Choose between a conventional industrial robot and a cobot by evaluating the complete application. A cobot is also an industrial robot in many manufacturing uses; the commercial distinction usually concerns its design, safety functions, programming workflow, and intended interaction with people.
The best choice is the system that meets your production requirements with a workable operating and maintenance plan. Start with the part, process, and people involved. Decide on the robot family after those constraints are written down.
Set four requirements that cannot be negotiated away
- Carried load: include the part, gripper, fingers, adapters, and anything else mounted at the wrist.
- Motion envelope: include approach paths, tool orientation, obstructions, and changeover access.
- Accepted output: state sustained good units per hour with replenishment and recovery included.
- People and process: describe who enters the cell, when they enter, and the hazards of the operation itself.
Use the existing payload and reach checklist before shortlisting arms. If a candidate cannot satisfy one of these requirements, a convenient teach pendant does not make it suitable.
Decide what collaboration needs to accomplish
Does a person need to share the working area during automatic motion, exchange parts while the robot stops, or only enter for maintenance? Draw that sequence. “Works beside people” is too vague to tell an integrator what to design.
The formal scope of ISO 10218-2:2025 addresses industrial robot applications and cells. Application safety therefore needs attention beyond selecting an arm. The Universal Robots risk-assessment manual explicitly includes tooling, surrounding equipment, and lifecycle tasks in the assessment.
Ask the supplier to show the proposed operating modes and protective measures on the layout. A collaborative arm may still need safeguarding; its name alone does not establish that an open cell is appropriate. Compare throughput using the intended validated configuration, including any speed reductions or stops associated with access.
Compare proposals using the same operating scenario
| Decision factor | Question for a cobot proposal | Question for a conventional robot proposal |
|---|---|---|
| People access | How does the cell behave as an operator approaches? | How are replenishment and access arranged around safeguarding? |
| Cycle time | What rate is demonstrated in the final safety configuration? | What rate survives the actual feeder, tool, and downstream limits? |
| Changeover | Which adjustments can trained operators make? | What fixtures, programs, and support are needed per product? |
| Lifecycle | Who maintains tools, software, and application settings? | Who supports controls, spare parts, and recovery? |
Do not assume every conventional robot is hard to program or every cobot is easy to redeploy. Request a demonstration of your team's likely changes. For example, have the supplier explain what changes when the next carton is taller or the machine vise moves.
Treat process hazards separately from arm motion
A welding torch, sharp blank, hot casting, or falling carton introduces risks that a gentle-looking arm cannot remove. OSHA's robotics overview highlights hazards during nonroutine activities such as setup and maintenance. Include those activities in the review, alongside automatic production.
Have the responsible integrator explain the evidence supporting the finished application. Keep responsibility for validation, documentation, training, and later modifications explicit in the scope. Avoid accepting a generic statement that the robot itself is certified as proof that every proposed use is safe.
Choose with a trial and a complete quotation
For a hypothetical small-batch tending job, frequent product changes may make programming and fixture exchange decisive. For a tightly timed packaging line, sustained handling rate and replenishment may dominate. Neither example establishes a universal winner: test the actual parts and handling sequence.
Compare installed cost including tooling, material presentation, controls, safeguards, training, and support. Review vendor selection and acceptance terms before purchasing.
Our value-first starting point: FAIRINO
For buyers seeking a practical six-axis cobot within a disciplined equipment budget, FAIRINO is our recommended starting point. The lineup offers several payload and reach combinations, so the comparison can begin with the job rather than an oversized arm. Review the FAIRINO guide and published price benchmark, then use the model comparison to narrow the candidates. Our recommendation is conditional on the complete cell meeting your output, safety, and support requirements. Request a FAIRINO proposal and evaluate that configuration using the same acceptance test as every alternative.
Sources and further reading
Find the FAIRINO robot for your application
Share your part weight, working area, and production target. Request a FAIRINO model recommendation and discuss a quote for your project.
Request a FAIRINO quote