Components of the mitochondrial cAMP signalosome

Components of the mitochondrial cAMP signalosome

3′-5′-Cyclic adenosine monophosphate/protein kinase A (cAMP/PKA) signalling is activated by different extracellular stimuli and mediates many diverse processes within the same cell. It is now well established that in order to translate into the appropriate cellular function multiple extracellular in...

Bibliografske podrobnosti
Main Authors:	Monterisi, S, Zaccolo, M
Format:	Journal article
Izdano:	Portland Press 2017

Podobne knjige/članki

Local modulation of cystic fibrosis conductance regulator: cytoskeleton and compartmentalized cAMP signalling.
od: Monterisi, S, et al.
Izdano: (2013)

A toolkit for real-time detection of cAMP: insights into compartmentalized signaling.
od: Berrera, M, et al.
Izdano: (2008)

Microdomains of cAMP in heart cells
od: Zaccolo, M
Izdano: (2002)

cAMP signaling in subcellular compartments.
od: Lefkimmiatis, K, et al.
Izdano: (2014)

cAMP‐phosphodiesterase 4D7 (PDE4D7) forms a cAMP signalosome complex with DHX9 and is implicated in prostate cancer progression
od: Chloe Gulliver, et al.
Izdano: (2024-03-01)

Phosphodiesterases and compartmentalized cAMP signalling in the heart.
od: Zaccolo, M
Izdano: (2006)

Activation of PKA in cell requires higher concentration of cAMP than in vitro: implications for compartmentalization of cAMP signalling
od: Koschinski, A, et al.
Izdano: (2017)

Spatial control of cAMP signalling in health and disease.
od: Zaccolo, M
Izdano: (2011)

Imaging cAMP nanodomains in the heart
od: Chao, Y, et al.
Izdano: (2019)

Compartmentalisation of cAMP and Ca(2+) signals.
od: Zaccolo, M, et al.
Izdano: (2002)

Compartmentalised cAMP signalling in the primary cilium
od: Ester Paolocci, et al.
Izdano: (2023-05-01)

Subcellular organisation of the cAMP signalling pathway
od: Zaccolo, M, et al.
Izdano: (2020)

Using cAMP sensors to study cardiac nanodomains
od: Schleicher, K, et al.
Izdano: (2018)

Using cAMP Sensors to Study Cardiac Nanodomains
od: Katharina Schleicher, et al.
Izdano: (2018-03-01)

CFTR regulation in human airway epithelial cells requires integrity of the actin cytoskeleton and compartmentalized cAMP and PKA activity.
od: Monterisi, S, et al.
Izdano: (2012)

Phosphodiesterases and subcellular compartmentalized cAMP signaling in the cardiovascular system.
od: Stangherlin, A, et al.
Izdano: (2012)

cAMP signalling meets mitochondrial compartments.
od: Lefkimmiatis, K
Izdano: (2014)

cAMP Compartmentalisation in Human Myometrial Cells
od: Alice Varley, et al.
Izdano: (2023-02-01)

Molecular basis of the allosteric mechanism of cAMP in the regulatory PKA subunit.
od: Pantano, S, et al.
Izdano: (2005)

cAMP: From long-range second messenger to nanodomain signalling
od: Musheshe, N, et al.
Izdano: (2017)

Compartmentalized cAMP/PKA signalling regulates cardiac excitation-contraction coupling.
od: Lissandron, V, et al.
Izdano: (2006)

cAMP and cGMP signaling cross-talk: role of phosphodiesterases and implications for cardiac pathophysiology.
od: Zaccolo, M, et al.
Izdano: (2007)

Imaging the cAMP-dependent signal transduction pathway
od: Zaccolo, M, et al.
Izdano: (2005)

Imaging the cAMP-dependent signal transduction pathway.
od: Zaccolo, M, et al.
Izdano: (2005)

Discrete microdomains with high concentration of cAMP in stimulated rat neonatal cardiac myocytes.
od: Zaccolo, M, et al.
Izdano: (2002)

cAMP signal transduction in the heart: understanding spatial control for the development of novel therapeutic strategies.
od: Zaccolo, M
Izdano: (2009)

Detecting cAMP-induced Epac activation by fluorescence resonance energy transfer: Epac as a novel cAMP indicator.
od: Ponsioen, B, et al.
Izdano: (2004)

Whole-cell cAMP and PKA activity are epiphenomena, nanodomain signaling matters
od: Bers, DM, et al.
Izdano: (2019)

PKA and PDE4D3 anchoring to AKAP9 provides distinct regulation of cAMP signals at the centrosome.
od: Terrin, A, et al.
Izdano: (2012)

Correctors of mutant CFTR enhance subcortical cAMP–PKA signaling through modulating ezrin phosphorylation and cytoskeleton organization
od: Abbattiscianni, AC, et al.
Izdano: (2016)

Measuring dynamic changes in cAMP using fluorescence resonance energy transfer.
od: Evellin, S, et al.
Izdano: (2004)

Targeting FRET-based reporters for cAMP and PKA activity using AKAP79
od: Zaccolo, M, et al.
Izdano: (2018)

Cell entry and cAMP imaging of anthrax edema toxin.
od: Dal Molin, F, et al.
Izdano: (2006)

cGMP-cAMP interplay in cardiac myocytes: a local affair with far-reaching consequences for heart function.
od: Stangherlin, A, et al.
Izdano: (2012)

Cardiomyocyte membrane structure and cAMP compartmentation produce anatomical variation in β2AR-cAMP responsiveness in murine hearts
od: Wright, PT, et al.
Izdano: (2018)

Multiple Facets of cAMP Signalling and Physiological Impact: cAMP Compartmentalization in the Lung
od: Martina Schmidt, et al.
Izdano: (2012-11-01)

Sustained exposure to catecholamines affects cAMP/PKA compartmentalised signalling in adult rat ventricular myocytes
od: Fields, L, et al.
Izdano: (2015)

Odorant receptors at the growth cone are coupled to localized cAMP and Ca2+ increases.
od: Maritan, M, et al.
Izdano: (2009)

Targeting FRET-Based Reporters for cAMP and PKA Activity Using AKAP79
od: Nshunge Musheshe, et al.
Izdano: (2018-07-01)

Cardiomyocyte Membrane Structure and cAMP Compartmentation Produce Anatomical Variation in β2AR-cAMP Responsiveness in Murine Hearts
od: Peter T. Wright, et al.
Izdano: (2018-04-01)