Agilent, PL1451-6102, PL-SAX 1000Å, 10 µm, bulk media, 1 kg

PL-SAX 1000Å, 10 µm, bulk media, 1 kg. Strong anion exchange stationary phase with fully porous PS/DVB particles. PL-SAX 1000Å, 10 µm, bulk media, 1kg. Column hardware not included.

Specifications:
Brand: PL-SAX
Hardware: Bulk Media
LC Platform: Bulk Media
Maximum Temperature: 80 °C
Part Number Application Domain: Biopharma
Part Number Application: OligosProteins
Particle Size: 10 µm
Particle Type: Fully Porous
Phase: SAX
Pore Size: 1000 Å
Separation Mode: Ion Exchange (IEX)
Technique: LC
UNSPSC Code: 41115700
Weight: 1 kg
pH Range: 1-14

**********The following product description is generated by AI and is for reference only. If you have any questions, please contact customer service.**********
Agilent’s strong anion exchange resin with a 1000 angstrom pore size and 10 micron particle diameter is engineered for high-capacity purification and separation of biomolecules such as proteins, peptides, and nucleic acids. Supplied in a convenient 1 kg bulk format, this media is ideal for packing your own columns for preparative or process chromatography in research and industrial laboratories. The large pore size accommodates the analysis and purification of large biomolecules, ensuring high recovery and minimal sample degradation.

This anion exchange resin is particularly suitable for applications in proteomics, biopharmaceutical process development, and the quality control of biological samples. Users can employ this bulk media in custom column packing or in integration with a variety of compatible low- and medium-pressure liquid chromatography systems, including Agilent and other industry-standard instrumentation. Researchers benefit from its high chemical stability, reproducible performance, and scalability from analytical to process-scale separations.

For seamless workflow integration, this media complements Agilent’s range of empty column hardware, chromatography systems such as the Agilent 1260 Infinity II, and fits well with established protocols using similar stationary phases. Its robust performance ensures consistent results for demanding separation challenges in modern analytical and preparative laboratories.