Translate a gummy label target into formula-space arithmetic.

Three ingredient targets do not equal three powder weights

A gummy concept can look small when you add only the named constituent amounts. The physical material needed to deliver those amounts can be much larger. Before discussing how many actives fit in one serving, put every proposed material on a consistent mass and reporting basis.

The formula-space calculator handles one material at a time. For a multi-material concept, repeat that arithmetic and reconcile the total. This is a purchasing screen, not a recipe, intake recommendation or manufacturing feasibility result.

Start with documented inputs

For each material, identify the named constituent, its intended amount per serving, the supplier's stated constituent percentage and the basis on which that percentage is reported. Also identify whether two constituents come from the same material. A shared material should not be counted twice as though two separate powders will be added.

Do not substitute a generic percentage for an unknown specification. This mass-fraction worksheet does not convert CFU, enzyme activity, extract ratios or other non-mass units into milligrams. Those require a documented relationship appropriate to the specific material; an extract ratio alone is not a constituent assay percentage.

An intentionally fictional three-material example

The numbers below are invented solely to demonstrate mass balance. They are not recommended doses, approved overages, practical loading limits or descriptions of a Sucotond formulation. Assume three distinct non-overlapping source materials, matching reporting bases, and no planning adjustment.

Each source-material mass = its constituent target / its mass fraction
Total source-material mass = sum of the distinct source-material masses
Proposed serving mass = pieces per serving × finished piece mass
Material share = total source-material mass / proposed serving mass
Arithmetic remainder = proposed serving mass − total source-material mass

Suppose the proposed serving is two 3,000 mg pieces. The serving mass is 6,000 mg; the three materials account for 53.33%, leaving an arithmetic remainder of 2,800 mg per serving, or 1,400 mg per piece.

That remainder is not free manufacturing capacity. The worksheet does not calculate the gelling system, water, sweetener, acidity, flavor, color, coating or processing effects. It does not establish whether the materials can be mixed, deposited, set, dried or kept stable. A positive remainder is only an arithmetic observation.

Compare an alternative without claiming it will work

If the same fictional source-material total is distributed across three 3,000 mg pieces, the serving mass becomes 9,000 mg and the material share becomes 35.56%. That is a different serving architecture, not a validated formulation improvement.

At a fixed 60-piece bottle count, the change also reduces servings per bottle from 30 to 20. Carry that difference into the accepted-serving quote worksheet. Adding a piece can alter the commercial comparison even before any technical result is known.

The same targets with different hypothetical material fractions

Keep the fictional targets at 250 mg, 100 mg and 10 mg, but suppose three alternative unnamed materials have compatible mass fractions of 40%, 50% and 20%. The calculation changes as follows:

For the same two-piece, 6,000 mg serving, 875 mg is 14.58% of the mass, compared with 53.33% in the first calculation. Both calculations target the same named-constituent amounts; neither verifies delivered amounts or technical equivalence. The alternative fractions are invented, not evidence that such materials exist or are suitable substitutes.

Neither percentage is a manufacturing pass/fail threshold. Lower calculated mass does not prove an easier or feasible formulation. Use each scenario to ask what project-specific assessment is needed before interpreting a price as an offer for a manufacturable product. These unnamed-material exercises are separate from the magnesium RFQ case; do not infer its ingredient targets or an approved formula from them.

Reconciliation card for a project brief

If an assumed dry-basis assay is combined with an as-supplied material mass, stop and resolve the basis before presenting the result as comparable. Likewise, do not treat the finished-piece denominator as a manufacturing batch recipe; the worksheet has no process-water or drying model.

Protein gummy concepts: separate the protein target from powder mass

For a protein-gummy RFQ, first specify what the requested grams describe: source powder, protein supplied by that material, or protein measured in the finished serving. Those are different quantities. This is a concept-screening example, not confirmation that Sucotond offers a protein gummy or can deliver the proposed amount.

Supplier documents can report protein on different bases. For example, the Hilmar 9000 product bulletin has separate dry-basis and as-is protein rows, with typical values and specification limits in different columns. Its general data disclaimer also limits use of the bulletin as a guarantee. Obtain the current specification and appropriate lot evidence for the material actually proposed; this example is not a recommendation to buy that ingredient or proof of its performance in gummies.

The following values are fictional, not values copied from that bulletin or a customer project. Suppose a planning document gives 90% protein on a dry basis and 5% moisture by total as-supplied mass for the same material and compatible measurement basis:

As-supplied protein fraction = 0.90 × (1 − 0.05) = 0.855
For a hypothetical 8 g protein input target:
As-supplied powder mass = 8 / 0.855 = approximately 9.36 g
Using 90% directly would instead calculate 8 / 0.90 = approximately 8.89 g
Difference = approximately 0.47 g of source powder

This conversion assumes the two inputs describe the same material on compatible bases. Do not combine an unrelated typical moisture value with a protein minimum and call the result a batch assay. When the supplier provides a directly applicable as-is protein value, use its stated basis rather than correcting it for moisture a second time. The arithmetic assumes no protein loss and is not an overage recommendation, finished-product assay or shelf-life result.

Now perform a separate finished-serving sanity check. An invented 8 g protein target cannot fit inside two finished pieces weighing 3 g each: the entire serving weighs only 6 g. Three finished pieces weighing 4 g each total 12 g, so 8 g would represent 66.67% of finished serving mass. That avoids the simple mass contradiction, but does not establish an achievable texture, process or product.

Do not subtract the calculated 9.36 g of as-supplied powder from 12 g of finished gummies and label the remainder available formulation space. Input moisture and process losses require a batch mass balance; an incoming-material quantity and a final dried-piece quantity are not automatically comparable.

Before comparing OEM responses, record:

• The requested protein source and whether any other ingredients also contribute protein. A total-protein result alone does not identify how much came from a particular source.
• Protein amount per finished serving, piece count and intended final piece mass, with each unresolved input marked pending.
• Source specification, reporting basis, moisture basis and which numbers are typical, limits or lot results.
• Questions for the proposed trial: mixing and depositing behavior, final piece weight, texture, protein measurement, packaging and storage evidence. The worksheet does not answer these questions.
• Which choices may change after assessment: amount, piece size, piece count or dosage format. More pieces also changes servings per container and the price comparison.

This is a procurement brief, not a determination that a consumer-facing "high protein" claim is permitted. Claim wording and finished-product measurement need their own applicable review.

Use the high-load project page and product specification checklist to organize the next questions.