Guanylate cyclase c agonist

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a brief introduction The guanylate cyclase-C (GC-C) receptor and its related signaling pathways were first discovered in the 1970s as the intestinal receptor for exogenous diarrhoeagenic bacterial heat-stable enterotoxins (STs),1 2. They now contribute to the maintenance of normal GI tract physiological function. Indeed, the endogenous intestinal paracrine hormones uroguanylin and guanylin activate the GC-C receptor, which is essential for fluid and ion homeostasis, intestinal barrier maintenance, inflammation inhibition, visceral pain signaling, and tumorigenesis. (3–13) In this sense, GC-C signaling pathway disruptions have been linked to a variety of GI disorders, including IBD and colorectal cancers (CRCs), and genetic mutations that cause loss or gain of function in this receptor have been linked to constipation or diarrhoea, respectively. 10 13–20 years
The GC-C signaling axis’ biology
Homeostasis of fluid and electrolytes
The catalytic domain of GC-C is activated when an agonist binds to its extracellular domain, resulting in the conversion of guanosine triphosphate to cyclic GMP (cGMP) (figure 4A).
41 Phosphodiesterases, protein kinases, and ion channels are among the effector proteins that cGMP targets. 41 These mediators stimulate CFTR channels after cGMP activates protein kinase G II and cross-activates protein kinase A, resulting in Cl and HCO3 efflux.

Pronunciation of the word(s) “guanylate cyclase”.

The gastrointestinal hormones guanylin and uroguanylin, as well as bacterial heat-stable enterotoxins, target the receptor guanylyl cyclase C (GC-C). The gastrointestinal tract is the primary site of GC-C expression, but this receptor and its ligands are also involved in ion secretion in other tissues. The domain organization of GC-C is similar to that of other members of the receptor guanylyl cyclase family, though minor variations highlight some of GC-unique C’s features. Gene knockouts for GC-C or its ligands in mice do not cause embryonic death, but they do affect the mice’s responses to stable toxin peptides, salt consumption, and the growth and differentiation of intestinal cells. There is obviously much more to learn about the function of this evolutionarily conserved receptor and its properties in intestinal and extra-intestinal tissues in the future.

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Guanylate cyclase 2C, also known as guanylyl cyclase C (GC-C), intestinal guanylate cyclase, guanylate cyclase-C receptor, or heat-stable enterotoxin receptor (hSTAR), is an enzyme encoded by the GUCY2C gene in humans.

Guanylate cyclase-c agonists for ibs-c


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[6] Guanylyl cyclase is a brain enzyme present in dopamine neurons and the luminal aspect of intestinal epithelial cells.

How to pronounce guanylate

[nine] An extracellular ligand-binding domain, a single transmembrane region, a region with a protein kinase-like sequence, and a C-terminal guanylate cyclase domain make up the receptor. The GC-C signaling pathway is mediated by tyrosine kinase activity within the cell.
A primary receptor for heat-stable enterotoxins that cause acute secretory diarrhea is GC-C.
[eight] Pathogens like Escherichia coli develop heat-stable enterotoxins. When infected with E. coli, knockout mice deficient in the GC-C gene do not develop secretory diarrhea, but they do when infected with cholera toxin. This shows the GC-C receptor’s specificity.

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Over the last two decades, our understanding of cellular processes controlled by the GC-C/cGMP pathway has progressed significantly. Importantly, this expertise has aided in the creation of novel therapeutic paradigms that target the GC-C/cGMP pathway and have been effective in clinical trials.
The peptide’s potent pharmacological effects in non-clinical models provided the basis for its discovery as a novel therapeutic for functional GI disorders associated with constipation, such as chronic idiopathic constipation (CIC) and irritable bowel syndrome with constipation (IBS-C). However, no previous studies had linked intestinal GC-C pathway activation to the control of abdominal pain.
The defining symptom of the diagnostic criteria for IBS is abdominal pain or irritation (associated with a shift in bowel function), which is believed to be triggered by the colon’s hypersensitivity to mechanical stimuli (Drossman, 2006; Tack et al., 2006; Videlock and Chang, 2007). IBS patients have been shown to have lower colorectal pain levels and higher sensory scores in clinical trials, which is consistent with persistently improved perception and responsiveness to visceral stimuli (= visceral hyperalgesia; Mertz et al., 1995; Bouin et al., 2002).