Goal of the course is to

• understand the fundamental limits of solar energy conversion.
• know about the used materials and their electronic properties as well as the relevant technologies.
• be able to identify relevant characterization techniques for the analysis of specific material and device properties.
• understand the physical limits of the various characterization techniques.

The course will be held in English and addresses master and PhD students in physics, chemistry, and physical chemistry. Successful participation in the course and passing the oral exam is rewarded with a total of 10 ECTS credit points.

Main Topics of the Course

A. Photovoltaics

• Introduction to the basics of semiconductor physics
• Introduction to the basic principles of photovoltaic (PV) energy conversion
• ^{Materials and concepts for PV including silicon, chalcopyrites, CdTe, OPV, DSSC, perovskites, novel concepts (3rd} generation), …

B. Analytics

• Basics of spectroscopy (light sources, detectors, spectral analysis…)
• Electrical characterization of PV devices (I-V, EQE, electroluminescence,...)
• Optical characterization (UV-VIS, PL, IR, and Raman spectroscopy, Ellipsometry ...)
• Electrical Material Characterization (Photoconductivity, Hall Effect, time-of-flight, capacitance spectroscopy…)
• Structure and stoichiometry (NMR, XRD, XRF, RBS, AES, SEM, TEM, Neutron scattering…)
• Surfaces and Interfaces (XPS, UPS, ARPES, STM, AFM…)
• Defects (Electron Paramagnetic Resonance, Positron Annihilation, Muon Spin Rotation, LBIC, EBIC, Thermography…)

For further information, please contact Prof. Dr. Klaus Lips:

Tel.:  030 8062 14960 

e-mail: lips@helmholtz-berlin.de 

1. Christiana Honsberg and Stuart Bowden http://www.pveducation.org/pvcdrom
2. Peter Würfel: "Physics of Solar Cells", Wiley-VCH 2005 bzw deutscher Titel: "Physik der Solarzellen"
3. Thomas Dittrich: "Materials Concepts for Solar Cells", World Scientific (WSPC (Europe)) 2018
4. Martin A. Green: "Solar cells : operating principles, technology and system applications", Kensington, N.S.W. : University of New South Wales, 1986
5. "Advanced Characteization Techniques for Thin Film Solar Cells" edited by D. Abou-Ras, T. Kirchartz, U. Rau, Wiley-VCH 2011

Goal of the course is to

• understand the fundamental limits of solar energy conversion.
• know about the used materials and their electronic properties as well as the relevant technologies.
• be able to identify relevant characterization techniques for the analysis of specific material and device properties.

• understand the physical limits of the various characterization techniques.

The course will be held in English and addresses master and PhD students in physics, chemistry, and physical chemistry. Successful participation in the course and passing the oral exam is rewarded with a total of 10 ECTS credit points.

Main Topics of the Course

A. Photovoltaics

• Introduction to the basics of semiconductor physics
• Introduction to the basic principles of photovoltaic (PV) energy conversion
• ^{Materials and concepts for PV including silicon, chalcopyrites, CdTe, OPV, DSSC, perovskites, novel concepts (3rd} generation), …

B. Analytics

• Basics of spectroscopy (light sources, detectors, spectral analysis…)
• Electrical characterization of PV devices (I-V, EQE, electroluminescence,...)
• Optical characterization (UV-VIS, PL, IR, and Raman spectroscopy, Ellipsometry ...)
• Electrical Material Characterization (Photoconductivity, Hall Effect, time-of-flight, capacitance spectroscopy…)
• Structure and stoichiometry (NMR, XRD, XRF, RBS, AES, SEM, TEM, Neutron scattering…)
• Surfaces and Interfaces (XPS, UPS, ARPES, STM, AFM…)
• Defects (Electron Paramagnetic Resonance, Positron Annihilation, Muon Spin Rotation, LBIC, EBIC, Thermography…)

For further information, please contact Prof. Dr. Klaus Lips:

