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IGF-1 DES Dosage Chart - Peptide Dosages

IGF-1 DES (1 mg) Dosage Protocol A truncated, highly potent IGF-1 analog (des(1-3)IGF-1) studied for localized muscle hypertrophy — preclinical only, not an FDA-approved drug. Truncated IGF-1 missing the N-terminal tripeptide; binds IGF-binding proteins poorly

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.

IGF-1 DES (1 mg) Dosage Protocol

A truncated, highly potent IGF-1 analog (des(1-3)IGF-1) studied for localized muscle hypertrophy — preclinical only, not an FDA-approved drug.

Truncated IGF-1 missing the N-terminal tripeptide; binds IGF-binding proteins poorly, so it is ~10x more potent than IGF-1 in vitro with a very short half-life.

Micrograms, not milligrams: research conventions cite 20-50 mcg once daily SC, often near a trained muscle, in short 4-6 week cycles.

Preclinical only — cell and animal data, no human muscle-growth trials, not FDA-approved.

Quickstart Highlights

IGF-1 DES — formally des(1–3)IGF-I — is a naturally-occurring truncated form of insulin-like growth factor 1 that is missing the first three amino acids (Gly-Pro-Glu) from its N-terminus[1]. Losing the glutamate at position 3 sharply reduces its binding to IGF-binding proteins, which is why in cell culture it is reported to be roughly ten times more potent than intact IGF-1 at driving cell proliferation and hypertrophy[1]. In the bodybuilding and research-peptide community it is studied for localized muscle hypertrophy and is treated as the shorter-acting sibling to IGF-1 LR3.

The evidence base for IGF-1 DES is preclinical — isolated tissue, cell-culture and rodent studies — and there are no human trials of the grey-market peptide for muscle growth. It is not an FDA-approved drug (the only approved recombinant IGF-1, mecasermin, is indicated for severe primary IGF-1 deficiency in children, not athletic use). The figures below reflect research conventions and are provided strictly for research and educational reference — not medical advice.

Mix & measure IGF-1 DES · 1 mg

Pre-filled with this protocol’s recommended BAC water and documented starting dose — edit any field to run your own numbers.

Reconstitution math only — not dosing advice. U-100 syringe: 100 units = 1 mL. Full reconstitution guide → · Advanced calculator →

Supplies Needed

Everything a documented injectable protocol relies on. Nothing here is exotic — sterile technique and accurate microgram measurement matter far more than any single tool.

Protocol Overview

At 500 mcg/mL a single 1 mg vial holds 2 mL of usable solution — twenty 100 mcg-equivalents, or (at a typical 30 mcg daily dose) roughly a month of research use from one vial. Because doses are so small, an accurate U-100 insulin syringe is the single most important tool for measurement.

IGF-1 DES is generally run in short cycles rather than continuously; a common pattern is 4–6 weeks on followed by an equal break, so one or two vials cover a cycle depending on the daily dose chosen.

Dosing Protocol

A reference range converted to U-100 units at 500 mcg/mL. This is a common research convention, not a titration schedule and not clinical guidance.

Conservative

20 mcg once daily

4 units (0.04 mL)

Common research range

40 mcg once daily

8 units (0.08 mL)

Upper reference

50 mcg once daily

10 units (0.10 mL)

Cycle length

4–6 weeks, then break

Not run continuously

Why IGF-1 DES draws research interest

These are the directions researchers and the peptide community most often explore IGF-1 DES for — so you know you’re in the right place. They describe what is being studied, not proven benefits, approved uses, or promised results.

Localized hypertrophy

Studied for site-specific muscle growth from near-muscle injection, extrapolated from its high local potency — not confirmed in controlled human studies.

High local potency

Reported ~10-fold more potent than intact IGF-1 in cell culture because it escapes IGF-binding-protein sequestration.

Repair signaling

Activates the IGF-1 receptor's Akt-driven protein-synthesis and satellite-cell pathways associated with muscle growth and repair.

Evidence ranges from early laboratory work to clinical trials depending on the use — the sections below cover the actual data and sources.

Add 2.0 mL bacteriostatic water to one 1 mg vial → 500 mcg/mL (5 mcg per U-100 unit).

Reference research convention 20–50 mcg once daily; conservative work often stays near 20–40 mcg.

Subcutaneous, once daily, frequently post-workout and near the trained muscle given the very short half-life.

Preclinical / research-chemical — cell and animal data only, no human muscle-growth trials, not FDA-approved.

