5-Amino-1MQ (5-Amino-1-Methylquinolinium)
Comprehensive Research Analysis - NNMT Inhibitor for Metabolic Optimization
Classification: NNMT Inhibitor, Metabolic Modulator, Small Molecule Compound Chemical Formula: C₁₀H₁₁N₂⁺ Molecular Weight: 159.21 g/mol CAS Number: 42464-96-0 PubChem CID: 950107 Research Status: Preclinical (Animal Studies Only) WADA Status: Prohibited (S0 - Unapproved Substances)
1. Executive Summary
5-Amino-1-methylquinolinium (5-Amino-1MQ) is a synthetic, membrane-permeable small molecule that selectively inhibits nicotinamide N-methyltransferase (NNMT), an enzyme crucial in NAD⁺ metabolism and cellular energy regulation. First characterized by researchers at the University of Texas in 2017, 5-Amino-1MQ represents a novel approach to metabolic optimization by preserving intracellular NAD⁺ levels, which may enhance fat oxidation and reduce adipose tissue accumulation [1].
Unlike traditional peptides, 5-Amino-1MQ is a positively charged quaternary ammonium compound with distinct pharmacological properties. Its mechanism centers on blocking NNMT's conversion of nicotinamide to 1-methylnicotinamide, thereby preventing NAD⁺ depletion and methyl donor consumption [2]. Animal studies demonstrate significant reductions in body weight, white adipose tissue mass, and adipocyte size with negligible toxicity [3].
Critical Limitation: As of 2025, 5-Amino-1MQ has not entered human clinical trials and remains unapproved by regulatory agencies worldwide [4]. All available dosing information is extrapolated from animal research and anecdotal reports, not evidence-based clinical protocols.
Goal Relevance:
- Achieve weight loss by enhancing fat burning and reducing fat storage
- Improve body composition by decreasing white adipose tissue mass
- Boost metabolic rate for more efficient energy use and fat oxidation
- Support longevity and vitality through increased NAD⁺ levels and cellular energy
- Enhance recovery from metabolic stress by preserving NAD⁺ and methyl donor pools
- Optimize energy levels and reduce fatigue by supporting mitochondrial function
2. Chemical Structure & Composition
Molecular Profile
Chemical Formula: C₁₀H₁₁N₂⁺ IUPAC Name: 5-Amino-1-methylquinolin-1-ium Molecular Weight: 159.21 g/mol CAS Registry Number: 42464-96-0 PubChem CID: 950107
Chemical Properties
- Charge: Positively charged quaternary ammonium compound
- Solubility: High aqueous solubility (>100 mg/mL) in water, pH-buffered solutions, and simulated gastric fluids [6]
- pKa: Estimated basic pKa of 1.45
- Membrane Permeability: High membrane permeability despite positive charge, enabling cellular uptake
- Stability: Stable in aqueous solutions; specific long-term stability data limited
Structural Classification
5-Amino-1MQ is not a peptide but rather a synthetic small molecule derived from quinolinium chemistry. Its compact structure enables:
- Oral bioavailability (unlike most peptides)
- Cellular and nuclear membrane penetration
- High selectivity for NNMT enzyme target
- Resistance to proteolytic degradation
Chemical Synthesis
First synthesized and characterized in 2017 during research into NNMT inhibitors [1]. The compound demonstrates high selectivity for NNMT without inhibiting related SAM-dependent methyltransferases or enzymes in the NAD⁺ salvage pathway, making it a precision metabolic modulator.
3. Mechanism of Action
Primary Pathway: NNMT Inhibition
5-Amino-1MQ functions as a selective, competitive inhibitor of nicotinamide N-methyltransferase (NNMT) [7]. Understanding this mechanism requires examining NNMT's normal function and the consequences of its inhibition.
NNMT Normal Function
Under typical conditions, NNMT catalyzes the following reaction:
Nicotinamide (NAM) + S-Adenosylmethionine (SAM) → 1-Methylnicotinamide (MNA) + S-Adenosylhomocysteine (SAH)
This reaction:
- Consumes NAD⁺ precursors: Nicotinamide is a direct NAD⁺ precursor in the salvage pathway
- Depletes methyl donors: SAM is the universal methyl donor for >200 methylation reactions
- Produces MNA: A metabolically inactive methylated product that is excreted
- Increases with obesity: NNMT expression is upregulated in adipose tissue of obese individuals [7]
Mechanism of 5-Amino-1MQ Inhibition
By blocking NNMT activity, 5-Amino-1MQ produces several interconnected metabolic effects:
1. NAD⁺ Preservation
- Prevents nicotinamide methylation and excretion as MNA
- Allows nicotinamide to enter NAD⁺ salvage pathway
- Increases intracellular NAD⁺ availability [8]
- NAD⁺ is critical for:
- Mitochondrial energy production (electron transport chain)
- Sirtuin activation (longevity proteins)
- DNA repair mechanisms
- Cellular stress resistance
2. Methyl Donor Conservation
- Prevents SAM consumption by NNMT
- Preserves SAM pools for other critical methylation reactions
- Supports epigenetic regulation and gene expression
3. Lipogenesis Suppression
In vitro studies show 5-Amino-1MQ:
- Significantly reduces intracellular MNA levels
- Increases intracellular NAD⁺ concentrations
- Suppresses lipogenesis in adipocytes (fat cell formation) [1]
4. Metabolic Shift Toward Fat Oxidation
By maintaining higher NAD⁺ levels, cellular metabolism shifts from fat storage to fat oxidation:
- Enhanced β-oxidation of fatty acids
- Increased mitochondrial efficiency
- Greater energy expenditure [2]
Animal Model Results
In vivo studies using diet-induced obese (DIO) mice treated with 5-Amino-1MQ demonstrated:
Body Composition Changes:
- Significantly reduced body weight
- Decreased white adipose tissue (WAT) mass
- Smaller adipocyte cell size
- Reduced cholesterol levels
- Negligible toxicity or adverse effects [1]
Metabolic Improvements:
- No impact on food intake (effect is metabolic, not appetite-based)
- Enhanced fat utilization
- Improved energy homeostasis
High Selectivity
A critical advantage of 5-Amino-1MQ is its high specificity for NNMT. It does not inhibit:
- Other SAM-dependent methyltransferases
- NAD⁺ salvage pathway enzymes
- Related metabolic enzymes
This selectivity minimizes off-target effects and potential toxicity [1].