Tel.:  030 8062 14960 

e-mail: lips@helmholtz-berlin.de 

1. 1) Christiana Honsberg and Stuart Bowden http://www.pveducation.org/pvcdrom
2. 2) Peter Würfel: "Physics of Solar Cells", Wiley-VCH 2005 bzw deutscher Titel: "Physik der Solarzellen"
3. 3) Martin A. Green: "Solar cells : operating principles, technology and system applications", Kensington, N.S.W. : University of New South Wales, 1986
4. 4) "Advanced Characteization Techniques for Thin Film Solar Cells" edited by D. Abou-Ras, T. Kirchartz, U. Rau, Wiley-VCH 2011
5. 5) Hans Kuzmany: "Solid-State Spectroscopy" Springer Verlag 2009
6. 6) Göpel/Ziegler: "Struktur der Materie: Grundlagen, Mikroskopie und Spektroskopie" Teubner 1994

Goal of the course is to

• understand the fundamental limits of solar energy conversion.
• know about the used materials and their electronic properties as well as the relevant technologies.
• be able to identify relevant characterization techniques for the analysis of specific material and device properties.

• understand the physical limits of the various characterization techniques.

The course will be held in English and addresses master and PhD students in physics, chemistry, and physical chemistry. Successful participation in the course and passing the oral exam is rewarded with a total of 10 ECTS credit points.

Main Topics of the Course

A. Photovoltaics

• Introduction to the basics of semiconductor physics
• Introduction to the basic principles of photovoltaic (PV) energy conversion
• ^{Materials and concepts for PV including silicon, chalcopyrites, CdTe, OPV, DSSC, perovskites, novel concepts (3rd} generation), …

B. Analytics

• Basics of spectroscopy (light sources, detectors, spectral analysis…)
• Electrical characterization of PV devices (I-V, EQE, electroluminescence,...)
• Optical characterization (UV-VIS, PL, IR, and Raman spectroscopy, Ellipsometry ...)
• Electrical Material Characterization (Photoconductivity, Hall Effect, time-of-flight, capacitance spectroscopy…)
• Structure and stoichiometry (NMR, XRD, XRF, RBS, AES, SEM, TEM, Neutron scattering…)
• Surfaces and Interfaces (XPS, UPS, ARPES, STM, AFM…)
• Defects (Electron Paramagnetic Resonance, Positron Annihilation, Muon Spin Rotation, LBIC, EBIC, Thermography…)

For further information, please contact Prof. Dr. Klaus Lips:

Tel.:  030 8062 14960 

e-mail: lips@helmholtz-berlin.de 

1. Thomas Dittrich: Materials Concepts For Solar Cells (Second Edition), World Scientific 2018
2. Christiana Honsberg and Stuart Bowden http://www.pveducation.org/pvcdrom
3. Peter Würfel: "Physics of Solar Cells", Wiley-VCH 2005 bzw deutscher Titel: "Physik der Solarzellen"
4. Martin A. Green: "Solar cells : operating principles, technology and system applications", Kensington, N.S.W. : University of New South Wales, 1986
5. "Advanced Characteization Techniques for Thin Film Solar Cells" edited by D. Abou-Ras, T. Kirchartz, U. Rau, Wiley-VCH 2011
6. Hans Kuzmany: "Solid-State Spectroscopy" Springer Verlag 2009

Lectures will be held in English. Prerequisite to participate in the course is a sound understanding of solid state physics.

Goal of the course is to

• understand the fundamental limits of solar energy conversion.
• know about the used materials and their electronic properties as well as the relevant technologies.
• be able to identify relevant characterization techniques for the analysis of specific material and device properties.

• understand the physical limits of the various characterization techniques.

The course will be held in English and addresses master and PhD students in physics, chemistry, and physical chemistry. Successful participation in the course and passing the oral exam is rewarded with a total of 10 ECTS credit points.

