Seemann Myriam

Dr. Seemann Myriam

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Research Focus & Metrics

Academic Career Length

30Years (1997-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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19 August 2021 in Nature Reviews Chemistry
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MMMarcus Miethke
Marcus Miethke
MPMARCO PIERONI
MARCO PIERONI
TWTilmann Weber
Tilmann Weber
MBMark Brönstrup
Mark Brönstrup
PHPeter Hammann
Peter Hammann
RMRolf Müller
Rolf Müller

14 January 2013 in Journal of the American Chemical Society
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Journal Article
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KJKarnjapan Janthawornpong
Karnjapan Janthawornpong
SKSergiy Krasutsky
Sergiy Krasutsky
PCPhilippe Chaignon
Philippe Chaignon
MRMichel Rohmer
Michel Rohmer
CPC. Dale Poulter
C. Dale Poulter
SMSeemann Myriam
Seemann Myriam

19 October 2011 in Angewandte Chemie International Edition
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AAAnnegret Ahrens‐Botzong
Annegret Ahrens‐Botzong
KJKarnjapan Janthawornpong
Karnjapan Janthawornpong
JWJuliusz A. Wolny
Juliusz A. Wolny
ETErasmienne Ngouamegne Tambou
Erasmienne Ngouamegne Tambou
MRMichel Rohmer
Michel Rohmer
SMSeemann Myriam
Seemann Myriam

1 February 2004
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Journal Article
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MRMichel Rohmer
Michel Rohmer
CGCatherine Grosdemange-Billiard
Catherine Grosdemange-Billiard
SMSeemann Myriam
Seemann Myriam
DTDenis Tritsch
Denis Tritsch

1 November 2021 in Journal of Inorganic Biochemistry
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Journal Article
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MMMickaël Mauger
Mickaël Mauger
Carla FerreriCarla Ferreri
Carla Ferreri
Chryssostomos ChatgilialogluChryssostomos Chatgilialoglu
Chryssostomos Chatgilialoglu
SMSeemann Myriam
Seemann Myriam

21 January 2022 in Molecules
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Journal Article
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HJHannah Jobelius
Hannah Jobelius
GBGabriella Ines Bianchino
Gabriella Ines Bianchino
FBfranck Borel
franck Borel
PCPhilippe Chaignon
Philippe Chaignon
SMSeemann Myriam
Seemann Myriam
The non-mevalonate or also called MEP pathway is an essential route for the biosynthesis of isoprenoid precursors in most bacteria and in microorganisms belonging to the Apicomplexa phylum, such as the parasite responsible for malaria. The absence of this pathway in mammalians makes it an interesting target for the discovery of novel anti-infectives. As last enzyme of this pathway, IspH is an oxygen sensitive [4Fe-4S] metalloenzyme that catalyzes 2H+/2e- reductions and a water elimination by involving non-conventional bioinorganic and bioorganometallic intermediates. After a detailed description of the discovery of the [4Fe-4S] cluster of IspH, this review focuses on the IspH mechanism discussing the results that have been obtained in the last decades using an approach combining chemistry, enzymology, crystallography, spectroscopies, and docking calculations. Considering the interesting druggability of this enzyme, a section about the inhibitors of IspH discovered up to now is reported as well. The presented results constitute a useful and rational help to inaugurate the design and development of new potential chemotherapeutics against pathogenic organisms.