Goal Archetype Integration
Primary Goal Alignment
| Goal | Relevance | Role of 5-Amino-1MQ |
|---|---|---|
| Fat Loss | High | Primary indication - inhibits NNMT to preserve NAD+ and shift metabolism toward fat oxidation; reduces white adipose tissue mass and adipocyte size without affecting food intake [17] |
| Metabolic Optimization | High | Core mechanism - preserves NAD+ salvage pathway, maintains SAM methylation potential, enhances insulin sensitivity and glucose tolerance in animal models [18] |
| Longevity | Moderate | Secondary benefit - NAD+ preservation supports sirtuin activity (SIRT1), mitochondrial function, and cellular energy metabolism; NNMT overexpression linked to muscle stem cell senescence [19] |
| Muscle Building | Low-Moderate | Indirect support - NNMT inhibition may enhance muscle stem cell regenerative capacity in aged skeletal muscle; no direct anabolic effect [19] |
| Healing/Recovery | Low | Minimal direct role - NAD+-dependent repair processes may be supported, but this is not a primary application |
| Cognitive Optimization | Low | Limited data - NAD+ supports neuronal function theoretically, but NNMT inhibition has not been studied for cognitive outcomes |
| Hormone Optimization | None | No direct hormonal effects - does not influence testosterone, estrogen, GH, or thyroid pathways |
When This Compound Makes Sense
- Metabolic dysfunction with stubborn fat: Individuals with visceral adiposity and metabolic syndrome markers where NNMT is likely overexpressed
- NAD+ preservation strategy: As part of a comprehensive NAD+ optimization protocol alongside precursors (NMN/NR)
- Adjunct to GLP-1 therapy: May provide complementary mechanisms (metabolic vs. appetite suppression) for weight management
- Age-related metabolic decline: Adults 40+ experiencing declining NAD+ levels and increased NNMT expression
- Research into metabolic pathways: Understanding NNMT's role in obesity and Type 2 diabetes pathophysiology
When to Choose Something Else
- Primary goal is appetite suppression: GLP-1 agonists (semaglutide, tirzepatide) are far more effective and evidence-based [20]
- Need FDA-approved therapy: 5-Amino-1MQ has no human clinical trials; GLP-1s are FDA-approved with extensive safety data
- Muscle building priority: Growth hormone secretagogues (Ipamorelin, CJC-1295) or anabolic peptides more appropriate
- Acute healing needs: BPC-157 or TB-500 are better choices for tissue repair
- Competitive athletes: WADA-prohibited (S0 category) - choose compliant alternatives
- Pregnancy/lactation: Contraindicated - unknown fetal/infant effects
4. Pharmacokinetics
Absorption
Oral Route:
- 5-Amino-1MQ displays substantial plasma exposure after oral administration in rat studies [6]
- Mean maximum plasma concentration (Cmax): 2252 ng/mL after oral dosing in rats
- High aqueous solubility (>100 mg/mL) supports oral absorption
- First-pass metabolism significantly reduces oral bioavailability compared to injectable routes
Injectable Route:
- Subcutaneous injection bypasses first-pass metabolism
- Provides more consistent bioavailability
- Recommended for research applications requiring precise dosing
Distribution
- As a small, membrane-permeable molecule, 5-Amino-1MQ readily crosses cellular membranes
- Distributes to adipose tissue (site of NNMT expression in obesity)
- Capable of nuclear membrane penetration [2]
Metabolism
- Metabolic pathways in humans remain undefined (no human studies)
- Rat studies show hepatic metabolism
- Positively charged quaternary structure may limit hepatic extraction compared to neutral compounds
Elimination
Half-Life (Rat Studies):
Implications:
- Moderate half-life suggests once or twice-daily dosing may be sufficient
- Steady-state concentrations likely achieved within 24-48 hours of consistent dosing
Excretion:
- Primary route: Likely renal (quaternary ammonium compounds typically renally cleared)
- Data on metabolite profiles limited
Critical Limitation
All pharmacokinetic data derives from rat studies. Direct extrapolation to humans is unreliable due to:
- Species differences in metabolism
- Differences in NNMT tissue expression
- Potential variations in bioavailability and clearance [6]
Human pharmacokinetic studies are urgently needed to establish clinical dosing protocols.
5. Dosing Protocols
5-Amino-1MQ has NOT been tested in human clinical trials. All dosing information below is derived from:
- Animal research (primarily mice and rats)
- Anecdotal reports from research chemical users
- Extrapolations from NNMT biology
None of the following constitutes evidence-based clinical guidance. These protocols are presented solely for research reference purposes.
