SI13988 Fluorine-Doped Quartz Capillary Tube (Partially Fluorine)

Fluorine-Doped Quartz Capillary Tube (Partially Fluorine) Description

Fluorine-Doped Quartz Capillary Tube (Partially Fluorine) is fabricated from high-purity quartz with a controlled degree of fluorine incorporation. This modification alters the optical, thermal, and dielectric properties, making it suitable for high-temperature and electrically demanding applications. The capillary design with precise dimensions supports integration into analytical instruments and microfluidic devices, where material stability and chemical inertness are critical for performance.

Fluorine-Doped Quartz Capillary Tube (Partially Fluorine) Characteristics

Specification

*The above product information is based on theoretical data and is for reference only. Actual specifications may vary.

Fluorine-Doped Quartz Capillary Tube (Partially Fluorine) Applications

Electronics and Optoelectronics
- Used as an insulating component in fibre-optic sensors to achieve minimal signal interference by leveraging its modified dielectric properties.

Industrial and Analytical Instruments
- Applied as a sample transport channel in high-temperature analysis systems to obtain stable flow dynamics by utilising its enhanced thermal resistance and chemical inertness.

Microfluidic Systems
- Serves as a microchannel in lab-on-a-chip devices to ensure precise fluid control, capitalising on its uniform inner diameter and chemical stability.

Fluorine-Doped Quartz Capillary Tube (Partially Fluorine) Packing

Each capillary tube is individually wrapped in acid-resistant, static-dissipative material and secured within a cushioned container to minimise mechanical shock and contamination. Protective blister packaging offers a barrier against dust and moisture during transit. The packaging is labelled with batch information, and storage recommendations include a dry, temperature-stable environment. Custom packaging options are available for special handling or shipping requirements.

Additional Information

Quartz-based materials are widely utilised in scientific instrumentation due to their chemical inertness and stability under extreme thermal conditions. The partial incorporation of fluorine adjusts the material's optical and electrical properties and can extend its performance range in challenging environments.

Understanding the interplay between controlled doping and intrinsic quartz properties is essential in materials science. Modifications such as partial fluorine doping provide a means to fine-tune the performance of quartz in precision applications, spanning from analytical instruments to advanced microfluidic systems.