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Experimental Semiconductor Physics

Prof. Ian Sharp

Research Field

A description of the fascinating research topics follows soon.

Address/Contact

Am Coulombwall 4
85748 Garching b. München

Members of the Research Group

Professor

Office

Scientists

Students

Other Staff

Teaching

Course with Participations of Group Members

Titel und Modulzuordnung
ArtSWSDozent(en)Termine
Experimental Physics 3 in English
eLearning-Kurs
Zuordnung zu Modulen:
VO 2 Sharp, I.
Mitwirkende: Deschler, F.
Mo, 14:00–16:00, PH HS1
Semiconductor Synthesis and Nanoanalytics
eLearning-Kurs
Zuordnung zu Modulen:
VO 2 Sharp, I. Do, 14:00–16:00, WSI S101
Advances in Atomic Layer Deposition and Etching
eLearning-Kurs
Zuordnung zu Modulen:
PS 2 Sharp, I.
Mitwirkende: Henning, A.
Di, 14:00–16:00, WSI S402
Aktuelle Probleme der Halbleiterphysik und fortgeschrittenen Materialien
Zuordnung zu Modulen:
HS 2 Sharp, I. Stutzmann, M. Fr, 10:30–12:30, WSI S101
Energy Materials at Work - Operando Methods in Energy Conversion
eLearning-Kurs
Zuordnung zu Modulen:
PS 2 Sharp, I.
Mitwirkende: Eichhorn, J.Streibel, V.
Fr, 10:30–12:00, WSI S101
Exercise to Experimental Physics 3 in English
Zuordnung zu Modulen:
UE 1 Shcherbakov, A.
Leitung/Koordination: Sharp, I.
Übung zu Halbleitersynthese und Nanoanalytik
Zuordnung zu Modulen:
UE 1
Leitung/Koordination: Sharp, I.
Termine in Gruppen
FOPRA-Versuch 08: Hochauflösende Röntgenbeugung (AEP, BIO, KM)
aktuelle Informationen
Zuordnung zu Modulen:
PR 1 Hoffmann, T. Sirotti, E.
Leitung/Koordination: Stutzmann, M.
FOPRA-Versuch 28: Halbleiter-Photoelektrochemie (AEP, KM)
Zuordnung zu Modulen:
PR 1 Bienek, O. Kuhl, M. Kunzelmann, V.
Leitung/Koordination: Sharp, I.
FOPRA-Versuch 29: Optische Charakterisierung von Hybrid-Perowskiten (AEP, KM)
Zuordnung zu Modulen:
PR 1 Shcherbakov, A. Zerhoch, J.
Leitung/Koordination: Deschler, F.
Repetitorium zu Fortschritte in der Atomlagenabscheidung (ALD) und Atomlagenätzung (ALE)
Zuordnung zu Modulen:
RE 2
Leitung/Koordination: Sharp, I.
Revision Course to Energy Materials at Work - Operando Methods in Energy Conversion
Zuordnung zu Modulen:
RE 2
Leitung/Koordination: Sharp, I.
Schottky-Seminar
Diese Lehrveranstaltung ist keinem Modul zugeordnet.
SE 2 Belkin, M. Brandt, M. Finley, J. Holleitner, A. Sharp, I. … (insgesamt 6) Di, 13:15–14:30, WSI S101
Vorbesprechung zum Fortgeschrittenen-Praktikum (F-Praktikum)
eLearning-Kurs aktuelle Informationen
Zuordnung zu Modulen:
PR 0.1 Schönert, S. Sharp, I. einzelne oder verschobene Termine

Offers for Theses in the Group

Controlled Fabrication of Chiral Lead-Free Perovskites

 The Deschler group at the Walter Schottky Institute of TU Munich invites applications for


Bachelor/Master Projects on Controlled Fabrication of

Chiral Lead-Free Perovskites

 

The group

The Deschler group is an independent research group at Walter Schottky Institute of TU Munich, established through the DFG Emmy-Noether Program and an ERC starting Grant. Our research focuses on the ultrafast dynamics of functional materials and their applications energy applications. More information can be found on our website at https://www.wsi.tum.de/views/sub_group.php?group=Deschler&sub_page=home

 

Your projects

Hybrid organic inorganic perovskites are optoelectronic materials with tunable chemical and electronic structures. Incorporating chiral organic molecules into perovskite networks also attracts great attention due to their potential optical communication applications. Nevertheless, most reported chiral perovskite materials possess highly toxic Pb, which potentially limits their practical applications. In this project, your work would focus on introducing chiral organic molecules into hybrid lead-free perovskite, and grow corresponding high-performance single crystals and thin films. You will spearhead the design and fundamental understanding of novel functionality in materials. Specifically, you can work on one of following topics:

·     Designing chiral lead-free perovskites with different chiral organic molecules

·     Incorporating MA, FA, or Cs into chiral lead-free perovskites to get different layers samples

·     Transition metal doping on chiral lead-free perovskites to acquire magnetic properties

During your Bachelor or Master project in our group, you will have the chance to gain hands-on experience in the solution-/vapor-based synthesis of novel functional materials, a range of state-of-the-art spectroscopic, optoelectronic and diffraction tools, as well as detailed understanding of the physics of functional semiconductors. Dedicated support from a PhD student or postdoc will be available during your project. You will be expected to make scientific discoveries and contribute to the dynamic atmosphere of our group.

