HPLC Columns
Waters Corp Waters XBridge Peptide BEH C18 Column, 3.5 μm, 130 Å
The XBridge Peptide BEH C18 Column is optimized and QC tested for peptide separations, featuring 3.5 μm BEH particles with 130Å pore size. This column provides a wide usable pH range and superior low pH stability, making it suitable for applications in proteomics, protein characterization, and peptide synthesis.
- Optimized and QC tested for peptide separations.
- Features 3.5 μm BEH particles with 130Å pore size.
- Provides a wide usable pH range of 1 to 12.
- Offers superior low pH stability and ultra-low column bleed.
- Enhances resolution of complex peptide digests.
- Improves peak shape and retention with formic acid and trifluoroacetic acid.
- Dimensions of 1 mm inner diameter by 100 mm length.
- Withstands a maximum pressure of 6000 psi (415 Bar).
Sepax Technologies Inc Sepax HPLC Column SRT-10C SEC-500, 10 µm, 10 x 300 mm
Utilizing proprietary surface technologies, SRT-10 and SRT-10C SEC phases are made of uniform, hydrophilic, and neutral nanometer thick films chemically bonded on high purity and mechanically stabilized 10 µm silica. The well-controlled surface chemistry results in excellent lot-to-lot reproducibility. Our unique bonding chemistry, coupled with the maximized bonding density, allows SRT-10 and SRT-10C SEC phases to provide high stability and negligible non-specific interactions. SRT-10 and SRT-10C packings have large pore volume, resulting in high separation resolution. Typical applications for SRT-10 and SRT-10C columns include separation and detection of biological molecules and water-soluble polymers in aqueous buffers.
Advanced Materials Technology HALO 400 C4 3.4 0.5 X 5
HALO BIOCLASS C4 400 Å Protein columns made with innovative large pore Fused-Core particle technology provide narrower peaks and better recoveries for high resolution separations of large biomolecules such as mAbs, versus smaller pore size columns. HALO 400 Å columns are optimized for high performance in HPLC, UHPLC, and LCMS large molecule applications delivering excellent reproducibility and column lifetimes.
Tosoh Bioscience LLC TSKGEL PHENYL-5PW GL 8X75
Column, Hydrophobic interaction chromatography; Tosoh; TSKgel; Phenyl-5PW; Glass; Media: polymer; Particle: 10u m Pore Size: 1000angstrom pH stability: 2.0 to 12.0; 8mm I.D. x 7.5cm length
Mac-Mod Princeton Cyano (CN) 60 Å, 3 µm, 4 x 50 mm SFC Column
Princeton Chromatography Achiral SFC columns are designed and manufactured in the US, well known for innovating novel and robust workhorse phase chemistries, for the analysis of achiral SFC applications. Princeton designs myriad phase chemistries to improve the selectivity and efficiency of SFC analysis. Known for originally innovating the 2-EP phase chemistry, explore what Princeton has to offer. Columns are available from analytical to preparative sizes and are available in a wide range of pore sizes, particle sizes, column ID's and lengths. If you do not see something that you want, please just ask!
Mac-Mod Princeton HA-Pyridine 60 Å, 5 µm, 50 x 150 mm SFC Column
Princeton Chromatography Achiral SFC columns are designed and manufactured in the US, well known for innovating novel and robust workhorse phase chemistries, for the analysis of achiral SFC applications. Princeton designs myriad phase chemistries to improve the selectivity and efficiency of SFC analysis. Known for originally innovating the 2-EP phase chemistry, explore what Princeton has to offer. Columns are available from analytical to preparative sizes and are available in a wide range of pore sizes, particle sizes, column ID's and lengths. If you do not see something that you want, please just ask!
Sepax Technologies Inc Sepax HPLC Column SRT SEC-150, 5 µm, 21.2 x 300 mm
Utilizing proprietary surface technologies, SRT SEC phases are made of the uniform, hydrophilic, and neutral nanometer thick films chemically bonded on the high purity and enhanced mechanical stability silica. This proprietary surface technology results in excellent column-to-column reproducibility. The nature of the chemical bonding and the maximum bonding density of the thin film benefit SRT SEC phases with high stability and negligible non-specific interactions. Along with the widest pore size selection of 100, 150, 300, 500, 750, 1000 and 2000Å, SRT SEC packings have highest capacity that enables highest resolution.