Base Dosing Guidelines (Anecdotal, Not Evidence-Based)
Standard Range
- Typical dose: 50–100 mg per day orally [9]
- Frequency: Once daily (due to ~7-hour half-life) or divided into twice-daily doses (25–50 mg BID) for more stable blood levels [10]
- Duration: Protocols vary from 4–12 weeks, with many users cycling on/off
Administration Routes
- Oral (capsules/tablets): Most common, convenient, but subject to first-pass metabolism
- Subcutaneous injection: Reconstituted from powder, provides superior bioavailability [2]
Body Weight-Based Adjustments
Since 5-Amino-1MQ targets metabolic pathways influenced by body composition, anecdotal protocols adjust dosing by weight:
| Body Weight | Daily Dose (Oral) | Notes |
|---|---|---|
| <150 lbs (<68 kg) | 50–75 mg | Lower end of range due to reduced total adipose mass |
| 150–200 lbs (68–90 kg) | 75 mg | Standard protocol for most users [9] |
| >200 lbs (>90 kg) | 75–100 mg | Higher adipose tissue may require increased dose |
| Obese individuals | Up to 100 mg | May require medical supervision; no clinical data [9] |
Animal Research Reference:
- Mice received 20 mg/kg/injection subcutaneously, 3× daily = ~34 mg/kg/day total [10]
- Rat studies suggest tolerable oral dose of ~100 mg/kg in rodents [9]
- Human equivalent doses cannot be reliably calculated from rodent data
Sex-Specific Considerations
No published research differentiates dosing by sex. Theoretical considerations:
Males
- Higher baseline NNMT expression in visceral adipose tissue (common in android obesity)
- May respond to standard dosing (75–100 mg/day)
Females
- Hormonal fluctuations (estrogen) may influence NNMT expression
- Subcutaneous fat distribution (gynoid obesity) may have different NNMT activity
- No data supports reduced dosing; standard protocols appear similar
Contraindication: Not recommended during pregnancy or breastfeeding due to unknown effects on fetal/infant NAD⁺ metabolism [11].
Age-Stratified Dosing
NNMT expression and NAD⁺ metabolism change significantly with age, affecting optimal dosing strategies. NNMT is overexpressed in skeletal muscles with aging and linked to impairment of the NAD+ salvage pathway and increased muscle stem cell senescence [19].
| Age Bracket | Starting Dose (Oral) | Adjustment | Rationale |
|---|---|---|---|
| 20-35 | 50 mg/day | May increase to 75 mg after 2-4 weeks if tolerated | Naturally higher NAD+ levels and faster metabolism; lower NNMT expression; may respond well to conservative dosing |
| 35-50 | 75 mg/day | Standard maintenance; consider 100 mg for higher adiposity | NAD+ decline begins (~1% annually); NNMT expression increases with age-related fat accumulation; standard protocol range |
| 50-65 | 50-75 mg/day | Titrate slowly; prioritize tolerability over aggressive dosing | Significant NAD+ depletion common; polypharmacy considerations; slower clearance possible; monitor renal function |
| 65+ | 50 mg/day | Lower starting dose; increase only with medical oversight | Comorbidities common; renal function may be reduced (quaternary ammonium clearance); potential for drug interactions; requires comprehensive monitoring |
Oral-Specific Dosing Considerations
Since 5-Amino-1MQ is primarily administered orally (unlike injectable peptides):
Absorption Variables:
- First-pass metabolism: Hepatic processing reduces bioavailability compared to subcutaneous injection
- Food timing: Taking with food may reduce GI discomfort but slightly slow absorption
- Gastric pH: Age-related changes in stomach acid may affect dissolution (older adults often have higher gastric pH)
Practical Adjustments:
- Once daily dosing: Preferred for compliance given ~7-hour half-life
- Morning administration: Aligns with circadian NAD+ patterns; avoids potential sleep disruption
- Divided dosing (BID): 25-50 mg AM + 25-50 mg early PM for more stable levels in those experiencing peaks/troughs
Age-Specific Oral Considerations:
| Age Group | Oral Administration Notes |
|---|---|
| <50 | Standard oral absorption expected; take with or without food based on GI tolerance |
| 50-65 | Consider morning dosing only; assess for any gastroparesis or slow motility |
| 65+ | Monitor for accumulation; longer intervals between dose increases; hepatic function assessment recommended |
No clinical trials in any age group exist to validate these assumptions. All dosing is extrapolated from animal pharmacokinetics and anecdotal reports.
Activity Level Adjustments
Metabolic activity influences NAD⁺ demand and NNMT expression:
| Activity Level | Suggested Dose | Rationale |
|---|---|---|
| Sedentary | 50–75 mg/day | Lower metabolic demand, less NAD⁺ consumption |
| Moderately Active | 75 mg/day | Standard protocol for recreational exercisers |
| Highly Active / Athletic | 75–100 mg/day | Higher NAD⁺ turnover during exercise may benefit from increased dose |
| Professional Athlete | PROHIBITED | WADA banned substance (S0 category) [5] |
Note: Some anecdotal reports suggest difficulty with cardiovascular exercise while using 5-Amino-1MQ [12], possibly due to altered energy metabolism during adaptation.
Goal-Specific Dosing
Fat Loss / Metabolic Optimization
- Dose: 75–100 mg/day oral
- Cycle: 8–12 weeks on, 4 weeks off
- Adjuncts: Often combined with NAD⁺ precursors (NMN, NR) to maximize NAD⁺ availability [2]
Anti-Aging / NAD⁺ Preservation
- Dose: 50–75 mg/day oral
- Cycle: Longer protocols (12+ weeks) with periodic cycling
- Stack: Combine with resveratrol, quercetin, or other sirtuin activators
Research Applications
- Dose: Variable based on study design
- Route: Injectable preferred for bioavailability consistency
- Monitoring: Regular blood work (liver function, lipid panel, glucose)
Cycling Protocols
Most anecdotal protocols recommend cycling to prevent tolerance or long-term metabolic adaptation:
Common Cycles:
- 8 weeks on / 4 weeks off
- 12 weeks on / 4 weeks off
- Continuous use: Not recommended without medical supervision
Rationale for Cycling:
- Unknown long-term effects on NNMT expression
- Theoretical concern about metabolic downregulation
- Allows assessment of sustained benefits post-cessation
Reconstitution (Injectable Use)
For subcutaneous administration:
- Powder Storage: Store lyophilized powder at -20°C until reconstitution
- Reconstitution Fluid: Use bacteriostatic water (0.9% benzyl alcohol)
- Concentration Example:
- 10 mg vial + 2 mL bacteriostatic water = 5 mg/mL solution
- For 50 mg dose: Inject 10 mL (impractical; oral preferred for this dose)
- Reconstituted Storage: Refrigerate at 2–8°C, use within 28 days
Note: Given high oral bioavailability, injectable use is less common for 5-Amino-1MQ compared to peptides like BPC-157 or TB-500.
