![]() | Thomas J JentschLeibniz-Forschungsinstitut für Molekulare Pharmakologie (FMP) and Max-Delbrück-Centrum für Molekulare Medizin (MDC), Berlin, Germany jentsch@fmp-berlin.de ... |
KOL Resume for Thomas J Jentsch (metabolic disturbance, endocrine disorders, metabolic disorders, endocrine, disorders, system, metabolic)
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2022 | Leibniz-Forschungsinstitut für Molekulare Pharmakologie (FMP) and Max-Delbrück-Centrum für Molekulare Medizin (MDC), Berlin, Germany |
2021 | Leibniz-Forschungsinstitut für Molekulare Pharmakologie (FMP), Berlin, Germany |
2020 | Leibniz-Forschungsinstitut für Molekulare Pharmakologie (FMP) and Max-Delbrück-Centrum für Molekulare Medizin, D-13125 Berlin, Germany; NeuroCure Cluster of Excellence, Charité University Medicine, D-10117 Berlin, Germany. Electronic address: Max‐Delbrück‐Centrum für Molekulare Medizin (MDC), Berlin, Germany |
2019 | Max-Delbrück-Centrum für Molekulare Medizin (MDC), Berlin |
2018 | the NeuroCure Cluster of Excellence, Charité Universitätsmedizin Berlin, D-10117 Berlin, Germany. Leibniz‐Institut für Molekulare Pharmakologie (FMP) and Max‐Delbrück‐Centrum für Molekulare Medizin (MDC), Berlin, Germany |
2017 | Max-Delbrück-Centrum für Molekulare Medizin (MDC), D-13125 Berlin, Germany From the Leibniz-Forschungsinstitut für Molekulare Pharmakologie, D-13125 Berlin and |
2016 | From the Leibniz-Institut für Molekulare Pharmakologie (FMP) and Max-Delbrück-Centrum für Molekulare Medizin (MDC), Robert-Rössle-Strasse 10, 13125 Berlin and; Neurocure Cluster of Excellence, Charité Universitätsmedizin Berlin, 10117 Berlin, Germany. Electronic address: Max-Delbrück-Centrum für Molekulare Medizin (MDC), Robert-Roessle Str. 10, 13125 Berlin, Germany |
2015 | Leibniz-Institut für Molekulare Pharmakologie (FMP) und Max-Delbrück Centrum für Molekulare Medizin (MDC), Berlin, Germany |
2014 | Neurocure, Charité Universitätsmedizin, Berlin. From the Medical Clinic for Nephrology and Internal Intensive Care, Charité Campus Virchow Klinikum, Experimental and Clinical Research Center (ECRC), Berlin, Germany (J.S., M.K., I.A.S., H.C.H., J.-Y.T., Y.-M.A., M.G.); Max Delbrück Center for Molecular Medicine, Berlin, Germany (S.W., M.H., N.A., M.B., T.J.J.); Department Physiology and Pathology of Ion Transport, Leibniz-Institut für Molekulare Pharmakologie (FMP), Berlin, Germany (S.W., M.H., T.J.J.); Department of Pharmacology and Toxicology, University of Arkansas for Medical Sciences, Little Rock (A.R.P., N.J.R.); and Broad Institute of MIT and Harvard, Cambridge, MA (M.H.). Leibniz‐Institut für Molekulare Pharmakologie (FMP) and Max‐Delbrück‐Centrum für Molekulare Medizin (MDC) Physiology and Pathology of Ion Transport Berlin Germany |
2013 | the NeuroCure Cluster of Excellence, Charité Universitätsmedizin Berlin, 10117 Berlin, Germany Max-Delbrück-Centrum für Molekulare Medizin (MDC), D-13125 Berlin and |
2012 | Physiology and Pathology of Ion Transport, Leibniz-Institut für Molekulare Pharmakologie (FMP) and Max-Delbrück-Centrum für Molekulare Medizin (MDC), 13125 Berlin, Germany;, Zentrum für Molekulare Neurobiologie (ZMNH), Universität Hamburg Hamburg Germany |
2011 | NeuroCure Cluster of Excellence, Charité, Berlin, Germany |
2010 | Max-Delbrück-Centrum für Molekulare Medizin (MDC) and Leibniz-Institut für Molekulare Pharmakologie (FMP), Berlin, Germany |
2009 | Department of Physiology and Pathology of Ion Transport, Leibniz-Institut für Molekulare Pharmakologie (FMP) and Max-Delbrück-Centrum für Molekulare Medizin (MDC), D-13125 Berlin, Germany |
2008 | Leibniz‐Institut für Molekulare Pharmakologie (FMP) and Max Delbrück Centrum für Molekulare Medizin (MDC), Berlin, Germany Leibniz-Institut für Molekulare Pharmakologie (FMP) and |
2007 | Zentrum für Molekulare Neurobiologie Hamburg (ZMNH), Universität Hamburg, D-20252 Hamburg, Germany, |
2006 | Zentrum für Molekulare Neurobiologie Hamburg, ZMNH, Universität Hamburg, Hamburg, Germany |
Prominent publications by Thomas J Jentsch
The ability of KCNQ (Kv7) channels to form hetero-oligomers is of high physiological importance, because heteromers of KCNQ3 with KCNQ2 or KCNQ5 underlie the neuronal M-current, which modulates neuronal excitability. In KCNQ channels, we recently identified a C-terminal subunit interaction (si) domain that determines their subunit-specific assembly. Within this si domain, there are two motifs that comprise approximately 30 amino acid residues each and that exhibit a high probability for ...
