Customized High Borosilicate Quartz Glass Tube Good Thermal Stability For Lab Industrial

Place of Origin China
Model Number Borosilicate 3.3
Product Details
Material Borosilicate 3.3 Glass Outer Diameter Customizable (3mm - 200mm)
Wall Thickness Customizable (0.5mm - 10mm) Length Customizable (10mm - 3000mm)
Max Working Temperature ≤500℃ Coefficient Of Thermal Expansion ~3.3 × 10⁻⁶/K
Light Transmittance ≥90% (Visible Light) Softening Point ~820℃
Density ~2.23 G/cm³
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Customized Lab Industrial quartz tube

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high Borosilicate quartz glass tube

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Good Thermal Stability quartz glass tube

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Product Description
Customized High Borosilicate Quartz Glass Tube Good Thermal Stability For Lab Industrial Product Description

The Borosilicate 3.3 Glass Tube is a premium laboratory and industrial glass tubing solution manufactured from high-quality borosilicate 3.3 material with excellent thermal and chemical performance characteristics. Engineered to withstand sudden temperature fluctuations without cracking or structural failure, this glass tube delivers reliable long-term operation at working temperatures up to 500°C. The material composition provides moderate resistance to dilute acids, weak alkalis, and pure water, making it well suited for routine chemical laboratory environments and general industrial processing tasks. With its high visible light transmittance exceeding 90%, operators can easily observe liquid levels, monitor bubble formation, and track flow characteristics inside the tube during experiments and production runs. Available with fully customizable dimensions including outer diameter, wall thickness, and length, these borosilicate glass tubes can be precisely tailored to match your specific project specifications. Offering a compelling cost advantage over high-purity quartz tubes, the Borosilicate 3.3 Glass Tube represents an ideal solution for applications with low-to-medium demanding thermal and chemical working conditions where reliable performance and budget efficiency are equally important.

Key Features
  • Good Thermal Stability: The borosilicate 3.3 material resists sudden temperature changes without cracking, supporting a long-term working temperature of up to 500°C. This thermal resilience ensures consistent performance in applications involving rapid heating and cooling cycles, reducing the risk of thermal shock failure common in standard soda-lime glass products.
  • High Borosilicate Composition: Manufactured from premium borosilicate 3.3 glass with a low coefficient of thermal expansion of approximately 3.3 × 10−&sup6;/K, this tubing offers superior dimensional stability under temperature variations compared to conventional glass materials, minimizing warping and stress fractures during thermal cycling.
  • Fully Customizable Dimensions: Outer diameter, wall thickness, and overall length can all be customized according to customer requirements, with typical ranges spanning from 3mm to 200mm in diameter and 10mm to 3000mm in length, providing maximum flexibility for diverse application needs across different industries.
  • Moderate Chemical Resistance: Demonstrates reliable resistance to dilute acids, weak alkaline solutions, and pure water environments, making it suitable for standard chemical laboratory operations, pharmaceutical preparation processes, and educational experimentation where exposure to common reagents is expected.
  • Uniform Light Transmission: Features high visible light transmittance of 90% or above, enabling clear visual observation of internal fluid dynamics, gas bubble behavior, and precipitation reactions. This optical clarity is essential for quality control monitoring, research documentation, and real-time process adjustment in transparent flow systems.
  • Easy Processing and Fabrication: The borosilicate 3.3 material is convenient to cut, hot melt, blow, and bond using standard glassworking equipment and techniques, significantly reducing processing costs and turnaround time compared to more refractory materials such as fused quartz or specialty ceramics.
  • Cost-Effective Alternative: Offers a significantly lower price point compared to high-purity quartz tubes while maintaining adequate thermal and chemical performance for general low-to-medium demanding working conditions, delivering excellent value for budget-conscious laboratories, educational institutions, and small-to-medium industrial operations.
Technical Specifications
ParameterSpecification
MaterialBorosilicate 3.3 Glass
Outer DiameterCustomizable (Typical Range: 3mm – 200mm)
Wall ThicknessCustomizable (Typical Range: 0.5mm – 10mm)
LengthCustomizable (Typical Range: 10mm – 3000mm)
Maximum Working Temperature≤500°C
Coefficient of Thermal Expansion~3.3 × 10−&sup6;/K
Density~2.23 g/cm³
Light Transmittance (Visible)≥90%
Softening Point~820°C
Chemical ResistanceExcellent against water, dilute acids, saline solutions, and organic substances
Applications

The Borosilicate 3.3 Glass Tube is widely utilized across multiple industries and disciplines, including chemical laboratories, pharmaceutical manufacturing, scientific research institutions, educational facilities, and industrial processing plants. Common applications encompass glass apparatus fabrication, fluid transfer and delivery systems, sight glass assemblies for tanks and reactors, laboratory glassware construction including beakers and test tubes, chemical reaction vessels and condensers, distillation columns and extraction equipment, as well as precision measurement instruments such as burettes and pipettes. The excellent thermal stability makes these tubes particularly suitable for applications involving rapid temperature cycling, continuous heat exposure, or environments where thermal gradients are present. The high optical transparency facilitates visual monitoring and verification of internal processes, which is essential for quality assurance protocols, experimental observation, and real-time production line inspection in regulated manufacturing environments. In the pharmaceutical sector, borosilicate glass tubes are frequently employed in ampoule and vial production lines, where material purity and consistent dimensional tolerances are critical to product integrity and patient safety. Educational laboratories benefit from the material durability and processing ease, allowing students to gain hands-on experience with professional-grade glassworking techniques at manageable material costs.