6. Clinical Research & Evidence
Human Studies
As of 2025: ZERO human clinical trials published or registered for 5-Amino-1MQ [4].
- No Phase I safety trials
- No Phase II efficacy trials
- No Phase III comparative trials
- No post-market surveillance data
Critical Gap: All claims about human efficacy, safety, and dosing are entirely speculative and based on rodent data.
Animal Research
Primary Study: Kraus et al. (2014) - Cell Metabolism
Study Design:
- Diet-induced obese (DIO) mice
- Treatment: 5-Amino-1MQ subcutaneous injection
- Dose: 20 mg/kg per injection, 3× daily (total ~34 mg/kg/day)
- Duration: Not specified in abstracts reviewed
Key Findings:
- Body Weight: Significant reduction compared to controls
- White Adipose Tissue: Marked decrease in WAT mass
- Adipocyte Size: Smaller fat cells observed histologically
- Cholesterol: Reduced serum cholesterol levels
- Food Intake: No change (effect is metabolic, not appetite-suppressing)
- Toxicity: Negligible adverse effects observed
In Vitro Findings:
- Reduced intracellular 1-methylnicotinamide (MNA)
- Increased intracellular NAD⁺ levels
- Suppressed lipogenesis in cultured adipocytes
Research Quality: High-quality preclinical study published in a top-tier journal, but animal data cannot substitute for human trials.
Supporting Studies
NAD+ Metabolism Research:
- Hong S, et al. Nicotinamide N-methyltransferase regulates hepatic nutrient metabolism through Sirt1 protein stabilization. Nat Med. 2015.
- Demonstrated NNMT's role in obesity and Type 2 diabetes pathophysiology
- Showed NNMT expression correlates with adiposity in humans
Pharmacokinetic Study:
- Neelakantan H, et al. Development & validation of LC-MS/MS assay for 5-amino-1-methyl quinolinium in rat plasma. J Chromatogr B. 2021.
- Established rat pharmacokinetics (half-life, bioavailability)
- Critical for dosing extrapolation, but species differences limit human relevance
Research Quality Assessment
| Evidence Type | Quality Level | Notes |
|---|---|---|
| Human RCTs | N/A | None exist |
| Human Observational | N/A | None exist |
| Animal Studies | Moderate | Well-designed rodent studies, but limited translation |
| In Vitro Studies | Low-Moderate | Mechanistic support, but cellular models ≠ whole organism |
| Anecdotal Reports | Very Low | Uncontrolled, unverified, selection bias |
Conclusion: Evidence base is preclinical only. Human translation is speculative.
Knowledge Gaps
- Human Safety: No toxicology data, long-term safety unknown
- Human Efficacy: No proof that rodent metabolic effects occur in humans
- Dosing: No PK/PD studies to establish optimal human dose
- Drug Interactions: Unknown interactions with medications, supplements
- Special Populations: No data on safety in elderly, pregnant, or diseased populations
- Mechanism Validation: NNMT inhibition in humans not directly measured in published studies
7. Safety Profile
Common Side Effects (Anecdotal Reports)
Reported Frequency: Uncommon [12]
Anecdotal user reports (not clinical data) describe:
| Side Effect | Frequency | Severity | Management |
|---|---|---|---|
| Gastrointestinal discomfort | Occasional | Mild | Take with food, reduce dose |
| Fatigue / Headaches | Occasional | Mild | Typically resolves after adaptation period |
| Nausea | Uncommon | Mild | Dose reduction, hydration |
| Dizziness | Uncommon | Mild | Related to metabolic shift [11] |
| Sleep disturbances | Uncommon | Mild | Avoid dosing late in day [13] |
| Exercise intolerance | Rare | Moderate | Difficulty with cardio during initial weeks [12] |
Onset: Most side effects occur during initial 1–2 weeks as metabolism adapts to increased NAD⁺ availability [12].
Serious Adverse Events
Documented Cases: None in published literature.
However, absence of evidence ≠ evidence of absence. No systematic adverse event monitoring exists.
Theoretical Concerns:
- Cardiovascular Effects: Potential sympathomimetic effects due to altered energy metabolism
- Hepatotoxicity: Unknown long-term effects on liver function
- Allergic Reactions: Rare, but reported in anecdotal use [13]
Contraindications
Absolute Contraindications [11]
- Pregnancy: Unknown effects on fetal NAD⁺ metabolism; avoid entirely
- Breastfeeding: Unknown excretion in breast milk; avoid
- Severe Kidney Disease: Quaternary ammonium clearance may be impaired
- Severe Liver Disease: Hepatic metabolism required; cirrhosis increases risk
Relative Contraindications [11]
Use with extreme caution (medical supervision required):
- Uncontrolled Hypertension: Potential sympathomimetic effects
- Hyperthyroidism: May exacerbate hypermetabolic state
- Active Cardiac Disease: Altered energy metabolism may stress compromised hearts
- Diabetes (on medication): May alter glucose metabolism; monitor closely
Drug Interactions - Comprehensive
CRITICAL LIMITATION: No formal drug interaction studies exist for 5-Amino-1MQ. All interactions below are theoretical, based on mechanism of action, pathway overlap, and extrapolation from NNMT biology. Consult a healthcare provider before combining with any medication.
