Silicone heater

I. Core Product Features 

1. Exceptional Flexibility, Adaptable to Diverse Forms: Silicone rubber substrate offers excellent flexibility, allowing it to conform closely to curved and irregular surfaces (such as circular pipes, arc-shaped molds, and irregular instrument casings). Installation requires no complex adaptation, enabling "conformal attachment" and significantly enhancing heating compatibility with complex structural equipment.

 2. Superior Insulation, Safe and Reliable Use: Silicone rubber itself is a highly insulating material with extremely high surface resistivity, effectively preventing electric leakage risks. Even in harsh environments such as humidity or dust, it ensures electrical safety, providing a robust protective barrier for both equipment and operators. 

3. Wide-Temperature Weather Resistance, Suitable for Extreme Environments: Long-term operating temperature range spans from -60°C to +200°C, with strong stability under thermal cycling. It provides freeze protection and insulation in cold environments and assists in temperature control in high-temperature conditions. It also offers outstanding resistance to ozone, acid and alkali corrosion, and aging, with a service life far exceeding that of ordinary heating elements. 

4. Rapid Heating, Excellent Uniformity: Nickel-chromium alloy heating wires are precisely arranged to ensure uniform temperature distribution across the heating surface without dead zones. Upon energization, it heats up quickly, significantly reducing equipment preheating time and improving production or usage efficiency (e.g., mold heating rapidly reaches process temperature, reducing waiting time).

 5. Thin, Lightweight, and Energy-Efficient, Minimal Structural Burden: The overall thickness is thin (typically only a few millimeters) and lightweight, ensuring no additional structural burden on the heated equipment after installation, without affecting the original appearance or layout. At the same time, due to high heating efficiency, it reduces unnecessary energy consumption losses. 

 II. Multi-Domain Application Scenarios Silicone

rubber heaters' "flexibility + efficient heating" characteristics make them suitable for various fields, including industrial, medical, and daily life applications:

 • Industrial Field: Pipeline Insulation: Prevents oils, chemicals, and fluids from solidifying or crystallizing at low temperatures, ensuring smooth pipeline transport (e.g., petrochemical pipelines, food-grade fluid pipelines). Mold Heating: Preheating and temperature control for injection molds and rubber molds, improving product molding accuracy and production efficiency while reducing defect rates.  Localized Equipment Heating: Heating and insulation for critical parts of semiconductor production equipment and analytical instruments (such as chromatographs and spectrometers), ensuring precise operation in a constant temperature environment.

 • Medical Field: Thermal insulation for medical equipment (e.g., reagent compartment insulation in blood analyzers, temperature maintenance in incubators) and heating components for physiotherapy devices (leveraging flexibility and safety to provide gentle and stable heat sources for physiotherapy scenarios).

 • Daily Life Field: Heating modules for coffee pots and warming cup pads, auxiliary heating for small household appliances (e.g., yogurt makers, thermostatic cups), offering convenient "constant temperature experiences" in everyday scenarios.

 III. Installation and Usage Advantages • Easy Installation:

Supports multiple fixing methods — self-adhesive versions can be directly "stick-on installed"; they can also be secured using straps, mechanical compression, etc., without complex construction, significantly reducing installation time and costs. 

• Customized Temperature Control: Power and size can be precisely customized according to requirements; used with temperature controllers, they enable constant temperature regulation (temperature accuracy up to ±1°C), meeting strict temperature demands in various scenarios (e.g., constant temperature requirements for laboratory precision instruments).