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How to calculate peptide dosages accurately: complete guide - SeekPeptides

You've got your peptide powder. You've mixed it with bacteriostatic water. Now you're staring at a syringe. How much do you inject? The vial says 5mg. Your protocol says 250mcg. The syringe measures in units. Nothing matches up. You need to convert mg to mcg.

Written by Peptide Therapy Guide Editorial Team
For education only

This guide cannot diagnose a condition or recommend a personal treatment plan. Discuss medical questions with a qualified professional.

You've got your peptide powder. You've mixed it with bacteriostatic water. Now you're staring at a syringe.

How much do you inject?

The vial says 5mg. Your protocol says 250mcg. The syringe measures in units. Nothing matches up.

You need to convert mg to mcg. Calculate concentration. Figure out injection volume. One mistake and you're either underdosing (wasting money) or overdosing (risking side effects).

Let me show you the exact math. No confusion, no guessing, no mistakes.

Why dosage calculation matters

Peptide dosing isn't like taking a pill. You're dealing with:

Powder measured in milligrams (mg)

Water measured in milliliters (ml)

Doses measured in micrograms (mcg)

Syringes marked in units (IU)

Get any calculation wrong and your entire protocol is off.

Too little peptide:

Waste money on ineffective dosing

Won't see results

Frustration and quitting

Too much peptide:

Increased side effects

Wasted peptide (more isn't better)

Safety concerns

Depleting vials too quickly

Accurate dosing ensures you get results safely and efficiently.

Understanding the units

First, let's clarify what each measurement means.

Milligrams (mg)

This is how peptide powder is measured. Your vial label shows mg.

Common vial sizes:

2mg vials

5mg vials (most common)

10mg vials

The powder inside is 2mg, 5mg, or 10mg of actual peptide.

Micrograms (mcg or μg)

This is how doses are measured. Your protocol will specify mcg.

Critical conversion: 1mg = 1,000mcg

So:

5mg vial = 5,000mcg total

2mg vial = 2,000mcg total

10mg vial = 10,000mcg total

Milliliters (ml)

This is how bacteriostatic water is measured.

Common amounts added:

1ml

2ml (most common)

3ml

Units (IU)

This is how insulin syringes are marked.

Critical conversion: 100 units = 1ml

10 units = 0.1ml

20 units = 0.2ml

50 units = 0.5ml

The concentration formula

When you add water to peptide powder, you create a concentration.

Formula: Concentration (mcg/ml) = Total peptide (mcg) ÷ Water added (ml)

Example 1:

Vial: 5mg (5,000mcg)

Water: 2ml

Concentration: 5,000mcg ÷ 2ml = 2,500mcg/ml

Example 2:

Water: 1ml

Concentration: 5,000mcg ÷ 1ml = 5,000mcg/ml

Example 3:

Vial: 2mg (2,000mcg)

Concentration: 2,000mcg ÷ 2ml = 1,000mcg/ml

The concentration tells you how many micrograms of peptide are in each milliliter of solution.

The dose volume formula

Once you know concentration, calculate how much to inject.

Formula: Injection volume (ml) = Dose needed (mcg) ÷ Concentration (mcg/ml)

Example 1: BPC-157

Need: 250mcg

Concentration: 2,500mcg/ml

Volume: 250 ÷ 2,500 = 0.1ml (10 units)

Example 2: TB-500

Need: 2,500mcg (2.5mg)

Volume: 2,500 ÷ 2,500 = 1ml (100 units)

Example 3: Ipamorelin

Need: 200mcg

Volume: 200 ÷ 2,500 = 0.08ml (8 units)

This tells you exactly how much liquid to draw from your vial for each injection.

Converting ml to syringe units

Insulin syringes measure in units, not ml. You need to convert.