Known for Kcnq2 Kcnq3 | Channel Assembly | Structural Determinants | Amino Acid | Kcnq Potassium |
Using the pH-sensitive absorbance of 5 (and 6)-carboxy-4',5'- dimethylfluorescein, we investigated the regulation of cytoplasmic pH (pHi) in monkey kidney epithelial cells (BSC-1). In the absence of HCO3-, pHi is 7.15 +/- 0.1, which is not significantly different from pHi in 28 mM HCO3-, 5% CO2 (7.21 +/- 0.07). After an acid load, the cells regulate pHi in the absence of HCO3- by a Na+ (or Li+)-dependent, amiloride-inhibitable mechanism (indicative of Na+/H+ antiport). In 28 mM HCO3-, ...
Known for Epithelial Cells | Phi Regulation | Absence Hco3 | Mm Amiloride | Dids Sensitive |
Stretch–Activation of Angiotensin II Type 1a Receptors Contributes to the Myogenic Response of Mouse Mesenteric and Renal Arteries
[ PUBLICATION ]
RATIONALE: Vascular wall stretch is the major stimulus for the myogenic response of small arteries to pressure. The molecular mechanisms are elusive, but recent findings suggest that G protein-coupled receptors can elicit a stretch response.
OBJECTIVE: To determine whether angiotensin II type 1 receptors (AT1R) in vascular smooth muscle cells exert mechanosensitivity and identify the downstream ion channel mediators of myogenic vasoconstriction.
METHODS AND RESULTS: We used mice ...
Known for Myogenic Response | Type 1 | Knockout Myocytes | Trpc6 Channels | Arteries Mice |
Evidence for coupled transport of bicarbonate and sodium in cultured bovine corneal endothelial cells
[ PUBLICATION ]
Usin gintracellular microelectrode technique, the response of the voltageV across the plasma membrane of cultured bovine corneal endothelial cells to changes in sodium and bicarbonate concentrations was investigated. (1) The electrical response to changes in [HCO3−]o(depolarization upon lowering and hyperpolarization upon raising [HCO3−]o) was dependent on sodium. Lithium could fairly well be substituted for sodium, whereas potassium or choline were much less effective. (2) Removal of ...
Known for Sodium Bicarbonate | Corneal Endothelial | Membrane Cells | Cultured Bovine | Biological Transport |
Surface Expression and Single Channel Properties of KCNQ2/KCNQ3, M-type K+ Channels Involved in Epilepsy*
[ PUBLICATION ]
Mutations in either KCNQ2 or KCNQ3 underlie benign familial neonatal convulsions (BFNC), an inherited epilepsy. The corresponding proteins are co-expressed in broad regions of the brain and associate to heteromeric K(+) channels. These channels mediate M-type currents that regulate neuronal excitability. We investigated the basis for the increase in currents seen after co-expressing these subunits in Xenopus oocytes. Noise analysis and single channel recordings revealed a conductance of ...
Known for Surface Expression | Kcnq2 Kcnq3 | Potassium Channels | Single Channel | Neuronal Excitability |
A carboxy‐terminal domain determines the subunit specificity of KCNQ K+ channel assembly
[ PUBLICATION ]
Mutations in KCNQ K(+) channel genes underlie several human pathologies. KCNQ alpha-subunits form either homotetramers or hetero-oligomers with a restricted subset of other KCNQ alpha-subunits or with KCNE beta-subunits. KCNQ1 assembles with KCNE beta-subunits but not with other KCNQ alpha-subunits. By contrast, KCNQ3 interacts with KCNQ2, KCNQ4 and KCNQ5. Using a chimaeric strategy, we show that a cytoplasmic carboxy-terminal subunit interaction domain (sid) suffices to transfer ...
