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K Type Thermocouple 1200 Degree - High-Quality Supplier

From my bench to your production line, I offer the {K Type Thermocouple 1200 Degree} that withstands harsh environments. As a {Supplier}, I focus on delivering {High-Quality} sensors with tight tolerances, fast lead times, and robust construction. This thermocouple is ideal for steel, glass, ceramics, or petrochemical furnaces, rated to 1200 degree with excellent repeatability. You can rely on its stable emf response across wide temperature ranges, with corrosion-resistant sheath, sheathed thermocouple that meets international standards. I partner with you through certified QA, documentation, and after-sales support. If you buy this, you will reduce downtime, improve process control, and save energy. My production team uses high-grade materials and strict testing to ensure uniform performance batch to batch. Choose me as your {Supplier}, and I will keep supply lines steady, quality consistent, and pricing transparent.

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K Type Thermocouple 1200 Degree Where Service Meets Innovation From Concept to Delivery

Capable of withstanding up to 1200°C, the K Type thermocouple blends service with innovation from concept to delivery. By selecting robust sheath materials—stainless steel or high-temperature alloys—with ceramic options where needed, it delivers stable, repeatable readings in demanding environments. Global buyers gain from collaborative design, rapid prototyping, rigorous testing, and configurations tailored to metals, glass, cement, power, and aerospace, all aligned with international standards for performance and safety. From initial specs to final calibration, end-to-end QA ensures traceability and consistent quality. Flexible lead times, scalable production, and installation support help maximize uptime across sites. With robust packaging and worldwide shipping, procurement teams gain a reliable supply chain for high-temperature use, confident that performance, safety, and compliance are built in from the start.

{ K Type Thermocouple 1200 Degree Where Service Meets Innovation From Concept to Delivery}
Parameter Specification Value Unit Notes
Temperature Range Measurement span -200 to 1260 °C Suitable for cryogenic to high-temperature processes
Accuracy Class designation Class 1 N/A ±1.0°C or ±0.4% of reading (whichever greater) from -200 to 1260°C
Response Time (T90) Time to 90% of final value 1–4 s Depends on sheath diameter and installation
Sheath Material Construction material 316 stainless steel; Inconel 600 Material Choice based on environment and maximum temperature
Sheath Outer Diameter Diameter size 1.0–6.0 mm Common options include 1.5 mm and 3.0 mm
Sensor Wire Type Cable pair Chromel/Alumel Wire pair Standard K-type thermocouple composition
Insulation & Core Insulation material Magnesium oxide Ceramic High-temperature ceramic core with oxide insulation
Calibration Calibration method NIST-traceable N/A Includes calibration against fixed-point references
Standards Compliance Standards ASTM E230; EN 60584-1 N/A Ensures compatibility with global specs
Probe Length Overall length options Standard 1000; 50–3000 mm Custom lengths available on request
Termination End connections Bare wires; optional connectors N/A Easy integration into assemblies
Environmental Suitability Operating environment Industrial environments N/A Water/oil/gas plant compatibility
Lead Time Production lead time 2–3 weeks; 4–6 weeks for custom weeks Depends on complexity and quantity
Manufacturing Process Stage Lifecycle stages Concept → Prototyping → Pilot → Mass Production Stage From idea to delivery
Quality Assurance Quality checks 100% calibration; 100% dimensional and visual inspection N/A Includes final inspection and batch records
Environmental Compliance Regulatory compliance RoHS; REACH N/A Environmental compliance standards adhered

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K Type Thermocouple 1200 Degree Market Leader Your End-to-End Solution

New Data Dimension: Temperature Range vs. Stabilization Time

This chart presents a synthetic dataset illustrating how mean stabilization time of a high temperature sensor increases with higher measurement temperature ranges. The data dimension is Temperature Range, from 0–200°C up to 1000–1200°C, and the metric is Mean Stabilization Time in seconds. Each bar represents the average time required for the sensor signal to settle after a step change in temperature within that band. The values were chosen to demonstrate a monotonic trend: stabilization time grows with temperature range, reflecting greater thermal inertia, slower heat transfer to the sensing element, and potential non-linearities in the protective sheath at high temperatures. The visualization uses uniform bar widths, light horizontal gridlines, and simple numeric labels atop bars to facilitate quick comparisons while keeping the design clean and legible. Although the data is illustrative rather than from a real measurement, the pattern communicates a meaningful engineering insight: as you operate sensors across a broader temperature spectrum, ensuring rapid and stable readings may require enhanced thermal management, more aggressive calibration, or faster response materials in the sensor head. This chart complements other performance metrics such as accuracy, drift, and response time, enabling end-to-end evaluation of a measurement chain. For decision-makers, observing how stabilization time scales with temperature helps in planning data acquisition intervals, setting acceptable latency, and determining the need for preconditioning steps before critical measurements. In practice, engineers would couple such visualization with physical data from material properties, thermomechanical simulations, and field tests to arrive at robust product specifications and maintenance schedules. The aim is to offer a concise, intuitive view of how temperature affects dynamic behavior, supporting design choices that improve reliability across the 0–1200°C range and under harsh thermal operating conditions.

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  • Mignon 2022.12.10 09:28:45

    The sales person is professional and responsible, warm and polite, we had a pleasant conversation and no language barriers on communication.

  • Bella 2022.12.03 20:26:02

    The customer service staff's answer is very meticulous, the most important is that the product quality is very good, and packaged carefully, shipped quickly!

  • Raymond 2022.11.17 23:56:22

    The product manager is a very hot and professional person, we have a pleasant conversation, and finally we reached a consensus agreement.

  • Jessie 2022.08.19 19:51:03

    The after-sale warranty service is timely and thoughtful, encounter problems can be resolved very quickly, we feel reliable and secure.

  • Daniel Coppin 2022.08.04 13:43:18

    Good quality, reasonable prices, rich variety and perfect after-sales service, it's nice!

  • Alexandra 2022.06.14 18:34:12

    The factory technical staff not only have high level of technology, their English level is also very good, this is a great help to technology communication.

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