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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AAE 101
1
At the end of this course, the students should be able to: 1. use and incorporate fundamental principles from mathematics, basic science and physics, and computer science to solve general fundamental problems associated...
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This course introduces new Aerospace Engineering students to the field of AE and to the
curriculum. An overview of aerospace engineering from a design perspective. Job role for
maintenance staff. Training opportunities and job progression. Introductory aerodynamics,
lift, drag and the standard atmosphere. Aircraft performance. History of aviation,
meteorology and astronomy.
200 Level
AAE 201
2
At the end of this course, the students should be able to: 1. Design and conducts experiment; 2. Analyse and interpret data; 3. design system, component or process to meet needs; 4. function on multi-disciplinary systems...
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Overview of aerospace engineering from a design and systems perspective. Introductory
aerodynamics, lift, drag and the standard atmosphere. Aircraft performance, stability and
control. Propulsion. Structures. Rocket and spacecraft trajectories and orbits.
ABE 102
2
The course exposes fresh students to: 1. the contents of agricultural and biosystems engineering; 2. the diverse role and relevance of the agricultural engineering profession; 3. the career opportunities; and 4. apprecia...
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Philosophy and evolution of agricultural and biosystems engineering. The role of Agricultural
and Biosystems Engineers in the society and human development. The relationship between
agricultural and biosystems engineering and the other engineering disciplines. Significance of
agricultural and biosystems engineering. Introduction to agricultural and biosystems
engineering: farm power and machinery engineering; soil and water engineering; crop
processing and storage engineering; farm structures and environment engineering;
biosystems engineering. ABE and sustainable development. The global development goals
(SDGs). Climate change impacts on agriculture, adaptation and mitigation measures; Climate
smart agriculture. Career opportunities in agricultural and biosystems engineering.
200 Level
TCH 101
2
At the end of this course, the students should be able to: 1. appreciate the role of the chemical engineer in the industry and society; 2. be able to use basic engineering units in both SI and imperial systems in solving...
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The role of the chemical engineer. 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 in single units, recycle, bypass, purge. This course will be
supported with guest lectures from senior chemical engineers in industries, government and
academia.
200 Level
CEE 101
1
Upon the successful completion of this course, students should be able to: 1. explain the profession of civil engineering and 2. the roles played by civil engineers.
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History of civil engineering. Branches of civil engineering. Roles of civil engineers in
government, industry and academia. Allied professionals and their interaction with civil
engineers. Career oppoturnities in civil engineering, professional and regulatory bodies.
200 Level
CPE 112
2
At the end of the course the student should be able to: 1. explain the profession of computer engineering; 2. the roles played by computer engineers; and 3. explain the historical development of computers.
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Historical development of modern computing and computer engineering profession; roles
and responsibilities of the computer engineer; career paths and development (public and
private sectors, academic/research and industry); overview of computer engineering design;
computer devices/hardware in the age of‘ smartness’ and Internet of Things and People
‘IoTs and P’; identification of computer software and hardware components and operational
relationships (central processing units, input/output devices, operating systems, languages,
200 Level
NUE 502
2
At the end of this course, students should be able to: 1. explain how nuclear fusion leads to energy and discuss the energy balance and energy conservation principles inherent in the process; 2. explain the energy-mass r...
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Introduction to energy production by controlled thermonuclear reactions. Nuclear fusion
reactions, energy balances for fusion systems, survey of plasma physics; physical conditions
required to achieve net fusion energy, plasma physics of magnetic confinement, overview of
fusion energy concepts, inertial confinement; neutral beam injection; RF heating methods;
vacuum systems; material challenges in fusion systems; tritium handling.
EEE 102
2
Students will be able to: 1. comprehend the duties and functions of an Electrical and Electronic Engineer (EEE); 2. state the requirements for the profession and career opportunities; 3. state the careers related to EEE;...
