying of solids: Equilibrium; classification of dryers; batch drying – Mechanism and time of cross through circulation drying, continuous dryers. Theory of evaporation, single effect and multiple effect evaporation.Crystallisation, Principle of ion exchange techniques and application. Reverse osmosis, humidification and water cooling.
CHE414: Plant Design I (4 Units)
General Design Considerations, Presentation and discussion of real process design problems; sources of design data; process and engineering flow diagram; process outline charts incorporating method study and critical examination; mechanical design of process vessels and piping. Environmental and site considerations; Process services. Costing and Project evaluation. Formulation of feasibility report evaluation. Economics and safety considerations.
CHE415: Chemical Engineering Analysis (2 Units)
Applied ordinary and partial differential equations.Formulation of mathematical equations for Chemical Engineering operations and their numerical solutions. Introduction to finite difference method. Solution of differential equations using Matlab. Statistics: types of observation. Analysis of variance. Tests of significance. Regression analysis. Design of experiments.
CHE416: Particle Technology (2 Units)
Properties of particles. Motion of particles in a fluid, Stoke’sand Newton’s Laws. Flow through packed beds. Fluidization. Sedimentation and flocculation. Filtration. Screening, Classification and grinding.
CHE417: Environmental Engineering (3 Units)
Pollution and the environment - definitions and inter-relationship; natural and manmade pollution; the economics of pollution. Air pollution; Gaseous and particulate pollutions and their sources; effects on weather vegetation materials and human health. Legislation relating to air pollution, methods of control of gaseous emission and destruction; cyclones inertia separators electrostatic precipitator bag filters.Wet washers etc. Dispersal from chimneys and method of calculating chimney height; Flare stacks, water pollution river pollution by industrial effluent, Legislation and standards for effluent discharge; Impurities in natural water and their effects, Brief survey of ecology and the effects of effluent on the ecosystems; Treatment processes including precipitation flocculation coagulation, sedimentation, clarification and colour removal. Principles of biological treatment processes; cost of treatment; treatment for water re-use, ion exchange cooling water treatment. Land pollution; Disposal of solid wastes by incinerator and dumping, possible future trends including conversion of solid wastes into useful material or energy. Treatment of other types of pollution; noise; Thermal and nuclear pollution.
GEE 411: Technical Report Writing and Presentation (2 Units)
Section A: Technical search in libraries etc; writing of laboratory reports, Data presentation etc. Writing of research proposal, project and thesis report writing, General arrangement; Title, tables, glossary of terms, notations, table of references, etc. Writing of references and citing of references in test.
Section B; Writing of feasibility report (FR), detailed project report (DPR) and presentation of working drawings (WD). Basic definition of FR, DPR, Project report and WD.For small medium and large scale industries.Writing of technical briefs.Preparation of Bill of quantities, introduction to Risj Analysis. Section C: Oral technical presentation: Viz. giving seminar symposium, conference, and workshop papers. Differences between these forms.Use of overhead projector, slides, black boards, etc. for presentation.Radio, Television presentation.Expert witness i.e. giving expert engineering evidence in courts etc.The role of engineers in national building. Invited lectures from professionals should be encouraged.
CHE418 Process Control I (2 Units)
Introduction to process plant control. Process dynamics. Transfer functions. Frequency response analysis.Discreteevents.The control system, linear, open, and closed-loop systems. Control system design. Cascade control. Feed forward and feedback control. Introduction to multi-variable control.The Control Valve.
ENT 411: Entrepreneurship Development I (1 Unit)
This course further exposes the students to the entrepreneurial process of writing feasibility studies and business plans. The students are required to form cooperative societies in order to collaboratively generate business ideas and funds. Topics should include models of wealth creation, sustainability strategies, financial/ investment intelligence and international business. Students are to select one area of interest for practical and exhibition. The programme involves Recognition, Reward and Awards (RRAs) and Mentorship.
NOTE: Students are expected to take a minimum of ten units electives from their elective courses.
500 COURSES
First Semester
CHE511: Process Control II (2 Units)
Laplace Transform, Transfer Functions of Various Systems, Frequency Response Analysis and Stability. Descrete Events, Cascade Control, Analysis of Multivariable Control System in State Space, Experimental Case Studies, Control System Design
CHE512: Process Optimisation (3 Units)
Maxima of functions through the use of calculus.Unconstrained peak seeking methods. Single and multi-variable search techniques.Constrained optimisation techniques.Linearprogramming.Numerical optimisation techniques.Discrete events.
CHE513: Chemical Reaction Engineering (I2 Units)
Classification and types of reactors.Basic design equations for ideal reactors.Reactors in series and in parallel.Methods of operation and design equations for single and multiple reactions. . Design for multiple reactions: series, parallel and series-parallel.
