CCMAS Course Search
Browse BRIDGE's courses under the National Universities Commission's Core Curriculum Minimum Academic Standards (CCMAS) — Nigeria's unified benchmark curriculum for every accredited program. Search by course title, code, faculty or programme to see full descriptions, learning outlines and credit-hour loads.
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Programme: B.Eng. Systems Engineering ×
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SSG 531
3
At the end of this course, the students should be able to: 1. complete the proposal, evaluation, and design phase of a capstone project; 2. demonstrate the connection between the chosen problem and a number of theory cou...
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The students, preferably working in groups, should select and do preliminary work on a
capstone project in one or more of the base teaching areas of Systems Engineering. The
students can also go beyond the department and engage in multidisciplinary undertakings
provided permission is obtained from the HoD through the assigned project advisor. Literature
survey, review of existing systems etc. must be achieved to a satisfactory extent in the first
semester.
SSG 560
3
At the end of this course, the students should be able to: 3. complete the design phase of the capstone project begun in SSG 530; 4. implement the design by analysis, optimisation and prototyping; and 5. demonstrate the...
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The design, execution phase of the capstone project. This could include analysis, simulation
and or prototyping. For students in a multidisciplinary project, deep dive into the way theory
interacts with design and prototyping decisions is essential.
Prerequisite: SSG 530.
Minimum Academic Standards
Equipment
Laboratory Equipment Requirements
List of Laboratories/Workshop
Microprocessors Laboratory
controls laboratory
robotics laboratory
software development laboratory
List of Major Equipment
Testing Laboratory
1. Universal testing machine with accessories for tension, compression, transverse 180o cold
bend, double shear, punching and brunel hardness tests. Capacity – 10000KN, Transverse
Beam – 500KN.
2. Proto-type tests facilities for testing of proto-type in structural elements, i.e. beams,
frames, trusses, etc. accessories for the purpose include 1000KN, 250KN load rings,
electronic load cells, faculty workshop facilities, DEMEC high accuracy auges, hydraulic
jacks
3. Fatigue and microtesting machine.
Software Development Laboratory
high speed graphics capable computers and single board computers.
Controls Laboratory
Artificial Intelligence and Machine Learning Laboratory
Manufacturing Laboratory
1. 5-axis CNC machine
2. 3-printers (1 to 20 students)
3. laser cutter
Staffing
Academic Staff
The NUC guidelines on staff/student ratio of 1:15 for Engineering and Technology
departments shall apply. However, there should be a minimum of six full-time equivalent
of Staff in the department. There is need to have a reasonable number of Staff with doctoral
degrees as well as sufficient industrial experience. With a minimum load of 15 Units per
semester for students and a minimum of six full-time equivalent of staff in each programme,
staff should have a maximum of 15 contact hours per week for lectures, tutorials, practicals
and supervision of projects.
NUC requirement encourages all academic staff to have PhD degrees, hence appointment
of academic staff is preferably to the Lecturer cadre. Only in exceptional cases are
candidates with great promise appointed to Graduate Assistant and Assistant Lecturer
positions for the purpose of being developed to the Lecturer cadre as registered PhD
candidates.
Academic Support Personnel
Teaching Assistant/Demonstrators to help lecturers in the conduct of tutorials, practicals
and field work. This category of personnel is not expected to be regular staff as they are to
be paid on the basis of approved hourly rate.
Administrative Support Staff
The services of the administrative support staff are indispensable in the proper
administration of the departments and faculty offices. It is important to recruit very
competent senior staff that are computer literate.
Technical Support Personnel
The services of technical support staff, which are indispensable in the proper running of
laboratories and workshop/studios are required. It is important to recruit very competent
senior technical staff to maintain teaching and research equipment. They are also to
undergo regular training to keep them abreast of developments in equipment operation and
maintenance. The minimum of academic staff to technical staff ratio of 5:1 should be
maintained.