Main Topics of the Course

A. Photovoltaics

• Introduction to the basics of semiconductor physics
• Introduction to the basic principles of photovoltaic (PV) energy conversion
• Materials and concepts for PV including silicon, chalcopyrites, CdTe, OPV, DSSC, perovskites, novel concepts (3^rd generation), …

B. Analytics

• Basics of spectroscopy (light sources, detectors, spectral analysis…)
• Electrical characterization of PV devices (I-V, EQE, electroluminescence,...)
• Optical characterization (UV-VIS, PL, IR, and Raman spectroscopy, Ellipsometry ...)
• Electrical Material Characterization (Photoconductivity, Hall Effect, time-of-flight, capacitance spectroscopy…)
• Structure and stoichiometry (NMR, XRD, XRF, RBS, AES, SEM, TEM, Neutron scattering…)
• Surfaces and Interfaces (XPS, UPS, ARPES, STM, AFM…)
• Defects (Electron Paramagnetic Resonance, Positron Annihilation, Muon Spin Rotation, LBIC, EBIC, Thermography…)

For further information, please contact Prof. Dr. Klaus Lips:

Tel.:  030 8062 14960 

e-mail: lips@helmholtz-berlin.de 

1. 1) Christiana Honsberg and Stuart Bowden http://www.pveducation.org/pvcdrom
2. 2) Peter Würfel: "Physics of Solar Cells", Wiley-VCH 2005 bzw deutscher Titel: "Physik der Solarzellen"
3. 3) Martin A. Green: "Solar cells : operating principles, technology and system applications", Kensington, N.S.W. : University of New South Wales, 1986
4. 4) "Advanced Characteization Techniques for Thin Film Solar Cells" edited by D. Abou-Ras, T. Kirchartz, U. Rau, Wiley-VCH 2011
5. 5) Hans Kuzmany: "Solid-State Spectroscopy" Springer Verlag 2009
6. 6) Göpel/Ziegler: "Struktur der Materie: Grundlagen, Mikroskopie und Spektroskopie" Teubner 1994

Goal of the course is to

• understand the fundamental limits of solar energy conversion.
• know about the used materials and their electronic properties as well as the relevant technologies.
• be able to identify relevant characterization techniques for the analysis of specific material and device properties.

• understand the physical limits of the various characterization techniques.

The course will be held in English and addresses master and PhD students in physics, chemistry, and physical chemistry. Successful participation in the course and passing the oral exam is rewarded with a total of 10 ECTS credit points.

Main Topics of the Course

A. Photovoltaics

• Introduction to the basics of semiconductor physics
• Introduction to the basic principles of photovoltaic (PV) energy conversion
• Materials and concepts for PV including silicon, chalcopyrites, CdTe, OPV, DSSC, perovskites, novel concepts (3^rd generation), …

B. Analytics

• Basics of spectroscopy (light sources, detectors, spectral analysis…)
• Electrical characterization of PV devices (I-V, EQE, electroluminescence,...)
• Optical characterization (UV-VIS, PL, IR, and Raman spectroscopy, Ellipsometry ...)
• Electrical Material Characterization (Photoconductivity, Hall Effect, time-of-flight, capacitance spectroscopy…)
• Structure and stoichiometry (NMR, XRD, XRF, RBS, AES, SEM, TEM, Neutron scattering…)
• Surfaces and Interfaces (XPS, UPS, ARPES, STM, AFM…)
• Defects (Electron Paramagnetic Resonance, Positron Annihilation, Muon Spin Rotation, LBIC, EBIC, Thermography…)

For further information, please contact Prof. Dr. Klaus Lips:

Tel.:  030 8062 14960 

e-mail: lips@helmholtz-berlin.de 

1. Christiana Honsberg and Stuart Bowden http://www.pveducation.org/pvcdrom
2. Peter Würfel: "Physics of Solar Cells", Wiley-VCH 2005 bzw deutscher Titel: "Physik der Solarzellen"
3. Martin A. Green: "Solar cells : operating principles, technology and system applications", Kensington, N.S.W. : University of New South Wales, 1986
4. "Advanced Characteization Techniques for Thin Film Solar Cells" edited by D. Abou-Ras, T. Kirchartz, U. Rau, Wiley-VCH 2011
5. Hans Kuzmany: "Solid-State Spectroscopy" Springer Verlag 2009
6. Thomas Dittrich: "Materials Concepts for Solar Cells" Imperial College Press (2014 and 2018)

Lectures will be held in English. Prerequisite to participate in the course is a sound understanding of solid state physics.

Goal of the course is to

• understand the fundamental limits of solar energy conversion.
• know about the used materials and their electronic properties as well as the relevant technologies.
• be able to identify relevant characterization techniques for the analysis of specific material and device properties.

