IGF-1 DES Peptide

$54.00

High-purity IGF-1 DES (Des(1-3) Insulin-Like Growth Factor-1), a truncated 67-amino-acid analog lacking the N-terminal Gly-Pro-Glu tripeptide, supports advanced pre-clinical investigations into localized IGF-1 receptor activation, satellite cell proliferation, and site-specific muscle hyperplasia. Investigators utilize this compound to examine dramatically reduced IGFBP affinity, ultra-short plasma half-life, and enhanced potency for targeted anabolic effects in muscle injury and overload models. National Science Labs provides IGF-1 DES exclusively for laboratory research exploring localized regenerative signaling, myoblast responses, and tissue-specific IGF-1 pathway modulation in controlled experimental settings. For Research Use Only. Not for human use.

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For Research Use Only — Not for Human Consumption
 

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Researchers apply IGF-1 DES to investigate its structural truncation that eliminates nearly all binding to IGF-binding proteins, resulting in ultra-short systemic half-life (~10–20 minutes) and highly localized action when administered intramuscularly or subcutaneously near target tissue. Pre-clinical observations in rodent unilateral injection models indicate potent induction of satellite cell activation, myoblast proliferation, and true muscle hyperplasia (new fiber formation) at the injection site with minimal contralateral or systemic spillover.

This analog facilitates precise examination of site-specific IGF-1R signaling, enhanced anabolic potency, and regenerative dynamics without the prolonged exposure profile of longer-acting IGF-1 variants.

Scientific Overview of IGF-1 DES Applications

Pre-clinical models highlight IGF-1 DES’s enhanced local receptor engagement:

  • Reduced affinity for IGFBPs and 10–20× increased potency at the IGF-1 receptor, enabling rapid, targeted activation of downstream pathways in muscle tissue.
  • Promotion of satellite cell proliferation and myoblast fusion, leading to increased muscle cross-sectional area (30–50%) at injection sites in overload and injury rodent models.
  • Induction of true muscle hyperplasia through localized stimulation of new fiber formation, distinct from hypertrophy-dominant effects of systemic IGF-1 isoforms.
  • Support for investigations into unilateral muscle growth studies, with minimal systemic exposure ideal for contralateral control comparisons.
  • Enhancement of glucose and fatty acid uptake in muscle cells, contributing to metabolic and anabolic research contexts.
  • Examination of tissue-specific regenerative potential in sarcopenia, muscular dystrophy, and localized injury models.

For additional context on truncated IGF-1 analogs, localized receptor signaling, and muscle regeneration pathways in pre-clinical research, refer to the Peptide Sciences or About Peptides sections.

Why Investigators Select National Science Labs IGF-1 DES

National Science Labs manufactures IGF-1 DES under stringent GMP-compliant protocols to ensure batch-to-batch consistency and reliability for pre-clinical experiments. Independent third-party testing verifies each lot for:

  • Purity ≥99.9% by HPLC and MS
  • Structural identity confirmation via mass spectrometry (67-amino-acid truncated sequence)
  • Complete Certificate of Analysis (CoA) documentation provided per batch

For Research Use Only. This product is supplied exclusively for in vitro and in vivo pre-clinical research by qualified investigators. Statements about this peptide have not been evaluated by the FDA.

Initiate Your IGF-1 DES Research Protocol

Source high-purity IGF-1 DES from current limited batches to ensure optimal stability and performance in localized muscle hyperplasia and regenerative signaling studies.

Additional information

Weight.125 lbs
Dimensions9 × 7 × .5 in
Size

70mg, 80mg

Keep lyophilized peptides sealed in their original vial, protected from light and humidity, and store at -4°F or colder for optimal long-term stability in research settings; short-term refrigeration at around 39°F suffices for immediate use within weeks, though freezer storage maximizes integrity across extended research timelines.