Minimum Number of Staff
Subject to the general standards specified by NUC;
1. there should be a minimum of two PhDs and four M.Eng degree holders full-time academic
staff to mount the programme;
2. each workshop or laboratory should have an adequate number of staff with the right mix,
such that each unit or section in that workshop or laboratory can run efficiently; and
3. there should be an adequate number of administrative staff of the appropriate calibre for
the office of the Head of Department to run.
Student/Staff Ratio
The minimum staff-to-student ratio should be 1:15 from 200 level to 500 level.
Library
Library Facilities
The following facilities should be provided to enable users make maximum use of library
services:
1. reading rooms
2. 24-hour reading rooms
3. Visually impaired resource centre
4. radio frequency identification (RFID) security gate for theft detection
5. RFID tags for book tagging
6. Notebook computers for loan service
7. over two hundred computers distributed at the various service points for database search
at the university library and faculty libraries
8. workstations at the faculty libraries for database search
9. projectors and creens for presentations
10. photocopying machines
11. scanners
12. visually impaired resource centre
13. information display screen
Classrooms, Laboratories, Workshops, Clinics and Offices
The NUC recommends the following physical space requirement:
Academic m2
Professor’s Office 18.50
Head of Department’s Office 18.50
Tutorial Teaching Staff Space 13.50
Other Teaching Staff Space 7.00
Technical Staff Space 7.00
Science Staff Research Laboratory 16.50
Engineering Staff Research Laboratory 14.50
Seminar Space per student 1.85
Drawing Office Space (A.O. Board) (Per Student) 4.60
Drawing Office Space (A.I. Board) (Per Student) 3.70
Laboratory Space 7.50
Non-Academic
Secretarial Space 7.00
Office Facilities
S/No Office No in Room Facilities
1. HOD 1 Table, chairs, A/C, filing cabinet, bookshelves,
computer unit, Secretary and facilities.
2. Professor 1 Table, chairs, A/C, filing cabinet, bookshelves,
computer unit, Secretary and facilities.
3. Reader 1 Table, chairs, A/C, filing cabinet, bookshelves,
computer unit.
4. Senior 1 Table, chairs, A/C, filing cabinet, bookshelves,
Lecturer computer unit.
5. Lecturer I 2 Table, chairs, fan, filing cabinet, bookshelves.
6. Lecturer II 3 Table, chairs, fan, filing cabinet, bookshelves
GET 206
3
At the end of this course, the students should be able to: 1. describe basic concepts of thermodynamics, i.e., quantitative relations of Zeroth, first, second and third laws; 2. define and explain system, surrounding, cl...
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Basic concepts, definitions and laws (quantitative relations of Zeroth, first, second and third
laws of thermodynamics). Properties of pure substances: the two-property rule (P-v-T
behaviour of pure substances and perfect gases); state diagrams. The principle of
corresponding state; compressibility relations; reduced pressure; reduced volume;
temperature; pseudo-critical constants. The ideal gas: specific heat, polytropic processes.
Ideal gas cycles; Carnot; thermodynamic cycles, turbines, steam and gas, refrigeration. The
first law of thermodynamics – heat and work, applications to open and closed systems. The
steady flow energy equation (Bernoulli’s equation) and application. Second law of
thermodynamics, heat cycles and efficiencies.
GET 205
3
At the end of this course, the students should be able to : 1. explain the properties of fluids; 2. determine forces in static fluids and fluids in motion; 3. determine whether a floating body will be stable; 4. determin...
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Fluid properties, hydrostatics, fluid dynamics using principles of mass, momentum and energy
conservation from a control volume approach. Flow measurements in pipes, dimensional
analysis, and similitude, 2-dimensional flows. Hydropower systems.
CHM 101
2
1 institution need this
At the end of this course, the students should be able to: 1. define atom, molecules and chemical reactions; 2. discuss the modern electronic theory of atoms; 3. write electronic configurations of elements on the periodi...
