Master Of Science In Renewable Energy Engineering
Affiliated to: Tribhuvan UniversityAbout Course
- Course Title : Master Of Science In Renewable Energy Engineering
- Category/Level : Masters
- Course Duration (months) : 24 months
- Cost Range (NPR) : NA
- Affiliated to : Tribhuvan University
Course Description:
Master of Science in Renewable Energy Engineering aims to produce graduates interested in and capable of handling the challenges in the sphere of Renewable Energy Application, System Design, and Technology Development in an economically viable mode. Graduates from MSREE program will be leaders in the planning, design, development, implementation, and management of Renewable Energy Technologies to ensure a sustainable energy future.
This program is run by the Department of Mechanical Engineering in collaboration with Center For Energy Studies, IOE.
Admission info
Admission
In order to be eligible for admission to MSREE program, a candidate must:
- Hold a Bachelors Degree from normally, a Four Year Program in Mechanical, Civil, Electrical, Electronics, Computer, and Agriculture Engineering or Five Year Program in Architecture or a Two Year Program in Master of Science in Physics and Chemistry from Tribhuvan University and other recognized universities as well as Degree equivalent to any of the aforesaid branches of engineering.
- Have undergraduate grades not less than the prescribed by the Faculty Board of the Institute of Engineering.
- Secure a minimum score, as prescribed by the Faculty Board, in the admission test conducted by Pulchowk Campus.
Entrance Test
The nature of the entrance test will be decided by the Entrance Committee, set up by Pulchowk Campus. The exact mix of the percentage of the total aggregate of Bachelor Degree and the nature of entrance test will be made known to the prospective candidates through notification in Pulchowk Campus and/ or Public media.
Selection
Candidates fulfilling the Admission Requirements shall be selected for the admission on the basis of merit, which will be assessed in terms of total marks considering:
- the total aggregate of bachelor degree/ M. Sc. (Physics/Chemistry) degree.
- the marks secured in entrance examination.
Syllabus
Core Courses |
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EG 801 ME |
I Semester |
Fundamentals of Thermal Engineering |
3 Credits |
EG 802 ME |
I Semester |
Fluid Mechanics with Engineering Applications |
4 Credits |
EG 803 ES |
I Semester |
Energy Resources |
2 Credits |
EG 804 SH |
I Semester |
System Mathematics |
3 Credits |
EG 805 ES |
I Semester |
Bio Energy |
3 Credits |
EG 851 EE |
II Semester |
Instrumentation |
4 Credits |
EG 852 ES |
II Semester |
Renewable Energy Systems Technology |
4 Credits |
EG 853 ME |
II Semester |
Project Planning and Management |
3 Credits |
EG 854 ES |
II Semester |
Economics of Energy Projects |
2 Credits |
EG 855 SH |
II Semester |
Applied Sociology |
2 Credits |
EG 901 SH |
III Semester |
Research Methodology |
2 Credits |
A. Elective Courses |
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EG 902 ME |
Any Two in Semester III |
Solar Thermal Technology |
4 Credits |
EG 904 EX |
Solar PV Technology |
4 Credits |
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EG 903 ES |
Micro Hydro |
4 Credits |
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EG 905 ES |
Bio Gas Technology |
4 Credits |
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EG 906 ES |
Bio Fuel Technology |
4 Credits |
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EG 907 ES |
Wood Energy Technology |
4 Credits |
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EG 908 ES |
Wind Energy Technology |
4 Credits |
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EG 909 ES |
New Renewable Energy Technologies (NRETs) |
4 Credits |
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EG 915 ES |
Environmental Impacts and Climate Change |
4 Credits |
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B. Elective Courses |
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EG 910 ES |
Any One in Semester III |
Energy Planning and Management |
4 Credits |
EG 911 ES |
Energy Auditing, Analysis and Conservation |
4 Credits |
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EG 912 ES |
System Integration |
4 Credits |
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EG 914 ME |
Design and Manufacturing |
4 Credits |
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EG 951 ME |
IV Semester |
Thesis |
16 Credits |
EG 801 ME |
FUNDAMENTALS OF THERMAL ENGINEERING |
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Thermodynamics, Heat Transfer, Combustion engine and emission control |
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EG 802 ME |
FLUID MECHANICS WITH ENGINEERING APPLICATIONS |