Advanced Materials Technology HALO 160 ES-CN 5 4.6 X
HALO BIOCLASS ES-CN Peptide columns made with innovative Fused-Core particle technology are ideal for both ultrafast and ultrahigh resolution separations of peptides and polypeptides up to 20 kDa. HALO peptide columns offer comparable peak capacity to sub-2 μm non-core columns at 40–50% back pressure (2.7 μm). HALO 160 Å peptide columns are optimized for high performance in HPLC, UHPLC, and LCMS peptide applications.
Advanced Materials Technology HALO 90 HILIC 2.7 4.6 X
HALO HILIC columns made with innovative Fused-Core particle technology for excellent reproducibility and column lifetimes provide fast, high resolution separations. Available in three particle sizes and a wide range of column dimensions, HALO 90 Å HILIC columns are optimized for high performance in HPLC, UHPLC, and LCMS small molecule applications.
Waters Corporation XBridge BEH Phenyl XP Column, 130Å, 2.5 μm, 3 mm X 100 mm
The XBridge BEH Phenyl XP Column provides complementary selectivity to C18 stationary phases, particularly for polyaromatic compounds. It is a chemically stable phenyl sorbent, ensuring ultra-low column bleed, extended lifetimes, and excellent peak shape for robust and efficient HPLC assays, also supporting UPLC adoption.
- Most chemically stable phenyl sorbent, ensuring ultra-low column bleed and long lifetimes
- Provides excellent peak shape and exceptional separation performance
- 2.5 μm eXtended performance (XP) columns with ultra-low dispersion hardware
- Enables robustness and high throughput for HPLC assays and UPLC adoption
- Offers wide pH range for method development due to BEH particle technology
- Trifunctional bonding of phenyl ligand ensures high pH stability
- Provides alternative selectivity for analytes with aromatic rings, aiding challenging separations
Advanced Materials Technology HALO 90A PCS C18, 2.7um 3.0 mm x 100 mm
Built upon proven Fused-Core technology for speed and efficiency, the HALO PCS column products are positively charged surface chemistries designed to deliver improved peak shapes for basic compounds observed with standard C18 chemistry. Ideal for use with low ionic strength mobile phases, HALO PCS maintains peak symmetry at higher loading capacities and provides alternate selectivities from C18. Available in both a 90 Å and 160 Å pore size for small molecule and peptide analysis. The columns are optimized to deliver performance for reproducible, high efficiency LC and LCMS separations.
Advanced Materials Technology HALO 90 RP-AMIDE 2.7 3.
HALO RP-Amide columns made with innovative Fused-Core particle technology for excellent reproducibility and column lifetimes provide fast, high resolution separations. Available in three particle sizes and a wide range of column dimensions, HALO 90 Å RP-Amide columns are optimized for high performance in HPLC, UHPLC, and LCMS small molecule applications.
Advanced Materials Technology HALO 90 C8 2 2.1 X 50 M
HALO C8 columns made with innovative Fused-Core particle technology for excellent reproducibility and column lifetimes provide fast, high resolution separations. Available in three particle sizes and a wide range of column dimensions, HALO 90 Å C8 columns are optimized for high performance in HPLC, UHPLC, and LCMS small molecule applications.
Sepax Technologies Inc Sepax HPLC Column SRT-C SEC-150, 5 µm, 10 x 300 mm
SRT-C SEC phase, developed based on innovative surface coating technology, comprises of uniform, hydrophilic, and neutral nanometer thick film chemically bonded to high purity and mechanically stabilized silica. SRT-C, uses lay-down monolayer on porous silica as oppose to SRT of stand-up monolayer, offers ideal phase chemistry for hydrophobic samples like insulin, membrane protein monoclonal antibodies derivatized with polymer branches (polypeptide or PEG) separation.