Multi-Limbed Membrane Guanylate Cyclase Cellular Signaling Pathways

31.9K

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53

authors

14

articles

Multi-Limbed Membrane Guanylate Cyclase Cellular Signaling Pathways

31.9K

views

53

authors

14

articles

Editorial

12 April 2023

Editorial: Multi-limbed membrane guanylate cyclase cellular signaling pathways

Rameshwar K. Sharma

,

Kailash N. Pandey

,

Teresa Duda

and

Clint L. Makino

810 views

0 citations

Editors

4

Rameshwar K Sharma

Salus University

Salus University

Department of Physiology and Biophysics, School of Medicine, Boston University

Kailash N Pandey

Tulane University

Impact

About

This Research Topic follows on from Ca2+ and Ca2+-interlocked Membrane Guanylate Cyclase Modulation of Neuronal and Cardiovascular Signal Transduction

Membrane guanylate cyclase signaling is critical for the vitality of lowly, single-celled organisms as well as highly complex vertebrates. In mammals, encoded by seven distinct genes, seven different forms regulate multi-limbed functions. For the most part, these enzymes are receptors that detect hormones and other extracellular chemicals, translate a signal across their plasma membrane domains, and by way of their second messenger, cyclic GMP, regulate an intracellular pathway to impact physiology. This manner of cellular signaling was originally observed in the ACTH-modulated pathway, linking the pituitary, the smallest organ in the brain, with the cells of the zona fasciculata of the adrenal cortex, to mediate the process of steroidogenesis. With this, a new dawn arose wherein the hormone-dependent membrane guanylate cyclase signaling system was established; cyclic GMP and Ca2+ were recognized as its co-messengers. Sequentially, other similar signaling networks were discovered. Besides steroidogenesis, they control the physiology of the cardiovasculature, the intestine, nerve, and skeletal growth and sensory systems: vision, hearing, taste, smell, pain, and temperature. There is a dark side; membrane guanylate cyclase is autonomous in some types of growing tumors; in adrenocortical carcinoma, it is linked with Cushing syndrome causing the imbalance of cortisol production. Uniquely designed, all forms are single-pass transmembrane proteins, embedded with an extracellular, transmembrane, catalytic regulatory module, and catalytic core domains.

The goal of this Research Topic is to gain a greater understanding of the structure and molecular mechanics of membrane guanylate cyclases and their physiological roles in the body.

We hope to cover a wide spectrum of topics, ranging from:
• The evolutionary origins of membrane guanylate cyclases and their isoforms,
• Molecular structure
• Regulatory mechanisms by calcium, bicarbonate, and other molecules
• Signaling pathways that include targets such as protein kinase G, cyclic-nucleotide-gated ion channels, phosphodiesterases, and their interplay with soluble guanylate cyclase
• Physiological and pathological roles of membrane guanylate cyclases in development (skeletal growth, axonal bifurcation), in sensory systems (vision, hearing, taste, pain, temperature), in cardiovascular function, in intestinal function and in cancer.
Membrane guanylate cyclases have been targeted by the pharmaceutical industry and we want to include some of the latest developments.

All types of manuscripts are welcome.

This Research Topic follows on from Ca2+ and Ca2+-interlocked Membrane Guanylate Cyclase Modulation of Neuronal and Cardiovascular Signal Transduction

Membrane guanylate cyclase signaling is critical for the vitality of lowly, single-celled organisms as well as highly complex vertebrates. In mammals, encoded by seven distinct genes, seven different forms regulate multi-limbed functions. For the most part, these enzymes are receptors that detect hormones and other extracellular chemicals, translate a signal across their plasma membrane domains, and by way of their second messenger, cyclic GMP, regulate an intracellular pathway to impact physiology. This manner of cellular signaling was originally observed in the ACTH-modulated pathway, linking the pituitary, the smallest organ in the brain, with the cells of the zona fasciculata of the adrenal cortex, to mediate the process of steroidogenesis. With this, a new dawn arose wherein the hormone-dependent membrane guanylate cyclase signaling system was established; cyclic GMP and Ca2+ were recognized as its co-messengers. Sequentially, other similar signaling networks were discovered. Besides steroidogenesis, they control the physiology of the cardiovasculature, the intestine, nerve, and skeletal growth and sensory systems: vision, hearing, taste, smell, pain, and temperature. There is a dark side; membrane guanylate cyclase is autonomous in some types of growing tumors; in adrenocortical carcinoma, it is linked with Cushing syndrome causing the imbalance of cortisol production. Uniquely designed, all forms are single-pass transmembrane proteins, embedded with an extracellular, transmembrane, catalytic regulatory module, and catalytic core domains.

The goal of this Research Topic is to gain a greater understanding of the structure and molecular mechanics of membrane guanylate cyclases and their physiological roles in the body.

We hope to cover a wide spectrum of topics, ranging from:
• The evolutionary origins of membrane guanylate cyclases and their isoforms,
• Molecular structure
• Regulatory mechanisms by calcium, bicarbonate, and other molecules
• Signaling pathways that include targets such as protein kinase G, cyclic-nucleotide-gated ion channels, phosphodiesterases, and their interplay with soluble guanylate cyclase
• Physiological and pathological roles of membrane guanylate cyclases in development (skeletal growth, axonal bifurcation), in sensory systems (vision, hearing, taste, pain, temperature), in cardiovascular function, in intestinal function and in cancer.
Membrane guanylate cyclases have been targeted by the pharmaceutical industry and we want to include some of the latest developments.

All types of manuscripts are welcome.

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Editors

Rameshwar K Sharma

Salus University

Salus University

Department of Physiology and Biophysics, School of Medicine, Boston University

Kailash N Pandey

Tulane University

Impact

31,898 Total views

25,117 Article views

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Frontiers in Molecular Neuroscience

Molecular Signalling and Pathways

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