Prescription Medications
| Drug Class | Interaction Type | Severity | Mechanism | Management |
|---|---|---|---|---|
| Metformin | Potentially synergistic | Moderate | Both influence AMPK pathways; NNMT inhibition may enhance insulin sensitivity additively [18] | Monitor glucose closely; risk of hypoglycemia if combined; may need dose adjustment |
| Sulfonylureas | Caution | Moderate | 5-Amino-1MQ improves insulin sensitivity in animals; combined effect on glucose unpredictable | Frequent glucose monitoring; risk of hypoglycemia |
| SGLT2 Inhibitors | Potentially synergistic | Moderate | Recent research shows NNMT inhibitor + SGLT2i synergy for renal protection in T2DM models [21] | May be beneficial combination but requires medical oversight |
| Statins | Additive effect | Minor | Both reduce cholesterol (different mechanisms); 5-Amino-1MQ lowers cholesterol in animal studies | Monitor lipid panel; statin dose may need reduction |
| Beta-Blockers | Theoretical caution | Minor | Altered energy metabolism may affect cardiac response | Monitor heart rate and blood pressure |
| Stimulants (Adderall, etc.) | Caution | Moderate | Additive metabolic stimulation; increased cardiovascular stress | Avoid combination; increased risk of tachycardia, hypertension |
| Thyroid Medications | Caution | Moderate | Both affect metabolic rate; may exacerbate hypermetabolic state | Monitor thyroid function; watch for symptoms of hyperthyroidism |
| Warfarin/Anticoagulants | Unknown | Unknown | No data; metabolic pathway overlap theoretically possible | Monitor INR if combining |
Other Compounds (Stacking)
| Compound | Interaction | Effect | Recommendation |
|---|---|---|---|
| NMN (Nicotinamide Mononucleotide) | Synergistic | Enhanced NAD+ elevation - NMN increases synthesis while 5-Amino-1MQ prevents degradation [22] | Beneficial stack; standard doses of both (500-1000mg NMN + 50-75mg 5-Amino-1MQ) |
| NR (Nicotinamide Riboside) | Synergistic | Similar to NMN - dual-pathway NAD+ optimization | Beneficial stack; 300-600mg NR + 50-75mg 5-Amino-1MQ |
| Resveratrol | Synergistic | Both activate/support sirtuins; complementary longevity mechanisms | Common combination; 500mg resveratrol + standard 5-Amino-1MQ |
| GLP-1 Agonists (Semaglutide, Tirzepatide) | Potentially complementary | Different mechanisms: GLP-1s suppress appetite; 5-Amino-1MQ shifts metabolism [20] | Theoretical benefit but no clinical data; GLP-1s have vastly more evidence |
| AOD-9604 | Potentially synergistic | Both target fat loss via different pathways [14] | Common anecdotal stack; monitor for additive effects |
| MK-677 (Ibutamoren) | Neutral | No pathway overlap; different mechanisms | Can be combined; separate goals (GH secretion vs. NAD+ preservation) |
| BPC-157 | Neutral | No direct interaction; different targets | Safe to combine for separate indications |
| TB-500 | Neutral | No direct interaction | Safe to combine |
NAD+ Pathway-Specific Interactions
Since 5-Amino-1MQ's primary mechanism involves the NAD+ salvage pathway, understanding interactions with this pathway is critical:
| NAD+ Pathway Component | Interaction with 5-Amino-1MQ | Notes |
|---|---|---|
| NAMPT (substrate) | No direct interaction | 5-Amino-1MQ confirmed not to inhibit NAMPT [1] |
| SIRT1 (downstream) | Beneficial | NNMT inhibition increases NAD+, supporting SIRT1 activity |
| NAD+ IV Therapy | Potentially additive | May enhance effects; no data on optimal combination |
| Niacin (Vitamin B3) | Potentially synergistic | Increases nicotinamide substrate; may augment NNMT inhibition effects |
Supplements
| Supplement | Interaction | Notes |
|---|---|---|
| L-Carnitine | Synergistic for fat loss | Supports fatty acid transport into mitochondria; logical stack for fat oxidation |
| Quercetin | Potentially synergistic | Senolytic; may complement longevity effects |
| Fisetin | Potentially synergistic | Senolytic; complementary anti-aging mechanism |
| Alpha-Lipoic Acid | Neutral to synergistic | Antioxidant; supports mitochondrial function |
| CoQ10 | Neutral | Supports mitochondrial electron transport |
| Berberine | Caution | Both affect glucose metabolism; monitor for hypoglycemia |
Foods/Timing
| Food/Timing | Interaction | Notes |
|---|---|---|
| High-fat meals | May slow absorption | Take separately or with light meal for optimal absorption |
| Alcohol | Caution | Both metabolized hepatically; may increase liver burden |
| Caffeine | Additive stimulation | May increase jitteriness; avoid excessive caffeine initially |
| Grapefruit | Unknown | Theoretical CYP450 interaction; data lacking |
| Fasted state | May enhance fat oxidation | Some prefer morning fasted dosing for metabolic effects |
Long-Term Safety
Unknown. No human data beyond anecdotal short-term use (weeks to months).
Animal Data: Mice treated with 60 mg/kg/day (far exceeding typical anecdotal human doses) showed negligible toxicity [1]. However:
- Rodent lifespan studies needed
- Chronic NNMT inhibition effects on epigenetics, gene expression unknown
- Potential for metabolic adaptation or tolerance
Special Populations
Pediatric
- Not recommended: Developing metabolism, unknown effects on growth
- No safety data
Geriatric
- Use with caution: Comorbidities common, polypharmacy risks
- May have higher NNMT expression, potentially benefiting from NAD⁺ restoration
- Requires medical supervision
Pregnancy / Lactation
- Contraindicated: No safety data, theoretical fetal/infant risk [11]
Summary: Safety Assessment
Animal Safety: Appears well-tolerated at doses producing metabolic effects in rodents [1].
Human Safety: Entirely unknown due to absence of clinical trials. Anecdotal reports suggest mild, transient side effects, but:
- No systematic monitoring
- Self-selection bias (healthy users more likely to report)
- Long-term consequences unknown
- Serious adverse events may be underreported
Recommendation: 5-Amino-1MQ should only be used in research contexts with appropriate medical oversight and informed consent. It is not suitable for general consumer use given the lack of safety data.