Dosing & Reconstitution Guide

IGF-1 DES is dosed in micrograms, not milligrams, and its defining feature is a very short half-life — on the order of 20–30 minutes because it binds IGF-binding proteins poorly and is cleared quickly[1]. That short window is the entire rationale for the site-specific, post-workout timing used in the research community.

Standard / Gradual Approach

Rather than a slow escalation, the reference approach is a modest fixed dose within a short cycle: many research protocols cite 20 to 50 mcg once daily, sometimes split near the muscle groups trained that session, run for 4 to 6 weeks before a break[2]. Reconstituted at 500 mcg/mL, a 20 mcg dose equals 4 units (0.04 mL) on a U-100 syringe and a 50 mcg dose equals 10 units (0.10 mL). Because the peptide clears within roughly half an hour, higher or more frequent dosing is not obviously more effective and simply raises the metabolic and hypoglycemia risk.

Reconstitution Steps

Reconstitution is standard for a lyophilized peptide. A 2 mL diluent volume keeps a 1 mg vial easy to measure at microgram doses and physically sensible.

▪Sanitize: Swab the vial stopper and the bacteriostatic-water vial with fresh alcohol pads and let them dry.

▪Add diluent slowly: Draw 2.0 mL bacteriostatic water and let it run down the inside wall of the vial — do not spray it directly onto the powder.

▪Dissolve gently: Swirl; do not shake. The solution should clear within a minute or two.

▪Store: Label with the date and refrigerate at 2–8 °C; the reconstituted vial holds ~500 mcg/mL.

Storage Instructions

Store the lyophilized vial in the freezer or refrigerator away from light until reconstitution.

After reconstitution, keep the vial refrigerated at 2–8 °C and use within the bacteriostatic-water window (commonly cited as up to ~28 days). Discard if the solution becomes cloudy or discolored.

Important Notes

Practical points that keep a microgram-dosed injectable protocol consistent and honest about what the compound is.

▪Very short half-life: IGF-1 DES is cleared within roughly 20–30 minutes, which is why the research rationale is local, near-workout use rather than systemic, sustained exposure[1].

▪Hypoglycemia risk: Like all IGF-1 forms it can lower blood glucose; the approved IGF-1 mecasermin carries a documented hypoglycemia warning, so eating around dosing and never combining carelessly with insulin are genuine safety points[4].

▪Site-specific claims are largely anecdotal: The idea that IGF-1 DES adds muscle only where injected is popular but rests on extrapolation from local-infusion animal work, not controlled human data.

▪Growth-signaling caution: IGF-1 is a broad proliferative signal; theoretical concerns about promoting the growth of existing abnormal tissue mean this is not a casual compound. Anyone with a personal or family cancer history should treat that as a hard stop.

▪Unverified purity: Grey-market IGF-1 DES is a fragile protein easily degraded or mislabeled; without a Certificate of Analysis, identity and potency cannot be assumed.

How This Works

IGF-1 DES is a naturally-shortened variant of IGF-1: removing the N-terminal Gly-Pro-Glu tripeptide (and specifically the glutamate at position 3) greatly weakens its affinity for the IGF-binding proteins that normally sequester circulating IGF-1[1]. Because less of it is bound and held in reserve, more is free to engage the IGF-1 receptor locally, which is the basis for its reported ~10-fold greater in-vitro potency at stimulating cell proliferation and hypertrophy.

Once at the IGF-1 receptor it triggers the same downstream anabolic cascade as IGF-1 — PI3K/Akt and MAPK signaling that promotes protein synthesis and satellite-cell activity — but its poor binding-protein affinity also means rapid clearance[3]. In animal studies the same properties produced selective anabolic effects in tissues such as the gut when infused[2]; the leap from that to targeted human muscle growth remains unproven.

Lifestyle Factors

Because IGF-1 DES amplifies an anabolic signal rather than creating one, whatever muscle-protein synthesis it could support still depends on the fundamentals — adequate protein intake, progressive resistance training and sleep. Without a genuine training and nutrition stimulus there is little for the signal to act on.

Given the hypoglycemia potential, research users generally time doses around food and monitor how they feel; anyone using it alongside other glucose-lowering agents needs to be especially careful, and standard health screening is assumed rather than optional.

Potential Benefits & Side Effects

What the preclinical literature reports; this is cell and animal evidence, not a supervised human therapy, and individual outcomes are unknown because controlled human muscle-growth studies do not exist.

Reported Effects

▪High local potency: Reported to be roughly ten-fold more potent than intact IGF-1 at stimulating cell proliferation and hypertrophy in culture, due to reduced binding-protein sequestration[1].