The conversion:

1ml = 100 units

0.1ml = 10 units

0.01ml = 1 unit

Quick reference chart:

ml

Units

0.05

5

0.08

8

0.1

10

0.15

15

0.2

20

0.25

25

0.3

30

0.5

50

1.0

100

To convert: ml × 100 = units

Examples:

0.12ml × 100 = 12 units

0.33ml × 100 = 33 units

0.75ml × 100 = 75 units

Step-by-step calculation process

Let's work through a complete example from start to finish.

Scenario: You have a 5mg vial of BPC-157. Your protocol calls for 250mcg twice daily.

You're adding 2ml of bacteriostatic water.

Step 1: Convert vial size to mcg 5mg × 1,000 = 5,000mcg total peptide

Step 2: Calculate concentration 5,000mcg ÷ 2ml = 2,500mcg/ml

Step 3: Calculate injection volume 250mcg ÷ 2,500mcg/ml = 0.1ml per dose

Step 4: Convert to syringe units 0.1ml × 100 = 10 units on insulin syringe

Step 5: Calculate doses per vial 5,000mcg total ÷ 250mcg per dose = 20 doses

Step 6: Calculate vial duration 20 doses ÷ 2 daily = 10 days per vial

Answer: Inject 0.1ml (10 units) twice daily. Each vial lasts 10 days.

Our peptide dosage calculator does all these steps automatically - just enter your vial size, water amount, and desired dose.

Common peptide dosage examples

Let's calculate doses for the most popular peptides.

BPC-157 dosage calculation

Standard protocol: 250mcg twice daily

Setup:

Calculation:

250mcg ÷ 2,500mcg/ml = 0.1ml

Result: Inject 10 units twice daily

For detailed BPC-157 protocols based on injury type, see our complete BPC-157 guide.

TB-500 dosage calculation

Loading phase: 5mg twice weekly

5,000mcg ÷ 2,500mcg/ml = 2ml

2ml = 200 units (entire vial)

Result: Use entire vial per injection (2ml split across two syringes if using 1ml syringes)

For complete TB-500 protocols, read our TB-500 guide.

Semaglutide dosage calculation

Starting dose: 0.25mg (250mcg) weekly

Result: Inject 10 units once weekly

Titration doses:

0.5mg = 0.2ml (20 units)

1mg = 0.4ml (40 units)

1.7mg = 0.68ml (68 units)

2.4mg = 0.96ml (96 units)

Use our semaglutide dosage calculator for complete titration schedules. For comparison with tirzepatide, read semaglutide vs tirzepatide.

Ipamorelin dosage calculation

Standard protocol: 200mcg 2-3x daily

200mcg ÷ 2,500mcg/ml = 0.08ml

0.08ml = 8 units

Result: Inject 8 units 2-3 times daily

For complete muscle-building protocols with Ipamorelin, see best peptides for muscle growth.

HGH Fragment 176-191 calculation

Fat loss protocol: 250mcg daily fasted

Result: Inject 10 units each morning before fasted cardio

Use our HGH fragment calculator for body weight-adjusted protocols.

Adjusting for different water amounts

You can use different amounts of water. This changes concentration but not total peptide.

5mg vial with different water amounts:

Water

Concentration

250mcg dose

500mcg dose

5,000mcg/ml

0.05ml (5 units)

0.1ml (10 units)

2ml

2,500mcg/ml

0.2ml (20 units)

1,667mcg/ml

0.15ml (15 units)

0.3ml (30 units)

More water (2-3ml):

Easier to measure small doses

Larger injection volumes

More injections per vial

Less water (1ml):

Higher concentration

Smaller injection volumes

Fewer injections per vial

Neither is better - choose based on your comfort with injection volumes.

For complete reconstitution instructions, read how to reconstitute peptides.

Calculating doses per vial

Know how long your vial lasts before you run out.

Formula: Doses per vial = Total peptide (mcg) ÷ Dose per injection (mcg)

Example 1: BPC-157 twice daily

Total: 5,000mcg

Dose: 250mcg × 2 daily = 500mcg/day

Days per vial: 5,000 ÷ 500 = 10 days

Example 2: Ipamorelin 3x daily

Dose: 200mcg × 3 daily = 600mcg/day

Days per vial: 5,000 ÷ 600 = 8.3 days

Example 3: Semaglutide weekly

Dose: 1,000mcg (1mg) weekly

Weeks per vial: 5,000 ÷ 1,000 = 5 weeks

Calculating vials needed for protocols

Plan ahead so you don't run out mid-cycle.