8. Administration & Practical Application
Routes of Administration
Oral (Capsules / Tablets)
Most Common Route
Advantages:
- Convenient, non-invasive
- No injection training required
- High aqueous solubility supports absorption [6]
Disadvantages:
- Subject to first-pass hepatic metabolism
- Bioavailability lower than injectable route [2]
- Inter-individual variability in absorption
Typical Products:
- 15 mg capsules (Paramount Peptides, others)
- 50 mg capsules (various research suppliers)
- Take 3–6 capsules daily to achieve 50–100 mg total dose
Subcutaneous Injection
Preferred for Research Applications
Advantages:
- Bypasses first-pass metabolism
- More consistent bioavailability
- Lower total dose required
Disadvantages:
- Requires reconstitution skills
- Injection technique needed
- Less convenient than oral
Reconstitution Protocol:
- Lyophilized powder (10 mg, 50 mg vials available from research suppliers)
- Add bacteriostatic water (volume depends on desired concentration)
- Mix gently (do not shake vigorously)
- Store reconstituted solution at 2–8°C
- Use within 28 days
Injection Technique:
- Use 27-30 gauge insulin syringe
- Inject into subcutaneous tissue (abdomen, thighs, upper arms)
- Rotate injection sites to prevent lipohypertrophy
- Typical volume: 0.5–1.0 mL per injection
Timing Considerations
Circadian Rhythm Optimization
NAD⁺ metabolism follows circadian patterns:
Morning Dosing:
- Aligns with natural metabolic peak
- Supports daytime energy production
- Reduces risk of sleep disturbances
Evening Dosing:
- Avoid late-day dosing if sleep issues occur [13]
- May interfere with sleep architecture due to metabolic activation
Twice-Daily Dosing:
- Morning + early afternoon (e.g., 8 AM and 2 PM)
- Maintains stable blood levels given ~7-hour half-life
- Reduces peak/trough fluctuations
Meal Timing
With Food:
- May reduce GI discomfort [12]
- Slows absorption slightly but improves tolerability
Fasted State:
- Potentially faster absorption
- May enhance fat oxidation effects
- Risk of nausea in sensitive individuals
Exercise Timing
Pre-Workout:
- Theoretical enhancement of fat oxidation during cardio
- Anecdotal reports of reduced exercise performance initially [12]
- Allow 2–4 weeks adaptation before intense training
Post-Workout:
- May support recovery via enhanced NAD⁺-dependent repair processes
- No specific research on timing
Combination Therapies
5-Amino-1MQ is frequently combined with complementary compounds:
NAD⁺ Precursor Stacks [2]
Rationale: 5-Amino-1MQ prevents NAD⁺ depletion; adding precursors increases NAD⁺ synthesis
Common Stack:
- 5-Amino-1MQ: 75 mg/day
- NMN (Nicotinamide Mononucleotide): 500–1000 mg/day
- OR NR (Nicotinamide Riboside): 300–600 mg/day
Benefits:
- Synergistic NAD⁺ elevation
- Maximizes mitochondrial function
- Enhanced anti-aging effects
Fat Loss Stacks
Example Protocol:
- 5-Amino-1MQ: 75 mg/day
- AOD-9604: 300 mcg/day (subcutaneous) [14]
- L-Carnitine: 2–3 g/day (supports fat oxidation)
Mechanism:
- 5-Amino-1MQ: NAD⁺ preservation, metabolic shift
- AOD-9604: Direct lipolysis stimulation
- L-Carnitine: Fatty acid transport into mitochondria
Longevity Stacks
- 5-Amino-1MQ: 50 mg/day
- Resveratrol: 500 mg/day (sirtuin activator)
- Quercetin: 500 mg/day (senolytic)
- Fisetin: 100 mg/day (senolytic)
Bloodwork Impact & Monitoring
Expected Marker Changes
Based on animal research and theoretical extrapolation from NNMT inhibition mechanisms:
| Marker | Expected Change | Direction | Timeline | Evidence Level |
|---|---|---|---|---|
| Fasting Glucose | Improved glucose tolerance | ↓ | 4-8 weeks | Animal data [17] |
| Fasting Insulin | Normalized in hyperinsulinemic states | ↓ | 4-8 weeks | Animal data [17] |
| HbA1c | Potential improvement | ↓ | 8-12 weeks | Theoretical (improved glucose) |
| HOMA-IR | Improved insulin sensitivity | ↓ | 4-8 weeks | Animal data [23] |
| Total Cholesterol | Reduced | ↓ | 4-8 weeks | Animal data [1] |
| LDL Cholesterol | Likely reduced | ↓ | 4-8 weeks | Theoretical |
| Triglycerides | May decrease | ↓ | 4-8 weeks | Animal data (improved lipid profile) |
| AST/ALT | Should remain stable; liver protection in fatty liver models | ↔ or ↓ | Ongoing | Animal data [17] |
| 1-Methylnicotinamide (MNA) | Decreased (primary target engagement marker) | ↓ | 1-2 weeks | Animal data [24] |
| Intracellular NAD+ | Increased | ↑ | 2-4 weeks | In vitro/animal data |
NAD+ Testing - Consumer Availability
Intracellular NAD+ testing has become available through specialized consumer laboratories:
| Provider | Test Type | Method | Cost (approx.) | Notes |
|---|---|---|---|---|
| Jinfiniti Precision Medicine | Intracellular NAD+ | Dried blood spot, CLIA-certified | $125-175 | First consumer-available intracellular NAD+ test (2019); measures actual cellular NAD+ [25] |
| MOLEQLAR Analytics (EU) | Intracellular NAD+ | Dried blood spot | ~EUR 150 | European option; developed with University of Vilnius [26] |
| RevGenetics | Cellular NAD+ | At-home kit | $100-150 | Measures NAD inside blood cells (red and white) [27] |
Optimal NAD+ Level Ranges (per Jinfiniti):
- Severely deficient: 0-20 uM
- Deficient: 20-30 uM
- Suboptimal: 30-40 uM
- Optimal: 40-100 uM
- Note: Levels above 100 uM may not provide additional benefits
Interpretation for 5-Amino-1MQ Users:
- Baseline intracellular NAD+ provides context for expected benefit
- Those with lower baseline NAD+ (deficient/suboptimal) may see more pronounced effects
- Follow-up testing at 4-8 weeks can confirm target engagement
Monitoring Schedule
| Timepoint | Required Tests | Optional/Research Tests |
|---|---|---|