▪Selective anabolic action in tissue: In rodent models, IGF-1 analogs that bind binding-proteins poorly (including des(1–3)IGF-I) produced selective growth effects in gut and other tissues[2].

▪Satellite-cell and repair signaling: IGF-1 receptor activation drives the Akt-mediated protein-synthesis and satellite-cell pathways associated with muscle growth and repair — the theoretical basis for the muscle interest[3].

▪Studied for localized hypertrophy: The community interest is site-specific muscle growth from near-muscle injection — a plausible extrapolation from the pharmacology that has not been confirmed in controlled human studies.

Common Side Effects

▪Hypoglycemia: The most predictable acute effect — lowered blood glucose, potentially with shakiness, sweating or lightheadedness, especially if dosed fasted or with insulin[4].

▪Injection-site reactions: Local redness, soreness or swelling are common to any subcutaneous injection.

▪Proliferative concern: As a potent growth signal, IGF-1 activity raises theoretical concern about promoting growth of pre-existing abnormal cells — a genuine reason for caution, not a casual muscle aid.

▪Unknown long-term safety: There is no human safety database for the grey-market peptide; effects of repeated cycles are simply not characterized.

Injection Technique

Subcutaneous injection technique is standard. Accurate microgram measurement and site rotation matter more than speed.

Pre-Injection Preparation

▪Wash hands; let the refrigerated vial come toward room temperature to reduce sting.

▪Swab the stopper and injection site; let the alcohol dry fully.

▪Draw your microgram dose into a fresh U-100 syringe and tap out air bubbles — double-check the unit mark given how small the volume is.

Injection Procedure

▪Pinch a skinfold (abdomen, or subcutaneous tissue over the trained muscle) and insert at 45–90°.

▪Inject the small volume at a steady, even pace.

▪Withdraw and apply light pressure with a clean swab — do not rub.

Post-Injection Care

▪Drop the used syringe straight into a puncture-proof sharps container.

▪Have a normal meal or carbohydrate source available in case of a glucose dip, particularly early in a cycle.

▪Rotate sites day to day and return the vial to the refrigerator promptly.

Recommended Source

For high-purity research peptides, we point researchers to Prime Lab Peptides for IGF-1 DES (1 mg Vial).

Why Prime Lab Peptides?

▪Top-rated on Trustpilot: Independently reviewed as the highest-rated peptide lab on Trustpilot — making it the best current source in the USA.

▪Third-party tested: Every batch ships with a Certificate of Analysis (COA) confirming purity and composition.

▪Consistent quality: ISO-aligned manufacturing and handling keep product integrity reliable batch to batch.

▪Cold-chain integrity: Temperature-controlled shipping and storage across the whole fulfilment chain.

▪Research-grade purity: Fit for educational and research use that demands high-quality peptides.

Note: Product availability and specifications subject to change. Verify current product details on supplier website.

References

View Source ↗

IGF-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.

New protocols & dosing updates

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Written by Dr. Aimen Arij, PharmD

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Related questions

01Humanin — 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. Humanin 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 ↗
02Teduglutide — 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. Teduglutide 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 ↗
03Cortexin — 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. Cortexin 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 ↗
04Davunetide — 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. Davunetide 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 ↗
05Pemvidutide — 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 ↗
Research context

Read sources and limitations before applying a claim.

