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Dicentralised Power ProductionLaajuus (5 cr)

Code: 5S00DZ06

Credits

5 op

Objectives

The student knows:
- Network requirements and connection conditions for decentralized electricity production
- Design and installation requirements as well as electrical safety characteristics
- Functional characteristics of parallel and island operations

The student can
- Explains the concept of electromagnetic energy and knows the effect of wavelength on the energy content of radiation. As a result, the student knows the energy content and wavelength distribution of solar radiation entering the Earth's atmosphere.
- Explains the effects of solar radiation on a semiconductor and is able to outline the principle of a conventional semiconductor solar cell. In addition, the student can explain the effects of radiation intensity and temperature on the operation of a solar cell.
- Evaluate the daily, monthly and yearly energy production of a solar power plant using the tools presented during the course.
- Explains the forces that influence the air currents and can justify the direction in which the wind orbits the low and high pressure centers around the globe.
- Explains the concept of wind power and recognizes the cubic effect of wind speed.
- Explains the force effects on the rotating blade of a wind turbine and can be used to justify the most important factors in blade design. With the help of the blade design understanding, the student can also explain the power control methods of a wind turbine.
- Explain the role different generator types play in different wind turbine concepts. The student is able to explain why the use of a short circuit machine leads to a constant speed concept and why the most popular wind turbine concept today uses a double-fed induction machine.
- Evaluate wind power production using the tools presented in this course.

Content

- Photovoltaic (pv) energy system: scientific foundation, operation of power plant and affecting factors, energy and power estimations, energy policy
- Wind power (pv) energy system: scientific foundation, operation of power plant and affecting factors, energy and power estimations, energy policy

Network requirements and connection conditions (PJ / KJ networks) for distributed generation. Design and installation requirements as well as electrical safety features. Network effects and failures. Breast and island use.

Assessment criteria, satisfactory (1-2)

The student is able to explain the basic operation of a photovoltaic power plant and a wind power plant and has an understanding of the factors that affect their operation.

Assessment criteria, good (3-4)

The student is able to explain the basic operation of a photovoltaic power plant and a wind power plant and has an understanding of the factors that affect their operation. The student also knows the network requirements and connection conditions for decentralized electricity generation.

Assessment criteria, excellent (5)

The student is familiar with the network requirements and connection conditions for distributed electricity generation. He understands the design and installation requirements of power plants and the related special features of electrical safety. The student has a strong holistic understanding of photovoltaic and wind power technologies.

Enrolment period

02.12.2023 - 31.12.2023

Timing

08.01.2024 - 05.05.2024

Credits

5 op

Mode of delivery

Contact teaching

Unit

Electrical and Automation Engineering

Campus

TAMK Main Campus

Teaching languages
  • Finnish
Seats

0 - 40

Degree programmes
  • Degree Programme in Electrical Engineering
Teachers
  • Aki Korpela
Person in charge

Jarkko Lehtonen

Groups
  • 21I231A

Objectives (course unit)

The student knows:
- Network requirements and connection conditions for decentralized electricity production
- Design and installation requirements as well as electrical safety characteristics
- Functional characteristics of parallel and island operations

The student can
- Explains the concept of electromagnetic energy and knows the effect of wavelength on the energy content of radiation. As a result, the student knows the energy content and wavelength distribution of solar radiation entering the Earth's atmosphere.
- Explains the effects of solar radiation on a semiconductor and is able to outline the principle of a conventional semiconductor solar cell. In addition, the student can explain the effects of radiation intensity and temperature on the operation of a solar cell.
- Evaluate the daily, monthly and yearly energy production of a solar power plant using the tools presented during the course.
- Explains the forces that influence the air currents and can justify the direction in which the wind orbits the low and high pressure centers around the globe.
- Explains the concept of wind power and recognizes the cubic effect of wind speed.
- Explains the force effects on the rotating blade of a wind turbine and can be used to justify the most important factors in blade design. With the help of the blade design understanding, the student can also explain the power control methods of a wind turbine.
- Explain the role different generator types play in different wind turbine concepts. The student is able to explain why the use of a short circuit machine leads to a constant speed concept and why the most popular wind turbine concept today uses a double-fed induction machine.
- Evaluate wind power production using the tools presented in this course.

