Waters, PSL404219, Aluminum Crimp Cap and PTFE/Silicone Septum, 100/pk

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Specifications
Certified: Not Certified
Closure Type: Crimp
Cap Color: Aluminum
Dimensions: 12 x 32 mm
Seal Material: PTFE/Silicone
Includes: Cap & Septum
UNSPSC: 41121806
Application: Sample Preparation
Product Type: Caps
Units per Package: 100 pk

Additional Information
FAQs about Aluminum Crimp Cap and PTFE/Silicone Septum What is the compatibility of the aluminum crimp cap and PTFE/silicone septum with different solvents? The aluminum crimp cap and PTFE/silicone septum are compatible with a wide range of solvents commonly used in laboratories, including organic solvents, acids, and bases. Can the aluminum crimp cap and PTFE/silicone septum be used for high-temperature applications? Yes, these caps and septa are designed to withstand high temperatures, making them suitable for applications that require heating or autoclaving. Are the aluminum crimp caps and PTFE/silicone septa sterile? No, these caps and septa are not supplied sterile. However, they can be sterilized using appropriate methods before use, such as autoclaving or chemical sterilization. What is the shelf life of the aluminum crimp cap and PTFE/silicone septum? The shelf life of these caps and septa is typically several years when stored properly in a cool and dry environment. However, it is recommended to check for any signs of degradation or damage before each use. Can the aluminum crimp cap and PTFE/silicone septum be reused? While these caps and septa can be reused in some cases, it is generally recommended to use new ones for each analysis to ensure reliable and consistent results. Reusing them may lead to contamination or loss of integrity.

FAQ
What Is The Principle of Mass Spectrometry? Mass spectrometry (MS) operates on the fundamental principle of ion generation from a diverse range of inorganic or organic compounds, employing various suitable methods. Subsequently, these ions are separated based on their mass-to-charge ratio (m/z) and detected both qualitatively and quantitatively, utilizing their respective m/z values and relative abundances. This core principle allows mass spectrometry to offer comprehensive insights into the identification and quantification of ions, enabling precise analysis and characterization of a wide array of compounds.