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Atoms, molecules, elements and compounds, and chemical reactions. Modern electronic
theory of atoms. Electronic configuration, periodicity and building up of the periodic table.
Hybridisation and shapes of simple molecules. Valence forces; Structure of solids. Chemical
equations and stoichiometry; chemical bonding and intermolecular forces, kinetic theory of
matter. Elementary thermochemistry; rates of reaction, equilibrium and thermodynamics.
Acids, bases and salts. Properties of gases. Redox reactions and introduction to
electrochemistry. Radioactivity.
CHM 102
2
At the end of this course, the students should be able to: 1. state the importance and development of organic chemistry; 2. define fullerenes and its applications; 3. discuss electronic theory; 4. determine the qualitati...
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Historical survey of the development and importance of organic chemistry; fullerenes as fourth
allotrope of carbon, uses as nanotubules, nanostructures, nanochemistry. Electronic theory in
organic chemistry. Isolation and purification of organic compounds; determination of
structures of organic compounds including qualitative and quantitative analysis in organic
chemistry; nomenclature and functional group classes of organic compounds. Introductory
reaction mechanism and kinetics. Stereochemistry. The chemistry of alkanes, alkenes,
alkynes, alcohols, ethers, amines, alkyl halides, nitriles, aldehydes, ketones, carboxylic acids
and derivatives. The chemistry of selected metals and non-metals. Comparative chemistry of
group IA, IIA and IVA elements. Introduction to transition metal chemistry.
PHY 101
2
On completion, the students should be able to 1. identify and deduce the physical quantities and their units; 2. differentiate between vectors and scalars; 3. describe and evaluate motion of systems on the basis of the f...
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Space and time; units and dimension, vectors and scalars, differentiation of vectors:
displacement, velocity and acceleration; kinematics; Newton’s laws of motion (inertial frames,
impulse, force and action at a distance, momentum conservation); relative motion; application
of Newtonian mechanics; equations of motion; conservation principles in physics,
conservative forces, conservation of linear momentum, kinetic energy and work, potential
energy, system of particles, centre of mass; rotational motion; torque, vector product,
moment, rotation of coordinate axes and angular momentum. Polar coordinates; conservation
of angular momentum; circular motion; moments of inertia, gyroscopes and precession;
gravitation: Newton’s law of gravitation, Kepler’s laws of planetary motion, gravitational
potential energy, escape velocity, satellites motion and orbits.
PHY 103
2
On completion, the students should be able to: 1. explain the concepts of heat and temperature and relate the temperature scales; 2. define, derive and apply the fundamental thermodynamic relations to thermal systems; 3....
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Heat and temperature, temperature scales; gas laws; general gas equation; thermal
conductivity; first Law of thermodynamics; heat, work and internal energy, reversibility;
thermodynamic processes; adiabatic, isothermal, isobaric; second law of thermodynamics;
heat engines and entropy, Zero’s law of thermodynamics; kinetic theory of gases; molecular
collisions and mean free path; elasticity; Hooke's law, Young's shear and bulk moduli;
hydrostatics; pressure, buoyancy, Archimedes' principles; Bernoullis equation and
incompressible fluid flow; surface tension; adhesion, cohesion, viscosity, capillarity, drops and
bubbles.
CHM 107
1
At the end of this course, the students should be able to: 1. state the general laboratory rules and safety procedures; 2. collect scientific data and correct carry out chemical experiments; 3. identify the basic glasswa...
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Laboratory experiments designed to reflect topics presented in courses CHM 101 and CHM
102. These include acid-base titrations, qualitative analysis, redox reactions, gravimetric
analysis, data analysis and presentation.
CHM 108
1
At the end of this course, the students should be able to: 1. state the general laboratory rules and safety procedures; 2. collect scientific data and correctly carry out chemical experiments; 3. identify the basic glass...
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Continuation of CHM 107. Additional laboratory experiments to include functional group
analysis, quantitative analysis using volumetric methods.