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Basic Hydrodynamics, Momentum and Forces in Fluid Flow (Review), Similitude and Dimensional Analysis, Steady Incompressible Flow in Pressure Conduits Forces on Immersed Bodies (Review), Similarity laws and Factors for Turbo-machines, Water Turbines and Pumps, Basics of Wind Energy Conversion |
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EG 803 ES |
ENERGY RESOURCES |
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Introduction, Animate Energy Resources, Bio-mass Resources, Fossil Fuels, Renewable Energy Resources, Global Energy Scenario |
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EG 804 SH |
SYSTEM MATHEMATICS |
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Linear System, Non Linear System and Stability, Mathematical Programming, Optimization Technique, Computer and Application Software |
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EG 805 ES |
BIO-ENERGY |
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History of Biogas development, Various Merits and Demerits of Biogas, Biogas in Biogas Installation cost and Financial Viability, Cold Condition Biogas Plant, Design Concept and Other Parameter of Biogas Plant, Role of Management, Communication and Professional Development, Economics and Slurry Utilization as a Fertilizer, Quality Control of Biogas Plants, Microbial Activities Relation to Anaerobic Digestion for Organic Waste, Traditional Fuel Situation, Bio-Fuel Resources and Economic Evaluation, Bio-Fuel Resources Identification, Conventional Agro-Farm Bio-Fuel, Role of Bio-Fuel as an Indigenous Renewable Energy Resource, Wood Fuel Related Terminology and General Introduction, Wood Fuel Resources, Wood Energy Flow, Wood Fuel Conversion, (wood fuel in secondary and final energy form), Wood Fuel Conservation and Efficient Utilization Practical Classes |
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EG 851 EE |
INSTRUMENTATION |
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Basic Electrical Engineering, Instrument Fundamentals, Electrical Measurement, Transducers, Primary and Secondary Transducers, Motion and Dimensional Measurement, Force Torque and Shaft Power Measurement, Heat Flux and Temperature, Flow and Pressure Measurement, Velocity Magnitude from Pilot-Static Tube, Microprocessor Based Instrumentation, Introduction to Microprocessor |
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EG 852 ES |
RENEWABLE ENERGY SYSTEM TECHNOLOGY |
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Fundamentals of Energy Systems, Energy Conservation and Demand Management, Solar Energy Thermal Utilization, PV Systems Engineering, Passive Solar Buildings, Wind and Micro hydro, OTEC, Wave Tidal, Geothermal and other types of energy |
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EG 853 ME |
PROJECT PLANNING AND MANAGEMENT |
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Introduction to Project Management, Project Planning, Identification and Formulation, Project Implementation, Project Control, Project Evaluation, Auditing and Marketing |
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EG 854 ES |
ECONOMICS OF ENERGY PROJECTS |
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Forms of Energy Organization, Energy Finance, Cost and Revenue, Capital Budgeting, Benefit Cost Analysis, Financial Statement Analysis of Energy Firms |
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EG 855 SH |
APPLIED SOCIOLOGY |
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Introduction, Structures, Community Applied Sociology and Anthropology, Gender, Field Report, Case Study |
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EG 901 SH |
RESEARCH METHODOLOGY |
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Introduction: Research Problem, Research Design and Protocol, Sampling Design, Measurement and Scaling Techniques; Methods of Data Collection: Processing and Analysis of Data, Testing of Hypothesis, Analysis of Variance and Co-Variance, Multiple Analysis Techniques, Interpretation and Report Writing, Application of Research Methods in RETs, as a minor course work |
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EG 902 ME |
SOLAR THERMAL TECHNOLOGY |
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Solar Radiation, Available Solar Radiation, Heat Transfer, Radiation Transmission Through Cores And Absorption By Collectors, Flat Plate Solar Collectors, Concentrating Collectors, Solar Water Heating Systems, Solar Heating, Passive Solar Heating, Solar Cooling, Shallow Solar Power Collector, Application And Economy Of Solar Thermal System |
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EG 903 EX |
SOLAR PV TECHNOLOGY |
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Solar Radiation, Fundamentals of Photovoltaic Conversion, Modern Solar Cell Technology, Concentrating Systems, Balance of Systems, System Design and Application of Photovoltaic Systems, Socio-Economic Analysis |