Known for Kcnq2 Kcnq3 | Channel Assembly | Subunit Specificity | Kcnq Potassium | Protein Structure |
Pathophysiological Mechanisms of Dominant and Recessive KvLQT1 K+ Channel Mutations Found in Inherited Cardiac Arrhythmias
[ PUBLICATION ]
The inherited long QT syndrome (LQTS), characterized by a prolonged QT interval in the electrocardiogram and cardiac arrhythmia, is caused by mutations in at least four different genes, three of which have been identified and encode cardiac ion channels. The most common form of LQTS is due to mutations in the potassium channel gene KVLQT1, but their effects on associated currents are still unknown. Different mutations in KVLQT1 cause the dominant Romano-Ward (RW) syndrome and the ...
Known for Inherited Cardiac Arrhythmias | Dominant Genes | Mutations Kvlqt1 | Potassium Channel | Molecular Dna |
Inhibition of KCNQ1‐4 potassium channels expressed in mammalian cells via M1 muscarinic acetylcholine receptors
[ PUBLICATION ]
1. KCNQ1-4 potassium channels were expressed in mammalian Chinese hamster ovary (CHO) cells stably transfected with M1 muscarinic acetylcholine receptors and currents were recorded using the whole-cell perforated patch technique and cell-attached patch recording. 2. Stimulation of M1 receptors by 10 microM oxotremorine-M (Oxo-M) strongly reduced (to 0-10%) currents produced by KCNQ1-4 subunits expressed individually and also those produced by KCNQ2 + KCNQ3 and KCNQ1 + KCNE1 heteromers, ...
Known for Potassium Channels | Mammalian Cells | Kcnq2 Kcnq3 | M1 Receptors | Muscarinic Stimulation |
The annual urinary screening of Japanese children above 3 yr of age has identified a progressive proximal renal tubular disorder characterized by low molecular weight proteinuria, hypercalciuria, and nephrocalcinosis. The disorder, which has a familial predisposition and occurs predominantly in males, has similarities to three X-linked proximal renal tubular disorders that are due to mutations in the renal chloride channel gene, CLCN5. We have investigated four unrelated Japanese ...
Known for Japanese Children | Chloride Channel | Clcn5 Mutations | Molecular Weight | Sequence Analysis |
Disrupting MLC1 and GlialCAM and ClC-2 interactions in leukodystrophy entails glial chloride channel dysfunction
[ PUBLICATION ]
Defects in the astrocytic membrane protein MLC1, the adhesion molecule GlialCAM or the chloride channel ClC-2 underlie human leukoencephalopathies. Whereas GlialCAM binds ClC-2 and MLC1, and modifies ClC-2 currents in vitro, no functional connections between MLC1 and ClC-2 are known. Here we investigate this by generating loss-of-function Glialcam and Mlc1 mouse models manifesting myelin vacuolization. We find that ClC-2 is unnecessary for MLC1 and GlialCAM localization in brain, whereas ...
Known for Mlc1 Clc2 | Chloride Channel | Membrane Proteins | Inbred C57bl Mice | Subcortical Cysts |
Myokymia and neonatal epilepsy caused by a mutation in the voltage sensor of the KCNQ2 K+ channel
[ PUBLICATION ]
KCNQ2 and KCNQ3 are two homologous K(+) channel subunits that can combine to form heterotetrameric channels with properties of neuronal M channels. Loss-of-function mutations in either subunit can lead to benign familial neonatal convulsions (BFNC), a generalized, idiopathic epilepsy of the newborn. We now describe a syndrome in which BFNC is followed later in life by myokymia, involuntary contractions of skeletal muscles. All affected members of the myokymia/BFNC family carried a ...
Known for Neonatal Epilepsy | Voltage Sensor | Kcnq2 Kcnq3 | Potassium Channels | Spinal Cord |
The KCNQ5 potassium channel mediates a component of the afterhyperpolarization current in mouse hippocampus
[ PUBLICATION ]
Mutations in KCNQ2 and KCNQ3 voltage-gated potassium channels lead to neonatal epilepsy as a consequence of their key role in regulating neuronal excitability. Previous studies in the brain have focused primarily on these KCNQ family members, which contribute to M-currents and afterhyperpolarization conductances in multiple brain areas. In contrast, the function of KCNQ5 (Kv7.5), which also displays widespread expression in the brain, is entirely unknown. Here, we developed mice that ...