Formula: Vials needed = (Total days × Daily dose) ÷ Vial size

Example 1: BPC-157 8-week protocol

Protocol: 250mcg twice daily for 56 days

Daily dose: 500mcg

Total needed: 56 × 500 = 28,000mcg (28mg)

Vials: 28mg ÷ 5mg = 5.6 vials

Order: 6 vials

Example 2: TB-500 12-week protocol

Loading: 5mg twice weekly × 4 weeks = 40mg

Maintenance: 2.5mg weekly × 8 weeks = 20mg

Total: 60mg

Vials: 60mg ÷ 5mg = 12 vials

Order: 12 vials

Example 3: Ipamorelin + CJC stack

Ipamorelin: 200mcg 3x daily × 84 days = 50.4mg (11 vials)

CJC-1295: 200mcg 2x weekly × 12 weeks = 4.8mg (1 vial)

Total order: 11 Ipamorelin + 1 CJC vials

Use our peptide cost calculator to calculate exact vial quantities and total costs for any protocol.

Weight-based dosing calculations

Some peptides dose by body weight (mcg/kg).

Formula: Dose (mcg) = Body weight (kg) × mcg per kg

Example: BPC-157 at 4mcg/kg

Person weighs 180 lbs:

Convert to kg: 180 ÷ 2.20462 = 81.6kg

Calculate dose: 81.6kg × 4mcg/kg = 326mcg

Round to: 325mcg per injection

Then calculate injection volume:

Volume: 325mcg ÷ 2,500 = 0.13ml (13 units)

Common weight-based peptides:

BPC-157: 2.5-4 mcg/kg

TB-500: 30-60 mcg/kg (loading dose)

Growth hormone peptides: 2-3 mcg/kg

Our BPC-157 dosage calculator and TB-500 dosage calculator automatically adjust for body weight.

Common calculation mistakes

Let's address what people get wrong.

Mistake 1: Forgetting to convert mg to mcg

Wrong: 5mg vial ÷ 2ml = 2.5mg/ml 250mg dose needed 250 ÷ 2.5 = 100ml to inject (impossible!)

Right: 5mg = 5,000mcg 5,000mcg ÷ 2ml = 2,500mcg/ml 250mcg ÷ 2,500 = 0.1ml (10 units)

Always convert mg to mcg by multiplying by 1,000.

Mistake 2: Using wrong peptide amount

Wrong: Assuming all vials are 5mg when you have 2mg or 10mg

Right: Check your vial label every time Calculate based on actual vial size Label reconstituted vials with concentration

Mistake 3: Mixing up units and ml

Wrong: "I need 0.2ml so I'll draw to the 20 mark" (If using 1ml syringe marked to 100 units)

Right: 0.2ml = 20 units on a 100-unit syringe Always convert: ml × 100 = units

Mistake 4: Not tracking doses remaining

Wrong: Injecting until vial is empty, unsure if you're getting full doses

Right: Calculate total doses when you reconstitute Mark vial with date and track injections Discard after 28 days even if liquid remains

Mistake 5: Rounding incorrectly

Wrong: 0.083ml = "about 10 units I guess"

Right: 0.083ml × 100 = 8.3 units Round to 8 units (slightly underdosed) or 9 units (slightly overdosed) Be consistent with your rounding

Troubleshooting dosing issues

Problems happen. Here's how to fix them.