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History of Electrical Engineering. Evolution of EEE. Duties of EE Engineers. Areas of
specialisation and work environment. Skill requirements (soft and hard). Qualities for EE
Engineers. Careers related to EEE. Typical course modules. Job outlook/opportunities for EE
Engineers. Future of EEE. Professional registration (NSE, COREN, IEEE, IET). Passive
components (R, L, C, transformers): descriptive features, including values and colour codes,
uses in electrical circuits.DC and AC signal parameters
200 Level
TEL 102
2
On the completion of the course students will be able to: 1. predict the behaviour of any electrical and magnetic circuits; 2. formulate and solve complex AC, DC circuits; 3. identify the type of electrical machine used...
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Electrical circuits (electrical quantities – Units, DC and AC Signals, Root-Mean-Square (RMS)
Value, Average Value, Instantaneous Values, Form Factor, Crest Peak or Amplitude Factor);
Electrostatics (Introduction, Capacitors, Capacitance, Capacitance of an Isolated Sphere,
Spherical Capacitor, Parallel Plate Capacitor, Capacitors in Series and Capacitors in Parallel);
magnetism and electromagnetism (Introduction, Absolute and Relative Permeabilities of a
Medium, Magnetic Induction (Magnetic Flux Density), Flux Per Unit Pole, Field Intensity or
Field Strength, the Production of Magnetic Induction by a Current, Biot-Savart Law (Laplace’s
Law), Magnetic Circuit, Comparison of the Electric and Magnetic Circuits Magnetisation Curves;
Electromagnetic Induction; Faraday’s Laws of Electromagnetic Induction); Basic laws and
theorems (Introduction, Ohm’s Law, Kirchhoff’s Laws, Superposition Theorem, Thevenin
Theorem, how to thevenize a given circuit, Delta/Star transformation and Star/Delta
transformation); three phase system (Introduction, Relationship between line and phase
voltage, Delta connected system with a balanced load, power with balanced 3-phase load,
Measurement of Power in a 3-phase three-wire system and Power Factor Measurement);
electric power (Introduction, Power in an Alternating Current Circuit, Active, Reactive and
Apparent Power, Power Triangle, Power Factor, why improve Power factor, Power factor in a
Capacitive Circuit, the Practical importance of Power Factor, Effect of low Power Factor, Power
Factor Corrective Equipment, Effect of reactive power consumption, StaticVar Compensations
for AC and DC Transmission and Industry, Typical Static Var Compensator, Advantages of
Static Var Compensator, Power Factor Economics and Electricity Tariffs); introduction to
electrical machines (Electric Machines and Transformers, Classification of Electrical Machines,
Basic Equations of DC Machines, Operating mode of DC Machines, Transformers, Ideal
Transformer and Efficiency of a Transformer); basic electronics (Introduction, Electronic
Tubes, Semi-conductors, Junction Diode, Field Effect Transistor and Optoelectronics);
electrical measurement (Measurement of Resistance by the Voltmetre-Ammetre Method,
Ohmmetres and A. C. Bridges).
200 Level
ELE 101
2
Upon the completion of the course, the student should be able to: 1. apply knowledge of mathematics, science, and engineering to the analysis and design of electrical circuits; 2. identify, formulate, and solve engineeri...
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Basic circuit laws: Ohm’s law, Kirchhoff’s voltage and current laws; Nodes, Branches and
loops, Series elements and voltage division, parallel elements and current division, Star-Delta
transformation.
AC Fundamentals: Review of Complex Algebra, Sinusoids, Phasors, Impedance and
Admittance, Series and parallel combination of Inductors and Capacitors, Mesh and Nodal
analysis, RMS and Average values, steady-state analysis of series and parallel combination of
RLC with sinusoidal excitation, Instantaneous power, Real, Reactive and Apparent power,
Concept of Power factor, Frequency.
Network Theorems and Resonance: Superposition theorem, Thevinin’s theorem,
Nortorn’s theorem, Maximum power transfer theorem, Reciprocity theorem, Resonance in
Electrical circuits, Analysis of series and parallel Resonance.
200 Level