Forging Press Monitoring & SCADA
Real-time press visibility, shift production metrics, alarms, trends and production reports

A forging press is at the heart of the production process, and even small variations in cycle time, pressure, temperature, machine availability or operator response can affect output. A forging press monitoring and SCADA system provides a continuous view of the press, records important production and process parameters, and converts machine data into information that production, maintenance and management teams can use. Instead of relying only on manual production sheets or end-of-shift totals, the system can record each press cycle as it happens, distinguish active and idle periods, capture alarms and process values, and automatically generate shift-wise and date-wise reports.
What Should a Forging Press SCADA Monitor?
Parameter | Typical Information |
Machine status | Running, idle, stopped, fault, setup or maintenance state. |
Cycle count | Number of completed forging cycles or components produced. |
Cycle time | Duration of each production cycle and variation from the normal cycle. |
Press / hydraulic pressure | Actual, peak and holding pressure where applicable. |
Temperature | Oil, die, billet, furnace or other relevant temperatures where available. |
Ram / slide position | Position or stroke information where the PLC exposes it. |
Motor / drive status | Running state, trip condition or available drive information. |
Alarm and fault status | PLC faults, safety trips, overloads, pressure faults and process alarms. |
Part / product identifier | Part number, recipe, die or job reference where available. |
Operator / shift | Operator or shift association when required for reporting. |
Real-Time Press Dashboard
The dashboard should show the current condition of the forging press at a glance, emphasizing information that explains whether the press is producing normally.
· Current machine state: Active, Idle, Stopped or Fault.
· Current shift and elapsed shift time.
· Current production count and shift target.
· Target achievement percentage.
· Current and average cycle time.
· Last cycle completion time.
· Current pressure and relevant temperature values.
· Active alarms and warnings.
· Current product, part number, die or job reference where available.
· Running, idle and downtime duration for the current shift.
Shift Production Monitoring
Shift-wise production analysis connects machine behaviour with actual output. Rather than recording only the final quantity at shift end, the SCADA can continuously calculate production and utilization metrics.
Shift Metric | Meaning |
Shift production count | Total completed production cycles/components during the shift. |
Production target | Planned quantity for the shift. |
Target achievement | Actual production as a percentage of the shift target. |
Average cycle time | Average duration of completed production cycles. |
Minimum / maximum cycle time | Fastest and slowest cycles during the shift. |
Active production time | Time during which the press is actively producing. |
Idle time | Time between production cycles when the press is not producing. |
Downtime | Time lost because of faults, breakdowns, maintenance or defined stoppages. |
Machine availability | Proportion of scheduled time for which the press is available. |
Production rate | Components or cycles produced per hour. |
Alarm count | Number of alarms or trips during the shift. |
Longest stoppage | Largest continuous period without production. |
Active vs. Idle Time
Production count alone does not explain why output is high or low. A press may have a normal cycle time but lose significant production because of long gaps between cycles. Separating active, idle and downtime makes these losses visible. A shift timeline can show when the press was actively cycling, when it was idle, and when it was stopped because of a fault or planned activity. This helps supervisors distinguish slow production from non-production time.
Cycle-Time Analysis
Cycle time is a direct indicator of press productivity. Recording every cycle allows the SCADA to show whether the process is stable or whether cycle duration is drifting.
· Current cycle time.
· Average cycle time by shift.
· Minimum and maximum cycle time.
· Cycles above a defined maximum duration.
· Cycle-time trend throughout the shift.
· Comparison between shifts, products or dies.
· Identification of unusually long gaps between otherwise normal cycles.
Process Parameter Trending
Production information becomes more useful when viewed together with process parameters. Pressure, temperature, position and other relevant values can be stored with timestamps so abnormal production events can be investigated in context. For example, if cycle time increases during part of a shift, the cycle-time trend can be compared with hydraulic pressure or oil temperature. If an alarm occurs, values immediately before and after the event can be reviewed.
Alarm and Event Monitoring
The SCADA should maintain a chronological record of alarms and important machine events, including time, alarm description, machine state and, where available, acknowledgement and clearance time.
· Hydraulic pressure high/low alarms
· Oil temperature high alarms
· Drive or motor trips
· PLC or communication faults
· Safety interlock or emergency-stop events
· Sensor faults
· Cycle-time exceeded warnings
· Production stopped or prolonged idle events
Shift Production Report
At the end of each shift, the system can automatically prepare a consistent production report instead of relying on manually consolidated figures.
· Date and shift
· Press / machine identification
· Product / part number / job
· Shift start and end time
· Production target
· Actual production count
· Target achievement percentage
· Average, minimum and maximum cycle time
· Active production time
· Idle time
· Downtime
· Machine availability
· Production rate per hour
· Peak / average process values where relevant
· Number of alarms
· Alarm and stoppage summary
· Longest idle or downtime event
Daily and Date-Range Reports
Shift reports provide operational detail, while daily and date-range reports help identify longer-term production patterns.
