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Identification·8 min read

What is the super human blend? Why there is no standard one

Super human blend has no agreed formulation — the same name covers different vials from different suppliers. What is usually in one, what the research covers, and how to compare two of them.

Super human blend, also written superhuman blend, is a marketing name with no standard formulation. Different suppliers sell different combinations under it, most often built around BPC-157, TB-500 and GHK-Cu. Because the name is not defined by anything, the component list on the label is the only description of the vial that carries information.

By the Bench Grade Research Team ·

Super human blend is a name, not a formulation

Wolverine blend at least maps consistently to two components. Super human blend does not. Search the term across suppliers and the vials returned differ in how many peptides they contain, which ones, and at what masses. The name signals a category of ambitious multi-peptide blend rather than a formulation.

That matters commercially. Two vials sold under the same name at different prices may not be comparable products at all, and the cheaper one is not necessarily worse value — it may simply contain less, or fewer components, or the same total mass split more thinly.

What these blends are usually built from

Components commonly appearing under this name
ComponentCASMolecular weight
BPC-157137525-51-01419.55 g/mol
TB-50077591-33-44963.44 g/mol
GHK-Cu89030-95-5402.92 g/mol
KPV67727-97-3342.43 g/mol

A four-component version of this idea is sold in this catalog as KLOW, and a three-component version as GLOW. Both state their components in the product name for exactly the reason described above.

What each component is studied for

The four components most often found under this name
ComponentSizeMolecular function described in the literature
GHK-Cu402.92 g/molCopper(II) complex; copper is a required cofactor for lysyl oxidase, the enzyme that cross-links collagen and elastin
BPC-1571419.55 g/molAngiogenic and nitric-oxide pathway effects proposed from rodent tissue models
TB-5004963.44 g/molBinds monomeric G-actin, regulating the pool available for filament assembly
KPV342.43 g/molC-terminal tripeptide of alpha-MSH; studied for effects on inflammatory signalling in cultured cells

Note the spread in molecular weight: more than twelvefold between the smallest and largest. Equal masses of GHK-Cu and TB-500 are very unequal numbers of molecules, which is why comparing blends on milligrams alone is close to meaningless.

GHK-Cu: the copper is the mechanism

GHK-Cu is not a peptide with a metal impurity. It is a copper(II) ion complexed by the tripeptide glycyl-histidyl-lysine, and the metal is part of the compound — it is in the molecular formula and it is most of what distinguishes this molecule from the bare tripeptide.

Copper is a required cofactor for lysyl oxidase, the enzyme that forms the cross-links giving collagen and elastin their mechanical properties. The dermatological literature on this complex examines it as a copper-delivery vehicle on that basis, and studies describe effects on collagen synthesis in cultured fibroblasts. The proposed mechanism is therefore about delivering a metal to an enzyme system rather than about the peptide acting on a receptor.

Two handling consequences follow directly. The complex is more light-sensitive than a plain peptide, and copper ions catalyse oxidation of other species — which matters in a blend containing an oxidation-prone component such as TB-500.

KPV: three residues doing one job

KPV is lysine-proline-valine, the C-terminal three residues of alpha-melanocyte-stimulating hormone. The parent hormone acts at melanocortin receptors; the published work on this fragment describes activity that does not require them, which is the reason the fragment is studied separately rather than as a stand-in for the whole molecule.

Cell-culture studies describe effects on inflammatory signalling pathways, and separate work examines uptake through the PepT1 transporter in intestinal cell models — a route available to very small peptides and closed to larger ones. At 342.43 g/mol this is the smallest component in either blend by a wide margin, and its size is what makes that transport route relevant at all.

Four components, four sets of uncertainty

Each component brings its own evidence base, and they are of markedly different quality. Thymosin beta-4's actin function is established cell biology. Copper's role as a lysyl oxidase cofactor is established biochemistry. BPC-157's mechanism is proposed from animal outcomes. KPV's is described from cell-culture work.

A four-component blend inherits all four positions and adds six pairwise interactions that nobody has studied. That is the honest accounting, and it runs opposite to the way these products are usually presented — as though combining compounds combined their evidence rather than multiplying their unknowns.

Why the mass split matters more than the total

An 80 mg blend sounds larger than a 70 mg blend. Split four ways rather than three, it is 20 mg per component against roughly 23 mg — less of each, for a bigger headline number.

Molar amounts diverge further still. GHK-Cu at 402.92 g/mol and TB-500 at 4963.44 g/mol differ by more than a factor of twelve, so equal masses are very unequal numbers of molecules. A blend's mass split tells you considerably less about the mixture than it appears to, and comparing two blends on total milligrams is close to meaningless.

The comparison that actually works

  • List the components of each vial side by side. A blend with three peptides is not comparable to one with four.
  • Compare per-component milligrams, not the headline total.
  • Convert to molar amounts where the components differ widely in mass, which for these blends they always do.
  • Divide price by total peptide mass, then check the split.
  • Ask whether the COA reports purity per component or one number for the mixture. Only the first is meaningful.

