text.skipToContent text.skipToNavigation

Malvern Panalytical 40mic/15ml Polymer Latex Standard LTX243

Malvern Panalytical -- Item TECPIM000062616
Please add to cart & request for quote to see the price
Reserve Now    

Polymer Latex Standard LTX243 is a monodisperse polystyrene latex dispersion supplied as a 15 mL ready-to-use vial with nominal particle diameter 40 µm. It is supplied as a spherical polymer latex standard intended for particle size verification and instrument performance checks using light-scattering and particle-sizing systems. Typical use cases include regular verification/validation of dynamic light scattering (DLS) and particle size analyzers and routine instrument performance monitoring.

Key Features:

  • Nominal particle diameter: 40 µm
  • Packaged volume: 15 mL (ready-to-use vial)
  • Material: polystyrene (spherical polymer latex)
  • Monodisperse suspension suitable for particle size verification
  • Prepared at laboratory-appropriate solids concentration for easy dispersal (manufacturer standard packaging)

Advantages:

  • Provides a stable, spherical, monodisperse reference for routine instrument verification and performance checks
  • Supplied ready-to-use in 15 mL vials for immediate measurement without complex preparation
  • Suitable for validating instrument response and repeatability in particle sizing methods such as DLS and other light-scattering techniques

Product Details

Overview
Model
Product Type Consumables
Part Number LTX243
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.