 

Your Application

Applications should be sent to felix.deschler@tum.de. Please include your CV, and other related documents. Looking forward to your applications!

suitable as
  • Master’s Thesis Condensed Matter Physics
Supervisor: Felix Deschler
Controlled Fabrication of Chiral Lead-Free Perovskites

 

The Deschler group at the Walter Schottky Institute of TU Munich invites applications for


Bachelor/Master Projects on Controlled Fabrication of Chiral Lead-Free Perovskites

 

The group

The Deschler group is an independent research group at Walter Schottky Institute of TU Munich, established through the DFG Emmy-Noether Program and an ERC starting Grant. Our research focuses on the ultrafast dynamics of functional materials and their applications energy applications. More information can be found on our website at https://www.wsi.tum.de/views/sub_group.php?group=Deschler&sub_page=home

 

Your projects

Hybrid organic inorganic perovskites are optoelectronic materials with tunable chemical and electronic structures. Incorporating chiral organic molecules into perovskite networks also attracts great attention due to their potential optical communication applications. Nevertheless, most reported chiral perovskite materials possess highly toxic Pb, which potentially limits their practical applications. In this project, your work would focus on introducing chiral organic molecules into hybrid lead-free perovskite, and grow corresponding high-performance single crystals and thin films. You will spearhead the design and fundamental understanding of novel functionality in materials. Specifically, you can work on one of following topics:

·     Designing chiral lead-free perovskites with different chiral organic molecules

·     Incorporating MA, FA, or Cs into chiral lead-free perovskites to get different layers samples

·     Transition metal doping on chiral lead-free perovskites to acquire magnetic properties

During your Bachelor or Master project in our group, you will have the chance to gain hands-on experience in the solution-/vapor-based synthesis of novel functional materials, a range of state-of-the-art spectroscopic, optoelectronic and diffraction tools, as well as detailed understanding of the physics of functional semiconductors. Dedicated support from a PhD student or postdoc will be available during your project. You will be expected to make scientific discoveries and contribute to the dynamic atmosphere of our group.

 

Your Application

Applications should be sent to felix.deschler@tum.de. Please include your CV, and other related documents. Looking forward to your applications!

suitable as
  • Bachelor’s Thesis Physics
Supervisor: Felix Deschler
Semiconductor photoanodes for photoelectrochemical water splitting
The Chair for Experimental Semiconductor Physics (Prof. Sharp) at the Walter Schottky Institute of the Technical University Munich (TUM) investigates novel photoelectrode materials for solar energy conversion applications. Our research also explores new materials and different design strategies to improve the photoelectrochemical (PEC) activity and stability of energy materials under operation conditions. More information can be found on our website www.wsi.tum.de. The Master’s project will focus on photoelectrochemical water splitting to generate hydrogen as storable chemical fuel using multi-layer semiconductor photoelectrodes. In this context, one of the main challenges is the material stability under the harsh PEC operating conditions. To overcome this limitation, the Master’s project will focus on protecting/passivating the semiconductor surface with conformal functional layers. Specifically, you will synthesize cobalt oxide thin films by plasma-enhanced atomic layer deposition on semiconductor light absorbers to yield stable and catalytically active photoelectrodes. Thereby you will explore the influence of composition, optical and interface properties on the photoelectrochemical characteristics. Furthermore, you will investigate these multilayer photoelectrodes under operando conditions utilizing nanoscale microscopy and spectroscopy techniques to gain fundamental insight into their performance under oxygen evolution condition. In our group, you will have the chance to gain hands-on experience in atomic layer deposition of thin catalyst layers, state-of-the-art spectroscopy and microscopy techniques, optoelectronic and diffraction techniques, as well as detailed understanding of the physics of functional semiconductors. Dedicated support from a PhD student will be available during your project.
suitable as
  • Master’s Thesis Condensed Matter Physics
Supervisor: Ian Sharp

Current and Finished Theses in the Group

Correlative optoelectronic and electrochemical characterization of interface and surface states in gallium nitride
Abschlussarbeit im Masterstudiengang Physik (Physik der kondensierten Materie)
Themensteller(in): Ian Sharp
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