text.skipToContent text.skipToNavigation

Malvern Panalytical T2500, Organic GPC/SEC Column 300x8m CLM3002

Malvern Panalytical -- Item TECPIM000003566
Please add to cart & request for quote to see the price
Reserve Now    

The T2500 Organic GPC/SEC Column (CLM3002) is a styrene-divinyl benzene (T-series) gel permeation/size-exclusion chromatography column designed for molecular-weight separations of synthetic polymers. It is intended for use with organic mobile phases (shipping solvent: THF) to separate polymers by hydrodynamic size and to deliver reproducible elution for polymer characterization applications.

Key Features:

  • Dimensions: 300 mm x 8.0 mm
  • Column type: Styrene-divinyl benzene (T-series)
  • Exclusion limit (polystyrene): 20,000 Da
  • Particle size: 6 µm
  • Theoretical plate number: >18,000 per column
  • Shipping solvent: Tetrahydrofuran (THF)
  • Compatible solvents include THF, chloroform, toluene, xylene, acetone, MEK, DMF, DMAc, HFIP, NMP

Advantages:

  • High separation efficiency enabled by >18,000 theoretical plates for improved resolution of polymer molecular-weight fractions.
  • Designed for synthetic polymer analysis with a 20,000 Da exclusion limit, enabling reliable fractionation within that molecular-weight range.
  • Broad solvent compatibility (including THF, chloroform and toluene) supports flexible method development for a variety of organic polymer systems.

Product Details

Overview
Model
Product Type Consumables
Part Number CLM3002
Brand Malvern Panalytical
Gross Dimensions (WxDxH cm)
Net Dimensions (WxDxH cm)
Gross Weight (kg)
Net Weight (kg)
Specifications
More options are available. Please contact us for more information.
Document
More options are available. Please contact us for more information.
Videos

Malvern Panalytical

Malvern Panalytical instruments blend cutting-edge engineering with the latest advancements in data analytics and AI. This combination empowers industries and researchers to comprehend the world with unparalleled precision, from biomolecular structures to quantum dots.