Position and presence
Inductive, capacitive, photoelectric, magnetic and distance sensors detect parts, positions and machine states.
Capture position, process and machine-health data at the source, then carry both measurements and diagnostics into the control and maintenance workflow.
Position, process and machine condition
Sense, identify and diagnose
Process values, status and events
PLC, edge and maintenance systems
The portfolio covers position and presence detection, pressure, temperature, flow and level measurement, IO-Link device integration, identification and vision, vibration monitoring and machine diagnostics.
Inductive, capacitive, photoelectric, magnetic and distance sensors detect parts, positions and machine states.
Pressure, temperature, flow and level devices provide switching values, analogue signals or digital process data.
Masters and compatible devices carry process values, identity, parameters and diagnostics over standard point-to-point wiring.
RFID, code reading and vision functions support workpiece tracking, verification and inspection.
Vibration, temperature and supporting process measurements help maintenance teams follow asset condition.
Status bits, event codes and measured trends add context beyond a simple switching output.
Select the sensing method, output type, installation and diagnostic depth from the machine function and operating environment.
Verify part presence, end positions, tooling and material flow with sensing principles matched to target, distance and environment.
Measure pressure, temperature, flow and level close to pumps, filters, cooling loops and process equipment.
Use identification and vision to associate products, carriers, tools and quality checks with the production process.
Combine vibration and operating data so maintenance teams can distinguish process variation from developing machine faults.
IO-Link is a standardized point-to-point communication technology for transmitting process values, device parameters and diagnostic information between compatible devices and an IO-Link master.
Read engineering values and additional status information directly instead of relying only on converted analogue signals.
Store and restore device parameters through the master so replacement and format changes are more controlled.
Connect IO-Link masters to the selected controller network while retaining the same device-level interface.
Use the correct IODD, port mode, cycle time and parameter set for each connected device.
Position sensors should be selected from target material, sensing distance, mounting geometry, switching speed and contamination conditions.
Detect metallic targets, cylinders and defined machine positions without mechanical contact.
Detect selected solids or liquids where material properties and environmental effects are understood.
Detect objects, edges and distances using reflected or transmitted light, with optics matched to surface and background.
Measure rotational or linear position where the control task needs continuous feedback rather than a switching point.
Process sensors translate physical variables into values the control and monitoring systems can use directly.
Monitor hydraulic, pneumatic and liquid systems with ranges, process connections and overload capability matched to the application.
Measure media, surfaces or ambient conditions with suitable probe, response time and material compatibility.
Follow liquid, gas or compressed-air flow for process control, cooling and consumption monitoring.
Detect switching points or continuous level where tank geometry, medium and foam or deposits affect the measurement principle.
Identification and vision add product context to the machine sequence, allowing the controller to verify what is present as well as where it is.
Read and write tags for workpiece carriers, tools, assembly state and traceability.
Capture barcodes and 2D codes for product identity, routing and quality records.
Check presence, orientation, dimensions or simple features without creating a full general-purpose vision system.
Define trigger, lighting, field of view, communication and reject logic as part of the machine design.
Vibration, temperature and supporting process variables provide the measurements needed to detect developing changes in rotating and mechanical equipment. Maintenance decisions still require trend limits and machine context.
Monitor machine vibration and surface temperature at bearings, motors, pumps and gearboxes.
Use pressure, flow, oil condition or electrical data where they explain changes in machine behaviour.
Compare values against the machine state and load instead of relying on a single universal threshold.
Route warnings and diagnostic values into the system used by maintenance personnel.
Diagnostic values must be interpreted with operating state, speed, load, installation and process conditions so that electrical or mechanical symptoms are not treated as isolated alarms.
Use vibration-derived values to highlight shocks, imbalance, looseness or developing wear.
Combine high-frequency and thermal indicators where bearing or lubrication conditions are relevant.
Use short-circuit, out-of-range and device-health information to distinguish instrumentation faults from process faults.
Correlate sensor events with speed, load, recipe and operating mode before acting on the result.
IO-Link masters and industrial communication products carry process values, parameters and diagnostics into PLC, SCADA, edge or maintenance systems while preserving device identity and data context.
Aggregate device data and connect it to the selected industrial Ethernet or fieldbus network.
Provide process data to the PLC while forwarding selected diagnostic information to edge or maintenance systems.
Use device descriptions and consistent tag naming so values remain understandable beyond the field layer.
Control which device data is exposed outside the machine network and through which interface.
Sensor values, device status and parameter information can pass through remote I/O, Softing connectivity, CODESYS control or NOVUS monitoring according to the application. The measurement definition and diagnostic meaning should remain consistent throughout that path.
Reliable sensing depends on target definition, mounting, wiring, parameter management and commissioning records as well as the sensor specification.
Document target material, medium, range, response time, mounting and environmental conditions.
Follow clearances, flush or non-flush mounting rules, process sealing and cable routing requirements.
Match output type, port class, supply, grounding and EMC practice to the controller and machine.
Save parameters, threshold logic and device identity so replacement and future service remain controlled.