Product Families
Engineering Selection Guide
A temperature transmitter converts a low-level RTD or thermocouple input into a standard signal and may add isolation, linearisation, diagnostics or digital configuration. Start by matching the sensor: RTD type and wiring, thermocouple type and polarity, number of inputs, expected measuring range and fault behaviour. A transmitter configured for one sensor must not be assumed to interpret another correctly. Record the configured input and output range as part of the loop documentation.
The total measurement performance includes the sensor, lead wires, transmitter, ambient temperature and receiving input. Three- or four-wire RTD circuits can reduce lead effects in different ways; thermocouple circuits require compatible extension cable and cold-junction handling. Electrical isolation may help with ground-potential differences, but its presence and rating must be confirmed for the exact model. Reference accuracy at laboratory conditions is only one contributor and should not be presented as the uncertainty of an installed temperature loop.
Installation format affects environment and maintenance. A head-mounted transmitter experiences temperature conducted from the process and surrounding ambient; a rail-mounted device needs a suitable enclosure and wiring route; a field housing adds display and cable-entry considerations. Define supply, load, 4–20 mA or digital communication, sensor-break direction, update time, display and hazardous-area need. If dual inputs, backup or drift diagnostics are important, list the required behaviour instead of assuming every smart transmitter implements it.
The TYCK families below cover head and smart transmitter directions. An RFQ should name the sensor and wiring, configured range and units, output, communication, isolation, housing, ambient conditions and required certificates. Ask for terminal diagrams, input tables and configuration records for the selected code. Commissioning should verify sensor wiring, loop scaling and fault direction at the receiving system. Any diagnostic or protocol function used for maintenance must be supported by the exact manual and firmware information.
Product Catalog
2products
Temperature Transmitter
Head-Mount Temperature Transmitter with configuration-specific range, connection, material and output options
Process skids requiring a standardized RTD or thermocouple signal interface.
Temperature Transmitter
Smart Temperature Transmitter with configuration-specific range, connection, material and output options
Process skids requiring a standardized RTD or thermocouple signal interface.
Engineering Selection Guide
Two-, three- and four-wire circuits handle lead resistance differently and require compatible sensor and transmitter terminals. The wrong configuration can introduce offset or prevent correct measurement. State the RTD type, number of leads and cable arrangement, then verify the terminal diagram. Commissioning should check continuity and configured input without applying procedures that could damage an intrinsically safe or energised loop.
It defines how the transmitter output responds when it detects an open sensor or another input fault, often by driving the signal toward a configured high or low failure level. The receiving PLC or DCS must recognise that state consistently. Specify the desired direction and any alarm delay, then verify exact current values and supported diagnostics in the selected transmitter manual and loop logic.
No. HART provides a communication framework, while device variables, commands and diagnostic algorithms differ by manufacturer, model and firmware. Identify the functions the asset or control system will use, such as range configuration, sensor status or secondary variables. Confirm the device-description and integration requirements. Do not base maintenance or protective action on a diagnostic that has not been documented and tested.
