Practical Aspects of REEE

Overview

Compentency: Identifying opportunities for practical implementation of RE systems


Module type: elective module


Semester: summer


Site: Kassel


Language: English


Workload: 105 hours course attendance; 70 hours self-study


Credits points: 7


Recommended qualifications: none

Courses

Learning Outcome

After the successful participation in the course Grid Integration the students are able to:

  • understand the design, problems and operation of integrated grids with respect to the specific properties of renewable energies
  • apply advanced schemes like online-monitoring and forecasting

Content

  • Spatio-temporal behaviour of wind and solar power:
    • wind and solar power as energy sources
    • the spatio-temporal behaviour of wind and solar power
  • Integrating wind and solar power in the electricity grid:
    • grid operation
    • wind and solar power in electricity grids
    • balancing of production and consumption
    • grid connection and ancillary services for the grid
  • Strategies and tools for the operation of the electricity supply system:
    • online-monitoring and smoothing effects
    • wind power and solar power forecasting
    • control options for the renewable power plant
  • Outlook: virtual power plant, storage, load management

Details

  • Lecturer: Reinhard Mackensen
  • Teaching method: lecture, seminar
  • SWS: 2
  • Credit points: 2
  • Examination: written exam

Learning Outcome

After the successful participation in the course Energy Efficiency in Buildings the students are able to:

  • understand physical and technical aspects of energy flows in buildings
  • identify heat gains, heat losses and cooling demand of rooms
  • determine life cycle costs and life cycle assessment of environmental impacts in the building sector

Content

  • Basics of building physics:
    • heat transfer adapted to building elements like walls and windows
    • shading devices, humidity and condensation effects
    • global radiation on building
  • Conventional vs. unconventional energy use in buildings:
    • thermal comfort, ventilation
    • boilers, cogeneration of heat and electricity, heat pumps
    • passive houses
  • Economic aspects of EE in the building sector:
    • costs and savings of energy efficiency measures
    • life cycle costs and life cycle assessment of environmental impacts
  • Comparing conditions in Germany and the Mena countries

Details

  • Lecturer: Susanne Eckert-Kastner
  • Teaching method: lecture
  • SWS: 3
  • Credit points: 3
  • Examination: assignments, written exam

Learning Outcome

After the successful participation in the course System Aspects of Bio Power Generation the students are able to:

  • understand the basics of life cycle assessment for different renewable energy sources
  • Investigate energy costs and to determine roughly costs under different conditions (sizes, boundary conditions etc.)
  • determine the heat value of fuels and to determine and assess emissions of the burning process

Content

  • Introduction into life cycle assessment of environmental impacts:
    • using Gemis and Ecoinvent. DIN ISO 14040
  • Scientific cost and life cycle analysis for different renewable energy sources:
    • bio energy in comparison to PV, wind, solar thermal power plants, hydro Power
    • derivation of ecological figures for operation, production and removal of plants
  • Introduction into scientific data collection and allocations:
    • bonuses
    • problems of different assessments with focus on bio energy
  • Lab regarding fundamentals of:
    • calorimetric
    • exhaust gas measurements
  • Thermodynamic calculations
  • Environmental impacts:
    • assessment of accuracy
    • discussion of environmental impacts

Details

  • Lecturer: John Sievers
  • Teaching method: lecture, lab training
  • SWS: 2
  • Credit points: 2
  • Examination: oral exam