Limitations and the Human-Evidence Gap

Every honest account of NAD+ and Parkinson’s disease converges on the same conclusion: the human evidence gap is wide, and the most important results are not yet in. It is worth cataloguing the specific limitations, because they are what separate a promising research program from a proven therapy, and because they are exactly the details that hype tends to omit. The first limitation is trial size and duration. The two completed randomized trials in Parkinson’s disease enrolled 30 and 20 participants and lasted 30 days and 4 weeks respectively.1,2 These are appropriate designs for their stated purposes, safety and target engagement, but they are structurally incapable of demonstrating disease modification, which manifests as a gradual divergence of progression curves over a year or more. Any clinical improvement seen in such short trials is more likely to reflect symptomatic effects, measurement variability, or confounding than a change in the underlying neurodegenerative process. The NR-SAFE authors’ own caution about levodopa-timing confounding their UPDRS signal is a model of the appropriate humility.2 The second limitation is the responder problem. NADPARK showed that oral NR raises brain NAD+ in some participants but not others, and that clinical and metabolic signals clustered in the responder subgroup.1 This heterogeneity is scientifically important but clinically double-edged: it means that even if NAD+ elevation helps, an intention-to-treat analysis that includes non-responders may dilute the effect below detectability, while a responder-only analysis risks the statistical pitfalls of post-hoc subgrouping. Sorting out who responds, why, and how to identify them in advance is unfinished work. The third limitation is the model-to-human translation gap already discussed. The mechanistic and preclinical case is strong, but Parkinson’s disease has an unusually long history of interventions that protected neurons in animals and then failed in rigorous human trials, from antioxidants to anti-apoptotic agents to other mitochondrial strategies. NAD+ boosting could be different, but the base rate argues for caution until the phase III data are published.1,5 The fourth limitation concerns the epidemiology: the cross-sectional NHANES analysis linking higher dietary niacin intake to lower Parkinson’s prevalence is consistent with the hypothesis but cannot establish causation, and the larger EPIC-based cohort study examined niacin and tryptophan intake against incident Parkinson’s disease without providing the kind of confirmed protective association that would strengthen the causal case.10,11 Observational designs of this type are in any event particularly vulnerable to reverse causation, because prodromal Parkinson’s disease alters diet, smell, appetite, and gastrointestinal function years before diagnosis. The fifth limitation is conceptual: “NAD+ deficiency” is not a single, cleanly measured, universally agreed entity in Parkinson’s disease. Different studies measure NAD+ in different tissues (brain, cerebrospinal fluid, blood, skeletal muscle) using different techniques, and these compartments do not move in lockstep. The finding of lower NAD+ or lower NAD+-synthesizing enzymes in some Parkinson’s tissues is real and reproducible in places, but whether it is a primary driver of neurodegeneration, a downstream consequence of mitochondrial failure, or both at once is not resolved.4,6 A therapy premised on correcting a deficiency needs a clear picture of what deficiency it is correcting and where. Until the NOPARK results and comparable trials are published and, ideally, independently replicated, the responsible bottom line is that NAD+ precursors remain an unproven, investigational approach in Parkinson’s disease, however biologically attractive the rationale.3

Source: dosagepeptide.com ↗

Research Models and How Lipogenesis Is Actually Measured

Understanding how AOD-9604 has been studied clarifies both what the data can support and what a real antilipogenic investigation would require. The methodology falls into three tiers, and only the first touches lipogenesis directly. Ex vivo and in vitro fat-tissue work. The foundational studies examined lipolysis and lipogenesis in adipose tissue and isolated fat cells, measuring free-fatty-acid and glycerol release, fat oxidation, and — critically — the activity of lipogenic enzymes such as acetyl-CoA carboxylase.23 Enzyme-activity assays of this kind are the appropriate tool for an antilipogenic claim, and they are the source of the strongest evidence that a C-terminal domain peptide can suppress fat synthesis. A more complete modern program would add radiolabeled- or deuterium-tracer incorporation into fatty acids to quantify DNL flux, plus expression of ACC, FASN, SREBP-1c, and ChREBP under the peptide. Rodent models. The most methodologically informative animal work is the β3-AR knockout study, a clean genetic approach that isolated the receptor’s contribution by comparing knockout and wild-type mice under identical treatment.4 Obese Zucker rats and ob/ob mice provided body-weight, fat-mass, and substrate-oxidation readouts.15 These are genetically obese metabolic models, well suited to whole-body fat-balance questions but blunt instruments for isolating lipogenesis from lipolysis, since net fat change reflects both. Human trials. The clinical methodology was appropriate for an obesity drug — randomized, double-blind, placebo-controlled designs with weight and body-composition endpoints, plus dedicated safety and pharmacokinetic studies.610 A safety and tolerability study specifically characterized the peptide in humans.6 But none of these used lipogenesis endpoints. To answer this article’s question in humans would require a purpose-built study: stable-isotope measurement of de novo lipogenesis, adipose and hepatic lipogenic-gene expression, and controlled dosing — work that has never been done for AOD-9604. The methodological bottom line is that the antilipogenic evidence is strongest exactly where it is least generalizable (isolated rodent fat-tissue enzyme assays) and absent exactly where it would matter most (human DNL flux). Until that gap is filled, any statement that AOD-9604 “reduces lipogenesis in humans” is hypothesis, not finding. Terminology used across this literature — lipogenesis, lipolysis, DNL, ACC, FASN — is defined for reference in the site’s peptide and metabolism glossary.

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

Dosing & Reconstitution Guide

A single practical dilution with accurate once-daily dosing, step by step Frequency: one subcutaneous injection each day. The 4 mg/day dose and the 1–4–8 mg dose-ranging arms are real Phase 2 parameters[3][4], but Phase 2 results are early-stage and proven efficacy should not be assumed.

Source: dosagepeptide.com ↗
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Peptide Therapy Guide Editorial Team

Editorial team for Peptide Therapy Guide.

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