Pt100 Sensor 3 Wire - Wholesale from Manufacturers

I’m your sourcing partner for reliable process temperature sensing. The Pt100 Sensor 3 Wire I offer delivers precise readings across industrial temp ranges, with a three-wire configuration that compensates lead resistance for stable data, even with long cable runs. Built for harsh environments, its corrosion‑resistant probe and rugged insulation withstand vibration, moisture and CIP/SIP cycles. Calibration certificates and optional OEM packaging make it easy to scale across lines. For Wholesale buyers and Manufacturers, this sensor fits standard connectors and panels, and can be customized in length, connector type, and thread. Quick lead times, consistent quality, and competitive pricing mean you can confidently standardize instrumentation across plants. Trust our focus on accuracy, repeatability, and service: we’ve walked this road with many OEMs and distributors, helping them reduce downtime and maintain process control with a single, reliable Pt100 Sensor 3 Wire.

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Pt100 Sensor 3 Wire Trusted by Pros From Concept to Delivery

When selecting a temperature sensor with staying power from concept to delivery, the Pt100 3-wire RTD is a reliable choice. The platinum element provides stable, repeatable accuracy across industrial ranges, while the 3-wire connection compensates lead resistance, keeping errors minimal even with long cables. Standards like IEC 60751 guide Class A/B tolerances for demanding applications. From initial spec to final shipment, a trusted supplier couples design, materials, and manufacturing to your process needs. Prototyping and calibration come with traceability certificates, material data, and performance tests. With tight QA, controlled tolerances, and dependable lead times, you get a working product that plugs into standard transmitters and controllers. Global buyers value flexibility: customizable sheath materials and lengths, connector options, and termination styles; compliance with RoHS, REACH, and ISO quality management; and scalable production for pilots or high volumes. A partner offering robust documentation and responsive technical support helps ensure consistent, on-time delivery worldwide.

{ Pt100 Sensor 3 Wire Trusted by Pros From Concept to Delivery}

Model Configuration Lead Length (mm) Cable Jacket Temperature Range R0 (Ω) Alpha (1/°C) Tolerance t90 (s) IP Rating Calibration Notes
PT100-3W-STD-1000 3-wire 1000 PVC jacket -50 to 150 °C 100.0 0.00385 Class A (IEC 60751) 0.6 IP55 NIST-traceable General-purpose lab to field
PT100-3W-STD-0800 3-wire 800 Silicone jacket -50 to 150 °C 100.0 0.00385 Class A (IEC 60751) 0.8 IP54 ISO 9001 QA, NIST-traceable Flexible for tight spaces
PT100-3W-EXR-0300 3-wire 300 Fiberglass overbraid -50 to 150 °C 100.0 0.00385 Class A (IEC 60751) 0.9 IP67 NIST-traceable Outdoor/demanding envs
PT100-3W-EXT-1500 3-wire 1500 Teflon (FEP) -50 to 150 °C 100.0 0.00385 Class A (IEC 60751) 0.7 IP68 NIST-traceable High-temp/chem tolerant
PT100-3W-STD-500 3-wire 500 PU jacket -50 to 150 °C 100.0 0.00385 Class A (IEC 60751) 0.8 IP65 ISO 9001 QA, NIST-traceable Field-ready general use
PT100-3W-STD-200 3-wire 200 Silicone jacket -50 to 150 °C 100.0 0.00385 Class A (IEC 60751) 0.6 IP54 NIST-traceable Compact for tight spaces

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Data Dimension: Time-Series Calibration Drift under Temperature Profiles

Explanation: This data visualization explores the time-series calibration drift of a three-wire Pt100 temperature sensor under three temperature profiles. The dimension title indicates the data dimension: Time-Series Calibration Drift under Temperature Profiles; the chart presents how drift evolves over a 12-month span. The three lines represent low-temperature, ambient-room, and high-temperature exposure, illustrating how environmental conditions influence sensor stability. The drift values are synthetic but designed to resemble typical Pt100 behavior: drift is small at stable, cool conditions, increases with warmer exposure, and grows subtly as time accumulates. The x-axis lists months, providing the time dimension; the y-axis shows drift magnitude in degrees Celsius from a fixed reference reading. Each dataset uses a distinct color to differentiate environmental profiles, with the lowest drift in the low-temperature line, moderate drift at room temperature, and the highest drift under high-temperature conditions. This arrangement highlights the combined effects of time and temperature on sensor calibration. From an engineering perspective, small drifts may be acceptable in some applications if compensated by a robust calibration model; however, larger drifts can produce measurement bias and reduced process control accuracy. The visualization supports proactive maintenance decisions: if drift crosses the predetermined tolerance in any profile, recalibration or replacement should be triggered. It also underscores the value of consistent measurement intervals: more frequent sampling enables faster detection of drift onset and a better understanding of drift dynamics. The data generation intentionally keeps noise modest to emphasize trend rather than random fluctuation, but real-world data would typically include random noise and occasional outliers. In practice, engineers may combine this time-series insight with resistance-temperature calibration curves, linearity tests, and environmental compensation to ensure continued measurement fidelity. Overall, the chart communicates a fundamental principle: temperature exposure and elapsed time jointly shape sensor accuracy, reinforcing the need for ongoing calibration strategy in precision temperature monitoring systems.

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