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 1501–1510
of 4,624 courses
RAD 352
2 Unit(s) (LH 30)
At the end of this course, the students should be able to: 1. identify opportunities for self-employment in radiography practice; 2. explain personal traits and technical requirements in setting up private radiography fa...
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Concept of entrepreneurship; Business opportunities in radiography/medical imaging profession.
Prerequisites for setting up a radiography/medical imaging facility and site selection. Finding
opportunities and sustainable development strategies for the future. Regulatory and safety
requirements. Total quality management strategies in a competitive environment. Networking
options and tele-radiography in private practice. Ethical issues. Managing growth of a business
venture. Education training methods, instructor-led classroom, interactive methods, hands-on
training, computer based training, video training and coach/mentoring methods. Emphasis on
knowledge, skills and attitudes needed to function in health care environment and inter-
disciplinary expertise. Community and public health. Theories and models and their application
to real world. Comparative training duration/curricula of radiography in Nigeria, UK, USA and
many others.
400 Level
COM 509
2 Unit(s) (LH 30)
At the end of this course, students should be able to: 1. describe environmental and occupational health practices; 2. identify environmental pollution through air, noise, water, tradition and industries; 3. define food...
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Environmental and occupational health practices. Urbanisation and health. Environmental
pollution through air, noise, water, tradition and industries. Food hygiene (food borne diseases
and food poisoning). Vector control, parasites of public health importance and their control.
Guided visits to important places of public health providing environmental health services.
Water treatment plant, sewage treatment plants, food processing factories, markets, hotels
and restaurants, occupational health services. Role of medical officer of health (MOH).
Coordinator/director of primary health care (PHC) services at LGA level, head of health workers
at LGA, administrative functions, budgeting for health services, relationship with LGA
administrative and legislative leadership, technical functions, organisation of PHC services,
supervision and evaluation of all the health programmes in the LGA, training and manpower
development for health workers in the LGA, adviser to the LGA chairman and HOLGA on health
and other related matters, collaboration with the state ministry of health management board.
EVM 405
2
At the end of this course, students should be able to: 1. know the nature and scope of Urban and Regional Planning Law; 2. learn the disposition of planning authorities and development control; and 3. acquaint with the A...
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The origin of urban and regional planning law in Nigeria; Its nature, scope and contents in the
framework of the Nigerian judicial system. The course also exposes students to the powers and
duties of the planning authorities; planning schemes development control, acquisition and
disposal of land for planning scheme – compensation and betterment. The structure and working
of the Nigerian legal system. The courts and their procedure, tribunals and inquiries, reference
to courts for decision in any matter affecting a planning scheme and legal proceedings. Acts
relating to highways, public health and industrial location.
ABE 501
2
1 institution need this
After taking this course, students should be able to: 1. determine the impact and consequences of agricultural projects on the environment and measure them; 2. explain the environmental policies and regulations of their...
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Concept of environmental and social consequences/dimensions of development projects.
Methods of impact analysis. Physical, sociological, legal, economic, environmental and public
health implications of human activities. Effects of changed environments on man. Examples
of impact assessment with particular reference to developing countries. Role of
environmental engineering in preventing or reducing environmental stress. Environmental
and social management plans (ESMP); Planning and policy, administration and organisation
of natural resources development and public health. Land use planning and landscape
design. Monitoring and evaluation of projects for ESIA compliance. Practical content:
Students are expected to undertake an environmental and social impact analysis of an on-
going project on campus.
ENS 412
2
At the end of this course students will be able to: 1. explain the concept of environmental audit; 2. discuss the system of auditing standards and existing environmental auditing; 3. explain the processes associated with...
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Definition, general principles of environmental monitoring. Organisation of auditing and
monitoring programmes for site and resource specific strategies. Classification of monitoring
techniques and use (physical, chemical, biological radioactive) global sources, sinks and transport
(mass balance) of both man-made and natural atmospheric trace components, Ocean-
atmosphere interactions, reversible effect of human activities on the global environment like the
greenhouse effect, climate change, depletion of stratosphere ozone layer, acid rain. Air pollution
meteorology, chemistry and biology. Atmosphere dispersion models. Elements of air pollution
control. Sampling and air monitoring techniques. Mechanism of pollutant interaction with soil and
vegetation. General principles of biotesting, aquatic toxicity, types, bio, assays, data analysis and
interpretation.
BOT 854
3
Objectives of EIA.
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Objectives of EIA; Resources required for EIA; Basic principles of EIA; Site selection; environmental screening and preliminary assessment; Scoping of significant issues; Impact identification; prediction; measurement and evaluation; Identification of monitoring and mitigating measures; Documentation of EIA; Environmental impact statement; A selected survey with case studies
EVM 515
2
1 institution need this
At the end of this course, students should be able to: 1. know the historical development of biotechnology; 2. know how to use the tools and practice of genetic engineering; and 3. learn the applications of bio-technolog...
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Definition and historical development of biotechnology, genes and genetic engineering tools and
practice of genetic engineering, applications of bio-technology (bio-remediation, bio-control, bio
fertilizers, bio-gas, bio-informatics.) socio-economic implications of bio-technology.
Minimum Academic Standards
Equipment
1. Soil, Plant and Water Laboratory
U-V Spectrophotometer, Microscope, Petri dishes, forceps, Oven, Fridge, Burners, PPE's,
Reagents, pH Meter, Thermometer, Analytical balance, Desiccator, Distiller, Sterilizer, Water test
kits, Sterilizers and Mini water treatment plant, Electrical Conductivity Meter, Atomic Absorption
Spectrophotometer, Colorimeter, AAS, Flame Photometer, GC, hydrometer, thermometer,
plungers, measuring cylinder, reagents, Soil Colour Chart, Mechanical shakers, sieve, centrifuge,
rack, water bat, cryotubes, Digestion block, Kjeldahl distillation set, Sieve shaker, Turbidity meter,
D.O meter, Pycnometer.
