Tesamorelin is a synthetic 44-amino-acid peptide analogue of human Growth Hormone Releasing Hormone (GHRH), modified with a trans-3-hexenoyl fatty acid moiety at its N-terminal tyrosine. This structural modification endows Tesamorelin with unprecedented enzymatic stability, rendering it the most potent GHRH analogue currently available for research.
When biomedical laboratories buy Tesamorelin, its primary research value centers on visceral adipose tissue reduction, lipid metabolism modulation, and enhanced somatotropic signaling.
Trans-Hexenoyl Modification: Why Tesamorelin Outperforms Native GHRH
Tesamorelin addresses this vulnerability:
– The attachment of a trans-3-hexenoyl fatty group to Tyrosine-1 creates steric shielding that prevents N-terminal enzymatic cleavage.
– It exhibits an enzymatic half-life substantially longer than native GHRH, sustaining robust pulsatile GH secretion.
– In cellular and animal models, Tesamorelin preferentially mobilizes visceral adipose tissue (VAT) lipid stores compared to subcutaneous fat.
🧭 Endocrine Pathway: Buy Tesamorelin
Chemical Profile of Research Tesamorelin
| Parameter | Analytical Value |
|---|---|
| Amino Acid Length | 44 Amino Acids + trans-3-hexenoyl group |
| Molecular Formula | C221H366N72O67S |
| Molecular Weight | 5135.9 g/mol |
| Target Receptors | Pituitary GHRH Receptor |
| Recommended Purity | ≥ 99.0% by RP-HPLC |
Storage and Reconstitution Protocols
Frequently Asked Questions
❓ Why is Tesamorelin specifically associated with visceral fat research?
Preclinical studies show that Tesamorelin-induced GH pulses selectively upregulate beta-3 adrenergic receptors in deep visceral adipose tissue.
❓ How does Tesamorelin compare to CJC 1295?
CJC 1295 is based on a truncated GHRH (1-29) backbone, whereas Tesamorelin utilizes the full 44-amino-acid native sequence with a specialized trans-hexenoyl N-terminal cap.
❓ Where can I read about peptide quality standards?
Check our guide on Purity Standards & COA Verification.