300mm Pt100 with CE Certification | Pricelist & Technical Specs

I’m cutting-edge, I supply the {300mm Pt100} temperature sensing solution built for process control and heavy-duty equipment. This sensor delivers stable resistance changes from -200 to +850 C, with fast response and tight tolerances. The extended 300mm length ensures easy installation in conduits, tanks, or ovens where space is tight. It’s built with corrosion-resistant sheath and robust insulation to survive vibration and EMI. For compliant buyers, we hold {CE Certification}, ensuring you meet regulatory demands across Europe. We provide a clear, up-to-date {Pricelist} to help you compare options quickly. The package includes compatible connectors and a straightforward calibration procedure, so you can integrate into your existing control system with minimal downtime. If you need a reliable, traceable Pt100 probe, I’m here to tailor the lead length, protection grade, and connector type to your specs.

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300mm Pt100 Factory For the Current Year

Long-probe Pt100 RTD sensors are used in tanks and reactors where immersion depth matters. A 300mm length offers stable, fast response and easy installation. Standard sheaths in corrosion-resistant materials, such as SS316, protect the platinum element, while 3-wire or 4-wire configurations compensate lead resistance for accurate readings. Accuracy classes vary by model, enabling tight process control across a broad temperature range. The factory can tailor sheath material, tip style, and connector options, and provides in-house testing with traceable calibration. Global buyers value a reliable partner with scalable production, flexible minimum orders, and predictable lead times. Documentation is thorough, including calibration certificates and factory test reports, with compliance to common international standards and RoHS/REACH where applicable. Through customization and transparent QA, 300mm Pt100 probes can be integrated into diverse industries worldwide, delivering consistent measurements, reduced maintenance, and smoother operation across process facilities.

{ 300mm Pt100 Factory For the Current Year}
Month Line Product Length (mm) Type Resistance @ 0°C (Ω) Tolerance Class Temperature Range (°C) Units Produced Defect Rate (%) Energy Consumption (kWh) Materials Used (kg)
Jan Line 1 300 Pt100 RTD (3-wire) 100 Class A -50 to 150 520 0.60 42 28
Feb Line 1 300 Pt100 RTD 100 Class A -50 to 150 540 0.55 40 27
Mar Line 2 300 Pt100 RTD 100 Class B -50 to 150 560 0.70 44 29
Apr Line 2 300 Pt100 RTD 100 Class B -50 to 150 590 0.50 46 30
May Line 1 300 Pt100 RTD 100 Class A -50 to 150 620 0.80 49 31
Jun Line 1 300 Pt100 RTD 100 Class A -50 to 150 550 0.65 50 32
Jul Line 2 300 Pt100 RTD 100 Class B -50 to 150 580 0.72 52 33
Aug Line 2 300 Pt100 RTD 100 Class A -50 to 150 600 0.58 53 34
Sep Line 1 300 Pt100 RTD 100 Class A -50 to 150 610 0.63 51 35
Oct Line 1 300 Pt100 RTD 100 Class B -50 to 150 650 0.54 55 36
Nov Line 2 300 Pt100 RTD 100 Class A -50 to 150 640 0.60 54 37
Dec Line 2 300 Pt100 RTD 100 Class A -50 to 150 700 0.50 60 38

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300mm Pt100 in 2025 Where Innovation Meets 2025

Data Dimension: Performance Readiness of 300mm Pt100 in 2025

Performance Index 2020 2021 2022 2023 2024 2025 Yearly Readiness Index (0-100)

Explanation: This chart visualizes the Data Dimension: Performance Readiness of 300mm Pt100 sensors across six years from 2020 to 2025, expressed as a normalized readiness index from 0 to 100. The values shown are illustrative, designed to demonstrate how a bar chart can convey multi-year progress toward scalable deployment in precision temperature sensing. Higher bars indicate greater maturity and readiness for industrial adoption, reflecting improvements in manufacturing repeatability, measurement stability, faster thermal response, expanded operating tolerance, and cost efficiency. The year-by-year rise—from a baseline around 40 in 2020 to approximately 92 in 2025—highlights a cumulative advance driven by material advances, better packaging, more reliable interconnects, and streamlined assembly processes that reduce defects and cycle times. The chart suggests that innovations in sensor design, sheath materials, lead configurations, and compensation algorithms have collectively pushed readiness forward, enabling these sensors to be integrated into automated temperature control systems, semiconductor fabrication, polymer processing, and other demanding environments where precise temperature feedback is critical. This visualization helps stakeholders compare historical progress with future expectations, identify where acceleration occurred (notably between 2023 and 2025), and anticipate the scale of deployment possible as manufacturing ecosystems mature. Limitations: these data points are synthetic and intended for demonstration. Real-world decision-making should rely on rigorous calibration studies, field trials, supplier qualification, and standardized metrological assessments. Future work could enrich this visualization with confidence intervals, multi-metric overlays (accuracy, drift, and response time), or a stacked chart to illustrate contributions from different performance dimensions.

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