Mohammad Khaja Nazeeruddin

EPFL Valais Wallis
EPFL SCI-SB-MN
Rue de l'Industrie 17
Case postale 440
CH-1951 Sion

Administrative data

Fields of expertise


Dr. Nazeeruddin is an expert in the design, synthesis and characterization of platinum group metal complexes associated with Dye-sensitized Solar Cells and Organic Light Emitting Diodes. He has in-depth experience with all characterization tools, necessary for coordination complexes.


Professional course

Advanced Materials for Photovoltaic and Lighting Applications, EPFL_Course N�: MCH 546. Advanced Materials for Photovoltaic and Lighting Applications, KU_Course N�: CH 447. EPFL and Korea University

Education

Ph. D. Inorganic Chemistry Osmania University, Hyderabad, India 1986
M. Sc. Inorganic Chemistry Osmania University 1978-1980
B. Sc. Chemistry, Botany and Zoology Osmania University 1975-1978

Publications

Teaching & PhD

Teaching

  • Chemistry and Chemical Engineering,

PhD Programs

  • Doctoral Program in Chemistry and Chemical Engineering
  • Doctoral Program in Materials Science and Engineering

PhD Students

Courses

Advanced materials for photovoltaics and lighting

The course is made up of the understanding of the use of advanced materials for Dye-sensitized Solar Cells, Semiconductor Nanoparticles (Q-dots) and Organic Light Emitting Diodes (OLED). goto

MINEUR, 2018-2019, Spring semester, language : english
Section of Chemistry and Chemical Engineering, 2018-2019, Master semester 2, language : english

Research

Research

The groups’ focus is Molecular Engineering of Functional Materials for Photovolatic and Light emitting applications. In the field of molecular-based photovoltaic devices, dye-sensitized solar cells (DSCs) have reached an efficiency of over 13%. This efficiency level, coupled with the use of inexpensive materials and processing has stimulated momentum to industrialize this technology. In these cells, the sensitizer, located at the junction between electron and hole transporting phases, absorbs sunlight and injects an electron and a hole into the n- and p-type materials, respectively. The former is an inorganic n-type wide bandgap oxide semiconductor (typically TiO2 anatase) and the latter is a liquid electrolyte or p-type hole transporter. The generated free charge carriers, travel through the nanostructured oxide to be collected as current at the external contacts. The significant advantage of DSCs is that they achieve the separation of light harvesting, and charge carrier transport, thus the maximum power point is virtually independent of light level therefore useful in all climate conditions. The general losses in dye-sensitized solar cells are due to the lack of sensitizer absorption in the near IR region, and the loss-in-potential from the optical band gap to the open-circuit voltage. The goal of the group is to engineer at molecular level novel panchromatic sensitizers and functionalized hole-transporting materials to achieve power conversion efficiency over 20%.