• understand the physical limits of the various characterization techniques.

The course will be held in English and addresses master and PhD students in physics, chemistry, and physical chemistry. Successful participation in the course and passing the oral exam is rewarded with a total of 10 ECTS credit points.

Main Topics of the Course

A. Photovoltaics

• Introduction to the basics of semiconductor physics
• Introduction to the basic principles of photovoltaic (PV) energy conversion
• Materials and concepts for PV including silicon, chalcopyrites, CdTe, OPV, DSSC, perovskites, novel concepts (3^rd generation), …

B. Analytics

• Basics of spectroscopy (light sources, detectors, spectral analysis…)
• Electrical characterization of PV devices (I-V, EQE, electroluminescence,...)
• Optical characterization (UV-VIS, PL, IR, and Raman spectroscopy, Ellipsometry ...)
• Electrical Material Characterization (Photoconductivity, Hall Effect, time-of-flight, capacitance spectroscopy…)
• Structure and stoichiometry (NMR, XRD, XRF, RBS, AES, SEM, TEM, Neutron scattering…)
• Surfaces and Interfaces (XPS, UPS, ARPES, STM, AFM…)
• Defects (Electron Paramagnetic Resonance, Positron Annihilation, Muon Spin Rotation, LBIC, EBIC, Thermography…)

For further information, please contact Prof. Dr. Klaus Lips:

Tel.:  030 8062 14960 

e-mail: lips@helmholtz-berlin.de 

1. 1) Christiana Honsberg and Stuart Bowden http://www.pveducation.org/pvcdrom
2. 2) Peter Würfel: "Physics of Solar Cells", Wiley-VCH 2005 bzw deutscher Titel: "Physik der Solarzellen"
3. 3) Martin A. Green: "Solar cells : operating principles, technology and system applications", Kensington, N.S.W. : University of New South Wales, 1986
4. 4) "Advanced Characteization Techniques for Thin Film Solar Cells" edited by D. Abou-Ras, T. Kirchartz, U. Rau, Wiley-VCH 2011
5. 5) Hans Kuzmany: "Solid-State Spectroscopy" Springer Verlag 2009
6. 6) Göpel/Ziegler: "Struktur der Materie: Grundlagen, Mikroskopie und Spektroskopie" Teubner 1994

Vorlesung wird bei Bedarf auf Englisch gehalten. Voraussetzung sind ein fundiertes Verständnis der Festkörperphysik, vorteilhaft sind Grundlagen der Halbleiterphysik und Spektroskopie bzw F-Praktikum

Goal of the course is to

• understand the fundamental limits of solar energy conversion.
• know about the used materials and their electronic properties as well as the relevant technologies.
• be able to identify relevant characterization techniques for the analysis of specific material and device properties.

• understand the physical limits of the various characterization techniques.

The course will be held in English and addresses master and PhD students in physics, chemistry, and physical chemistry. Successful participation in the course and passing the oral exam is rewarded with a total of 10 ECTS credit points.

Main Topics of the Course

A. Photovoltaics

• Introduction to the basics of semiconductor physics
• Introduction to the basic principles of photovoltaic (PV) energy conversion
• Materials and concepts for PV including silicon, chalcopyrites, CdTe, OPV, DSSC, perovskites, novel concepts (3^rd generation), …

B. Analytics

• Basics of spectroscopy (light sources, detectors, spectral analysis…)
• Electrical characterization of PV devices (I-V, EQE, electroluminescence,...)
• Optical characterization (UV-VIS, PL, IR, and Raman spectroscopy, Ellipsometry ...)
• Electrical Material Characterization (Photoconductivity, Hall Effect, time-of-flight, capacitance spectroscopy…)
• Structure and stoichiometry (NMR, XRD, XRF, RBS, AES, SEM, TEM, Neutron scattering…)
• Surfaces and Interfaces (XPS, UPS, ARPES, STM, AFM…)
• Defects (Electron Paramagnetic Resonance, Positron Annihilation, Muon Spin Rotation, LBIC, EBIC, Thermography…)

For further information, please contact Prof. Dr. Klaus Lips:

