Course manual 2025/2026

Course content

Photovoltaic conversion brings the promise of sustainable energy generation capable of meeting the ever-growing energy demand. This explains the current interest and is best illustrated by the massive deployment of solar panels in solar farms and integrated systems in countries worldwide. This lecture course introduces the most important concepts from solid-state physics and (nano)technology, which form scientific foundations of photovoltaics (PV), giving a starting point for understanding of its principles, prospects, as well as limitations and bottlenecks. The lectures are given by group leaders working at UvA and AMOLF, and next to the basics of operation and application will provide also a comprehensive overview of current activities at the forefront of the research in the field of modern (nano)photovoltaics.

After a short resume on light-matter interactions and semiconductor physics, the following topics will be addressed in some detail:

  • Working principle and efficiency limit of solar cells (Albert Polman )
  • How to design solar cells (types of junctions, eco-design) ( Esther Alarcon Llado )
  • PV in practice and characterization techniques (Erik Garnett )
  • Nanocrystals: Solar shapers and assembly for PV (Peter Schall)
  • Nanophotonic concepts for PV (Jorik van de Groep and Sander Mann )

For those interested, the course can provide an ideal gateway to a research project for the last year of the MSc track. 

Study materials

Literature

  • Book "Solar energy - The physics and engineering of photovoltaic conversion, technologies and systems", by Arno HM Smeets et al., UIT Cambridge, England (2016)

Objectives

  • You will be able to describe how a photovoltaic cell works and understand the physical processes determining its spectral response, internal and external efficiency and limitations.
  • Be able to explain the limiting factors and bottleneck of photovoltaics
  • Be aware and apply the knowledge to prominent research avenues towards highly efficient (nano)photovoltaics of next generation

Teaching methods

  • Lecture
  • Self-study

The lectures provide the necessary background knowledge of the principles of light conversion and photovoltaic systems.

The self-study includes homework that the student is asked to do carefully to get practice with the material. The homework is absolutely essential, and the basis for the graded in-class quizzes, and final exam.

Learning activities

Activity

Hours

Hoorcollege

30

Tentamen

3

Self study

51

Total

84

(3 EC x 28 uur)

Attendance

  • Some course components require compulsory attendance. If compulsory attendance applies, this will be indicated in the Course Catalogue which can be consulted via the UvA-website. The rationale for and implementation of this compulsory attendance may vary per course and, if applicable, is included in the Course Manual.
  • Additional requirements for this course:

    Participation in the in-class quizzes is mandatory. They test the homework assignments, are graded and are basis for the exam

    Assessment

    Item and weight Details

    Final grade

    0.7 (100%)

    Tentamen

    Inspection of assessed work

    There are 4 short quizzes in class (typically at the beginning of a problem class). These quizzes are graded, contributing 30% to the final grade.

    Assignments

    Homework assignments, which form the basis for the graded in-class quizzes

    Fraud and plagiarism

    The 'Regulations governing fraud and plagiarism for UvA students' applies to this course. This will be monitored carefully. Upon suspicion of fraud or plagiarism the Examinations Board of the programme will be informed. For the 'Regulations governing fraud and plagiarism for UvA students' see: www.student.uva.nl

    Course structure

    Lecture  Day Material / topic

    #1

    Mon. Feb.   2, 1500-1700

    Course introduction, Semiconductor primer (PS)

    #2

    Thur. Feb.  5, 1500-1700

    Working principle of solar cells I (AP)

    #3

    Mon. Feb.  9, 1500-1700

    Working principle of solar cells II (AP)

    #4

    Thur. Feb. 12, 1500-1700

    Problem class (TAs)                                                 QUIZ

    #5

    Mon. Feb. 16, 1500-1700

    Electrical designing of solar cells I (EAL)                

    #6

    Thur. Feb. 19, 1500-1700

    Electrical designing of solar cells II (EAL)

    #7

    Mon. Feb. 23, 1500-1700

    Problem class (TAs)                                                 QUIZ

    #8

    Thur. Feb. 26, 1500-1700

    Problem class and Lab tour (TAs)

    #9

    Mon. Mar.  2, 1500-1700

    Characterization techniques in PV I (EG)

    #10

    Thur. Mar.  5, 1500-1700

    Characterization techniques in PV II (EG)

    #11

    Mon. Mar.  9, 1500-1700

    Nanocrystals: solar shapers and assembly I (PS)      QUIZ

    #12

    Thur. Mar. 12, 1500-1700

    Nanocrystals: solar shapers and assembly II (PS)

    #13

    Mon. Mar. 16, 1500-1700

    Problem class (TAs)                                                  QUIZ

    #14

    Thur. Mar. 19, 1500-1700

    Nanophotonic concepts for PV (JvdG/SM)

    #15

    Mon. Mar. 23, 1500-1700

    Nanophotonic concepts for PV (JvdG/SM)

    Contact information

    Coordinator

    • Peter Schall

    Staff

    • prof. dr. E. Alarcón Lladó
    • prof. dr. E.C. Garnett
    • dr. Jorik van de Groep
    • dr. Sander Mann
    • prof. dr. A. Polman