Rubber processing, batch by batch.
Mixing-cycle variance batch by batch, curing-press utilisation with cavity awareness, energy per kg of compound, and predictive maintenance for mixers, mills, extruders and presses.
The losses every rubber plant knows, and nobody measures.
Batch cycle variance
Two operators, same compound, 90 seconds apart per batch. Mixing-cycle variance is capacity, measured batch by batch.
The press utilisation myth
Curing presses look busy while daylights sit empty. Cavity-level utilisation exposes the real number.
kWh per kg of compound
Mixing is energy-brutal. Energy per batch and per kg, trended by compound and shift.
What would mixing every batch at your best cycle be worth?
Your best cycle is already proven on your own mixer. The gap is capacity.
Cycle variance comes from operator practice, compound temperature and feeding delays. Batch-level data separates them.
OEE, condition monitoring and predictive maintenance for this floor.
OEE for this floor
- Batch counts and cycle times per mixer and press
- Downtime split: compound wait, mould change, breakdown
- Curing-press utilisation with cavities
- Changeover and warm-up time
CBM for these machines
- Mixer motor load per compound
- Hydraulic pressure and temperature on presses
- Platen temperature consistency
- Drive and bearing vibration on mills and extruders
PdM for these failure modes
- Bearing and gearbox warnings on mixers
- Hydraulic degradation prediction
- Heater and platen failure prediction
- Health scores per machine, daily
The equipment we monitor here.
Where this connects to the rest of the platform.
Straight answers.
How does MachineWise help a rubber plant?
Can it measure curing press utilisation properly?
Does it track energy per kg of compound?
Can it predict mixer failures?
See every batch cycle on your mixer this month.
Two machines, thirty days, zero cost to start. Your data stays on-premises throughout.