Problem: Can't draw exact calculated amount

Example: Calculator says 8.3 units but syringe only has 1-unit marks

Solution:

Round to nearest unit (8 or 9)

Be consistent - always round the same way

Small variations (1-2 units) won't affect results

Problem: Dose requires more than one syringe

Example: TB-500 dose is 2ml but you have 1ml syringes

Use two syringes, draw 1ml in each

Inject both (two injection sites)

Or get 2ml-3ml syringes for larger volumes

Problem: Not sure if calculation is correct

Double-check each step

Use our peptide reconstitution calculator to verify

Start with lower dose if uncertain (can always increase)

Better to slightly underdose than overdose

Problem: Vial concentration unknown

Example: Forgot to label reconstituted vial

If uncertain, discard and start fresh

Never guess at concentration

Always label immediately after reconstitution

Write: peptide name, concentration, date mixed

Using calculators vs manual math

You can calculate manually or use our tools. Both work.

Manual calculation benefits:

Understand the math

Can calculate anywhere

No internet needed

Calculator benefits:

Eliminates math errors

Faster for complex protocols

Shows IU and ml automatically

Calculates costs and vial quantities

Recommended approach:

Learn the math (read this guide)

Use calculators for daily dosing (faster, more accurate)

Double-check with manual math if result seems wrong

Our free calculators:

Peptide dosage calculator - all peptides

Peptide reconstitution calculator - concentration and volumes

BPC-157 calculator - injury-specific protocols

TB-500 calculator - loading and maintenance

Semaglutide calculator - complete titration

HGH Fragment calculator - fat loss protocols

Stack calculator - multiple peptides

Cost calculator - budget planning

Quick reference formulas

Save these for quick calculations.

Basic conversions:

1mg = 1,000mcg

Weight (kg) = Weight (lbs) ÷ 2.20462

Core formulas:

Concentration = Total mcg ÷ ml of water

Injection volume (ml) = Dose (mcg) ÷ Concentration (mcg/ml)

Injection volume (units) = Injection volume (ml) × 100

Doses per vial = Total mcg ÷ Dose per injection (mcg)

Standard concentrations (5mg vial):

With 1ml water: 5,000mcg/ml

With 2ml water: 2,500mcg/ml

With 3ml water: 1,667mcg/ml

The bottom line

Peptide dosing math is straightforward once you understand the units.

The key steps:

Convert vial mg to mcg (multiply by 1,000)

Calculate concentration (mcg ÷ ml of water)

Calculate injection volume (dose ÷ concentration)

Convert ml to units (multiply by 100)

Master these calculations and you'll dose accurately every time.

Or use our free calculators and skip the math entirely. Both approaches work.

The important thing: accurate dosing means better results, fewer side effects, and optimized peptide use.

Calculate right. Dose right. Get results.

Connected reading

Helpful context for this guide

Source-derived material selected through this article’s indexed topics.

Related questions

01Thymogen — frequently asked questions

Wipe the stopper with an alcohol swab, then inject your bacteriostatic water slowly down the inside wall of the vial. Let it sit and gently swirl until dissolved — never shake. Store the mixed vial in the refrigerator and draw doses with an insulin syringe. Use the calculator above to turn any dose into syringe units. There is no single correct amount — more water simply spreads the same 10 mg of peptide across a larger volume, which makes small doses easier to measure accurately. 1 to 3 mL per vial is typical. Enter your chosen volume in the calculator above to see the resulting concentration and syringe units. On a U-100 insulin syringe, 100 units equal 1 mL, so 1 unit equals 0.01 mL. The calculator above converts your draw volume into these units automatically so you can measure without doing the math by hand. Keep the reconstituted vial refrigerated at roughly 2 to 8 degrees Celsius, away from light, and avoid freezing it. Reconstituted research peptides are generally used within a few weeks. Always follow the specific guidance supplied with your product. Divide the vial strength of 10 mg by the amount you use per injection. The calculator above reports this as "doses per vial" the moment you enter a dose. No. Thymogen is sold strictly for laboratory and research purposes and is not approved by the FDA or other regulators for human use. Everything on this page is research information, not medical advice — consult a licensed healthcare professional before any use.