· Daily production totals
· Shift-wise production comparison
· Average cycle time by day or shift
· Production rate trend
· Active, idle and downtime totals
· Alarm frequency and repeated fault types
· Machine availability trend
· Product-wise or job-wise production where identifiers are available
· Pressure and temperature trends over the selected period
Hourly Production Analysis
Breaking a shift into hourly intervals makes production losses easier to identify. An hourly chart can show components produced in each hour alongside the expected target. A sudden drop can then be correlated with idle time, alarms, longer cycle time or process parameter changes.
Downtime and Stoppage Analysis
Where stoppage reasons are available from the PLC or entered by an operator, downtime can be classified so recurring losses can be prioritized.
· Machine fault or breakdown
· Tool / die change
· Material not available
· Operator delay
· Quality inspection
· Planned maintenance
· Power or utility interruption
· Other / unclassified stoppage
A downtime Pareto report can show which causes account for the largest production losses, helping maintenance and production teams focus on the most significant recurring issues.
Production Target vs. Actual
A target-versus-actual view shows whether the press is ahead of or behind plan while the shift is still in progress. The target can be derived from planned cycle time, scheduled production hours and required quantity, while the actual curve is generated from completed cycles.
Historical Comparison
· Compare production between Shift A, B and C
· Compare average cycle time before and after maintenance
· Compare pressure or temperature behaviour for different products
· Identify whether idle time is increasing over several weeks
· Identify repeated alarms occurring under similar conditions
· Compare the current shift with a strong historical shift for the same product
Role-Based Views
User | Useful Information |
Operator | Current machine status, cycle time, process values, active alarms and immediate production count. |
Shift Supervisor | Target vs. actual, hourly production, active/idle time, downtime and shift performance. |
Maintenance | Alarm history, downtime events, pressure/temperature trends and machine-state history. |
Production Manager | Shift comparison, daily production, utilization, cycle-time trends and recurring losses. |
Management | Production totals, target achievement, availability and high-level trend reports. |
Useful Dashboard KPIs
· Current shift production
· Shift target
· Target achievement %
· Current cycle time
· Average cycle time
· Production per hour
· Active time
· Idle time
· Downtime
· Machine availability
· Current pressure
· Current temperature
· Active alarm count
· Last production timestamp
Benefits of Forging Press Monitoring & SCADA
Benefit | How the System Helps |
Improved production visibility | See actual production progress throughout the shift rather than only at shift end. |
Reduced hidden idle time | Identify long gaps between cycles and quantify lost production time. |
Faster troubleshooting | Review alarms and process values around the time of a stoppage. |
Better shift accountability | Use consistent shift metrics instead of manually compiled figures. |
Cycle consistency | Track changes in cycle duration and process behaviour. |
Maintenance insight | Identify recurring faults, pressure/temperature changes and downtime patterns. |
Automatic reporting | Generate repeatable shift, daily and date-range production reports. |
Start with the Metrics That Matter
A forging press SCADA does not need to begin with hundreds of parameters. A practical first implementation can focus on machine status, production count, cycle time, active/idle time, key pressure and temperature values, and alarms. Once these measurements are being recorded reliably, additional reports and process parameters can be added according to the needs of production, maintenance and management teams.
Conclusion
Forging press monitoring turns individual PLC values and production counts into a continuous operational record. By combining real-time machine status with cycle data, shift production, process parameters, alarms and downtime, SCADA provides a much clearer picture of how the press is performing. The resulting shift, daily and historical reports help teams understand where production time is being used, where it is being lost, how consistently the press is cycling, and which faults or process changes deserve attention.
FAQ
What production metrics should a forging press SCADA track?
A useful starting set includes shift production count, target, cycle time, production per hour, active time, idle time, downtime, availability and alarm count.
Can the SCADA generate automatic shift reports?
Yes. Once the production and machine-state data are recorded with timestamps, shift reports can be generated automatically using a consistent format.
How is idle time different from downtime?
Idle time is generally non-producing time when the machine is otherwise available, while downtime is time lost because of faults, maintenance or other defined stoppages. The exact definitions should be agreed for the plant.
Can pressure and temperature be included in production reports?
Yes. Relevant process values can be trended and summarized alongside production and cycle information.
Why monitor every cycle instead of only total production?
Cycle-level data reveals changes in cycle duration, gaps between cycles and process behaviour that a final production total cannot show.
Useful Links
· Explore our sensor solutions: https://uncodeit.co/solutions
· Learn more about Co:Play: https://uncodeit.co/coplay
· Contact uncode IT Solutions: https://uncodeit.co/about#contact
forging press production monitoring; shift production monitoring; forging press cycle monitoring; press downtime monitoring




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