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 3541–3550
of 4,624 courses
MTE 306
3
This is an important core course to be mastered before students go on six months industrial training. At the end of this course, the students should be able to: 1. demonstrate being conversant with structure-property-app...
View learning outline
Binary and ternary equilibrium diagrams and applications in metallurgy; theory of alloy,
solidification of metals and alloys; introduction to heat treatment of metals including
normalising, tempering, quenching, annealing and case hardening of metals; phase
transformation, iron-carbon diagram and TTT diagram; theory of recrystallisation, nucleation
and growth of crystal.
OPT 216
1 Unit(s) (LH 15)
At the end of OPT 216 (Physical optics) course, the students should be able to: 1. state the types of waves and their properties; 2. devise how to deduce the wave formulas; 3. demonstrate light interferences and diffract...
View learning outline
Principles of wave optics, interferences, diffraction, polarization, radiometry, holography,
quantum nature of light, spectroscopy, lasers. Relativistic optics. Laboratory work is included.
RAD 302
2 Unit(s) (LH 30)
At the end of this course, the students should be able to: 1. identify the similarities and differences between CT, MRI, U/S, and the underlying physical processes that achieve sectional imaging; and 2. describe the inst...
View learning outline
Principles of CT : X ray projection, attenuation and acquisition of transmission profiles. The linear
attenuation coefficient , the density of the material and the photon energy, beer’s law, Hounsfield
units, Gantry and table , X-ray tube and generator, collimation and filtration, detectors, image
reconstruction and processing. Basic physics of ultrasound: The nature of sound waves and
characteristics of ultrasound, propagation in tissues, piezoelectricity, transducers and beam
shapes. Doppler ultrasound physics. Components of A, B, M mode and real-time scanners,
measurement of size, scan converters and processing. Pulsed and continuous wave Doppler
measurements and Imaging, duplex scanners, 2D echo, ultrasound bone densitometry. MRI
physics: Protons, Alignments, Precession, Lamour frequency, Precession, frequency,
Gyromagnetic constant, Vectors, Phase and Frequency, RF Pulse, T1 Relaxation, T2 Relaxation,
TE and TR, Spatial encoding, K-Space.
GPY 801
3
Topics in solid earth geophysics with emphasis on elasticity and thermal state of the earth.
View learning outline
Topics in solid earth geophysics with emphasis on elasticity and thermal state of the earth; Physical and chemical characteristics of the earth; Application of Physics and thermodynamics to earth materials and the use of available observable and laboratory data to derive information about the state of; and processes in the earth's interior; Seismology and the internal structure of the earth; The magnetic field of the earth: main field and time-varying components; Age and thermal state; Geochronology; Geodynamics
PHY 817
3
The composition of the earth.
View learning outline
The composition of the earth; The physical characteristics of earth's material; material; electrical and magnetic properties; Earth's interior; Further evidence from seismology; geothermal state and geomagnetism; Geodynamics - Global picture of the dynamic earth; Plate theory and rheology of the earth's interior; Evidence from geomagnetic reversals; Mechanism of earthquake and the new global tectonics; Field and laboratory investigations especially high pressure geophysics
OPT 303
2 Unit(s) (LH 15; PH 45)
At the end of OPT 310 (Physiological Optics I) course, students should be able to: 1. identify the various ocular tissue structures with optical properties; 2. identify the contribution(s) of the various tissues to the o...
View learning outline
The eye as an optical instrument; reduced and schematic eyes; anomalies of refraction and optical
aberrations of the eye. The Badal optometer; resolution and visual acuity. Laboratory work is
included.
OPT 316
1 Unit(s) (LH 15)
At the end of OPT 316 (Physiological Optics II) course, students should be able to: 1. describe the basic electrical activities associated with the extraocular muscles and their nerve supply; 2. identify the contribution...
View learning outline
The extra-ocular muscles, their electrophysiology, actions, and innervation. Accommodation,
convergence, the AC/A ratio and binocular co-ordination. Fusion, fusional vergence, retinal
disparities and the horopter. Laboratory work is included.
OPT 405
2 Unit(s) (LH 15; PH 45)
At the end of OPT 405 (Physiological Optics III) course, the students should be able to: 1. identify the steps involved in sensory vision; 2. describe the basic biochemical reactions/activities involved in vision process...
View learning outline
The photochemistry of vision. Sensory aspects of vision; thresholds and adaptation. The
mechanisms of colour vision; colour vision defects, their detection and significance.
Electrophysiology of the retina and visual pathway. Laboratory work is included.
OPT 416
1 Unit(s) (LH 15)
At the end of the OPT 416 (Physiological Optics IV) course, students should be able to: 1. identify the mechanisms involved in the visual perceptions of distance and depth; 2. describe the mechanisms involved in the visu...
View learning outline
The perception of depth, direction, size, shape, distance, motion and time through the visual
medium. Optical illusions and entoptic phenomena; their causes and significance to the visual
system. Laboratory work is included.
OPT 302
1 Unit(s) (PH 45)
At the end of OPT 302 (Physiological Optics Laboratory) course, the students should be able to: 1. demonstrate and identify Purkinje images (reflections of objects from the optical structures of the eye); 2. describe the...
View learning outline
Measurement with Optometer set-ups; Demonstration of Purkinje images, optical aberrations,
effect of defocus on visual acuity and refractive anomalies. Schematic eye, visual acuities; vernier
acuity, stereoacuity, optometer, contrast sensitivity. “AC/A ratio”