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EG 904 ES |
MICRO HYDRO POWER |
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Introduction And Overview Of MHP Development, Turbines For MHP, Survey And System Design Procedure, MHP Electrical Power, MHP Performance, Financial Evaluation, Production Uses Promotion And Strategy For MHP Based Electrification |
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EG 905 ES |
BIO-GAS TECHNOLOGY |
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Introduction To Bio-Gas, Characteristics Of Biogas And Necessary Condition For Its Formation, Microbiological Aspects Of Anaerobic Digestion, Biogas Production In Cold Climate, Various Uses Of Biogas And Its Merits And Demerits, Biogas In Relation To Other Disciplines, Slurry Utilization As Fertilizer, Design Concept And Other Parameters Of Biogas, Quality Control Of Biogas Plants- Case Studies Operation, Role Of Management, Communication And Professional Development, Biogas Installation Cost And Financial Viability |
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EG 906 ES |
BIO-FUEL TECHNOLOGY |
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Assessment Of Renewable Fuel In The Total Fuel Consumption System In Nepal, Bio-Diesel, Properties Of Bio-Diesel, Application Of Bio-Diesel, Bio-Ethanol Resources, Bio Ethanol Production, Properties Of Bio Ethanol, Application Of Bio-Ethanol, Bio Hydrocarbon Technology |
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EG 907 ES |
WOOD-ENERGY TECHNOLOGY |
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Wood Fuel Related Terminology and General Introduction, Wood Energy Resources, Wood Fuel Production Systems, Wood Energy Flow Systems, Technology For Wood-Fuel Conversion/Combustion, Wood Fuel Conservation And Efficient Utilization, Practical Classes |
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EG 908 ES |
WIND ENERGY TECHNOLOGY |
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Introduction, Wind Energy Resource Analysis, Wind Machine Fundamentals, Wind Energy System Design, Wind Power Systems, Wind Power Economics , Legal Issues, Perspective Of Wind Power In Developing Countries |
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EG 909 ES |
NEW RENEWABLE ENERGY TECHNOLOGIES (NRETs) |
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Geothermal Energy, Application, Equipment And Material, Geothermal, Long Shaft Pumps, Submersible Pumps, Characteristics Of Pumps, Ocean Thermal Energy Conservation, Hydrogen Energy, Wave Energy |
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EG 910 ES |
ENERGY PLANNING AND MANAGEMENT |
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Introduction, Energy Balances, Concepts Of Energy Planning, Evaluating Macroeconomic Impacts, Energy Demand Analysis And Demand Projection, Energy Supply Analysis And Supply Projection, Decision Analysis, Dealing With Uncertainties |
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EG 911 ES |
ENERGY AUDITING, ANALYSIS AND CONSERVATION |
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Introduction, Energy Auditing Technique, Fuels, Energy Conservation In Steam Generation, Distribution, Energy Conservation In Buildings, Co-Generation, Electrical Energy Conservation, Electrical Demand And Load Management, Energy Conservation In Lighting System |
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EG 912 ES |
SYSTEM INTEGRATION |
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Energy Demand Analysis, Billing Energy, Management Systems, Conservation, Integration |
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EG 914 ME |
DESIGN AND MANUFACTURING |
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Selection Of Materials For RET System Components, Material Treatments, Fundamental Manufacturing Processes And Techniques, Processes Involved In The Production Of Solar Thermal Systems, Small Water Turbines, Photovoltaic Systems, Bio-Gas And Bio-Fuel Production System |
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EG915ES |
ENVIRONMENTAL IMPACTS AND CLIMATE CHANGE |
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Environmental impacts and climate change will be studied at three levels: local (indoor air pollution from burning of fossil fuels), regional (trajectories of air pollution, acid rain, environmental impacts of nuclear power) and global (ozone depletion, climate change). Quantification will stress back of the envelope calculations, estimation techniques, modeling, stocks and flows, equilibrium and feedback. |
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EG 951 ME/ES/EX/EE/SH |
THESIS WORK/ RESEARCH WORK |
INQUIRY / APPLY COURSE
Offered by
Colleges offering Master of Science in Renewable Energy Engineering (Tribhuvan University) are as follows: