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Industrial SiC Vertical Furnace Tube High Thermal Conductivity & Corrosion Resistant

Industrial SiC Vertical Furnace Tube High Thermal Conductivity & Corrosion Resistant

Markenbezeichnung: ZMSH
MOQ: 1
Preis: by case
Verpackungsdetails: benutzerdefinierte Kartons
Zahlungsbedingungen: T/t
Ausführliche Information
Herkunftsort:
CHINA
Materielle Reinheit:
Basisverunreinigungsinhalt < 300 ppm; Oberflächenverunreinigungsgehalt < 5 ppm nach CVD sic -Beschic
Maximale Betriebstemperatur:
≤ 1300 ℃
Wärmeleitkoeffizient:
sehr niedrig
Wärmeleitfähigkeit:
Hoch
Wärmeschockwiderstand:
Exzellent
Resistenz tragen:
Exzellent
Versorgungsmaterial-Fähigkeit:
Von Fall
Hervorheben:

Industrial SiC vertical furnace tube

,

High thermal conductivity ceramic tube

,

Corrosion resistant SiC furnace tube

Produkt-Beschreibung

 

Silicon Carbide Vertical Furnace Tube Product Overview

 

The silicon carbide vertical furnace tube is primarily used as an outer tube, ensuring the uniformity of 

Industrial SiC Vertical Furnace Tube High Thermal Conductivity & Corrosion Resistant 0

atmosphere and temperature inside the furnace. In actual operation, the tube must withstand long-term exposure to high temperatures and complex atmospheric conditions, which demand exceptional purity, thermal performance, and structural stability. Our furnace tubes are produced using advanced 3D printing one-piece molding technology, eliminating potential defects caused by traditional welding or assembly. This ensures a more compact and stable structure. Additionally, with the application of CVD silicon carbide coating technology, material purity and corrosion resistance are further enhanced, allowing the tube to maintain long-term stability even under harsh process conditions. The furnace tube operates at temperatures of approximately 1200℃, meeting the stringent requirements of semiconductor and photovoltaic applications.

 

Silicon Carbide Vertical Furnace Tube Key Features

  1. Industrial SiC Vertical Furnace Tube High Thermal Conductivity & Corrosion Resistant 1One-piece molding with 3D printing
    The integrated structure avoids seams or stress concentration issues, significantly improving overall strength and reliability.

  2. Ultra-low impurity content
    The base material impurity level is less than 300 PPM. After CVD SiC coating, impurity content in the coated region is reduced to below 5 PPM, minimizing contamination and ensuring ultra-clean processing environments.

  3. Excellent thermal performance
    With inherently high thermal conductivity, silicon carbide enables rapid heat transfer and uniform temperature distribution, ensuring precise temperature control and consistent product quality.

  4. Outstanding thermal shock resistance
    Capable of withstanding frequent rapid heating and cooling cycles at high temperatures without cracking or failure, greatly extending service life and reducing maintenance costs.

  5. Superior corrosion resistance and durability
    The CVD coating enhances purity and provides excellent resistance to chemical corrosion, allowing the tube to remain stable across various atmospheres and prolonging overall service cycles.

Silicon Carbide Vertical Furnace Tube Applications

The silicon carbide vertical furnace tube is widely used in:

  • Semiconductor manufacturing: For oxidation, diffusion, annealing, and other high-temperature processes requiring strict temperature control and cleanliness.

  • Photovoltaic industry: In silicon wafer texturing, diffusion, and passivation processes, ensuring stable processing and consistent quality.

  • New materials and thermal treatment: Suitable for experimental setups and industrial equipment requiring high-temperature uniform heating.

Silicon Carbide Vertical Furnace Tube Competitive Advantages

Compared to traditional quartz or alumina tubes, silicon carbide vertical furnace tubes provide significant benefits in temperature resistance, thermal shock stability, and service lifetime. With advanced manufacturing processes and stringent quality control, our product helps customers reduce equipment downtime, improve production stability, and achieve higher efficiency at lower operational costs.

 

 

Silicon Carbide Vertical Furnace Tube Specifications

 

Item

Specification

Description

Material Purity

Base impurity content < 300 PPM; Surface impurity content < 5 PPM after CVD SiC coating

Ultra-high purity, ensuring minimal contamination

Maximum Operating Temperature

≤ 1300℃

Stable long-term performance in high-temperature environments

Thermal Expansion Coefficient

Very Low

Excellent dimensional stability during thermal cycling

Thermal Conductivity

High

Efficient heat transfer and uniform temperature distribution

Thermal Shock Resistance

Excellent

Withstands rapid heating and cooling without cracking

Wear Resistance

Excellent

High hardness and durability for extended service life

Corrosion Resistance

Excellent

Stable under various process atmospheres

Manufacturing Process

3D printing one-piece molding + CVD SiC coating

Advanced technology ensuring structural integrity and purity

 

 

Silicon Carbide Vertical Furnace Tube – FAQ

Q1: What are the main applications of silicon carbide vertical furnace tubes?
A1: They are mainly used in the semiconductor, photovoltaic, and advanced materials industries for high-temperature processes such as diffusion, oxidation, annealing, and passivation. The tubes ensure uniform atmosphere and temperature inside the furnace, improving product yield and consistency.

 

Q2: What is the maximum operating temperature?
A2: The furnace tube operates at approximately 1200℃, while maintaining excellent structural stability and reliable performance.

 

Q3: How does it compare with traditional quartz or alumina furnace tubes?
A3: Compared to quartz or alumina tubes, silicon carbide tubes offer superior temperature resistance, thermal conductivity, thermal shock resistance, and longer service life. In addition, they have much higher purity and lower impurity levels, making them more suitable for advanced semiconductor and photovoltaic processes.