Platinum RTD PT100 - CE Certification & Pricelist | Precision Sensors

From my experience, the Platinum RTD PT100 delivers fast, stable temperature readings for demanding industrial applications. I specify this sensor for OEMs and integrators who demand accuracy, long life, and easy field calibration. With CE Certification, you can trust compliance across your assembly lines and end products. I offer a complete package: rugged platinum RTD element, robust sheath options, and compatible connectors that reduce installation time. Our Platinum RTD PT100 responds quickly to temperature changes, provides linear output, and works well in high-traffic environments. If you need pricing, I can share the Pricelist and volume discounts. We also provide datasheets, mounting recommendations, and calibration procedures to help you qualify for your QA and traceability goals. Reach out to discuss lead times, MOQ, and customization options for your OEM project, and I’ll tailor the solution to your process.

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Platinum RTD PT100 For the Current Year More Than a Supplier - A Partner

Platinum RTD PT100 sensors set the benchmark for precise temperature measurement in modern processes. With exceptional stability, low drift, and a wide range, Pt100s deliver reliable data that reduces downtime and maintenance costs. This year, buyers seek more than a supplier: they want a partner who aligns on specifications, quality, and a resilient supply chain to ensure uptime and data integrity. Global procurement teams seek end-to-end support: traceable calibration, recognized certifications, and clear documentation. Choices include 2- or 4-wire configurations, Class A/B accuracy, and sheath materials suited to the process. Custom options—lead length, connectors, and packaging—speed installation, while transparent lead times and after-sales service protect total cost of ownership. When evaluating a partner, consider scale, quality control, on-time delivery, risk management, and compliance (RoHS/REACH). Request samples, audits, and references. A true partner offers design-to-commissioning collaboration, providing data, traceability, and swift support to keep measurements accurate and processes running smoothly.

{ Platinum RTD PT100 For the Current Year More Than a Supplier - A Partner}

Probe Type Accuracy Class Measurement Range (°C) Resistance @0°C (Ω) Typical Response τ (s) 63%
(water / still air)
Sheath Material Connection Typical Excitation Typical Applications & Notes
Thin-Film Insert (T1)
low mass, fast response
Class A (IEC 60751)
±(0.15+0.002·t)°C
-50 to 250 100.00 Ω ≈2 s / ≈8 s 316L Stainless Steel (Ø1.2–3 mm) 2-, 3-, or 4-wire (3-wire typical) 1 mA recommended (0.1–5 mA) Laboratory and HVAC sensing where fast response and compact size are required. Low self-heating & good repeatability. Calibration: ITS-90; RoHS compliant.
Wire-Wound Element (W1)
robust element for extended range
Class B (IEC 60751)
±(0.30+0.005·t)°C
-200 to 600 100.00 Ω ≈3–4 s / ≈12 s 304 or 316 Stainless Steel (Ø3–6 mm) 2-, 3-, or 4-wire (4-wire for highest accuracy) 1–3 mA typical Process and high-temperature applications. Good long-term stability at elevated temperatures. Use 4-wire configuration for laboratory-grade reading at long leads.
Sheathed Rugged Probe (S1)
industrial insertion probe
Class A (typical industrial build) -50 to 400 100.00 Ω ≈4 s / ≈20 s 316 Stainless Steel sheath; optional ceramic insulators 3-wire with gland or integral cable 1 mA recommended Process control, petrochemical and general industrial installations. Available with IP67 sealed cable entry. Typical drift ≤0.2°C/year under stable conditions.
Surface-Mount RTD (SM1)
thin-film for surfaces & PCBs
Class B (surface variant) -50 to 200 100.00 Ω ≈0.5 s / ≈5 s Nickel-plated copper or thin-film substrate 2- or 3-wire; solder pads or leads 0.5–1 mA low-excitation Surface temperature monitoring on housings, PCBs, or engines. Very low mass for rapid thermal tracking. Mounting method affects absolute accuracy and response.
Standard Reference Resistance at 0°C = 100.00 Ω; standard alpha = 0.00385 Ω/Ω/°C (IEC 60751 / ITS-90 compatibility). Typical self-heating <0.01°C at 1 mA; compatibility: 2-, 3-, 4-wire readouts. Typical environmental rating varies by assembly (IP20–IP67). Performance depends on mounting, thermal contact, and excitation current.

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Platinum RTD PT100 Is The Best Pioneers in the Field

High-Precision RTD Temperature Stability Across Operating Range

This chart visualizes the resistance behavior of a high-precision platinum RTD sensor across a broad ambient temperature range. The nominal curve is calculated using a standard linear approximation (R = R0 * (1 + alpha * T)) with R0 = 100 Ω at 0°C and alpha = 0.00385 Ω/Ω/°C. The measured sample mean simulates realistic manufacturing and installation variation by introducing small systematic offsets and random drift components. Data points span from -40°C to 200°C to represent common industrial operating envelopes. Observing the divergence between nominal and measured traces highlights two practical phenomena: slight calibration offsets across the temperature band, and increasing spread at higher temperatures where nonlinearity and self-heating effects become more pronounced. The chart also demonstrates that at low temperatures the sensor remains tightly clustered around the nominal response, reflecting good linearity and low thermal induced error, while above approximately 100°C deviations increase, emphasizing the importance of correction factors or higher order modelling in precision applications. For system integrators, this visualization supports decisions about whether a simple linear compensation suffices or whether a multi-point calibration strategy is necessary. It can also inform acceptable resistor tolerance bands and diagnostic thresholds for on-line health monitoring. When designing measurement chains, account for wiring resistance, lead compensation, and possible long-term drift; these contributors are represented here as a small ramping offset and modest random noise in the measured mean. Overall, the chart provides a compact, interpretable summary of expected versus observed RTD response, enabling engineers to quantify error budgets and prioritize calibration work under different environmental and loading scenarios. Future extensions of this dataset could include humidity and vibration axes, long-term aging traces, and comparisons between 2-, 3-, and 4-wire connection schemes to better approximate installation effects, enabling a fuller risk assessment for high-reliability deployments and enabling targeted corrective maintenance planning now.

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