Content (course unit)

- Photovoltaic (pv) energy system: scientific foundation, operation of power plant and affecting factors, energy and power estimations, energy policy
- Wind power (pv) energy system: scientific foundation, operation of power plant and affecting factors, energy and power estimations, energy policy

Network requirements and connection conditions (PJ / KJ networks) for distributed generation. Design and installation requirements as well as electrical safety features. Network effects and failures. Breast and island use.

Assessment criteria, satisfactory (1-2) (course unit)

The student is able to explain the basic operation of a photovoltaic power plant and a wind power plant and has an understanding of the factors that affect their operation.

Assessment criteria, good (3-4) (course unit)

The student is able to explain the basic operation of a photovoltaic power plant and a wind power plant and has an understanding of the factors that affect their operation. The student also knows the network requirements and connection conditions for decentralized electricity generation.

Assessment criteria, excellent (5) (course unit)

The student is familiar with the network requirements and connection conditions for distributed electricity generation. He understands the design and installation requirements of power plants and the related special features of electrical safety. The student has a strong holistic understanding of photovoltaic and wind power technologies.

Assessment scale

0-5

Enrolment period

02.12.2022 - 31.12.2022

Timing

02.01.2023 - 07.05.2023

Credits

5 op

Mode of delivery

Contact teaching

Unit

Electrical and Automation Engineering

Campus

TAMK Main Campus

Teaching languages
  • Finnish
Seats

0 - 40

Degree programmes
  • Degree Programme in Electrical Engineering
Teachers
  • Aki Korpela
Person in charge

Jarkko Lehtonen

Groups
  • 20I231A

Objectives (course unit)

The student knows:
- Network requirements and connection conditions for decentralized electricity production
- Design and installation requirements as well as electrical safety characteristics
- Functional characteristics of parallel and island operations

The student can
- Explains the concept of electromagnetic energy and knows the effect of wavelength on the energy content of radiation. As a result, the student knows the energy content and wavelength distribution of solar radiation entering the Earth's atmosphere.
- Explains the effects of solar radiation on a semiconductor and is able to outline the principle of a conventional semiconductor solar cell. In addition, the student can explain the effects of radiation intensity and temperature on the operation of a solar cell.
- Evaluate the daily, monthly and yearly energy production of a solar power plant using the tools presented during the course.
- Explains the forces that influence the air currents and can justify the direction in which the wind orbits the low and high pressure centers around the globe.
- Explains the concept of wind power and recognizes the cubic effect of wind speed.
- Explains the force effects on the rotating blade of a wind turbine and can be used to justify the most important factors in blade design. With the help of the blade design understanding, the student can also explain the power control methods of a wind turbine.
- Explain the role different generator types play in different wind turbine concepts. The student is able to explain why the use of a short circuit machine leads to a constant speed concept and why the most popular wind turbine concept today uses a double-fed induction machine.
- Evaluate wind power production using the tools presented in this course.

Content (course unit)

- Photovoltaic (pv) energy system: scientific foundation, operation of power plant and affecting factors, energy and power estimations, energy policy
- Wind power (pv) energy system: scientific foundation, operation of power plant and affecting factors, energy and power estimations, energy policy

Network requirements and connection conditions (PJ / KJ networks) for distributed generation. Design and installation requirements as well as electrical safety features. Network effects and failures. Breast and island use.

Assessment criteria, satisfactory (1-2) (course unit)

The student is able to explain the basic operation of a photovoltaic power plant and a wind power plant and has an understanding of the factors that affect their operation.

Assessment criteria, good (3-4) (course unit)

The student is able to explain the basic operation of a photovoltaic power plant and a wind power plant and has an understanding of the factors that affect their operation. The student also knows the network requirements and connection conditions for decentralized electricity generation.

Assessment criteria, excellent (5) (course unit)

The student is familiar with the network requirements and connection conditions for distributed electricity generation. He understands the design and installation requirements of power plants and the related special features of electrical safety. The student has a strong holistic understanding of photovoltaic and wind power technologies.

Assessment scale

0-5