CHE514: Separation Processes III (3 Units)
Solvent extraction. Extractive and azeotropic distillation. Multicomponent gas absorption. Distillation of multi-component mixtures. Novel separation process - membrane filtration. Pattern of changes and computational approaches. Energy requirements of separation processes. Solution of separation processes, optimal design and operation of separation process. Leaching: Solid-liquid equilibria, leaching equipment for batch and continuous operations, calculation of number of stages, Leaching by percolation through stationary solid beds, moving bed leaching, counter current multiple contact (shank’s system), equipment for leaching operation, multi stage continuous cross current and counter current leaching, stage calculations, stage efficiency
CHE515: Reservoir Engineering (3 Units)
Introduction to reservoir engineering. Petroleum geology. Petroleum exploration. Crude oil production. Pollution control. Natural gas production. Technical responsibilities of the Reservoir Engineering. Physical principles of reservoir engineering. The appraisal of oil and gas fields: PVT fluid properties of oil. Calculation of stock Tank Oil. Initially in Place (STOIIP) Feed Utilisation and equity determination of oil Initially in Place (OIIP).Recoverable resources. Moveable oil. Calculation of Gas Initially in place (GIIP). Pressure – depth plotting. Repeat Formation Tester (RFT).Appraisal testers. Material Balance applied to oil field. The use of commercial softwares (Schlumberger Eclipse, Feteke, Petroleum Expert) for the computation of material balance. Enhanced oil recovery by water/gas injection. Oil and gas well testing. Field Development planning and executive.
CHE516 Biochemical Engineering II (3 Units)
Introductory Biotechnology, Definition and principles of biotechnology, Areas of application in biotechnology.Methods of genetic modification of prokaryotic and eukaryotic organisms, to optimize biochemical characteristics and to stabilize cellular.Structure transformation transduction; conjugation and protoplasm fusion. Natural DNA recombination; advantages and method of induced phage virus bacterial plasmid or vector DNA mapping techniques; present and future prospect of utilization of created gene pools is selected topics of application areas e.g. Microbial enzyme technology, bioreactor design; practice of post-harvest technology and agricultural waste recycling.
GEE 513: Engineering Management, Cost and Evaluation (3 Units)
Principles of organization; element of organization, management by objectives. Financial management, accounting methods, financial statements, cost planning and control, budget and budgetary control. Depreciation accounting and valuation of assets. Personnel management selection recruitment and training job evaluation and merit rating. Industrial psychology. Resources management contracts interest formulae, rate of return. Methods of economic evaluation. Planning decision making; forecasting, scheduling. Production control, Gantt Chart, CPM and PERT. Optimization, linear programming as an aid to decision making transport and materials handling.Raw materials and equipment.Facility layout and location. Basic principles of work study. Principles of motion economy.Ergonomics in the design of equipment and process.
Cost and schedule management- an engineering function.Supporting skills and knowledge.Role of cost engineer during evaluation phase.Role of cost engineer during the basic design phase.Role of cost engineer in contractor selection.Role of cost engineer during detailed engineering design phase.Role of cost engineer during construction. Cost engineering function as distinct from design engineering function. Canon of ethics for cost engineers. Basic capital cost estimating. Basic operating cost estimating. Basic project planning and scheduling. Cost engineering terminology, Cost engineering standards.
Objectives of valuation work/ valuer’s primary duty and responsibility.Valuer’s obligation to his or her client, to other valuers, and to the society.Valuation methods and practices.Valuationreports.Expertwitnessing.Ethics in valuation. Valuation/Appraisal standards.Price, cost and value.Depreciation and obsolescence.Valuation terminology. Appraisal reporting and review. Real property valuation.Personal property valuation.Machinery and equipment valuation.Oil and gas valuation. Mines and quarries valuation.
Second Semester 500L
CHE521 Loss Prevention in Process Industries (2 Units)
Hazards in chemical process industries. Safety in chemical process plants. Causes of accidents in process plants.Prevention of accidents.Hazop technique. Safety and risk assessment, Maintenance of plant to minimize losses. Waste disposal and efficient treatment.Pollutioncontrol.Legal implications of various losses.IndustrialLaw.Environmental Law.
CHE522 Plant Design II (4 Credits)
A design problem involving the study of a process. It should consist of preparation of flow sheet and heat and mass balances of the process and a detailed design of plant or unit operation equipment used in the process. Due consideration must be given to economics and safety. Each student is expected to submit and orally defend a bound copy of technological/engineering design project. A design project should consist of introduction, literature review, process design, detailed design of some of the units of the process, calculation of material and energy balances, equipment selection and specification of the equipment required, specification of materials of construction, basic mechanical design and drawings, inclusion of process control, modern drawings of the process equipment including a good flow sheet, economic and environmental consideration.
