Flow & Consumption
Monitor coolant, water, liquids, gases or compressed air using magnetic-inductive, thermal or ultrasonic principles according to the medium.
Select the measurement principle around the medium, range, pressure, temperature, process connection and required output. The strongest process-monitoring architecture starts with the process condition—not with a preferred sensor family.

Flow, pressure, level and temperature often interact; one process may require several sensor families rather than a single multi-purpose device.
Monitor coolant, water, liquids, gases or compressed air using magnetic-inductive, thermal or ultrasonic principles according to the medium.
Industrial and hygienic pressure sensing spans switching, transmitter and display-based architectures with different measuring cells and ranges.
Choose point-level, guided-wave radar, free-space radar, capacitive or hydrostatic routes according to medium, tank and process conditions.
Explore continuous level sensing →RTD-based transmitters and display sensors are selected by range, probe, process connection, response and output architecture.
The correct sensor family changes with medium and purpose.
Flow, pressure and temperature jointly indicate whether a machine or process is receiving effective cooling.
Pressure and temperature monitor power-unit condition; level can supervise reservoirs.
Point or continuous level is selected around tank geometry, medium, foam, agitation, pressure and hygienic requirements.
Flow/no-flow and level sensing help prevent dry running and loss of process supply.
Dedicated SD meters support consumption, leakage and utility-allocation analysis.
Hygienic pressure, level, flow and temperature devices must be selected around process connections, cleaning and media conditions.
These pages provide deeper application and model-selection guidance.

Volumetric flow, totaliser and temperature for suitable electrically conductive liquids.
Explore SM →
Compact thermal flow and temperature monitoring for compatible liquids/gases.
Explore SA →
Insertion-style thermal monitoring for flow/no-flow and pump/cooling protection.
Explore SI →
Thermal consumption measurement with totalising and model-dependent additional process values.
Explore SD →
Temperature measurement with local display and switching/analogue/IO-Link functions by model.
Explore TN →
Compact temperature transmitter architecture selected by range, probe and connection.
Explore TA →Current ifm IO-Link process sensors cover pressure, flow, level and temperature. Depending on the device, one connection can provide process values, parameterisation, status information and additional measured variables.
A sensor family that fits one medium can be wrong for another.
| Process need | Start with | Key checks | Example Primionics route |
|---|---|---|---|
| Volumetric flow of conductive liquid | Magnetic-inductive | Conductivity, pipe size, pressure, connection | SM |
| Flow/no-flow protection | Thermal insertion | Medium, pipe, setpoint, temperature | SI |
| Compressed-air / gas consumption | Thermal consumption meter | Gas, pressure, pipe size, normal conditions | SD |
| Point-level detection | Impedance / capacitive / other point-level | Medium, buildup, foam, hygienic need | LMT |
| Temperature with local display | Integrated RTD sensor | Range, immersion, probe, output | TN |
| Compact temperature transmitter | RTD transmitter | Range, probe, response, 4–20 mA / IO-Link | TA |