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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PHY 101
2
At the end of the course 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 o...
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Space and time; units and dimension, Vectors and Scalars, Differentiation of vectors:
displacement, velocity and acceleration; kinematics; Newton 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 101
2
At the end of the course, 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...
View learning outline
Space and time; units and dimension, Vectors and Scalars, Differentiation of vectors:
displacement, velocity and acceleration; kinematics; Newton 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 101
2
At the end of the course, 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...
View learning outline
Space and time. Units and dimension, Vectors and Scalars, Differentiation of vectors.
Displacement, velocity and acceleration. Kinematics. Newton 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 102
2
At the end of the course, students should be able to: 1. describe the electric field and potential, and related concepts, for stationary charges; 2. calculate electrostatic properties of simple charge distributions using...
View learning outline
Forces in nature. Electrostatics (electric charge and its properties, methods of charging).
Coulomb’s law and superposition. Electric field and potential. Gauss’s law. Capacitance.
Electric dipoles. Energy in electric fields. Conductors and insulators. DC circuits (current,
voltage and resistance. Ohm’s law. Resistor combinations. Analysis of DC circuits. Magnetic
fields. Lorentz force. Biot-Savart and Ampère’s laws. Magnetic dipoles. Dielectrics. Energy in
magnetic fields. Electromotive force. Electromagnetic induction. Self and mutual inductances.
Faraday and Lenz’s laws. Step up and step down transformers. Maxwell's equations.
Electromagnetic oscillations and waves. AC voltages and currents applied to inductors,
capacitors, and resistance.
PHY 102
2
At the end of the course, students should be able to: 1. describe the electric field and potential, and related concepts, for stationary charges; 2. calculate electrostatic properties of simple charge distributions using...
View learning outline
Forces in nature. Electrostatics (electric charge and its properties, methods of charging).
Coulomb’s law and superposition. Electric field and potential. Gauss’s law. Capacitance.
Electric dipoles. Energy in electric fields. Conductors and insulators. DC circuits (current,
voltage and resistance. Ohm’s law. Resistor combinations. Analysis of DC circuits. Magnetic
fields. Lorentz force. Biot-Savart and Ampère’s laws. Magnetic dipoles. Dielectrics. Energy in
magnetic fields. Electromotive force. Electromagnetic induction. Self and mutual inductances.
Faraday and Lenz’s laws. Step up and step down transformers. Maxwell's equations.
Electromagnetic oscillations and waves. AC voltages and currents applied to inductors,
capacitors, and resistance.
PHY 107 - General Practical Physics I (1 Unit C: PH 45)
Learning Outcomes
On completion, the student should be able to:
1. conduct measurements of some physical quantities;
2. make observations of events, collect and tabulate data;
3. identify and evaluate some common experimental errors;
4. plot and analyse graphs; and
5. draw conclusions from numerical and graphical analysis of data.
Course Contents
This introductory course emphasizes quantitative measurements, the treatment of
measurement errors and graphical analysis. A variety of experimental techniques should be
employed. The experiments include studies of meters, the oscilloscope, mechanical systems,
electrical and mechanical resonant systems, light, heat, viscosity etc., covered in PHY 101 and
PHY 102. However, emphasis should be placed on the basic physical techniques for
observation, measurements, data collection, analysis and deduction.
PHY 108 - General Practical Physics II (1 Unit C: PH 45)
Learning Outcomes
At the end of the course, the student should be able to:
1. conduct measurements of some physical quantities;
2. make observations of events, collect and tabulate data;
3. identify and evaluate some common experimental errors;
4. plot and analyse graphs;
5. draw conclusions from numerical and graphical analysis of data; and
6. prepare and present practical reports.
Course Contents
This practical course is a continuation of PHY 107 and is intended to be taught during the
second semester of the 100 level to cover the practical aspect of the theoretical courses that
have been covered with emphasis on quantitative measurements, the treatment of
measurement errors, and graphical analysis. However, emphasis should be placed on the basic
physical techniques for observation, measurements, data collection, analysis and deduction.
PHY 102
2
At the end of the course, students should be able to: 1. describe the electric field and potential, and related concepts, for stationary charges; 2. calculate electrostatic properties of simple charge distributions using...
View learning outline
Forces in nature. Electrostatics (electric charge and its properties, methods of charging).
Coulomb’s law and superposition. Electric field and potential. Gauss’s law. Capacitance.
Electric dipoles. Energy in electric fields. Conductors and insulators. DC circuits (current,
voltage and resistance. Ohm’s law. Resistor combinations. Analysis of DC circuits. Magnetic
fields. Lorentz force. Biot-Savart and Ampère’s laws. Magnetic dipoles. Dielectrics. Energy in
magnetic fields. Electromotive force. Electromagnetic induction. Self and mutual inductances.
Faraday and Lenz’s laws. Step up and step down transformers. Maxwell's equations.
Electromagnetic oscillations and waves. AC voltages and currents applied to inductors,
capacitors, and resistance.
PHY 102
2
At the end of the course, students should be able to: 1. describe the electric field and potential, and related concepts, for stationary charges; 2. calculate electrostatic properties of simple charge distributions using...
