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Industrial laser equipment planned for an automated production cycle
Free Laser Automation Planning Tool

Automation cycle time calculator

Estimate effective seconds per part, hourly output, daily capacity, target margin and systems required from the complete laser workcell cycle.

Calculate Cycle Time
  • Sequential, dual-station and inline modes
  • Loading, process, motion and inspection
  • Target capacity and system count
  • No registration required
Cycle Calculator

Include every step that controls production output

Laser-on time is only one part of an automated cycle. Add handling, motion, fixturing, inspection, delays, changeover and realistic productive time.

Enter the automated workcell cycle

Results update as each value changes.

Local calculation
1. Production architecture

Single-station cycle equals the sum of every entered step.

2. Time entered per complete station cycle
3. Fixture and batch plan
Productive time covers normal pauses, minor faults, replenishment, cleaning and process checks.
85%
4. Production target
Use timing from an approved process and representative operator sequence. Robot simulation, scanner speed or laser-on time alone does not include the complete production cycle.

All values remain in this browser and are not submitted.

Complete Cycle

Measure from part arrival to production release

Time every action that prevents the next good part from leaving the workcell.

LoadOperator, robot, tray or conveyor.
LocateClamp, index, identify and verify.
MoveRobot, stage or scanner positioning.
ProcessLaser cleaning, welding or marking.
InspectVision, code, seam or surface check.
UnloadRelease, transfer and result data.
Calculation Method

How automation capacity is calculated

The model first determines the governing station cycle, assigns cycle and setup time to each part, then applies the productive-time allowance.

Sequential cycleload + process + motion + fixture + inspection + delay

Use when every step waits for the previous step in one station.

Dual-station cyclemax(load, complete machine sequence)

Use when one fixture is loaded while the other fixture is being processed.

Inline cyclemax(each parallel station step)

Use when separate line stations operate simultaneously after the line is full.

Effective time per part(cycle ÷ parts + setup share) ÷ productive time

Converts the ideal station cycle into a practical production estimate.

Architecture Comparison

Reduce cycle time by changing how steps overlap

Parallel operation can improve output, but only when fixtures, safety, controls and operator flow support it.

Single Station

Sequential workcell

Simple to understand and validate. Every loading, motion, process and inspection step adds directly to the station cycle.

Best for lower volume or compact cells
Dual Station

Overlapped loading

A rotary table or two-position fixture allows loading to occur while the laser processes the other side.

Best when handling limits output
Inline System

Parallel production steps

Dedicated stations operate together, so line rate is controlled by the slowest repeatable station after ramp-up.

Best for stable high-volume flow
Cycle Bottlenecks

Improve the step that controls the next good part

Faster robot motion will not improve output when loading, laser processing or inspection remains the governing step.

Part Handling

Loading controls the cycle

Review fixture access, clamps, trays, orientation, operator reach and whether loading can overlap laser operation.

  • Use repeatable quick-load nests
  • Prepare parts outside the guarded cycle
  • Compare dual-station indexing
Laser Process

Laser-on time controls output

Review the approved power, path, passes, speed, optics and whether multiple parts can be processed per fixture.

  • Protect required quality first
  • Remove unnecessary path travel
  • Validate higher-power alternatives
Inspection & Data

Verification controls release

Optimize camera exposure, database response, code grading, reject logic and communication with the production line.

  • Preload valid recipe data
  • Improve lighting and trigger position
  • Separate inspection where practical
Input Quality

Build the estimate from a representative timed cycle

Use stable production observations instead of the fastest demonstration cycle.

Use an approved laser result

Time the settings that meet the real cleaning, weld or marking requirement on representative parts.

Include normal handling

Measure part pickup, orientation, clamping, confirmation, release and placement into the next process.

Observe acceleration and settling

Robot and axis specifications do not include every path transition, settle delay and process trigger.

Measure productive time

Use actual shift data for replenishment, checks, minor faults, cleaning, breaks and changeover.

Production Validation

Verify the cycle before approving the workcell

Share the part, process result, loading sequence and daily target. Oceanplayer can combine process testing with a practical automation concept.

Step 01

Validate the process

Confirm quality and laser-on time on representative production parts.

Step 02

Simulate the sequence

Review reach, fixtures, loading, safety states and process support.

Step 03

Run a timed trial

Measure repeatable cycles, recovery behavior and output margin.

FAQ

Automation cycle time calculator questions

Practical answers for estimating laser workcell takt time and production capacity.

How do I calculate automation cycle time?
For one sequential station, add loading, laser process, motion, fixture, inspection and delay time. Divide the station cycle by good parts per cycle, add the batch setup share and adjust for productive operating time.
What is the difference between cycle time and takt time?
Cycle time estimates how long the workcell needs to produce a good part. Required takt time is the available production time divided by customer demand. Capacity is sufficient when the effective cycle is at or below the required takt.
How is a dual-station laser cell calculated?
When loading one station truly overlaps processing at the other, the governing cycle is the longer of loading time or the complete machine sequence, plus any non-overlapped work.
How is inline automation cycle time calculated?
After the line is full, output is normally controlled by the slowest repeatable parallel station. Line startup, buffering, transfer and stops must still be considered separately.
What productive-time percentage should I use?
Use measured production data when available. New projects should include realistic allowance for changeover, replenishment, checks, minor faults, cleaning, breaks and normal operating variation.
Why is robot simulation time different from real output?
Robot simulation may exclude operator handling, laser trigger delays, scanner motion, extraction checks, data exchange, inspection, safety states and production interruptions.