Tel.:  030 8062 14960 

e-mail: lips@helmholtz-berlin.de 

1. 1) Christiana Honsberg and Stuart Bowden http://www.pveducation.org/pvcdrom
2. 2) Peter Würfel: "Physics of Solar Cells", Wiley-VCH 2005 bzw deutscher Titel: "Physik der Solarzellen"
3. 3) Martin A. Green: "Solar cells : operating principles, technology and system applications", Kensington, N.S.W. : University of New South Wales, 1986
4. 4) "Advanced Characteization Techniques for Thin Film Solar Cells" edited by D. Abou-Ras, T. Kirchartz, U. Rau, Wiley-VCH 2011
5. 5) Hans Kuzmany: "Solid-State Spectroscopy" Springer Verlag 2009
6. 6) Göpel/Ziegler: "Struktur der Materie: Grundlagen, Mikroskopie und Spektroskopie" Teubner 1994

Vorlesung wird bei Bedarf auf Englisch gehalten. Voraussetzung sind ein fundiertes Verständnis der Festkörperphysik, vorteilhaft sind Grundlagen der Halbleiterphysik und Spektroskopie bzw F-Praktikum

Goal of the course is to

• understand the fundamental limits of solar energy conversion.
• know about the used materials and their electronic properties as well as the relevant technologies.
• be able to identify relevant characterization techniques for the analysis of specific material and device properties.

• understand the physical limits of the various characterization techniques.

The course will be held in English and addresses master and PhD students in physics, chemistry, and physical chemistry. Successful participation in the course and passing the oral exam is rewarded with a total of 10 ECTS credit points.

Main Topics of the Course

A. Photovoltaics

• Introduction to the basics of semiconductor physics
• Introduction to the basic principles of photovoltaic (PV) energy conversion
• Materials and concepts for PV including silicon, chalcopyrites, CdTe, OPV, DSSC, perovskites, novel concepts (3^rd generation), …

B. Analytics

• Basics of spectroscopy (light sources, detectors, spectral analysis…)
• Electrical characterization of PV devices (I-V, EQE, electroluminescence,...)
• Optical characterization (UV-VIS, PL, IR, and Raman spectroscopy, Ellipsometry ...)
• Electrical Material Characterization (Photoconductivity, Hall Effect, time-of-flight, capacitance spectroscopy…)
• Structure and stoichiometry (NMR, XRD, XRF, RBS, AES, SEM, TEM, Neutron scattering…)
• Surfaces and Interfaces (XPS, UPS, ARPES, STM, AFM…)
• Defects (Electron Paramagnetic Resonance, Positron Annihilation, Muon Spin Rotation, LBIC, EBIC, Thermography…)

For further information, please contact Prof. Dr. Klaus Lips:

Tel.:  030 8062 14960 

e-mail: lips@helmholtz-berlin.de 

1. 1) Christiana Honsberg and Stuart Bowden http://www.pveducation.org/pvcdrom
2. 2) Peter Würfel: "Physics of Solar Cells", Wiley-VCH 2005 bzw deutscher Titel: "Physik der Solarzellen"
3. 3) Martin A. Green: "Solar cells : operating principles, technology and system applications", Kensington, N.S.W. : University of New South Wales, 1986
4. 4) "Advanced Characteization Techniques for Thin Film Solar Cells" edited by D. Abou-Ras, T. Kirchartz, U. Rau, Wiley-VCH 2011
5. 5) Hans Kuzmany: "Solid-State Spectroscopy" Springer Verlag 2009
6. 6) Göpel/Ziegler: "Struktur der Materie: Grundlagen, Mikroskopie und Spektroskopie" Teubner 1994

Vorlesung wird bei Bedarf auf Englisch gehalten. Voraussetzung sind ein fundiertes Verständnis der Festkörperphysik, vorteilhaft sind Grundlagen der Halbleiterphysik und Spektroskopie bzw F-Praktikum

1. A. Einführung in die Grundlagen der photovoltaischen Energiewandlung Sonne, physikalische Limitierungen, Materialien und Konzepte der PV, Physik der Bauelemente, Solarzellentypen (Wafer-basiert, Dünnschicht, Konzentratorsolarzellen)