View learning outline
Forces in nature. Electrostatics (electric charge and its properties, methods of charging).
Coulomb’s law and superposition. Electric field and potential. Gauss’s law. Capacitance.
Electric dipoles. Energy in electric fields. Conductors and insulators. DC circuits (current,
voltage and resistance. Ohm’s law. Resistor combinations. Analysis of DC circuits. Magnetic
fields. Lorentz force. Biot-Savart and Ampère’s laws. Magnetic dipoles. Dielectrics. Energy in
magnetic fields. Electromotive force. Electromagnetic induction. Self and mutual inductances.
Faraday and Lenz’s laws. Step up and step down transformers. Maxwell's equations.
Electromagnetic oscillations and waves. AC voltages and currents applied to inductors,
capacitors, and resistance.
PHY 107 - General Practical Physics I (1 Unit C: PH 45)
Learning Outcomes
At the end of the course, the student should be able to:
1. conduct measurements of some physical quantities;
2. make observations of events, collect and tabulate data;
3. identify and evaluate some common experimental errors;
4. plot and analyse graphs; and
5. draw conclusions from numerical and graphical analysis of data.
Course Contents
This introductory course emphasizes quantitative measurements, the treatment of
measurement errors and graphical analysis. A variety of experimental techniques should be
employed. The experiments include studies of meters, the oscilloscope, mechanical systems,
electrical and mechanical resonant systems, light, heat, viscosity etc., covered in PHY 101 and
PHY 102. However, emphasis should be placed on the basic physical techniques for
observation, measurements, data collection, analysis and deduction.
PHY 108 - General Practical Physics II (1 Unit C: PH 45)
Learning Outcomes
At the end of the course, the student should be able to:
1. conduct measurements of some physical quantities;
2. make observations of events, collect and tabulate data;
3. identify and evaluate some common experimental errors;
4. plot and analyse graphs;
5. draw conclusions from numerical and graphical analysis of data; and
6. prepare and present practical reports.
Course Contents
This practical course is a continuation of PHY 107 and is intended to be taught during the
second semester of the 100 level to cover the practical aspect of the theoretical courses that
have been covered with emphasis on quantitative measurements, the treatment of
measurement errors, and graphical analysis. However, emphasis should be placed on the basic
physical techniques for observation, measurements, data collection, analysis and deduction.
PHY 102
2
At the end of the course, students should be able to: 1. describe the electric field and potential, and related concepts, for stationary charges; 2. calculate electrostatic properties of simple charge distributions using...
View learning outline
Forces in nature. Electrostatics (electric charge and its properties, methods of charging).
Coulomb’s law and superposition. Electric field and potential. Gauss’s law. Capacitance.
Electric dipoles. Energy in electric fields. Conductors and insulators. DC circuits (current,
voltage and resistance. Ohm’s law. Resistor combinations. Analysis of DC circuits. Magnetic
fields. Lorentz force. Biot-Savart and Ampère’s laws. Magnetic dipoles. Dielectrics. Energy in
magnetic fields. Electromotive force. Electromagnetic induction. Self and mutual inductances.
Faraday and Lenz’s laws. Step up and step down transformers. Maxwell's equations.
Electromagnetic oscillations and waves. AC voltages and currents applied to inductors,
capacitors, and resistance.
PHY 102
2
At the end of the course, students should be able to: 1. describe the electric field and potential, and related concepts, for stationary charges; 2. calculate electrostatic properties of simple charge distributions using...
View learning outline
Forces in nature. Electrostatics (electric charge and its properties, methods of charging).
Coulomb’s law and superposition. Electric field and potential. Gauss’s law. Capacitance.
Electric dipoles. Energy in electric fields. Conductors and insulators. DC circuits (current,
voltage and resistance. Ohm’s law. Resistor combinations. Analysis of DC circuits. Magnetic
fields. Lorentz force. Biot-Savart and Ampère’s laws. Magnetic dipoles. Dielectrics. Energy in
magnetic fields. Electromotive force. Electromagnetic induction. Self and mutual inductances.
Faraday and Lenz’s laws. Step up and step down transformers. Maxwell's equations.
Electromagnetic oscillations and waves. AC voltages and currents applied to inductors,
capacitors, and resistance.
PHY 102
2
At the end of the course, students should be able to: 1. describe the electric field and potential, and related concepts, for stationary charges; 2. calculate electrostatic properties of simple charge distributions using...
View learning outline
Forces in nature. Electrostatics (electric charge and its properties, methods of charging).
Coulomb’s law and superposition. Electric field and potential. Gauss’s law. Capacitance.
Electric dipoles. Energy in electric fields. Conductors and insulators. DC circuits (current,
voltage and resistance. Ohm’s law. Resistor combinations. Analysis of DC circuits. Magnetic
fields. Lorentz force. Biot-Savart and Ampère’s laws. Magnetic dipoles. Dielectrics. Energy in
magnetic fields. Electromotive force. Electromagnetic induction. Self and mutual inductances.
Faraday and Lenz’s laws. Step up and step down transformers. Maxwell's equations.
Electromagnetic oscillations and waves. AC voltages and currents applied to inductors,
capacitors, and resistance.