Disciplines
Biology (30%); Chemistry (70%)
Keywords
Bioorganic Chemistry,
Coordination Chemistry,
Methane Monooxygenase,
Iron
Abstract
Summary. The synthesis of protein models (active center of proteins) and their investigation is a highly attractive
and growing research field. Proteins are able to functionalize and activate small molecules at room temperature and
normal pressure with very high efficiency, which can not be realized in industrial processes yet, where often high
energy and expensive catalysts are used with very low turnover rates. Protein models are promising catalysts for
industrial processes, and their preparation and characterization is very challenging task for chemists. I have chosen
this topic due an exciting combination of utility, esthetics, interdisciplinarity and chemical challenge.
Topic. Bioinorganic Chemistry is a modern, fascinating, highly interdisciplinary and an exploding field of research
with large efforts around the world and especially in the USA. The research group of Prof. Lippard at the
Massachusetts Institute of Technology is very experienced and highly recognized in that field, which providing
conditions for a successful postdoctoral stay.
Aim. The synthesis of protein models imitating their functions in biological systems is the main goal to prepare a
catalyst for a chemical transformation that occurs in living organisms at ambient temperature and pressure, such as
the conversion of methane into methanol as realized in the methane monooxygenase which is under current
investigation in Prof. Lippards group at the MIT, and improvements on those synthetic models and a general better
understanding of biological active sites are the aim of my post-doc research at this institution.
Methods. Along with NMR, spectroscopic methods (UV-vis, IR), mass spectrometry, X-ray, and electrochemistry,
other powerful techniques such as EPR-, EXAFS-, Mössbauer-spectroscopy, magnetochemistry and advanced
theoretical methods will be available and applied during the postdoctoral research work.