Known for Potassium Channel | Kcnq2 Kcnq3 | Mouse Hippocampus | Mice Mice | Neuronal Excitability |
VRACs and other ion channels and transporters in the regulation of cell volume and beyond
[ PUBLICATION ]
Key PointsCells need to adjust their volume in response to external osmotic stress, but also during the execution of cellular functions. These adjustments include changes in metabolism, transepithelial transport, cell division, growth, migration and programmed cell death.Cell volume regulation uses the generation of osmotic gradients across the plasma membrane. These gradients drive water through the membrane, which is facilitated by specialized water channels.Short-term volume ...
Known for Cell Volume | Ion Channels | Organic Osmolytes | Transepithelial Transport | Plasma Membrane |
All eukaryotic CLC Cl(-) channel subunits possess a long cytoplasmic carboxy-terminus that contains two so-called CBS (cystathionine beta-synthase) domains. These domains are found in various unrelated proteins from all phylae. The crystal structure of the CBS domains of inosine monophosphate dehydrogenase (IMPDH) is known, but it is not known whether this structure is conserved in CLC channels. Working primarily with ClC-1, we used deletion scanning mutagenesis, coimmunoprecipitation ...
Known for Cbs Domains | Clc Channels | Common Gate | Crystal Structure | Unrelated Proteins |
Regulation of cytoplasmic pH of cultured bovine corneal endothelial cells in the absence and presence of bicarbonate
[ PUBLICATION ]
Intracellular pH (pHi) in confluent monolayers of cultured bovine corneal endothelial cells was determined using the pH-dependent absorbance of intracellularly trapped 5(and 6)carboxy-4′,5′-dimethylfluorescein. Steady-state pH was 7.05±0.1 in the nominal absence of bicarbonate, and 7.15±0.1 in the presence of 28mm HCO3−/5% CO2. Following an acid load imposed by a NH4Cl prepulse, pHi was regulated in the absence of HCO3− by a Na+-dependent process inhibitable to a large extent by 1mm ...
Known for Absence Presence | Endothelial Cells | Cultured Bovine | Acid Load | Confluent Monolayers |
Thomas J Jentsch: Influence Statistics
Concept | World rank |
---|---|
voltage reactions | #1 |
corneal indicators | #1 |
ceclc4 | #1 |
lrrc8a vrac currents | #1 |
clc3 clc7 | #1 |
protopores addition | #1 |
equivalent mutations clc0 | #1 |
gabainduced hyperpolarization | #1 |
recordings cellattached patches | #1 |
membranepotential stability block | #1 |
kv73 kv75 channels | #1 |
domain kcnq3 | #1 |
pathophysiology personal description | #1 |
clcn3unc unc mice | #1 |
torpedo clc | #1 |
mild neurologic dysfunction | #1 |
lrrc8ae vrac | #1 |
cation counterflux | #1 |
ncl lipofuscinoses phenotype | #1 |
delta anion | #1 |
ion permeationchanging mutations | #1 |
clcn3unc | #1 |
heteromeric potassium channels | #1 |
activation at1r subtype | #1 |
interaction sites clc7 | #1 |
volume regulation domains | #1 |
i29om | #1 |
vno ca2 | #1 |
quinacrine saccharomyces saccharomyces | #1 |
clc5 proteins xenopus | #1 |
v236l | #1 |
domains unrelated proteins | #1 |
identical conductance levels | #1 |
renal endosomes mice | #1 |
situation developmental effects | #1 |
endolysosomes luminal concentration | #1 |
blindness leukodystrophy | #1 |
kcnq subunits inhibition | #1 |
28 mm hco3 | #1 |
mice clcn7 | #1 |
vrac permeation gating | #1 |
model bicarbonate | #1 |
desorption rate combination | #1 |
extracellular loop vracs | #1 |
clck crnas | #1 |
cterminal cbs domains | #1 |
popenslowv | #1 |
unknown function5 | #1 |
glu200ala | #1 |
signal transduction56 | #1 |
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Key People For Chloride Channels
Thomas J Jentsch:Expert Impact
Concepts for whichThomas J Jentschhas direct influence:Chloride channels, Chloride channel, Cbs domains, Clc proteins, Potassium channel.
Thomas J Jentsch:KOL impact
Concepts related to the work of other authors for whichfor which Thomas J Jentsch has influence:Ion channels, Chloride channel, Skeletal muscle, Hair cells, Plasma membrane, Dent disease, Cystic fibrosis.
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