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Oceanplayer industrial laser systems for automated production
Free Laser Automation Planning Tool

Laser automation system selector

Match your process, part flow, geometry, production volume, safety and data requirements to a practical robot, cobot, linear-axis, rotary or inline laser system.

Select My Automation System
  • Cleaning, welding and marking
  • Robot, cobot, linear and conveyor motion
  • Safety, vision and factory data
  • No registration required
System Selector

Match the workcell to how your parts actually move

Choose the closest answer for your regular production job. The result identifies a starting architecture; process testing and a layout review confirm the final system.

Tell us about the automation project

Start with the process and the most difficult regular part.

8 decisions
1. Which laser process do you need?
2. What best describes the part family?
3. What motion path is required?
8. What is the main project priority?

All choices remain in this browser and are not submitted.

Selection Method

Automation starts with the part flow, not the robot brand

The selector combines process access, motion complexity, handling, cycle demand, safety and factory communication.

01

Define the process window

Confirm that cleaning, welding or marking can meet quality and cycle requirements on the real part.

02

Map part and operator flow

Identify loading, fixturing, processing, inspection, unloading and changeover steps before selecting motion.

03

Integrate controls and safety

Connect sensors, PLC, HMI, vision, extraction, guarding and production data into one validated sequence.

Platform Comparison

Compare motion platforms by production behavior

Each architecture solves a different combination of reach, changeover, precision, loading and throughput.

Automation PlatformBest FitPrimary StrengthImportant Limitation
XY / XYZ WorkstationFlat parts, simple paths and dedicated fixturesHigh repeatability in a compact enclosed stationLimited access to complex 3D surfaces
Rotary Indexing StationCylinders or repeated small-part loadingConsistent circumferential motion or indexed cycleRequires controlled diameter and fixture location
Collaborative Robot CellChanging product families and flexible batchesEasier teaching and faster product changeoverRisk assessment and speed limits affect real cycle time
Industrial Robot CellLarge parts, complex paths and repeated productionReach, payload, speed and broad path accessNeeds guarding, programming and more floor space
Inline Conveyor SystemContinuous high-volume productionDirect connection to part flow and factory dataPart spacing, orientation and line uptime must be controlled
Workcell Flow

Design every step around the approved laser process

Stable output depends on what happens before and after the laser, not only on robot movement.

Part InfeedManual loading, tray, conveyor, robot or existing line.
Locate & VerifyFixture, sensors, barcode, vision or recipe confirmation.
Laser ProcessCleaning, welding or marking with controlled motion.
InspectSurface, seam, code or process result verification.
Release DataPass/fail, traceability record and downstream handshake.
Factory Integration

Plan interfaces before the cell reaches your production floor

Define signals, ownership and failure behavior early so the new system can enter production with fewer surprises.

Part Control

Identity and recipe

Determine how the cell knows which part arrived and which validated laser recipe to run.

Line Handshake

Ready, busy and complete

Define upstream and downstream signals, buffering and what happens when either side stops.

Quality Data

Result and traceability

Choose the process values, code images, alarms and pass/fail records that must be stored.

Changeover

Fixture and recipe control

Prevent the wrong tooling or laser program from being used after a product change.

Recovery

Fault and restart behavior

Define safe restart, incomplete-part handling and operator permissions after interruptions.

Maintenance

Access and service

Provide space and procedures for optics, extraction, tooling, calibration and preventive checks.

System Modules

A production cell needs more than a laser and motion platform

Select modules from the actual process risks, operator tasks and factory interface.

Laser & Process Head

Source, optics, cleaning head, welding head or marking scanner selected from validated material results.

Motion & Fixture

Robot, cobot, stages, rotary axes, tooling and part location designed around access and repeatability.

Process Utilities

Extraction, dust collection, shielding gas, wire feed, cooling and protective-window management.

Controls & HMI

PLC sequence, recipes, alarms, permissions, maintenance screens and production counters.

Vision & Inspection

Part presence, position correction, seam tracking, height sensing, code grading or result checks.

Laser Safety

Enclosure, interlocks, emergency stops, laser-rated viewing and documented operating states.

Project Review

Turn the recommendation into a production-ready concept

Share the actual part, process target, takt time, layout and factory interface. Oceanplayer can prepare a practical starting configuration and validation plan.

01

Parts and drawings

Dimensions, weight, material, tolerances and difficult access areas.

02

Quality target

Accepted cleaning finish, weld result or marking requirement.

03

Production demand

Cycle target, shifts, product mix, loading and changeover time.

04

Factory interface

Layout, utilities, safety, PLC protocol, MES and inspection needs.

FAQ

Laser automation system selector questions

Practical answers for choosing a robot, cobot, dedicated workstation or inline laser system.

How do I choose a laser automation system?
Start with a validated laser process, then compare part geometry, path complexity, cycle target, loading, changeover, safety, inspection and factory data. The motion platform should fit the complete production flow.
Should I use an industrial robot or a collaborative robot?
Industrial robots suit higher speed, larger reach, payload and guarded complex production. Collaborative robots suit changing product families and easier teaching, but the full application still requires a risk assessment and may have speed or guarding limits.
When is an XY or XYZ laser workstation a better choice?
Dedicated linear axes are often effective for flat parts, simple paths and repeatable fixtures where compact size, precision and predictable cycle time matter more than broad 3D reach.
What is required for inline laser automation?
Inline systems normally require part detection, spacing or encoder control, recipe selection, guarding, line handshakes, fault recovery and downstream result handling.
Can one automated cell perform cleaning, welding and marking?
A flexible cell can support multiple processes, but each process needs compatible tooling, utilities, optics, safety states and validation. Changeover time and contamination control must be reviewed carefully.
What information is needed for an automation quotation?
Provide parts or drawings, material, quality target, process area, cycle time, product mix, loading method, available floor space, utilities, safety expectations and PLC or MES requirements.