GLP-002-TIRZ

GLP-002-TIRZ

$180.00 – $420.00

Tirzepatide is a dual agonist peptide that targets both the glucose-dependent insulinotropic polypeptide (GIP) and glucagon-like peptide-1 (GLP-1) receptors. This novel mechanism has positioned Tirzepatide as a unique tool in metabolic research, particularly in the study of insulin sensitivity, glycemic control, and weight regulation. By mimicking the effects of two incretin hormones, Tirzepatide has been shown in preclinical studies to enhance insulin secretion, suppress glucagon levels, and reduce food intake.

Its extended half-life and receptor-binding affinity allow for once-weekly dosing in clinical settings, which translates into stable and sustained effects in experimental models. Tirzepatide is being actively studied in laboratory settings to better understand the interplay between GIP/GLP-1 receptor signaling and various metabolic pathways.

As research interest grows in multi-incretin receptor agonists, Tirzepatide provides an important tool for scientists investigating obesity, type 2 diabetes, and metabolic syndrome. Its dual mechanism offers valuable insights into how combinational peptide strategies may influence long-term energy homeostasis.

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Description

Tirzepatide is a synthetic peptide that functions as a dual agonist of GIP (glucose-dependent insulinotropic polypeptide) and GLP-1 (glucagon-like peptide-1) receptors. These incretin hormones are key regulators of insulin secretion and appetite, and Tirzepatide’s ability to stimulate both pathways offers an advanced approach in metabolic research.

Developed through a combination of structural peptide engineering and sequence optimization, Tirzepatide exhibits enhanced receptor selectivity and pharmacokinetics, including a prolonged half-life that allows for sustained activity in vivo. Its GIP receptor agonism complements GLP-1 activity, potentially leading to synergistic effects on insulin secretion, glucose regulation, and weight modulation.

In laboratory studies, Tirzepatide has been used to explore the mechanisms by which dual-incretin modulation affects metabolic health. Researchers have reported significant effects on fasting glucose levels, improved insulin sensitivity, and reduced food intake in rodent models of obesity and insulin resistance. Additionally, the peptide has been shown to influence lipid metabolism, hepatic fat accumulation, and inflammatory markers, suggesting systemic metabolic improvements.

Of particular interest is Tirzepatide’s ability to reduce body weight independently of calorie restriction. Studies show it activates appetite-suppressing pathways in the hypothalamus, while its effects on delayed gastric emptying further enhance satiety. Researchers continue to examine these central and peripheral mechanisms to better understand the multifactorial impact of this dual-incretin agent.

Beyond glycemic control and appetite regulation, Tirzepatide is also being evaluated in models of cardiovascular function, neuroinflammation, and liver health. Early evidence suggests beneficial effects on arterial stiffness, systemic oxidative stress, and hepatic steatosis, making it a promising peptide for comprehensive metabolic research.

Due to its dual action, Tirzepatide is also valuable in comparative studies with mono-incretin agonists like Semaglutide. These studies help delineate the added value of GIP receptor activity and reveal the interplay between multiple endocrine pathways.

Note: This compound is intended for laboratory research only and is not for human use.

Product Data

  • Chemical Name: Tirzepatide (GIP/GLP-1 receptor agonist)
  • CAS Number: 2023788-19-2
  • Molecular Formula: C225H348N48O68
  • Molecular Weight: 4813.5 g/mol

Research

Tirzepatide’s dual-incretin action has made it a key candidate in cutting-edge metabolic research. By targeting both GIP and GLP-1 receptors, Tirzepatide combines the insulinotropic, satiety-inducing, and gastric-emptying properties of GLP-1 agonists with the complementary actions of GIP, which is thought to play a role in enhancing insulin secretion and fat metabolism.

Preclinical studies have demonstrated that Tirzepatide significantly lowers blood glucose and improves insulin sensitivity in animal models of type 2 diabetes. It enhances beta-cell function, suppresses glucagon, and maintains euglycemia more effectively than GLP-1 mono-agonists alone. These properties are especially useful in long-term studies of glucose homeostasis and insulin dynamics.

In rodent obesity models, Tirzepatide has shown to reduce food intake and induce weight loss, both through central appetite regulation and delayed gastric emptying. It appears to stimulate POMC/CART-expressing neurons while suppressing NPY/AgRP pathways, providing insight into how the central nervous system governs feeding behavior in response to incretin signaling.

Another area of interest is the compound’s impact on lipid metabolism. Tirzepatide has been shown to reduce hepatic steatosis and circulating triglycerides in obese mice. These effects have prompted research into its use in non-alcoholic fatty liver disease (NAFLD) models, where metabolic dysfunction intersects with liver pathology.

Researchers are also exploring Tirzepatide’s potential in cardiovascular research. Preclinical models show reductions in markers of inflammation, arterial plaque buildup, and oxidative stress. Its favorable effects on endothelial function and lipid profiles further support its use in studies of cardiometabolic disease.

In neurobiology, there is emerging interest in how dual-incretin agonists like Tirzepatide may impact brain health. Animal studies have begun to evaluate its neuroprotective potential, particularly regarding cognitive decline, neuroinflammation, and amyloid aggregation.

Finally, Tirzepatide is frequently used in comparative research, often studied alongside GLP-1-only agonists like Semaglutide. These head-to-head studies are instrumental in identifying the added mechanistic value of GIP receptor activation and further refining our understanding of incretin biology.

Tirzepatide offers researchers a powerful tool for investigating the multifactorial mechanisms of metabolic disorders, making it a cornerstone in advanced endocrinology and metabolic research.

Strictly for research purposes only. Not approved for human or veterinary use.

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