Aicar 50mg By Dragon Pharma

Dragon Pharma Original Formula

Acadesine (AICAR)

AICAR 50mgNucleoside Analogue
Class Nucleoside Analogue / AMPK Activator
Mechanism ZMP → Direct AMPK Activation
Primary Effect Endurance / Fat Oxidation
Suppression None (HPG)
Reconstitution Bacteriostatic Water
Form Subcutaneous Vial
Availability: In Stock
$65.00
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AICAR 50mg — Acadesine Nucleoside AMPK Activator by Dragon Pharma

AICAR (5-aminoimidazole-4-carboxamide ribonucleotide, Acadesine) is Dragon Pharma's formulation of the nucleoside analogue AMPK activator at 50mg per vial — a compound banned by WADA in 2011 precisely because its use in elite endurance sport was documented and its performance-enhancing mechanism is real. AICAR is not a peptide, not a SARM, and not a growth factor — it is a nucleoside analogue that enters cells and is phosphorylated to ZMP, which directly activates AMPK (AMP-activated protein kinase), the master cellular energy sensor that drives endurance adaptation, fat oxidation and mitochondrial biogenesis.

Also searched as: AICAR 50mg, Acadesine, AICAR AMPK, AICAR endurance, Acadesine Dragon Pharma.

What AICAR Is — Nucleoside Analogue, Not a Peptide

AICAR's chemical class is important for understanding how it works:

  • AICAR (5-aminoimidazole-4-carboxamide-1-β-D-ribofuranoside) is a nucleoside analogue — a synthetic compound structurally related to adenosine, one of the four nucleoside building blocks of RNA and DNA
  • It is not a peptide (no amino acid chain), not a steroid (no steroidal ring structure), not a SARM (no androgen receptor binding) and not a growth factor (no receptor for growth signalling)
  • AICAR was originally developed as a cardioprotective agent for use during cardiac surgery — it was studied for its ability to protect heart tissue during ischemia (oxygen deprivation). Its AMPK-activating properties and metabolic effects were discovered as researchers explored its mechanism more deeply
  • The compound gained attention in endurance sport when Bahr et al. and subsequent researchers demonstrated that AICAR administration in sedentary animals produced endurance adaptations similar to aerobic exercise training — without the training itself

The ZMP Mechanism — How AICAR Activates AMPK

The specific intracellular mechanism distinguishes AICAR from other AMPK activators:

  • After injection, AICAR enters cells via adenosine transporters — the same membrane transporters that move adenosine across the cell membrane
  • Inside the cell, AICAR is phosphorylated by adenosine kinase to form ZMP (5-aminoimidazole-4-carboxamide ribonucleotide monophosphate) — which accumulates intracellularly
  • ZMP is a structural analogue of AMP (adenosine monophosphate) — it binds the AMP-sensing domain of AMPK and mimics the "low energy" signal that AMP itself sends when cellular energy charge is depleted (e.g. during intense exercise)
  • This AMPK activation then triggers the full suite of downstream metabolic adaptations: increased fatty acid oxidation (more fat burned for energy), increased glucose uptake in muscle (GLUT-4 translocation), decreased gluconeogenesis in liver, mitochondrial biogenesis, and upregulation of genes involved in oxidative phosphorylation
  • The key distinction from indirect AMPK activators: ZMP activates AMPK directly at the allosteric site — a more direct mechanism than compounds like metformin which activate AMPK indirectly through inhibition of Complex I of the mitochondrial electron transport chain

The WADA Ban — Why Elite Sport Banned AICAR in 2011

AICAR's anti-doping status reflects its documented real-world performance-enhancing use:

  • WADA added AICAR (and GW501516/Cardarine) to the Prohibited List in 2011 under the category of "metabolic modulators" — a new category created specifically to address these non-hormonal performance-enhancing compounds
  • The ban followed reports of AICAR use in professional cycling, where its endurance-enhancing effects without masking the hematological markers of EPO doping made it attractive to athletes wanting to avoid detection
  • The documented competitive use provides a real-world validation of AICAR's endurance effects in trained humans — not just in sedentary rodents from laboratory studies
  • AICAR is detectable in urine and blood tests through targeted metabolomic screening — its use in tested competition is not viable

The Landmark Animal Study — What Narkar et al. (Cell, 2008) Showed

The foundational AICAR exercise mimetic publication:

  • Narkar et al. (Cell, 2008) — the same Salk Institute lab that investigated GW501516 — demonstrated that AICAR administration in sedentary mice increased running endurance by approximately 44% compared to controls, without any exercise training
  • The endurance improvement was associated with increased expression of genes involved in fatty acid oxidation and mitochondrial biogenesis in skeletal muscle — confirming AMPK activation was driving transcriptional changes toward the trained phenotype
  • The combination of AICAR + GW501516 (PPARδ agonist) produced an approximately 75% endurance improvement — demonstrating that AMPK and PPARδ pathways are synergistic, each amplifying the other's effects on oxidative metabolism genes

AICAR vs MOTS-c vs SLU-PP-332 — The AMPK Pathway Comparison

Three compounds in the Dragon Pharma range activate AMPK but through meaningfully different upstream mechanisms:

Compound AMPK Activation Mechanism Additional Effects Human Data
AICAR Direct — ZMP mimics AMP at AMPK allosteric site Primarily metabolic/endurance Pharmacokinetic data; documented sport use
MOTS-c Indirect — folate cycle disruption → AICAR accumulation → AMPK Mitochondrial retrograde signalling; aging-associated decline Limited human PK; epidemiological longevity data
SLU-PP-332 ERR pan-agonist — not direct AMPK; upstream transcriptional activation Fibre type shift; mitochondrial biogenesis via ERRα/PGC-1α None — preclinical 2023 only
GW-501516 PPARδ — synergistic with AMPK but different pathway Fatty acid oxidation gene upregulation None — discontinued 2007

Effects and Benefits

  • Direct AMPK activation via ZMP accumulation — the most pharmacologically direct AMPK activator available
  • Endurance enhancement — approximately 44% improvement in sedentary animal models (Narkar et al.); documented use in elite human endurance sport
  • Increased fatty acid oxidation — AMPK drives fat as the primary fuel source during sustained effort
  • Mitochondrial biogenesis — AMPK activates PGC-1α, the master regulator of mitochondrial content
  • Improved insulin sensitivity — AMPK drives GLUT-4 translocation in muscle independently of insulin
  • No testosterone suppression — no PCT required

Dosage and Administration

Protocol Dose Frequency Notes
Endurance / metabolic support 50 mg/day Once daily injection Full vial per day; subcutaneous
Lower dose trial 25 mg/day Once daily injection Half vial; assess response before full dose

At 50mg per vial, full-dose protocols use one vial daily — a significant cost per day of use. Pre-workout injection 30-60 minutes before training is common practice to align AMPK activation with the exercise window. Reconstitute with bacteriostatic water. Store refrigerated at 2-8°C after reconstitution for up to 28 days. Cycle length is not firmly established — AICAR does not cause receptor desensitisation like beta-2 agonists, so continuous use is pharmacologically viable, though cost considerations typically drive cycling.

Side Effects

  • Hypoglycaemia risk — AMPK activation drives significant glucose uptake in muscle and reduces hepatic glucose output; in fasted or caloric-deficit states, blood glucose can drop meaningfully. Avoid combining with insulin or other hypoglycaemic agents
  • Mild nausea — reported at higher doses; typically dose-dependent and transient
  • No hormonal effects — no testosterone, estrogen or HPG axis interaction; no PCT required

Reconstitution and Storage

Reconstitute with bacteriostatic water — add slowly along the vial wall and swirl gently. Store reconstituted vial refrigerated at 2-8°C for up to 28 days. Never freeze.

"AICAR is the most direct AMPK activator in the Dragon Pharma range — its intracellular conversion to ZMP produces the same molecular signal as energy depletion from intense exercise, activating the full downstream cascade of mitochondrial biogenesis and fat oxidation without requiring the exercise itself."

Stacking and Related Compounds

  • GW-501516 Cardarine — PPARδ agonist; the Narkar et al. (2008) paper demonstrated ~75% endurance improvement when combined with AICAR vs ~44% for AICAR alone — the two pathways are synergistic
  • MOTS-c — activates AMPK via the folate cycle/AICAR accumulation pathway; complementary upstream AMPK activation to AICAR's direct ZMP mechanism
  • SLU-PP-332 — ERR pan-agonist; activates mitochondrial biogenesis through ERRα/PGC-1α, a downstream convergence point shared with AMPK activation
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AICAR (5-aminoimidazole-4-carboxamide ribonucleotide, Acadesine) is a nucleoside analogue — a synthetic compound structurally related to adenosine. It is not a peptide (has no amino acid chain), not a SARM (no androgen receptor binding), not a steroid and not a growth factor. It works by entering cells via adenosine transporters and being phosphorylated to ZMP — a compound that directly activates AMPK by mimicking the AMP signal of cellular energy depletion.

After injection, AICAR enters cells and is converted by adenosine kinase to ZMP (AICAR monophosphate). ZMP is a structural analogue of AMP — it binds the AMP-sensing regulatory domain of AMPK and activates it by mimicking the intracellular signal of low energy availability. This triggers AMPK's downstream metabolic programme: increased fatty acid oxidation, glucose uptake in muscle via GLUT-4, mitochondrial biogenesis via PGC-1α, and decreased hepatic gluconeogenesis. This is a more direct AMPK activation mechanism than indirect activators like metformin.

WADA added AICAR to the Prohibited List in 2011 under the metabolic modulators category following documented use in professional endurance sport, particularly cycling. AICAR's ability to enhance endurance without the hematological markers associated with EPO doping made it attractive to athletes managing detection risks. Its presence in the 2011 Prohibited List — alongside GW501516 — reflects WADA's assessment that its performance-enhancing effects in humans were real and occurring in competition.

AMPK activation drives significant glucose uptake in skeletal muscle via GLUT-4 translocation and simultaneously reduces hepatic glucose production by suppressing gluconeogenesis. These two effects together can substantially lower blood glucose, particularly in fasted states, caloric deficits, or when combined with insulin or other hypoglycaemic agents. Users should monitor for symptoms of low blood glucose (dizziness, sweating, weakness) and avoid AICAR fasted in combination with other glucose-lowering interventions.

Both activate AMPK but through different mechanisms. AICAR directly generates ZMP inside cells — ZMP then activates AMPK at its allosteric AMP-binding site. MOTS-c activates AMPK indirectly through the folate cycle: MOTS-c disrupts the AICAR-transformylase step of the folate cycle, causing endogenous AICAR accumulation, which then generates ZMP. In other words, MOTS-c works partly by causing the cell to accumulate its own endogenous AICAR. The two are mechanistically complementary — exogenous AICAR provides direct ZMP; MOTS-c adds additional mitochondrial retrograde signalling effects alongside its AMPK activation.