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Energy planning |
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Optional subjects registration form |
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Energy system development planning |
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| No of hours per week: 3 [2 + 1], one term | ECTS: 4 | ||||||
Study: undergraduate (BSc) study of mechanical engineering Course: process and energy Orientation: energy Term: IV term Course type: Elective-field-related Knowledge assessment: exam Type of exercises: Laboratory Exam prerequisites: Introduction to Energy Management, Thermal Power Plants, Energy Economics, Thermal engineering, Environmental Protection, Process Dynamics |
Course objective: The aim is to qualify students for: energy systems planning, based on request/demand offering/proposal modelling, energy strategic thinking considering all available resources and technologies, economical, environmental and sociogical factors. Recommended literature: 1. Maxime Kleinpeter: Energy Planning and Policy, UNESCO Energy Engineering Learning Programme, John Wiley & Son Ltd, 1996 2. X. Wang, J. R. McDonald: Modern Power System Planning, McGraw-Hill, 1994. 3. Clark W. Gellings: Demand-Side Management Planning, Fairmont Press, 1993 4. Enerpedia - wikiEnergyPlanning URL links: Exam |
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| Week | Lectures | Exercises | |||||
| 1. | Introduction.The need for energy planning. | Essay.Test. | |||||
| 2. | Characterisation of present situation I. Population. Economy by sectors. Final consumption of energy by sectors. Energy transformations. Primary energy. | Case study: Characterisation of base year case, using of LEAP model. Test. | |||||
| 3. | Characterisation of present situation II. Bottom up approach. | Case study: Characterisation of base year case, 2nd part, using of LEAP model. Test. | |||||
| 4. | Demographic scenario. | Case study: Demographic scenario, using of GeoSim model. Test. | |||||
| 5. | Macroeconomical scenario. Sector analysis. | Exercise: Up-bottom approach. Test. | |||||
| 6. | Final consumption scenario - sector analysis I. Agriculture, fishery and forestry. Industry and mining. Services. Transport. | Case study: Final consumption scenario, using of LEAP model. Test. | |||||
| 7. | Final consumption scenario - sector analysis II. Residential energy consumption. | Case study: Final consumption scenario, 2nd part, using of LEAP model. Test. | |||||
| 8. | Colloquy. | Colloquy. | |||||
| 9. | Resources availability. Security of supply. Energy prices. Energy technologies availability. Influence of economical factors. Influence of environmental factors. Influence of system complexity. Influence of sociological factors. | Essay. Test. | |||||
| 10. | Power system planning I. Vertically integrated system I. Case characterisation. Choosing potential technologies. Choosing potentional candidates. | Case study: Power system planning, using of ENPEP model. Test. | |||||
| 11. | Power system planning II. Vertically integrated system II. Optimisation of capacity adding dynamics. Goal function. Penalty function. | Case study: Power system planning, 2nd part, using of ENPEP model. Test. | |||||
| 12. | Power system planning III. Planning in free market circumstances. Market segmenting. Tariff system. Spot market. | Case study: Simulation of spot market and feasibility in peak load regime. | |||||
| 13. | Power system planning IV. Island regime. Choosing potential technologies. Choosing potentional candidates. System modelling. Energy storage. | Case study: Island power system planning, using of HOMER i H2RES model. | |||||
| 14. | Energy system planning. Primary energy demand. Supply capacities planning. Influence of economical factors. Influence of environmental factors. Influence of system complexity. Influence of sociological factors. | Case study: Gas network development planning. Test. | |||||
| 15. | Exam. | Exam. | |||||