Source: dosagepeptide.com ↗
02AHK-Cu — frequently asked questions

Wipe the stopper with an alcohol swab, then inject your bacteriostatic water slowly down the inside wall of the vial. Let it sit and gently swirl until dissolved — never shake. Store the mixed vial in the refrigerator and draw doses with an insulin syringe. Use the calculator above to turn any dose into syringe units. There is no single correct amount — more water simply spreads the same 50 mg of peptide across a larger volume, which makes small doses easier to measure accurately. 1 to 3 mL per vial is typical. Enter your chosen volume in the calculator above to see the resulting concentration and syringe units. On a U-100 insulin syringe, 100 units equal 1 mL, so 1 unit equals 0.01 mL. The calculator above converts your draw volume into these units automatically so you can measure without doing the math by hand. Keep the reconstituted vial refrigerated at roughly 2 to 8 degrees Celsius, away from light, and avoid freezing it. Reconstituted research peptides are generally used within a few weeks. Always follow the specific guidance supplied with your product. Divide the vial strength of 50 mg by the amount you use per injection. The calculator above reports this as "doses per vial" the moment you enter a dose. No. AHK-Cu is sold strictly for laboratory and research purposes and is not approved by the FDA or other regulators for human use. Everything on this page is research information, not medical advice — consult a licensed healthcare professional before any use.

Source: dosagepeptide.com ↗
03Pemvidutide — frequently asked questions

Wipe the stopper with an alcohol swab, then inject your bacteriostatic water slowly down the inside wall of the vial. Let it sit and gently swirl until dissolved — never shake. Store the mixed vial in the refrigerator and draw doses with an insulin syringe. Use the calculator above to turn any dose into syringe units. There is no single correct amount — more water simply spreads the same 5 mg of peptide across a larger volume, which makes small doses easier to measure accurately. 1 to 3 mL per vial is typical. Enter your chosen volume in the calculator above to see the resulting concentration and syringe units. On a U-100 insulin syringe, 100 units equal 1 mL, so 1 unit equals 0.01 mL. The calculator above converts your draw volume into these units automatically so you can measure without doing the math by hand. Keep the reconstituted vial refrigerated at roughly 2 to 8 degrees Celsius, away from light, and avoid freezing it. Reconstituted research peptides are generally used within a few weeks. Always follow the specific guidance supplied with your product. Divide the vial strength of 5 mg by the amount you use per injection. The calculator above reports this as "doses per vial" the moment you enter a dose. No. Pemvidutide is sold strictly for laboratory and research purposes and is not approved by the FDA or other regulators for human use. Everything on this page is research information, not medical advice — consult a licensed healthcare professional before any use.

Source: dosagepeptide.com ↗
04IGF-1 DES — frequently asked questions

Wipe the stopper with an alcohol swab, then inject your bacteriostatic water slowly down the inside wall of the vial. Let it sit and gently swirl until dissolved — never shake. Store the mixed vial in the refrigerator and draw doses with an insulin syringe. Use the calculator above to turn any dose into syringe units. There is no single correct amount — more water simply spreads the same 1 mg of peptide across a larger volume, which makes small doses easier to measure accurately. 1 to 3 mL per vial is typical. Enter your chosen volume in the calculator above to see the resulting concentration and syringe units. On a U-100 insulin syringe, 100 units equal 1 mL, so 1 unit equals 0.01 mL. The calculator above converts your draw volume into these units automatically so you can measure without doing the math by hand. Keep the reconstituted vial refrigerated at roughly 2 to 8 degrees Celsius, away from light, and avoid freezing it. Reconstituted research peptides are generally used within a few weeks. Always follow the specific guidance supplied with your product. Divide the vial strength of 1 mg by the amount you use per injection. The calculator above reports this as "doses per vial" the moment you enter a dose. No. IGF-1 DES is sold strictly for laboratory and research purposes and is not approved by the FDA or other regulators for human use. Everything on this page is research information, not medical advice — consult a licensed healthcare professional before any use.

