Takt Time Calculator
The pace demand requires, against the pace your line actually achieves.
Takt time is available production time divided by customer demand — the rhythm the line must hold to meet orders.
How the takt time calculator works
Takt time is available production time divided by customer demand — the rhythm the line must hold to meet orders. It comes from the German for a musical beat, and that is the right image: it is a metronome, not a target.
Cycle time is how long the line actually takes per unit. The comparison is the whole point. Cycle time above takt means you cannot meet demand; well below it means you are over-producing or over-resourced, which lean thinking treats as waste rather than achievement.
The number of stations follows from dividing total work content by takt. That is the theoretical minimum, and real lines need more because work cannot be split infinitely finely.
Formula: takt = available time / demand; stations = work content / takt
Worked examples
| Inputs | Takt time | Note |
|---|---|---|
| 320 units across two shifts | 2.72 minutes per unit | takt 163 seconds |
| Demand rises to 450 | 1.93 minutes per unit | cycle time now exceeds takt |
| A single shift | 1.36 minutes per unit | cannot meet demand |
FAQFrequently asked questions
What is takt time?
Available production time divided by customer demand — the pace the line must hold to meet orders.
What is the difference between takt and cycle time?
Takt is the pace demand requires; cycle time is the pace the line achieves. Cycle above takt means you cannot keep up.
Is a cycle time far below takt good?
Not necessarily. Lean thinking treats over-production and over-resourcing as waste, though some buffer against stoppages is sensible.
Should breaks come out of available time?
Yes. Takt is about time the line can actually run, and including breaks understates the required pace.
How many stations do I need?
Work content divided by takt is the theoretical minimum. Real lines need more, because work cannot be split infinitely finely.
Where these figures come from
- Nakajima (1988) — Introduction to TPM — the origin of Overall Equipment Effectiveness and its six big losses
- Health and Safety Executive — the UK workplace safety regulator
Last checked: September 2026. Definitions follow standard operations-management practice; where plants commonly differ, the page says so.