Agilent, 5067-5107, Capillary stainless steel 0.12 x 280 mm SV/M4 ns/ns

Capillary stainless steel 0.12 x 280 mm SV/M4 ns/ns

Specifications:
Application Compatibility: Analytical
Capillary Subtype: Standard capillary
Fitting Type Left End: SV (Swagelok 1200 bar, removable, short screw)
Fitting Type Right End: M4 (0.8mm ID, stainless steel)
Inner Diameter (ID): 0.12 mm
Length: 280 mm
Material: Stainless Steel
Swage Status Fitting Left End: Non-swaged
Swage Status Fitting Right End: Non-swaged
Technique: LC
UNSPSC Code: 41115720

**********The following product description is generated by AI and is for reference only. If you have any questions, please contact customer service.**********
The Capillary stainless steel 0.12 x 280 mm SV/M4 ns/ns is a precision-engineered tubing solution designed for high-performance liquid chromatography HPLC systems and other analytical instrumentation. Constructed from high-grade stainless steel, this capillary offers excellent durability, chemical resistance, and minimal sample adsorption, making it ideal for trace analysis and demanding laboratory workflows. With an inner diameter of 0.12 mm and a length of 280 mm, it provides optimal flow control and peak resolution for microbore and capillary LC applications.

Fitted with SV and M4 connectors, the tubing ensures secure, leak-free integration into a wide range of chromatography setups, including those manufactured by Agilent and compatible third-party systems. Its robust design supports high-pressure operations, making it suitable for both routine and advanced analytical research. Typical usage scenarios include proteomics, pharmaceutical analysis, environmental testing, and method development that require consistent, reliable separation and transfer of analytes.

This capillary can be used as a replacement or upgrade in existing LC systems, and it is fully compatible with a range of Agilent valves, injectors, and column configurations. Its precision polishing and tight tolerances help maintain system integrity and minimize band broadening, supporting high-sensitivity, reproducible results in critical applications.