Semax

Neuroprotection & Cognitive Research

$39.00

Out of stock

Product Description

Semax is a synthetic analogue of the adrenocorticotropic hormone fragment ACTH(4–10), engineered to enhance stability and biological persistence for laboratory research applications. In the scientific literature, Semax has been studied extensively—particularly in Russia and Eastern Europe—for its involvement in neuroprotective signaling, neurotrophic regulation, and cognitive-related pathways.

Researchers investigate Semax to explore brain-derived neurotrophic factor (BDNF) regulation, monoaminergic signaling (dopaminergic and serotonergic pathways), neuroplasticity, and cellular response to ischemic stress in controlled experimental models. Its documented ability to cross the blood–brain barrier makes it a valuable tool for studying central nervous system signaling mechanisms related to learning, memory, and neural resilience.

This compound is not intended for human or animal use, and is not designed for therapeutic, diagnostic, or clinical applications. All use must remain strictly within qualified research settings.

Important Notice

For research purposes only. Not for human or animal use & not FDA-approved.
By purchasing, you confirm you are 21 years of age or older and a qualified researcher.

  • Stable ACTH(4–10) analogue engineered for resistance to enzymatic degradation

  • Referenced for neurotrophic pathway research, including BDNF-related signaling

  • Relevant across multiple CNS research domains, including ischemia and neuroinflammation

  • Minimal endocrine activity compared to full-length ACTH in research models

  • High purity (≥98%) to support reproducible experimental outcomes

  • Batch verified for identity, purity, and structural integrity

Neuroprotection & Ischemic Stress Response

Semax is studied for its interaction with neuronal survival pathways and cerebral blood flow regulation, supporting research into cellular response mechanisms following ischemic or hypoxic stress in experimental models.

Cognition, Learning & Memory Pathways

Research investigates how Semax may influence BDNF expression and synaptic plasticity-related signaling, contributing to studies of learning and memory mechanisms in preclinical settings.

Neuroinflammatory & Genomic Regulation

Experimental studies examine Semax-associated gene expression modulation related to neurodegenerative and inflammatory signaling pathways, providing insight into CNS stress responses.

Monoaminergic & Stress-Related Signaling

Semax is also examined for its interaction with dopaminergic and serotonergic systems, contributing to broader investigations into neurochemical signaling and stress-related pathways.