Source: dosagepeptide.com ↗
05GHK (Copper-Free) — frequently asked questions

Wipe the stopper with an alcohol swab, then inject your bacteriostatic water slowly down the inside wall of the vial. Let it sit and gently swirl until dissolved — never shake. Store the mixed vial in the refrigerator and draw doses with an insulin syringe. Use the calculator above to turn any dose into syringe units. There is no single correct amount — more water simply spreads the same 50 mg of peptide across a larger volume, which makes small doses easier to measure accurately. 1 to 3 mL per vial is typical. Enter your chosen volume in the calculator above to see the resulting concentration and syringe units. On a U-100 insulin syringe, 100 units equal 1 mL, so 1 unit equals 0.01 mL. The calculator above converts your draw volume into these units automatically so you can measure without doing the math by hand. Keep the reconstituted vial refrigerated at roughly 2 to 8 degrees Celsius, away from light, and avoid freezing it. Reconstituted research peptides are generally used within a few weeks. Always follow the specific guidance supplied with your product. Divide the vial strength of 50 mg by the amount you use per injection. The calculator above reports this as "doses per vial" the moment you enter a dose. No. GHK (Copper-Free) is sold strictly for laboratory and research purposes and is not approved by the FDA or other regulators for human use. Everything on this page is research information, not medical advice — consult a licensed healthcare professional before any use.

Source: dosagepeptide.com ↗
Research context

Read sources and limitations before applying a claim.

Handling and Reconstitution in a Research Context

This section describes how NAD+ and its precursors are handled as laboratory materials, because handling directly affects the reproducibility and interpretability of research. It is not a how-to for self-administration and carries no implication that these compounds should be used to address Parkinson’s disease or any other condition outside a properly authorized study. The clinical trials discussed above used pharmaceutical-grade oral capsules manufactured and quality-controlled to trial standards, which is a very different thing from a lyophilized research vial. Oral precursors such as NR and NMN are the simplest to handle because they are supplied as capsules or powders intended for oral use, and the human Parkinson’s trials all used the oral route.1,2 Their main practical vulnerabilities are moisture and heat: NMN in particular is hygroscopic and can degrade if exposed to humidity, so powders are kept sealed, cool, and dry, and analytical labs verify content by high-performance liquid chromatography rather than trusting label claims. For any quantitative experiment, confirming compound identity and purity before use is a basic control, because degraded or mislabeled material is a common hidden source of irreproducibility. Lyophilized (freeze-dried) NAD+ intended for reconstitution introduces additional handling considerations that mirror those of injectable research peptides. Freeze-dried material is generally stored frozen, often at minus 20 degrees Celsius or colder, with colder storage preferred for long-term stability, and is protected from light and repeated freeze-thaw cycling, each of which can degrade sensitive dinucleotides. Reconstitution is typically performed with a sterile diluent added slowly down the inner wall of the vial rather than directly onto the powder, followed by gentle swirling rather than vigorous shaking, since mechanical agitation and foaming can damage the molecule; the vial is then allowed to dissolve fully before use. Once in solution, NAD+ is far less stable than in its dried state and is kept refrigerated at roughly 2 to 8 degrees Celsius and used within a limited window, on the order of days to a couple of weeks depending on conditions, because aqueous NAD+ hydrolyzes over time. Concentration is a function of the diluent volume added to a known mass; laboratories track this explicitly so that any downstream measurement is traceable to a defined concentration. General principles of this kind are covered in the site’s peptide reconstitution guide and the associated reconstitution calculator, which exist to support accurate laboratory record-keeping rather than to encourage use. Two broader points frame all of this. First, handling quality is a research-validity issue before it is anything else: an experiment run with degraded, contaminated, or inaccurately concentrated material produces uninterpretable data, which is one way that poorly controlled work generates the exaggerated claims this article is trying to counter. Second, none of these handling details change the compounds’ status. A carefully reconstituted NAD+ solution is still an unapproved research material, and meticulous technique does not convert a preclinical hypothesis into a validated Parkinson’s treatment. The site’s general research compound reference index catalogs handling parameters for many such materials on the same understanding: they are educational references for people working in controlled settings, not endorsements of use.