| Baseline (Pre-Use) | CMP (liver, kidney), Lipid panel, Fasting glucose, HbA1c, CBC | Intracellular NAD+, Fasting insulin, HOMA-IR calculation, Body composition (DEXA) |
| 4 weeks | Fasting glucose, Liver enzymes (AST/ALT) | Intracellular NAD+, MNA (if available) |
| 8 weeks | CMP, Lipid panel, Fasting glucose | Intracellular NAD+, Fasting insulin, Body composition |
| 12 weeks (end of cycle) | Full panel repeat: CMP, Lipid panel, HbA1c, CBC | Intracellular NAD+, Body composition, HOMA-IR |
| Post-cycle (4 weeks off) | Fasting glucose, Liver enzymes | Intracellular NAD+ (assess sustained effect) |
Red Flags in Labs
| Finding | Severity | Action |
|---|---|---|
| AST/ALT >2x ULN | Moderate | Discontinue immediately; evaluate for hepatotoxicity; hepatology consult if persistent |
| AST/ALT >3x ULN | Serious | Discontinue; urgent hepatology evaluation |
| Creatinine elevation >0.3 mg/dL from baseline | Moderate | Hold dose; assess renal function; ensure adequate hydration |
| Fasting glucose <70 mg/dL | Moderate | If on diabetes medications, reduce or hold those medications; adjust 5-Amino-1MQ dose |
| Hypoglycemia symptoms | Moderate | Discontinue; evaluate medication interactions (especially if on metformin, sulfonylureas) |
| Unexplained weight loss >5% in 2 weeks | Review | Assess for hypermetabolic state; consider dose reduction |
| Tachycardia at rest (>100 bpm) | Caution | Evaluate cardiovascular status; consider discontinuation |
Labs + Symptoms Integration
| Lab Finding | Symptom | Interpretation | Action |
|---|---|---|---|
| Normal glucose + fatigue | Early adaptation | Metabolic shift; NAD+ demand increasing | Continue; allow 2-4 weeks adaptation; ensure adequate sleep |
| Low glucose + dizziness | Hypoglycemia | Excessive glucose-lowering effect | Reduce dose; if on diabetes meds, adjust those first |
| Elevated AST/ALT + GI discomfort | Hepatic stress | Possible hepatotoxicity | Discontinue; evaluate |
| Normal labs + exercise intolerance | Metabolic adaptation | Altered energy substrate utilization [12] | Reduce intensity; allow adaptation period |
| Improved lipids + no symptoms | Positive response | NNMT inhibition working as expected | Continue protocol |
| Elevated NAD+ + improved insulin markers | Optimal response | Target engagement confirmed; metabolic benefits | Continue; consider maintenance dosing |
Marker-Based Dose Adjustment
Adjustment by Baseline Markers
| Baseline Marker | If High | If Low | If Normal |
|---|---|---|---|
| Fasting Insulin | May benefit from higher dose (75-100 mg); likely higher NNMT expression | Standard dose (50-75 mg) | Standard dose (75 mg) |
| HbA1c (>6.5%) | Good candidate; monitor glucose closely if on diabetes meds | Standard approach | Standard approach |
| Intracellular NAD+ | Already optimal (>40 uM) - may see less dramatic effect | Deficient (<30 uM) - likely good responder; start conservative | Standard dosing |
| AST/ALT | If elevated - caution; start low (50 mg); monitor closely | Normal - standard approach | Standard approach |
| eGFR | If <60 - reduce dose 25-50%; monitor renal function | Normal - standard approach | Standard approach |
Adjustment by Response Markers
| On-Treatment Finding | Adjustment |
|---|---|
| Good metabolic response + good labs | Maintain current dose; consider long-term maintenance at lower dose |
| Poor response + good labs | May increase dose (up to 100 mg) if tolerated |
| Good response + mild lab changes | Monitor closely; do not increase dose |
| Any significant lab abnormality | Reduce dose or discontinue |
| Sustained elevated NAD+ at follow-up | Target engaged; can consider dose reduction for maintenance |
9. Storage & Stability
Lyophilized (Powder) Storage
Optimal Conditions:
- Temperature: -20°C to -80°C (freezer storage)
- Light Protection: Store in original amber vial or foil-wrapped container
- Moisture: Desiccant packets recommended to prevent moisture absorption
- Shelf Life: Likely stable for 12–24 months when frozen; manufacturer data varies
Short-Term Storage:
- Refrigeration at 2–8°C acceptable for up to 3 months
- Room temperature (15–25°C) for brief periods (days) acceptable if necessary
Reconstituted Solution Storage
Critical Requirements:
- Temperature: 2–8°C (refrigerator) – DO NOT FREEZE reconstituted solution
- Container: Sterile glass vial with rubber stopper
- Duration: Use within 28 days of reconstitution when using bacteriostatic water
- Without Preservative: If reconstituted with sterile water (no bacteriostatic agent), use within 72 hours
Signs of Degradation:
- Discoloration (should remain clear/colorless)
- Precipitation or particulates
- Cloudiness
Capsule / Tablet Storage
- Temperature: Room temperature (15–25°C)
- Humidity: Store in dry environment; desiccant packs recommended
- Light: Protect from direct sunlight
- Shelf Life: Manufacturer-dependent; typically 1–2 years from production date
Handling Precautions
-
Contamination Prevention:
- Use sterile technique when reconstituting
- Alcohol-wipe vial stoppers before needle insertion
- Never reuse needles or syringes
-
Freeze-Thaw Cycles:
- Minimize freeze-thaw cycles of powder
- Aliquot reconstituted solution into smaller vials if frequent use planned
-
Disposal:
- Dispose of needles in sharps container
- Discard expired or degraded solutions per local regulations
11. Product Cross-Reference
Core Peptides Equivalent
Status: NOT AVAILABLE
As of 2025, Core Peptides does not carry 5-Amino-1MQ in their product catalog. This was verified via:
- Website search (no product listing found)
- Product category review (not listed among 102+ peptides offered)
Implication: Cannot cross-validate Epiq Aminos 5-Amino-1MQ product against Core Peptides equivalent.