2. Remote Sensing and Geographical Information System Laboratory
Global Positioning System, Computers, Unmanned Aerial Vehicle and GIS Application, GIS and
Modelling Soft wares, AutoCAD, Binoculars, Satellite Imageries, Measuring Equipment,
Densitometer, Abney Level, Ranging poles and pegs, Colour Printers, Cameras
3. Microbial Laboratory
Microscope, Petri dishes, forceps, Oven, Fridge, Burners, PPE's, Reagents, Glassware (test tubes,
beakers, conical flasks, dishes, stirrers, pestle and mortar, pipettes, burettes) Autoclave, Colony
counters, Wire loops, Glass slides, Centrifuge, Cover slips
4. In-situ Field Survey and Measurements (Dry Laboratory)
Global Positioning System, Gas Sensors, Gas Sensors, Cameras, Binoculars, Measuring
Equipment, Noise Level metres, Gas Chromatograph, handled physicochemical analysers, soil
auger, Mussel Colour charts, Particulate Matter metres, Temperature metres, Relative humidity
meters, Health index metres.
Staffing
Personnel
The personnel requirements for the programme should reflect students’ population and the
variety of activities to be performed in the classrooms, studios, laboratories and workshops. The
ratios should conform to the NUC minimum guidelines on staff/student ratio of 1:15.
Academic Staff
The point of entry for each of the recognized academic positions should reflect appropriate
academic qualifications, and experience in both teaching and professional practice. Details of the
requirements for the various positions are indicated below:
Academic Support Personnel
Teaching Assistant/Demonstrators are recommended to assist lecturers in the conduct of
tutorials, practicals and fieldwork.
Administrative Support Personnel
The services of the administrative support staff are indispensable in the proper administration of
the departments. These will normally include confidential secretaries, clerical officers, typists,
messengers and cleaners. It is important to recruit very competent senior personnel who are
technology savvy.
Technical Support Personnel
The technical support personnel shall consist of technical officers and technologists. It is
important to recruit very competent senior technical staff to maintain teaching and research
equipment.
Library
In addition to the library resources at the University central library, the programme should be
provided with fully equipped library and information technology centre with minimum of 5
computers, Internet connectivity, 5 reference books, 5 periodicals, 5 Journals for each of the
areas of specialisation in the programme and audio-visual materials. The computers should be
fully connected to the e-library section of the University central library having e-books and e-
journals in all areas of specialisation of the programme.
Classrooms, Laboratories, Clinics, Workshops and Offices
Space Use Minimum (m²)
33. Professors Office Academic 24
34. Head of Department Administration 24
35. Senior Lecturer Academic 20
36. Lecturer Academic 16
37. Assistant Lecturer Academic 12
38. Senior Technical Staff Technical 12
39. Senior Administrative Staff Administration 12
40. Junior Technical Staff Technical 10
41. Junior Administrative Staff Administration 10
42. Studio Space Students 30
43. Lecture Space Students 75
44. Seminar Space Students 30
45. Laboratory Space Students 30
46. Library Students 35
47. Social Space Students 40
48. Storage Space Students 30
EVE 202
2
At the end of this course, the students should be able to: 1. define relevant chemistry terminologies and their applications; and 2. acquire basic knowledge of chemistry needed to understand environmental concepts.
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Stoichiometry and concentration. Atomic structure and chemical bonding. Acids, Bases, Salts,
Metals. Changes of state, Solutions and equilibriums. Electrochemistry and corrosion. Organic
chemistry, Biochemistry. Mass energy transfer and material balances. Quantitative variables
governing chemical behaviour in environmental systems. Thermodynamics and kinetics of
acid/base, coordination, precipitation/dissolution, and redox reactions. Organic chemistry
nomenclature and pesticides.
EVE 101
2
At the end of this course, the students should be able to: 1. acquire the fundamental principles that serve as the foundation for the entire field of environmental engineering; 2. explain how these fundamental principles...
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Introduction to environmental science. Ecosystem’s considerations, food chain, natural
decomposition, recycling. Environmental problems and impact of engineering activities.
Various modes of pollution - water, air, and soil contamination, noise pollution; pollution
measurement, and quantification. Water and waste-water physical, chemical, and biological
characteristics; turbidity and colour, dissolved oxygen, hardness, pH, alkalinity, organic
content, sampling and analysis, chemical and biochemical oxygen demand. Basic processes
of treatment: flocculation and coagulation, sedimentation, filtration. Mass and energy
balances, chemical reaction engineering. Environmental regulations and policy, pollution
prevention, risk assessment.
200 Level
EVE 203
2
At the end of this course, the students should be able to: 1. explain the functioning of microorganisms; 2. appreciate the role microorganisms play in many natural and engineered systems; 3. relate microbial activities t...
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Structure and metabolism of cells (cell structure, cell growth kinetics, and genetics) and micro-
organisms. Monitoring methods for pathogens and indicator organisms. Application of
microbial knowledge in the natural environment (self-purification, biodegradation,
biodeterioration, ecotoxicity). Introduction to ecology: Ecosystems, population dynamics,
environmental cycles; human impact on ecosystems. Roles of microorganisms in wastewater
treatment, anaerobic digestion of municipal sludges, stream self-purification, and degradation
of water quality in drinking-water systems. Disinfection of wastewater and drinking water to
remove viruses, bacteria and protozoa that cause waterborne diseases.
300 Level