Source: dosagepeptide.com ↗

Where the Human Evidence Stands — and Why It Does Not Reach Lipogenesis

AOD-9604’s clinical record lives almost entirely in obesity, and understanding it is the fairest way to gauge whether any of the preclinical antilipogenic promise translated to people. The short version: it was tested seriously, in humans, at scale, and it did not deliver on its primary endpoint — and none of the human work measured lipogenesis at all. Across development, AOD-9604 was studied in roughly six human clinical trials enrolling more than 900 participants in total, a tally that derives from the sponsor’s development-program summary rather than a single publication.10 The centerpiece early study, a 12-week Phase 2 evaluation in obese adults (METAOD005) using once-daily oral dosing across several dose arms, was encouraging: the 1 mg arm reportedly lost more weight than placebo, and the results generated optimistic press.10 But the pivotal, longer, more rigorously controlled 24-week study (METAOD006) — a randomized, double-blind, placebo-controlled, multicenter trial that is the single published RCT on the compound — found that the weight-loss difference between AOD-9604 and placebo did not reach statistical significance at the primary endpoint, especially against a background of intensive diet and exercise.10 Development as an obesity drug was terminated in 2007. Two points matter for the antilipogenic question. First, every human study used weight and body-composition endpoints, plus safety and pharmacokinetic measures. None used the tools that actually quantify de novo lipogenesis in people — stable-isotope tracers (for example, deuterated water incorporation into palmitate), adipose or hepatic lipogenic-gene expression, or measured lipogenic flux. So even the human trials that exist are silent on whether AOD-9604 reduces fat synthesis; they measured the downstream outcome (weight), not the mechanism (lipogenesis), and the downstream outcome was not robustly positive. Second, the reassuring endocrine profile held up: the compound was reported not to raise IGF-1 and not to impair glucose tolerance, consistent with the “GH activity modulation” design.1 Trials ~6 studies, >900 participants total10 Pivotal design 24-week randomized, double-blind, placebo-controlled, multicenter (METAOD006); oral10 Primary endpoint Weight difference vs placebo did NOT reach statistical significance10 Lipogenesis measured? No — no DNL tracer, lipogenic-gene, or flux endpoints in any human study Endocrine profile No reported IGF-1 rise; no impaired glucose tolerance1 Outcome Obesity development halted in 200710 The honest reading is stark: the compound’s best-evidenced outcome (fat loss in obesity) was itself not robustly demonstrated in humans, and its proposed mechanism (reduced lipogenesis) was never measured in humans at all. Extrapolating from “inhibited ACC in rat fat pads” to “reduces lipogenesis in people” is a leap across species, tissues, and measurement methods, with no human data on the far side. For a measured look at how the clinical results are often characterized, see the site’s summary of what clinical trials indicate about the fat-burning potential of AOD-9604.

Source: dosagepeptide.com ↗
Practical and safety references

These excerpts are educational, not personalised medical instructions.

How-to reference

How to convert mcg to mg (and back)

Because the factor is exactly 1000, every conversion is a decimal-point move of three places — no calculator strictly required once you see the pattern: mcg → mg: divide by 1000, i.e. move the decimal point three places to the left. 500 mcg → 0.5 mg; 100 mcg → 0.1 mg; 1500 mcg → 1.5 mg. mg → mcg: multiply by 1000, i.e. move the decimal point three places to the right. 0.5 mg → 500 mcg; 2 mg → 2000 mcg; 1.25 mg → 1250 mcg. The tool above does the same move for you and trims trailing zeros, so you can paste in any value — whole or fractional — and read the exact counterpart.

Source: dosagepeptide.com ↗
Dosage reference

GHRP-6 (5mg Vial) Dosage Protocol

Ghrelin-receptor GH secretagogue (appetite-stimulating) — research/educational dosing reference.

Source: dosagepeptide.com ↗
P

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Peptide Therapy Guide Editorial Team

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