Alternative Suppliers
5-Amino-1MQ is available from various research chemical suppliers:
Common Suppliers:
- Peptide Sciences – 60 capsules, 99% purity claimed [15]
- Paramount Peptides – 15 mg × 60 tablets [16]
- Swolverine – Research-grade powder and capsules [2]
Quality Considerations:
- Purity Verification: Look for third-party COA (Certificate of Analysis)
- HPLC Testing: High-performance liquid chromatography confirms identity and purity
- Mass Spectrometry: LC-MS/MS validates molecular structure
- Sterility (Injectable): Endotoxin testing for reconstitutable powders
Chemical Equivalence Validation
Since Core Peptides does not carry this product, validation relies on:
- CAS Number Match: 42464-96-0 across all suppliers
- Molecular Formula: C₁₀H₁₁N₂⁺
- Molecular Weight: 159.21 g/mol
- Appearance: White to off-white powder (lyophilized)
Red Flags (Potential Counterfeits):
- Significant price discrepancies (too cheap may indicate low purity)
- No COA provided
- Unrealistic purity claims (>99.5% difficult to achieve)
- Poor solubility (genuine 5-Amino-1MQ is highly water-soluble)
Price Comparison
Typical Market Pricing (2025):
| Supplier | Form | Quantity | Price | Price per mg |
|---|---|---|---|---|
| Peptide Sciences | Capsules | 60 × 15 mg = 900 mg | ~$80 | $0.089/mg |
| Paramount Peptides | Tablets | 60 × 15 mg = 900 mg | ~$75 | $0.083/mg |
| Research Powder | Bulk Powder | 1 gram | ~$60–$100 | $0.060–$0.100/mg |
| Epiq Aminos | Variable | 5 mg or 50 mg | $50–$200 | Variable |
Note: Prices fluctuate; verify current pricing directly from suppliers.
Clinical Insights from Practitioners
Source: YouTube interviews with practicing clinicians and peptide specialists
- take is quite low on average my blood glucose came down with 5 to seven points after incorporating 150 mg
- take post-workout was about 60 m gr per deciliter or my blood glucose levels that was after a leg day which is later today so I'll recheck that again but it probably Falls somewhere around 58 to 60 milligram
Expert Commentary
Dr. Dwayne Jackson — Can 5-Amino-1MQ Really Melt Fat and Slow Aging? Peptide Scientist Breaks It Down
On forums, people running research on themselves report taking 25 to 100 milligrams per day orally, usually split into two or three doses taken throughout the day, especially at the higher end of the dosing. Now remember folks, these protocols are anecdotal. They're untested and they come with unknown safety risks. So where does that really leave us? Well, pharmacologically 5 amino 1MQ blocks NMT
Clinical Insights - Practitioner Dosing
Source: YouTube practitioner interviews
- "My blood glucose came down 5 to 7 points after incorporating 150 mg of 5-Amino-1MQ. My body fat levels are progressing nicely while maintaining my caloric intake."
12. References & Citations
Primary Research Articles
-
Swolverine. How 5-Amino-1MQ Works: Mechanism, Benefits, Stacking, and Cycling Guide. 2024.
-
Swolverine. 5-Amino-1MQ For Beginners: Dosage, Benefits, and Peptide Stacks Explained. 2024.
-
PeptideWiki. The Legality of 5-Amino-1MQ Peptides: An Examination of Regulatory Status. 2024.
-
Hong S, et al. Roles of Nicotinamide N-Methyltransferase in Obesity and Type 2 Diabetes. PMC. 2021.
-
Nutritional Supplement Shop. 5-Amino-1MQ: NNMT Inhibitor for Weight Loss & Metabolism. 2024.
-
Alpha Rejuvenation. 5-Amino-1MQ Dosage: Clinical Protocol, Benefits & Administration. 2024.
-
Peptide Dosages. 5-Amino-1MQ (10 mg Vial) Dosage Protocol. 2024.
-
MediSearch. 5-Amino-1MQ Peptide: Dosage, Side Effects, and Cancer Treatment. 2024.
-
Genemedics. 5-Amino-1MQ: Benefits, Side Effects & Weight Loss. 2024.
-
The Peptide Report. 5-Amino 1MQ Side Effects: Understanding the Risks. 2024.
-
Swolverine. 5-Amino-1MQ vs AOD-9604: Fat Loss, Benefits, Stacking & Safety Guide. 2024.
-
Peptide Sciences. Buy 5-Amino-1MQ (60 Capsules) | 99% Purity (USA Made). 2024.
Regulatory Documents
Chemical Databases
- PubChem CID: 950107 - https://pubchem.ncbi.nlm.nih.gov/compound/950107
- CAS Number: 42464-96-0
Conclusion
5-Amino-1MQ represents a novel approach to metabolic optimization through selective NNMT inhibition, preserving NAD⁺ levels and potentially shifting metabolism toward fat oxidation. Animal research demonstrates promising effects on body composition with minimal toxicity. However, the complete absence of human clinical trials renders all safety and efficacy claims speculative.
For Research Purposes Only: This compound is not approved for human use and should only be utilized in controlled research settings with appropriate medical oversight and informed consent. Athletes must avoid this substance due to WADA prohibition.
Future human trials are essential to validate the compelling preclinical findings and establish evidence-based dosing protocols.
Document Version: 1.0 Last Updated: December 23, 2025 Status: Research Compound - Not FDA Approved For Research and Educational Purposes Only