CHE523 Chemical Reaction Engineering (2 Credits)
Temperature and pressure effects, Temperature stability and optimization of yield. Departures from plug flow, Mixing and residence time distribution. Fixed and fluidized bed reactor design. Catalyst deactivation.Factors affecting choice of reactors characterization of catalysis; Rate controlling regimes in gas solid reactions catalyzed by porous catalysts effectiveness factor scale up procedure catalyst decay and reactivation. Adsorption - Types of adsorption, nature of adsorbents, adsorption equilibria, effect of pressure and temperature on adsorption isotherms, Adsorption mechanisms
GEE 523: Engineering Law (2 Units)
Common Law: Its history, definition, nature and division. Legislation codification interpretation. Equity: Definition and its main spheres. Law of contracts for Engineers: offer, acceptance, communication termination. General principles of criminal law. Law of torts: definition, classification and liabilities. Patents: requirements, application and infringement. Registered designs: application, requirements, types and infringement. Company law, labour and industrial law.
500L Elective Courses:
CHE524 Coal Processing Technology (3 Units)
Introduction to coal formation.Physical and chemical properties of coal.Carbonisation of coal.Combustion of coal. Gasification of coal. Liquefaction of coal.Environmental aspects of coal utilisation.
CHE525 Sugar Technology (3 Units)
Description of the equipment and considerations of the process and operations involve in the manufacture of refined sugar from cane. Utilisation of the byproducts of the refining operation.Safety, economic and environmental considerations.Energy recovery.
CHE526 Detergent Technology: (3 Units)
Historical outline.Types of detergents.Mechanism of detergency.Oil and fats, manufacture of soap base by direct saponification of oils and fats. Manufacture of fatty acids. Production of solid soap, liquid soap and soap powders. Manufacture of non-soap detergents
CHE527 Fermentation Technology: (3 Credits)
Introductory microbiology and biochemistry. Enzymes and Substrates. The fermentation process. Batch and continuous fermentation. Malting and brewing. Wine making Enzymes in fermentation.
CHE528 Pulp and Paper Technology: (3 Credits)
Properties of the raw materials. Preparation of pulpwood. Pulping processes. Energy recovery. Bleaching of pulps and stock preparation. Utilisation of by-products. Economics and ecological aspects of paper manufacture
CHE529 Polymer Science and Technology: (3 Credits)
Introduction to polymer and their characteristics. Source of monomers. Structure and physical properties of polymers: rheology, solubility and molecular weights. Plasticity and elasticity.The William Landel Ferry Equation, Polymerisation reactions and manufacturing methods; Ziegler Natta catalysis.Processing and Technology of Polymers.
CHE530 Technology of Fossil Fuel Processing: (3 Credits)
Source, availability and characterisation of fossil fuel (Petroleum, Natural gas, tar sands, coal). Modern processing technology: Choice of product lines and products: Alternative product lines and products and product specification to be emphasized.
Other Electives should be made up of the Following: Petrochemicals, Dyes and Dyestuff, Fertilizers, Chlor-Alkali Industries, Industrial Gases, Cement and Lime, Adhesives, Activated Carbon and Clay etc.
CHE500 Chemical Engineering Research Project:(6 Credits)
Individual research projects under the supervision of an academic staff. Projects should focus on national and state industrial problems.
EEE 511: Control Engineering II: (2 Units)
Frequency analysis, Nyquist plots, criterion, relative stability, M- AND N- circles, inverse Nyquist plots. Bode diagrams, determination of transfer function from asymptotic plot. Nichols chart.Rot locus plots. 3-term (PID) Controllers. Series and parallel compensation design. Design using Bode, Nichols and Root locus methods.
ENT 421: Entrepreneurship Development II: (1 Units)
This course, which is a continuation of ENT 411, further exposes the students to the entrepreneurial process of strategic management. Topics include business financing, venture capital, managing business growth, negotiation, time and self-management, leadership, ICT and succession plan, defence of feasibility study and business plans.
Basic Admission Requirements and Expected Duration of the Programmes
The basic admission requirements for the Departments in the Faculty of Engineering shall include:
2.1 Admission Requirements for UTME
The minimum admission requirement for engineering disciplines are passes at credit level in the Senior Secondary School final year examination or GCE ‘O’ Level in five subjects including Mathematics, English Language, Physics and Chemistry. Candidates are also required to have acceptable pass in the UTME.
2.2 Admission Requirements for Direct Entry
For Direct Entry, candidates must have passes in Mathematics, Physics and Chemistry at GCE ‘A’ level or equivalent. Holders of OND and HND at minimum of upper credit level are eligible for consideration for admission into 200 and 300 levels respectively.
2.3 Minimum Duration
The minimum duration for the Chemical Engineering programme in the Faculty of Engineering is five academic sessions for candidates who enter through the UTME. Candidates who enter through the Direct Entry will spend a minimum of four academic sessions provided that they satisfy all the other University requirements.
2.4 Name of Degree Programmes:
Chemical Engineering (B. Eng.)
2.5 GRADUATION REQUIREMENTS
Students must pass all the core and required courses, as well. Each student is also to present individual project and also defend it during the oral examinations.