Printed Electronics & Flexible Hybrid Electronics calculator

Cost Per Flexible Circuit Calculator

Cost per flexible circuit is the fully loaded unit cost of a printed or flexible hybrid electronic device once you fold variable print cost, yield capture, and amortized fixed tooling into one number. Estimators and process engineers use it to quote roll-to-roll and sheet-fed jobs, compare a printed silver design against an etched-copper alternative, and decide whether a run volume justifies its screen or plate tooling. Because printed electronics carry unusually high setup cost relative to material cost, per-piece economics swing sharply with quantity — the same circuit can cost far less at 10,000 units than at 100. This calculator makes that trade explicit before you commit ink to substrate.

What this calculator does

  • Cost per flexible circuit is the fully loaded unit cost of a printed or flexible hybrid electronic device once you fold variable print cost, yield capture, and amortized fixed tooling into one number.
  • Use it when cost per flexible circuit in printed electronics and flexible hybrid electronics is being put through a printed electronics and flexible hybrid electronics weighted-cost review.
  • It computes total run cost as volume times per-unit variable cost times a yield capture factor plus fixed tooling, then divides by volume for a true per-piece cost.

Formula used

  • Cost Per Flexible Circuit cost = quantity × rate × capture factor + fixed cost
  • Per-unit cost per flexible circuit = total cost ÷ quantity

Inputs explained

  • Flexible circuits produced:
  • Variable print cost per circuit:
  • Good-yield capture factor:
  • Fixed tooling and setup cost:

How to use the result

  • Use it when quoting a new flexible-circuit job, evaluating a volume break, or deciding whether tooling amortization justifies a run.
  • The capture factor is a single blended multiplier — it will not model step-by-step yield losses across print, cure, and attach, so treat the output as a planning estimate, not a costed BOM.

Current U.S. benchmarks

  • The producer price index for copper and brass mill shapes stands at 559.593 (BLS, May 2026), up 76.8% from a year earlier. Quotes priced off last quarter's material cost miss this move. Global copper trades at $13,484 per tonne (IMF via FRED, May 2026).
  • The U.S. has 11,261 computer and electronic products establishments employing about 815,443 workers (Census County Business Patterns, 2023).

Common questions

  • How do you calculate cost per flexible circuit? Multiply quantity by variable cost per unit by the capture factor, add fixed tooling, then divide the total by quantity. For 100 circuits at $45 with an 80% factor plus $250 tooling: (100 x 45 x 0.80) + 250 = $3,850 total, or $38.50 each.
  • Why does the capture factor lower my cost? The capture factor scales the variable spend you actually incur or recover per unit — here 80% of the nominal $45 rate. It reflects material utilization, yield, or the fraction of cost that is truly variable, so a factor under 100% reduces the weighted variable total.
  • How does volume change cost per flexible circuit? Fixed tooling spreads over more units as volume rises. The same $250 tooling adds $2.50 per piece at 100 units but only $0.25 at 1,000, which is why printed-electronics quotes fall steeply with quantity.
  • What is a good cost per flexible circuit? It depends entirely on complexity and volume — a simple printed antenna can run cents at scale, while a low-volume FHE assembly with placed components can exceed $38 each, as in this example. Benchmark against your etched-copper or FPC alternative, not an absolute.
  • Should fixed tooling include screen and plate costs? Yes. Screen or plate making, stencil, and setup labor are the fixed costs that only make sense to amortize once. Enter their total as fixed cost so the per-piece number reflects true amortization for this run.

Last reviewed 2026-05-12.