What the component literature covers

There is no published research on any of these blends as blends. What exists is research on each component individually, in animal and in-vitro models, and that work does not combine by virtue of the compounds sharing a vial. The studies for the components are linked below.

Why a blend carries less safety evidence, not more

The record is thinner than the confident marketing around these blends suggests, and reporting that accurately is more useful than reassurance.

  • None of these components has completed a Phase III human trial.
  • Adverse-event information in circulation derives from animal studies, small trials and self-reported community data rather than controlled clinical investigation.
  • What is described is predominantly mild gastrointestinal symptoms and local injection-site reactions where a parenteral route was used.
  • No controlled human study of any of these multi-component combinations exists. Combining three or four compounds multiplies the number of untested interactions rather than the evidence base.

The dosing question for an undefined blend

This is the most-searched question about these blends and it deserves a straight answer rather than silence.

We do not publish a self-administration amount for these compounds. They have no approved human use and no established human dosing, and a blend compounds the problem: even if a figure existed for one component, it would not survive being fixed in ratio to two or three others by a manufacturer.

What is determinable: each published study states what was administered, to which species, by which route. Those papers are linked below and are almost entirely animal work. What is also determinable is the arithmetic — converting any target amount into a volume is straightforward and is covered in the concentration guide linked from this page. That guide supplies the method and not the input.

How to verify a multi-component vial

  • Purity reported per component, not one area-percent figure for the vial.
  • One mass-spectrometry confirmation per component.
  • A chromatogram with each peak resolved and identified.
  • The per-component mass split in milligrams.
  • Where a copper complex such as GHK-Cu is present, its blue colour is a visible identity cue that a blend without it would not have.

References

Primary literature for the compounds discussed above. Links open the record on PubMed.

  1. The potential of GHK as an anti-aging peptide Pickart L, et al. Aging Pathobiol Ther. 2022. PMID 35083444 → · summary
  2. Regenerative and Protective Actions of the GHK-Cu Peptide in the Light of the New Gene Data Pickart L, et al. Int J Mol Sci. 2018. PMID 29986520 → · summary
  3. BPC 157 and Standard Angiogenic Growth Factors. Gastrointestinal Tract Healing, Lessons from Tendon, Ligament, Muscle and Bone Healing Sikiric P, et al. Curr Pharm Des. 2018. PMID 29998800 → · summary
  4. The promoting effect of pentadecapeptide BPC 157 on tendon healing involves tendon outgrowth, cell survival, and cell migration Chang CH, et al. J Appl Physiol. 2011. PMID 21030672 → · summary
  5. Thymosin beta 4 improves dermal burn wound healing via downregulation of receptor of advanced glycation end products in db/db mice Xu TJ, et al. Biochim Biophys Acta. 2014. PMID 25230158 → · summary
  6. Pentadecapeptide BPC 157 (PL 14736) improves ligament healing in the rat Cerovecki T, et al. J Orthop Res. 2010. PMID 20225319 → · summary
  7. Gastric pentadecapeptide BPC 157 as an effective therapy for muscle crush injury in the rat Novinscak T, et al. Surg Today. 2008. PMID 18668315 → · summary
  8. Achilles detachment in rat and stable gastric pentadecapeptide BPC 157: promoted tendon-to-bone healing and opposed corticosteroid aggravation Krivic A, et al. J Orthop Res. 2006. PMID 16583442 → · summary

Primary sources

Frequently asked questions

Is there a standard super human blend formulation?
No. Whether it is written super human blend or superhuman blend, different suppliers sell different combinations under the name, usually built around BPC-157, TB-500 and GHK-Cu but varying in components and masses. The component list on the label is the only reliable description.
What is the dosage for a super human blend?
We do not publish a self-administration amount. These compounds have no approved human use or established human dosing, and a blend fixes several compounds in a ratio set by the manufacturer. The published studies state what was administered in each experiment, to which species and by which route.
Are peptide blends safe?
The published record is too thin to support a safety claim in either direction. None of these components has completed a Phase III trial, adverse-event information comes largely from animal work and self-report, and no controlled human study of these multi-component combinations exists. A blend has less evidence behind it than its components individually.
How do I compare two blends sold under the same name?
Component by component and milligram by milligram, then converted to molar amounts. An 80 mg blend split four ways gives 20 mg each while a 70 mg blend split three ways gives more per component, and components differing twelvefold in molecular weight make equal masses very unequal molar amounts.
Why do peptide blends have informal names at all?
Because a name is easier to ask for than a component list. That is fine when the listing also states the composition. It becomes a problem when the name is the only information given, which is common in this market.

Compounds discussed in this guide

More on identification

All products discussed in this guide are supplied by Bench Grade Peptides for laboratory research use only. Not for human or veterinary use.

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