How do you calculate fitting count cost?

Multiply the fitting count by the installed cost per fitting, apply your capture factor, then add fixed setup. With 100 fittings at $45, an 80% factor, and $250 setup, that is 100 x 45 x 0.80 + 250 = $3,850 total.

What does the capture factor represent?

It is the fraction of nominal unit cost you actually realize after volume discounts, scrap, and freight. At 80% it captures $3,600 of the $4,500 gross fitting value before the $250 fixed cost is added.

What is the per-fitting cost in the example?

Total cost of $3,850 divided by 100 fittings gives $38.50 per fitting installed, which includes the spread of the $250 fixed setup across the count.

Why does fitting count matter so much on hydraulic assemblies?

Every fitting is a hardware cost, a crimp or torque operation, and a potential leak point. Reducing a manifold from 14 to 10 ports often saves more in labor and warranty risk than the hardware line item alone.

How can I lower per-piece fitting cost?

Spread the fixed setup over a larger batch, consolidate to fewer adapter steps, or push the capture factor up with consolidated purchasing. Halving the fixed cost on the example drops per-piece cost from $38.50 toward $37.25.

Does this include the hose or tube cost?

No. This calculator isolates fitting hardware and termination cost. Add hose, tube, and clamp costs separately when building a full assembly quote.

Hydraulic, Pneumatic & Fluid Power Systems calculator

Fitting Count Cost Calculator

Fitting Count Cost estimates the total and per-assembly cost of the JIC, ORFS, BSPP, and push-to-connect fittings that terminate a hydraulic or pneumatic circuit. On a fluid-power assembly, fittings are deceptively expensive: a single manifold or hose harness can carry dozens of terminations, each adding hardware, crimp labor, and leak-test time. Estimators and purchasing teams use this to roll up fitting spend on a quote, and production engineers use it to flag designs where fitting count is driving cost. Catching that early is what separates a margin-positive job from a money-loser.

What this calculator does

Calculate fitting count cost for hydraulic, pneumatic & fluid power systems planning, quoting, troubleshooting, capacity review, or process improvement.
Use it when fitting count cost in hydraulic, pneumatic and fluid power systems is being put through a hydraulic, pneumatic and fluid power systems weighted-cost review.
It computes total fitting cost as count times installed unit cost times a capture factor, plus a fixed setup charge, then divides by count for a per-piece figure.

Formula used

Fitting Count Cost cost = quantity × rate × capture factor + fixed cost
Per-unit fitting count cost = total cost ÷ quantity

Inputs explained

Number of fittings on the assembly:
Cost per fitting installed:
Sourced/landed cost capture factor:
Fixed tooling and crimp setup cost:

How to use the result

Use it when quoting a hose, tube, or manifold assembly, or when comparing two routing designs that differ in fitting count.
The single capture factor lumps yield, freight, and discount effects together; if your fitting mix spans cheap push-connects and expensive ORFS adapters, a blended factor hides real variance.

Current U.S. benchmarks

The U.S. has 21,668 machinery manufacturing establishments employing about 1,086,146 workers (Census County Business Patterns, 2023).

Common questions

How do you calculate fitting count cost? Multiply the fitting count by the installed cost per fitting, apply your capture factor, then add fixed setup. With 100 fittings at $45, an 80% factor, and $250 setup, that is 100 x 45 x 0.80 + 250 = $3,850 total.
What does the capture factor represent? It is the fraction of nominal unit cost you actually realize after volume discounts, scrap, and freight. At 80% it captures $3,600 of the $4,500 gross fitting value before the $250 fixed cost is added.
What is the per-fitting cost in the example? Total cost of $3,850 divided by 100 fittings gives $38.50 per fitting installed, which includes the spread of the $250 fixed setup across the count.
Why does fitting count matter so much on hydraulic assemblies? Every fitting is a hardware cost, a crimp or torque operation, and a potential leak point. Reducing a manifold from 14 to 10 ports often saves more in labor and warranty risk than the hardware line item alone.
How can I lower per-piece fitting cost? Spread the fixed setup over a larger batch, consolidate to fewer adapter steps, or push the capture factor up with consolidated purchasing. Halving the fixed cost on the example drops per-piece cost from $38.50 toward $37.25.

Last reviewed 2026-05-12.