Automation and Robotics

Industrial Automation: How to Boost Efficiency and Productivity

A phased plan for introducing automation: choose a process, define measures, pilot, train staff, roll out carefully and keep measuring the results.

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  1. Treat it as a project, not a purchase
  2. Phase 1: Define the problem and choose a process
  3. Phase 2: Measure the baseline
  4. Phase 3: Define requirements
  5. Phase 4: Choose an approach and a partner
  6. Phase 5: Pilot
  7. Phase 6: Train people and prepare maintenance
  8. Phase 7: Commission and roll out
  9. Phase 8: Measure and improve
  10. Common pitfalls
  11. Pace and scale

Treat it as a project, not a purchase

Automation projects most often go wrong not because the technology fails but because the goal was vague, the process was not understood, or the people who would use the system were not prepared. A phased approach keeps risk contained and builds evidence at each stage. The phases below are a general outline; real projects overlap them, and the time each takes varies widely.

Phase 1: Define the problem and choose a process

Start with a specific problem rather than a technology. Examples: too many rejects at final inspection, a packing station that limits output, a hazardous manual task, or unplanned stops on one machine.

A good first process is typically:

  • Stable, with consistent inputs and a clear method.
  • Repetitive enough that automation can pay back.
  • Contained, so that changes do not ripple through the whole plant.
  • Measurable, so success can be shown.

Avoid starting with the plant’s most complicated or politically sensitive process. A visible, modest win builds trust.

Phase 2: Measure the baseline

Record how the process performs now. Useful measures include output per hour, share of time running, reject rate, labor hours per unit, energy use and safety incidents. Collect them over enough time to show normal variation, including different shifts and product mixes.

Without a baseline, no one can say later whether the project worked. This is also the time to look for non-automation fixes. Sometimes cleaning up the flow, applying lean manufacturing principles or training operators produces a large share of the gain at low cost.

Phase 3: Define requirements

Write down what the system must do, in plain terms:

  • The task, speed and quality required.
  • Product range, including sizes and variants.
  • Space, utilities and environment (dust, heat, washdown).
  • Safety requirements and applicable local rules.
  • Interfaces with existing equipment and information systems.
  • Who will operate and maintain it.

The more precise this document is, the easier it is to compare suppliers and avoid disputes. An equipment needs assessment is the general method.

Phase 4: Choose an approach and a partner

Options range from buying standard machines to hiring a system integrator to design a custom cell. Ask for references from similar applications, ask what happens when something fails, and ask who supports the system after commissioning. Consider total cost of ownership, which includes installation, training, spare parts and maintenance, not just the purchase price. Be careful with claims of large, guaranteed gains.

Compatibility matters too. Choose components and communication standards that your staff can support and that fit with existing programmable logic controllers and networks.

Phase 5: Pilot

Wherever feasible, test on a small scale before full deployment: one line, one shift, or one cell. A pilot shows how the system behaves with real materials and real people. Define in advance what a good result looks like and what would make the team stop or change course.

For larger systems, formal acceptance testing, such as factory and site tests, helps confirm the system does what was specified before it is accepted.

Phase 6: Train people and prepare maintenance

Training is not a final step to be squeezed in. Operators need to know how to run the system, recognize abnormal conditions and respond. Maintenance staff need to understand the equipment, spare parts, and safe procedures. Good operator training reduces errors and builds confidence, and it is typically more effective when it begins before the equipment arrives.

Safety is part of this phase. Training should cover emergency stops, guarding, lockout tagout during servicing and the limits of what staff should attempt themselves. Follow the manufacturer’s manuals and local regulations, and use qualified personnel for electrical and safety work.

Phase 7: Commission and roll out

Commissioning brings the system into service in a controlled way. The process of equipment commissioning typically includes checks, documentation and handover. After the pilot, extend to other lines in stages, applying what was learned. Resist the temptation to copy a pilot exactly if conditions differ.

Phase 8: Measure and improve

After start-up, track the same measures as the baseline. Compare results over a long enough time, and include downtime and maintenance costs. Common findings include:

  • Gains smaller than first hoped in some areas, larger in others.
  • A new bottleneck elsewhere in the line.
  • Settings that need adjusting as operators gain experience.

Review regularly, update procedures, and keep documentation current. Data from the system can feed predictive maintenance, helping to schedule upkeep before failures.

Common pitfalls

  • Automating a poorly understood process.
  • Underestimating integration, training and maintenance effort.
  • Ignoring the views of operators and technicians.
  • No named owner after handover.
  • Forgetting security when connecting equipment to networks; industrial cybersecurity should be planned from the start.
  • Measuring nothing.

Pace and scale

There is no single correct speed. Small operations may do one small project a year, while large ones run several in parallel. What matters is that each phase is completed before the next one relies on it. This article is general information, not engineering advice, and a real project should involve qualified professionals.

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