2. B. Analytik
1. 1)Allgemeine Grundlagen der Spektroskopie Instrumentierung, Lock-in Detektion, Spektrometer, Quellen, Linienbreiten, Auflösungsvermögen, Empfindlichkeit , generelle Konzepte
2. 2) Bauelementcharakterisierung Voc, Isc, FF, QE etc
3. 3) Optische Charakterisierung UV-VIS, Photolumineszenz (PL), IR-Spektroskopie, Raman-Spektroskopie
4. 4) Elektrische Charakterisierung Photoleitung, HALL, TOF, Kapazitätsspektroskopie (DLTS, CV), Elektroluminszenz
5. 5) Struktur/Stöchometrie NMR (Kernspinresonanz), XRD, Röntgenfluoreszenz (XRF), RBS, AES, SEM, TEM, Neutronenstreuung
6. 6) Oberflächen / Grenzflächen Photoelektronenspektroskopie (XPS, UPS, ARPES etc.), STM, AFM,
7. 7) Defekte Elektronenspinresonanz (ESR), LBIC, EBIC, Thermographie

1. 1) Christiana Honsberg and Stuart Bowden http://www.pveducation.org/pvcdrom
2. 2) Peter Würfel: "Physics of Solar Cells", Wiley-VCH 2005 bzw deutscher Titel: "Physik der Solarzellen"
3. 3) Martin A. Green: "Solar cells : operating principles, technology and system applications", Kensington, N.S.W. : University of New South Wales, 1986
4. 4) "Advanced Characteization Techniques for Thin Film Solar Cells" edited by D. Abou-Ras, T. Kirchartz, U. Rau, Wiley-VCH 2011
5. 5) Hans Kuzmany: "Solid-State Spectroscopy" Springer Verlag 2009
6. 6) Göpel/Ziegler: "Struktur der Materie: Grundlagen, Mikroskopie und Spektroskopie" Teubner 1994

1. A. Einführung in die Grundlagen der photovoltaischen Energiewandlung Sonne, physikalische Limitierungen, Materialien und Konzepte der PV, Physik der Bauelemente, Solarzellentypen (Wafer-basiert, Dünnschicht, Konzentratorsolarzellen)


2. B. Analytik
1. 1)Allgemeine Grundlagen der Spektroskopie Instrumentierung, Lock-in Detektion, Spektrometer, Quellen, Linienbreiten, Auflösungsvermögen, Empfindlichkeit , generelle Konzepte
2. 2) Bauelementcharakterisierung Voc, Isc, FF, QE etc
3. 3) Optische Charakterisierung UV-VIS, Photolumineszenz (PL), IR-Spektroskopie, Raman-Spektroskopie
4. 4) Elektrische Charakterisierung Photoleitung, HALL, TOF, Kapazitätsspektroskopie (DLTS, CV), Elektroluminszenz
5. 5) Struktur/Stöchometrie NMR (Kernspinresonanz), XRD, Röntgenfluoreszenz (XRF), RBS, AES, SEM, TEM, Neutronenstreuung
6. 6) Oberflächen / Grenzflächen Photoelektronenspektroskopie (XPS, UPS, ARPES etc.), STM, AFM,
7. 7) Defekte Elektronenspinresonanz (ESR), LBIC, EBIC, Thermographie

1. 1) Christiana Honsberg and Stuart Bowden http://www.pveducation.org/pvcdrom
2. 2) Peter Würfel: "Physics of Solar Cells", Wiley-VCH 2005 bzw deutscher Titel: "Physik der Solarzellen"
3. 3) Martin A. Green: "Solar cells : operating principles, technology and system applications", Kensington, N.S.W. : University of New South Wales, 1986
4. 4) "Advanced Characteization Techniques for Thin Film Solar Cells" edited by D. Abou-Ras, T. Kirchartz, U. Rau, Wiley-VCH 2011
5. 5) Hans Kuzmany: "Solid-State Spectroscopy" Springer Verlag 2009
6. 6) Göpel/Ziegler: "Struktur der Materie: Grundlagen, Mikroskopie und Spektroskopie" Teubner 1994