Expert in pharmacology of ion channels with over 45 years of research experience. While serving as a professor of pharmacology and toxicology at the University of Vienna he founded ChanPharm in 2014. CEO of ChanPharm since 2019.
1983 — Dr. med. (doctor medicinae) and graduation as specialist in physiology. 1988 — Habilitation "doctor scientiae medicinae" at Academy of Science, Berlin. 1988–89 — Welcome Trust Fellow at St. George's Hospital, London. 1995 — Venia Legendi "Pharmacology and Toxicology" at University of Innsbruck. 2003 — Full Professor and Chairman of the Department of Pharmacology and Toxicology at the University of Vienna.
In 2011 he initiated the PhD program "Ion channels as molecular drug targets (MolTag)" and served for 10 years as its speaker. He is author of more than 300 scientific publications on ion channels and of 27 patent applications. In 2014 he founded ChanPharm; CEO of ChanPharm since 2019.
He pioneered voltage clamp studies on isolated adult myocardial cells (Bodewei et al. 1982) and performed first studies on the mechanism of local anesthetics on their sodium channels (Hering et al. 1983). Later he focused at the University of Innsbruck on gating and pharmacology of voltage-gated calcium channels and their role in migraine (Hering et al. 2000).
His team discovered jointly with the group of Marion Moe (University of Otago, New Zealand) the role of a mutation in a calcium channel (Cav1.4) in a retinal disorder linked to incomplete congenital stationary night blindness (Hemara-Wahanui et al. 2005).
From 2008–2023 his team contributed in close collaboration with Matthias Hamburger (Biocenter Basel) to the discovery of 21 novel natural product GABA(A) receptor modulators and several natural product hERG channel inhibitors. More recently his research focused on the role of hERG channels in arrhythmogenesis (Saxena et al. 2017), proarrhythmic properties of natural products (Baburin et al. 2018), and the development of refined methods for cardiotoxicity studies on stem cell-derived cardiomyocytes (Baltov et al. 2023) making use of 2D and 3D culture systems (Schmidt et al. 2023).