Pt100 Sensor - China Manufacturer for Industrial Temperature Probes

I’m a China Manufacturer and I supply high-precision Pt100 Sensor for process control, HVAC, and automation. Our sensors combine sturdy stainless steel sheath, 3/4/6-wire configurations, and IEC 60751 accuracy classes for reliable data. With ranges from -200°C to 850°C and resistance at 0°C of 100 ohms, they deliver stable performance under vibration and oil or steam exposure. I offer customizable options: 3-wire or 4-wire connections, various sheath diameters, and head or remote mounting. Calibration traceable to national standards, fast delivery, competitive pricing for bulk orders. Whether you need tight tolerances for critical processes or rugged sensors for harsh industrial sites, I got you covered. If you’re sourcing from a trusted China Manufacturer, my Pt100 Sensor will help you reduce downtime, improve control accuracy, and ease maintenance. Let me know your required length and connector type and I’ll quote promptly.

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Pt100 Sensor Dominates Trusted by Pros

Pt100 sensors continue to dominate temperature measurement across process industries. Pros rely on their repeatable accuracy, long-term stability, and wide operating range. With 0°C resistance of 100 Ω and tolerance defined by IEC 60751, Pt100 RTDs deliver reliable data from cryogenic temperatures to high-heat environments, available in several classes and configurations to match application needs. From the perspective of global buyers, standardization is essential. Pt100 RTDs support 2-, 3-, or 4-wire configurations, ensuring lead resistance compensation and seamless integration with PLCs, DCS, and handheld meters. Their compatibility with common connector interfaces and traceable calibration enables consistent global sourcing, while robust sheath materials and certifications address harsh environments and regulatory requirements. When selecting suppliers, prioritize traceable manufacturing processes, QC testing for resistance, tolerance, and drift, and ISO certs. Look for scalable production, reliable logistics, and strong technical support that can assist from design to after-sales. A trusted engineering partner with deep sensor expertise can translate your process needs into durable, precise Pt100 solutions that perform today and evolve with your plant.

{ Pt100 Sensor Dominates Trusted by Pros }

Temperature (°C) Resistance (Ω) Wiring Configuration Tolerance Class t50 (s)
-20023.002WClass A3.0
-15042.252WClass A2.8
-10061.502WClass A2.6
-5080.752WClass A2.4
0100.002WClass A2.2
25109.633WClass A2.0
50119.253WClass A1.8
75128.883WClass A1.7
100138.503WClass A1.6
150157.753WClass A1.4
200177.003WClass A1.3
250196.253WClass A1.3
300215.504WClass A1.2
400254.004WClass A1.1
500292.504WClass A1.0
600331.004WClass A0.9
700369.504WClass A0.8
800408.004WClass A0.8
850427.254WClass A0.7

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Pt100 Sensor Application Delivers Unmatched Quality

Data Dimension: Temperature Stability Across Pt100 Sensor Probes

New Data Insight Title: Temperature Stability Across Pt100 Sensor Probes

This dataset presents a synthetic representation of temperature-induced deviation in Pt100 sensor measurements across a broad operating spectrum. Each bar corresponds to a test temperature band and reflects the percentage deviation from a reference standard, expressed as a relative error in percent. The maximum value among the data points defines the scale of the chart, ensuring consistent visual comparison of stability across temperatures. The lower bars near room temperature indicate high accuracy and repeatability, while the higher bars at extreme temperatures illustrate increasing calibration challenges and potential drift. Such a visualization is valuable for engineers who design temperature monitoring systems, as it highlights where calibration and compensation strategies are most needed. By examining the pattern of deviations, one can infer whether a sensor lineup requires more frequent recalibration, enhanced compensation algorithms, or installation practices that minimize thermal gradients and junction stress. The chosen temperature bands cover cryogenic to elevated temperatures to simulate real-world scenarios in laboratory, industrial, and process settings. Although the data shown here are synthetic, the layout mirrors common evaluation methods used in sensor quality assessments, focusing on a clear, interpretable metric: the relative stability of measurements under varying thermal conditions. This approach helps stakeholders quantify quality dimensions, compare sensor batches, and make informed decisions regarding maintenance schedules and sensing strategies. Extending the dataset with time-based drift, hysteresis, or response-time metrics could provide a more comprehensive view of sensor performance in dynamic environments.

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