Superdrol 25mg

Price range: $20.00 through $35.00

Chemical Information and Molecular Architecture

To truly understand how Superdrol 25mg behaves in laboratory assays, chromatographic analysis, and experimental models, one must examine the intricate molecular architecture of methasterone.

Molecular Specifications of Methasterone

  • Chemical Name: 2alpha,17alpha-dimethyl-5alpha-androstan-3-one-17beta-ol
  • Base Chemical Formula: C20H32O2
  • Molecular Weight: 304.47 g/mol
  • Core Structure: Methasterone is a structurally altered derivative of drostanolone (masteron). It differs from drostanolone by the addition of a methyl group at the 17th carbon position (C17-alpha alkylation). This gives it two primary chemical modifications:
    1. Addition of a 2-alpha methyl group: This specific structural alteration at the A-ring prevents the hormone from being metabolized by 3-alpha hydroxysteroid dehydrogenase enzymes in skeletal muscle tissue, significantly enhancing its anabolic potency.
    2. C17-alpha methylation: The addition of a methyl group at the 17th carbon position protects the hormone from immediate breakdown, allowing it to survive oral ingestion (though in Superdrol 25mg, this methylation remains part of the molecule’s core structure and influences its overall metabolic pathway).

Receptor Interactions and Pharmacodynamics

Methasterone exhibits an exceptionally high binding affinity for the classical androgen receptor (AR)—surpassing even that of testosterone in many receptor binding assays. This high binding affinity mediates profound anabolic signaling.

Crucially, methasterone does not aromatize into estrogen, as it lacks the necessary structural pathways to interact with the aromatase enzyme. Consequently, researchers utilizing Superdrol 25mg in experimental models do not observe estrogenic conversion or water retention, making it a pristine subject for studying dry, non-aromatizing anabolic pathways and nitrogen retention. However, because of its C17-alpha alkylation, studying its hepatic interaction remains a primary focus of modern biochemical and toxicological research.