Topic outline

  • Description

    This course explores the production of electricity from natural energy sources, examining how different methods are used based on production scales and the evolving shift toward low-carbon solutions to combat climate change. Students will gain an understanding of two primary types of electricity production:

    Centralized Production: Electricity is generated in large quantities at centralized power plants using a variety of energy sources (fossil, fissile, and renewable). This electricity is then distributed to consumers across the country through extensive transmission and distribution networks.

    Decentralized Production: Electricity is produced locally, often at or near the point of consumption, in smaller quantities. This method primarily utilizes renewable energy sources and promotes self-consumption, reducing dependence on large-scale power infrastructure.

    This course is prepared for first-year master students in Industrial Electrical Engineering.


  • Contact

    FacultySciences and Technology
    DepartmentElectrical Engineering
    Target Students1st-year Master
    SpecializationIndstiral Electrical Engineering 
    Semester2
    Subject
    Centralized and decentralized electricity production
    UnitUED 2.1
    Credits1
    Coefficient1
    Duration12-14 weeks
    ScheduleTuesday: 11h-12h.30
    RoomClass 13
    Instructor in ChargeAli TETA
    Emailali.teta@univ-djelfa.dz
    Office AvailabilityTuesday, Wednesday 8:00-12:00h
    Response via EmailWithin 48 hours
    Response on the ForumWithin 48 hours

    contact



  • Course objectives

    By th end of this course the students will be able to:

    1- Understand the basic principles of electricity generation from natural energy sources.

    2- Differentiate between centralized and decentralized electricity production methods.

    3- Analyze the structure and functioning of transmission and distribution networks.

    4- Evaluate the role of renewable energy in decentralized production systems.

    5- Assess the environmental and policy impacts of different electricity production methods.

    6- Apply technical knowledge to case studies and practical scenarios.

    7- Identify emerging technologies and future trends in electricity production.

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  • Prerequisites

    Principles of electrical energy production.

    preq

  • Course structure

    The content of these notes is divided into the following chapters:

    1- General techniques of electricity production

    2- Decentralized electricity production

    3- A Strategic Roadmap for the Transition to Decentralized Electricity


  • Online session and chat

  • Chapter 1: General techniques of electricity production

    This chapter explores general techniques to produce electricity  which can be generated by an energy source provided by nature. This operation is carried out using different means of production, depending on the quantities produced and on the essential evolution of the current mode of production and energy consumption towards low carbon solutions to fight climate change.

  • Chapter 2: Decentralized electricity production

    Decentralized electricity production represents a significant shift from traditional, large-scale power generation methods. In this chapter, we explore how electricity can be generated closer to the point of consumption, often using renewable energy sources like solar, wind, and biomass. Decentralized systems offer greater energy independence, reduce transmission losses, and contribute to sustainability by promoting low-carbon energy solutions.

  • Chapter 3: A Strategic Roadmap for the Transition to Decentralized Electricity

    The transition to decentralized electricity production marks a pivotal shift in how energy is generated, distributed, and consumed. This chapter outlines a strategic roadmap for navigating this transformation, focusing on the technical, regulatory, and societal changes required to achieve a decentralized energy model. Decentralized systems promote localized generation, often utilizing renewable resources, reducing transmission losses, and increasing energy independence. As climate change accelerates the need for cleaner energy solutions, this roadmap provides a comprehensive guide to overcoming the challenges of decentralization, integrating new technologies, and ensuring a sustainable, resilient energy future.

  • Final Exam

    The exam file will be uploaded during exam period

  • Bibliography

    1- Borlase, S. (Ed.). (2012). Smart grids: infrastructure, technology, and solutions. CRC press.

    2-Everett, R., Boyle, G., Peake, S., & Ramage, J. (2012). Energy systems and sustainability: power for a sustainable future. Oxford University Press.

    3- Razak, A. H. N. A., Ahmad, N. A., Ibrahim, C. K. I. C., Kadir, E. A., & Leardini, P. (2022). Smart grid components for residential design application towards energy conservation: a review. Journal of Engineering Science and Technology, 

    4- Gilbert, M. M. (2004). Renewable and efficient electric power systems. John Wiley & Sons.

    5- Grosspietsch, D., Saenger, M., & Girod, B. (2019). Matching decentralized energy production and local consumption: A review of renewable energy systems with conversion and storage technologies. Wiley Interdisciplinary Reviews: Energy and Environment.