How do you calculate good cable bend-radius inspection capacity?

Multiply cables per cycle by available cycles for gross, then multiply by uptime and first-pass pass rate. With 4 per cycle, 480 cycles, 90% uptime and 97% pass rate, that is 1920 x 0.90 x 0.97 = 1,676 verified cables.

What is minimum cable bend radius?

It is the tightest radius a cable can be routed to without damage, usually specified as a multiple of outer diameter - often 4x to 10x OD depending on construction. A check station verifies routed cables meet that spec; this calculator sizes how many it can process.

What is gross versus good inspection capacity here?

Gross is 1,920 cables if the station never stopped and every cable passed first time. Good is 1,676 after 192 lost to downtime and 51.8 lost to first-pass fails needing re-routing.

What is a good first-pass bend-radius pass rate?

On a well-fixtured routing process, 98%+ first-pass is achievable. The 97% here means about 51.8 cables per window need re-routing and re-check, which adds hidden rework downstream.

Why does bend radius matter beyond throughput?

A cable routed inside its minimum radius can crack shielding, deform conductors and fail EMI or continuity later. First-pass fails caught here prevent field failures, so the pass-rate term is protecting reliability, not just counting units.

How do I improve verified-cable output?

Downtime loss (192) exceeds pass-rate loss (51.8) in this example, so improving station availability lifts output most. Longer term, better routing fixtures upstream raise the first-pass pass rate and cut re-check volume.

Wire Harness, Cable & Electromechanical Assembly calculator

Cable Bend Radius Check Calculator

Cable Bend Radius Check sizing shows how many cables an inspection station can verify against minimum bend-radius spec in a window once downtime and first-pass fails are accounted for. Quality engineers and line balancers on harness and cable-assembly lines rely on it because a routed cable bent tighter than its rated radius quietly degrades signal integrity and shortens service life. This turns a go/no-go gauge check into a throughput number you can plan capacity around.

What this calculator does

Estimate cable bend radius check for wire harness, cable and electromechanical assembly using production-ready inputs so teams can confirm whether capacity can cover demand before committing the schedule.
Use it when cable bend radius check in wire harness, cable and electromechanical assembly is being asked to take on more work and you need to know if there is room.
It computes gross inspection capacity from cables per cycle times available cycles, then derates by uptime and first-pass pass rate to give good verified-cable output.

Formula used

Gross cable bend radius check capacity = cable bend radius check output per cycle × available cable bend radius check cycles
Good cable bend radius check capacity = gross capacity × expected cable bend radius check uptime × expected cable bend radius check first-pass yield

Inputs explained

Cables checked per inspection cycle:
Available inspection cycles in the window:
Inspection station uptime:
First-pass bend-radius pass rate:

How to use the result

Use it when staffing a bend-radius inspection station, setting takt for a routed-harness program, or costing the throughput hit of a routing problem upstream.
It assumes pass rate is steady; if an upstream routing fixture drifts, first-pass pass rate falls in bursts and this average understates the worst-window loss.

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).
Manufacturing hourly earnings average $30.27 (BLS, Jun 2026), up 4.4% from a year earlier. Median machinist pay is $28.24/hr (OEWS 2025), with state medians on each state page. Manufacturers have 529k open positions nationally (BLS JOLTS).
The U.S. has 5,397 electrical equipment and appliances establishments employing about 369,437 workers (Census County Business Patterns, 2023).

Common questions

How do you calculate good cable bend-radius inspection capacity? Multiply cables per cycle by available cycles for gross, then multiply by uptime and first-pass pass rate. With 4 per cycle, 480 cycles, 90% uptime and 97% pass rate, that is 1920 x 0.90 x 0.97 = 1,676 verified cables.
What is minimum cable bend radius? It is the tightest radius a cable can be routed to without damage, usually specified as a multiple of outer diameter - often 4x to 10x OD depending on construction. A check station verifies routed cables meet that spec; this calculator sizes how many it can process.
What is gross versus good inspection capacity here? Gross is 1,920 cables if the station never stopped and every cable passed first time. Good is 1,676 after 192 lost to downtime and 51.8 lost to first-pass fails needing re-routing.
What is a good first-pass bend-radius pass rate? On a well-fixtured routing process, 98%+ first-pass is achievable. The 97% here means about 51.8 cables per window need re-routing and re-check, which adds hidden rework downstream.
Why does bend radius matter beyond throughput? A cable routed inside its minimum radius can crack shielding, deform conductors and fail EMI or continuity later. First-pass fails caught here prevent field failures, so the pass-rate term is protecting reliability, not just counting units.

Last reviewed 2026-05-12.