High Temperature Eddy Current Sensor with CE Certification & Pricelist

I bring you the High Temperature Eddy Current Sensor that I developed to thrive in harsh production lines. Built for non-contact metal inspection, it delivers fast, stable readings even when process temperatures and vibrations push other devices to their limits. I rely on rugged housing, advanced coil design, and temperature compensation so you won’t miss a beat in critical processes. With CE Certification, our sensor meets European safety and reliability standards, simplifying your compliance and installation. It’s ideal for pipeworks, turbines, and high-temperature furnaces where contact probes fail. Easy installation, straightforward integration into your existing control system, and robust EMI resistance keep downtime to a minimum. If you want to compare value, check our Pricelist and ask about customized ranges or connectors. I can tailor the output interface, mounting options, and cable lengths to your line. Let me help you optimize quality control and uptime with confidence.

Hot Selling Product

High Temperature Eddy Current Sensor Factory Dominates

Across harsh industrial environments, high-temperature eddy current sensors are becoming indispensable. A dedicated manufacturing hub has emerged as a global leader by delivering rugged, precise sensors that endure extreme heat, vibration, and corrosive exposure. From gas turbines to steel mills, these devices provide real-time displacement data with minimal drift, enabling safer operations and reduced maintenance. What sets this hub apart is end-to-end excellence: design innovation, controlled materials, automated assembly, and rigorous testing. In-house calibration and traceability ensure consistent performance batch after batch. Flexible configurations—housing, IP ratings, and connection types—are offered without sacrificing supply speed, enabling rapid customization for turnkey projects. For global buyers, the promise is stable supply, competitive pricing, and reliable technical support. Multi-language assistance, spare-parts planning, and resilient logistics minimize procurement risk. Whether upgrading fleets or integrating new lines, partnering with a dominant supplier of high-temperature eddy current sensors can accelerate deployment and uptime.

{ High Temperature Eddy Current Sensor Factory Dominates}
Model Temp Range (°C) Sensing Range (mm) Housing Material Output Interface Accuracy (%FS) Repeatability (µm) IP Rating MTBF (hours) Calibration Interval (months) Year Introduced Annual Capacity (units/year)
HT-EC-01 -40 to 200 0-5 Stainless Steel 316L 4-20 mA 0.50 2 IP67 1,200,000 12 2018 4,800
HT-EC-02 -40 to 300 0-8 Inconel 600 RS-485 0.80 3.0 IP68 900,000 6 2020 3,600
HT-EC-03 -20 to 150 0-3 Stainless Steel 316L 0-10 V 0.30 1.5 IP65 1,500,000 12 2016 5,000
HT-EC-04 -60 to 250 0-6 Titanium Alloy 4-20 mA 0.60 2.0 IP67 1,000,000 12 2019 4,200
HT-EC-05 -40 to 150 0-4 Ceramic/Aluminum RS-422 0.90 3.0 IP65 800,000 6 2015 6,000
HT-EC-06 -40 to 350 0-10 Stainless Steel Dual: 4-20 mA & RS-485 0.40 1.0 IP67 1,300,000 12 2013 5,200

Related Products

High Temperature Eddy Current Sensor Supplier Service Backed by Expertise

New Data Dimension: Temperature Band Performance of Eddy Current Sensor Systems

Explanation: This dataset illustrates how sensor performance, expressed as relative signal integrity, varies across six temperature bands typical in industrial and field environments. Each bar represents the average fidelity observed during controlled testing, normalized to 100% at the reference condition. The new data dimension, Temperature Band Performance, focuses on the relationship between ambient temperature and measurement reliability for high-temperature eddy current sensing. The pattern shows a gradual decline as temperature increases, reflecting how material properties such as coil impedance, magnetic permeability, and electronics drift can degrade signal quality in thermal stress. In the cold extreme, the system maintains high fidelity due to lower thermal noise and stable impedance; as conditions move into mild and moderate warmth, fidelity remains solid but begins to drift from the peak. At higher ranges, performance drops more noticeably, indicating non-linear effects or calibration drift that require compensation strategies, such as temperature-aware calibration, reference channels, or material improvements. This data helps engineers select sensors with acceptable performance envelopes for a given application and guides deployment decisions across regions with different thermal profiles. The approach standardizes testing: identical excitation, consistent measurement windows, and adequate replication to ensure that temperature is the primary driver of observed changes. It also provides a baseline for comparing variants or upgrades, enabling a data-driven discussion with customers about resilience and maintenance needs. For a supplier service grounded in expertise, this dimension helps tailor recommendations, plan calibration schedules, and propose engineering controls that maintain accuracy in challenging thermal environments. Overall, temperature band performance gives actionable insight into reliability, informing risk assessment, spare-part planning, and the design of robust sensing systems.

Top Selling Products