Henning Jessen

Professor of Bioorganic Chemistry

University of Freiburg

Germany

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Henning Jessen is a Professor of Bioorganic Chemistry at the University of Freiburg, Germany. His research focuses on the metabolism of inositol derivatives, oxygen sensor systems, and the role of inositol pyrophosphates in plant signaling and stress acclimation. Recent publications include studies on the kinetics of oxygen-releasing compounds and innovative methodologies for analyzing cellular inositol metabolism.

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Collaborators (16)

Yun Chen

Chalmers University of Technology

SWEDEN

Henning Jessen

Research Interests

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Articles (30)

Oxygen sensor system: Real-time absorbance-based monitoring system for tracking oxygen release from tunable anthracene-endoperoxide molecules

Metabolism of inositol derivatives by the gut microbiome

Pressure Sensing and Kinetic Modeling of Oxygen-Releasing Endoperoxides for Chemically Driven Micro-Actuation

Conservation of heat stress acclimation by the IPK2-type kinases that control the synthesis of the inositol pyrophosphate 4/6-InsP7 in land plants

Expanding the Inositol Pyrophosphate Toolbox: Stereoselective Synthesis and Application of PP‐InsP4 Isomers in Plant Signaling

Neue Werkzeuge für die Inositolpyrophosphat‐Forschung: Stereoselektive Synthese und Einsatz von PP‐InsP₄‐Isomeren in der Pflanzenforschung

Basic features of cellular inositol metabolism as revealed by a newly developed LC-MS method

Pools of Independently Cycling Inositol Phosphates Revealed by Pulse Labeling with 18O-Water

Generation of inositol polyphosphates through a phospholipase C-independent pathway involving carbohydrate and sphingolipid metabolism in &lt;i&gt;Trypanosoma cruzi&lt;/i&gt;.

Tandem inactivation of inositol pyrophosphatases Asp1, Siw14, and Aps1 illuminates functional redundancies in inositol pyrophosphate catabolism in fission yeast.

Orchestration of phosphate homeostasis by the ITPK1-type inositol phosphate kinase in the liverwort Marchantia polymorpha

An Update on Polyphosphate In Vivo Activities

Identification and Characterization of a Blood-Brain Barrier Penetrant Inositol Hexakisphosphate Kinase (IP6K) Inhibitor.

Phytate metabolism is mediated by microbial cross-feeding in the gut microbiota

Activities and genetic interactions of fission yeast Aps1, a Nudix-type inositol pyrophosphatase and inorganic polyphosphatase.

Control of a chemical chaperone by a universally conserved ATPase.

Homeostatic coordination of cellular phosphate uptake and efflux requires an organelle-based receptor for the inositol pyrophosphate IP8.

ITPK1 is an InsP<sub>6</sub>/ADP phosphotransferase that controls phosphate signaling in Arabidopsis.

Structures of 3-acetylpyridine adenine dinucleotide and ADP-ribose bound to the electron input module of respiratory complex I

Arg1 from <i>Cryptococcus neoformans</i> lacks PI3 kinase activity and conveys virulence roles via its IP<sub>3-4</sub> kinase activity.

Inositol pyrophosphate profiling reveals regulatory roles of IP6K2-dependent enhanced IP7 metabolism in the enteric nervous system

Non‐canonical nucleosides: Biomimetic triphosphorylation, incorporation into mRNA and effects on translation and structure

Sangivamycin is preferentially incorporated into viral RNA by the SARS-CoV-2 polymerase

Bacterial Pathogen Infection Triggers Magic Spot Nucleotide Signaling in Arabidopsis thaliana Chloroplasts through Specific RelA/SpoT Homologues

Assigning the Absolute Configuration of Inositol Poly- and Pyrophosphates by NMR Using a Single Chiral Solvating Agent

Cryo‐EM structure of the polyphosphate polymerase VTC reveals coupling of polymer synthesis to membrane transit

Inositol pyrophosphates activate the vacuolar transport chaperone complex in yeast by disrupting a homotypic SPX domain interaction

Flux regulation through glycolysis and respiration is balanced by inositol pyrophosphates in yeast

Capillary electrophoresis mass spectrometry identifies new isomers of inositol pyrophosphates in mammalian tissues

The phytase RipBL1 enables the assignment of a specific inositol phosphate isomer as a structural component of human kidney stones

Collaborators (16)

Yun Chen

Jennifer Andexer

Willem M. de Vos

Thorsten Friedrich

Beate Schwer

Stefanie M. Kaiser

Mariano Bizzarri

Roberto Docampo

Gabriel Schaaf

Christoph Loenarz

Patricia Benčić

Antonella Riccio

Masatoshi Ito

Masayuki Tanaka

Nam Bui

Maja Köhn

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Generation of inositol polyphosphates through a phospholipase C-independent pathway involving carbohydrate and sphingolipid metabolism in <i>Trypanosoma cruzi</i>.