How to Build a Practical Automation Controls Workshop

A professional development workshop on automation controls should give water and wastewater professionals something they can apply on their next shift, design review, or maintenance callout. The strongest sessions connect control theory with real equipment, operational risk, compliance obligations, and the decisions people make when a plant is running outside normal conditions.

For an Australian audience, the programme should reflect the variety of local assets. A metropolitan treatment plant in Sydney may rely on layered SCADA and remote telemetry, while a smaller regional facility may have limited instrumentation support and a lean operations team. Participants need techniques that work across both environments, including PLC programming, variable-speed drives, alarm management, industrial networks, and cybersecurity.

The organiser also needs to create a useful bridge between technical learning and professional recognition. Clear learning outcomes, attendance records, practical assessments, and a qualified presenter can support continuing professional development requirements. A workshop hosted by a water industry association, utility, consultancy, or training provider should feel credible, technically current, and grounded in daily work.

Planning should begin with the operational problem the event will solve. “Automation controls” is too broad by itself. A focused workshop might address pump station reliability, process control tuning, safe remote operation, instrumentation faults, or the migration of an ageing SCADA platform. A defined purpose makes every later decision easier, from speaker selection to equipment hire.

Define The Operational Need

Start by interviewing several people who work at different levels: a control systems engineer, an operator, an electrical technician, a supervisor, and an asset manager. Ask where errors, delays, repeat faults, or knowledge gaps appear. Their answers can reveal whether the real need is PID tuning, alarm rationalisation, PLC troubleshooting, data interpretation, or better collaboration between engineering and operations.

Translate those findings into three to five measurable outcomes. For example, participants may be expected to identify a faulty signal path, explain the difference between open-loop and closed-loop control, adjust a basic control loop safely, or document a change to a PLC programme. Outcomes should use observable verbs such as configure, diagnose, test, interpret, and verify.

The local context should shape the examples. Australian utilities often manage long distances, dispersed pump stations, variable weather, and a mix of modern and legacy assets. A scenario involving a wet-weather overflow, a communications failure at a remote site, or a rising main pump cycling excessively will be more valuable than a generic factory automation exercise.

Choose The Right Participants

A mixed audience can produce strong discussion, provided the workshop does not assume everyone has the same background. Separate the minimum requirements from optional preparation. An operator may need basic familiarity with HMI screens and process instruments, while an automation engineer may benefit from a deeper challenge involving network architecture or control logic.

Keep the group small enough for practical work. Between 12 and 20 participants usually allows each person to operate a simulator, inspect a wiring diagram, or troubleshoot a fault. Larger groups can still work if they are divided into rotating stations with a facilitator assigned to each activity.

Advertise the session using specific language. “SCADA and PLC troubleshooting for water operations” communicates more than “advanced automation seminar”. Include the expected skill level, software or hardware used, duration, safety requirements, and whether attendees should bring a laptop. This helps supervisors nominate suitable staff rather than filling places indiscriminately.

Build A Balanced Technical Programme

A full-day programme might begin with process control fundamentals, move into instrumentation and PLC logic, then cover SCADA visualisation, alarms, communications, and fault diagnosis. The final activity should combine those subjects in a realistic incident. Short presentations are useful, but participants should spend substantial time making decisions and testing results.

Use a consistent operational model throughout the day. A pump station or biological nutrient removal process can illustrate sensors, actuators, interlocks, permissives, control loops, trends, and operator response. When every exercise relates to the same process, participants can see how a change in one layer affects the rest of the system.

Include current concerns such as remote access, password management, backups, patching, network segmentation, and vendor support. Cybersecurity should be presented as part of reliable operations rather than an abstract information technology topic. The facilitator can demonstrate how an apparently simple remote connection may affect safety, availability, and incident investigation.

Design Hands-On Learning

Practical work should be planned around safe, repeatable tasks. A small training rig, PLC simulator, digital twin, or virtual SCADA environment can let attendees force an input, observe a sequence, change a setpoint, and review an alarm without touching a live plant. If physical equipment is used, isolate hazardous energy and provide a written risk assessment consistent with Australian work health and safety requirements.

Give each group a fault with enough information to investigate but not enough to make the answer obvious. Examples include a drifting level transmitter, a failed network switch, an incorrectly scaled analogue input, or a pump that starts and stops too frequently. Participants should record symptoms, likely causes, tests performed, corrective action, and the evidence that confirms the fix.

A good exercise includes a moment where the technically correct response is not the safest immediate response. If a high-level alarm appears during a communications outage, the team may need to consider local controls, manual intervention, escalation, and environmental risk before restoring remote operation. This connects automation knowledge with operational judgement.

Select Presenters And Equipment

Choose presenters who can explain systems clearly and relate technical choices to plant outcomes. A strong panel might combine an automation integrator, an experienced operator, an electrical professional, and a water quality or process specialist. Their perspectives should complement one another rather than repeat the same vendor presentation.

Ask presenters to submit a short session brief, learning outcomes, equipment list, and backup plan. Confirm software versions, licence requirements, network settings, display connections, and compatibility well before the event. Australian venues may have limited access to specialist hardware, so equipment should be shipped or tested early rather than assumed to be available locally.

Vendor involvement can add value when it is transparent and controlled. Give commercial speakers a defined time slot and require them to disclose product affiliations. The main learning should remain transferable across brands, because utilities often operate mixed fleets of PLCs, telemetry devices, drives, and instrumentation.

Align Content With Compliance

Automation training in the water sector should explain how control decisions interact with environmental obligations. Australian participants may work under state-based water, environmental protection, electrical safety, and WHS laws, with requirements varying between New South Wales, Victoria, Queensland, Western Australia, and other jurisdictions. A compliance specialist can explain which responsibilities belong to the operator, asset owner, designer, and contractor.

A useful comparison can broaden the discussion without confusing jurisdictions. California’s regulatory environment, for instance, includes formal NPDES permit processes; the NPDES renewal guide can help participants understand how permit conditions may influence monitoring, reporting, and control strategy. The facilitator should then relate that principle to the relevant Australian licence or discharge requirements.

Include document control as part of the technical lesson. Participants should learn to record setpoint changes, logic revisions, alarm modifications, bypasses, and test results. A controlled change process reduces the risk that a well-intended adjustment becomes an undocumented operational dependency months later.

Measure Value After The Event

Evaluation should go beyond a satisfaction form. Use a short diagnostic before the workshop and a similar assessment afterwards. Practical evidence might include correctly tracing an instrument loop, explaining an interlock, interpreting a trend, or restoring a simulated control sequence. These results show whether learning occurred rather than simply whether attendees enjoyed the day.

Collect feedback about pace, relevance, equipment, presenter clarity, and confidence in applying the skills. Follow up after 30 or 60 days with supervisors to identify whether staff have used the methods in fault finding, commissioning, alarm review, or maintenance planning. This information can guide the next workshop and help justify professional development expenditure.

Document the event carefully. Keep the agenda, presenter biographies, attendance register, learning outcomes, assessment method, and evaluation summary. Photos and records from previous technical events can help communicate the atmosphere and practical value of future programmes; an event gallery can also provide a useful reference when promoting an industry learning session.

A workshop becomes more valuable when it leaves behind reusable resources. Provide a troubleshooting checklist, sample cause-and-effect matrix, alarm review worksheet, commissioning template, and reference list. Store them in a location accessible to participants, with version dates and ownership clearly marked.

The most effective format is focused, practical, and tied to real operational decisions. Define the problem first, design exercises around safe fault diagnosis, include Australian compliance realities, and measure what participants can do afterwards. A simple planning test is this: every session should produce one skill, one artefact, and one decision-making habit that a participant can use at the plant on the next working day.