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.
4,624
Courses
10
Faculties
168
Programmes
Showing 2191–2200
of 4,624 courses
PHY 102
2 Unit(s) (LH 30)
At the end of this course, the student 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 u...
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, current, voltage and resistance. Ohm’s law
and 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, resistance, and combinations.
PHY 102
2 Unit(s) (LH 30)
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 Unit(s) (LH 30)
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 Unit(s) (LH 30)
At the end of this 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 distribution 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. Current, voltage and
resistance. Ohm’s law and 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, resistance and combinations.
PHY 102
2 Unit(s) (LH 30)
At the end of this 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 distribution 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. Current, voltage and
resistance. Ohm’s law and 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, resistance and combinations.
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....
View learning outline
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.
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....
View learning outline
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.
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....
View learning outline
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.
PHY 103
2
On completion, the students should be able to: explain the concepts of heat and temperature and relate the temperature scales; define, derive and apply the fundamental thermodynamic relations to thermal systems; describe...
View learning outline
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.
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....
View learning outline
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.