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Homepage>BS Standards>19 TESTING>19.120 Particle size analysis. Sieving>BS ISO 13320:2020 Particle size analysis. Laser diffraction methods
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immediate downloadReleased: 2020-07-28
BS ISO 13320:2020 Particle size analysis. Laser diffraction methods

BS ISO 13320:2020

Particle size analysis. Laser diffraction methods

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Standard number:BS ISO 13320:2020
Pages:68
Released:2020-07-28
ISBN:978 0 580 92329 6
Status:Standard
BS ISO 13320:2020 Particle Size Analysis - Laser Diffraction Methods

BS ISO 13320:2020 Particle Size Analysis - Laser Diffraction Methods

Unlock the potential of precise particle size analysis with the BS ISO 13320:2020 standard, a comprehensive guide to laser diffraction methods. This standard is an essential resource for professionals in industries where particle size distribution is critical, such as pharmaceuticals, chemicals, and materials science.

Overview

The BS ISO 13320:2020 standard provides a detailed framework for conducting particle size analysis using laser diffraction techniques. Released on July 28, 2020, this standard is the latest in the field, ensuring that you have access to the most current methodologies and practices. With 68 pages of in-depth information, it covers everything from basic principles to advanced applications, making it an invaluable tool for both beginners and seasoned professionals.

Key Features

  • Standard Number: BS ISO 13320:2020
  • ISBN: 978 0 580 92329 6
  • Status: Standard
  • Pages: 68
  • Release Date: 2020-07-28

Why Choose BS ISO 13320:2020?

Particle size analysis is a crucial aspect of quality control and product development across various industries. The BS ISO 13320:2020 standard offers a reliable and scientifically validated approach to measuring particle size distribution using laser diffraction. Here are some reasons why this standard is a must-have:

  • Accuracy and Precision: Laser diffraction is renowned for its ability to provide accurate and precise measurements, making it ideal for applications where consistency is key.
  • Versatility: This method can be applied to a wide range of materials, from powders and granules to suspensions and emulsions, offering flexibility in various industrial contexts.
  • Efficiency: Laser diffraction methods are typically faster than other particle size analysis techniques, allowing for high-throughput analysis and quicker decision-making.
  • Non-destructive Testing: The non-invasive nature of laser diffraction means that samples remain intact, preserving their integrity for further testing or use.

Applications

The applications of the BS ISO 13320:2020 standard are vast and varied, making it an indispensable resource for professionals in numerous fields:

  • Pharmaceuticals: Ensure the consistency and efficacy of drug formulations by accurately measuring particle size distribution.
  • Chemicals: Optimize the performance and quality of chemical products through precise particle size analysis.
  • Materials Science: Enhance the properties of materials by understanding and controlling particle size distribution.
  • Food and Beverage: Improve texture and stability in food products by analyzing particle size.
  • Environmental Science: Monitor and control particulate matter in environmental samples for compliance and research purposes.

Comprehensive Content

The BS ISO 13320:2020 standard is meticulously structured to provide a thorough understanding of laser diffraction methods. It includes:

  • Introduction to Laser Diffraction: Gain insights into the fundamental principles and theory behind laser diffraction techniques.
  • Instrumentation and Setup: Learn about the equipment and setup required for effective particle size analysis.
  • Methodology: Detailed procedures and protocols for conducting accurate and reliable measurements.
  • Data Analysis: Guidance on interpreting results and understanding the implications of particle size distribution data.
  • Quality Assurance: Best practices for ensuring the accuracy and repeatability of measurements.

Stay Ahead with the Latest Standard

In a rapidly evolving scientific landscape, staying updated with the latest standards is crucial. The BS ISO 13320:2020 standard represents the cutting edge of particle size analysis, incorporating the latest research and technological advancements. By integrating this standard into your processes, you ensure that your analyses are not only accurate but also aligned with global best practices.

Conclusion

Whether you are involved in research, quality control, or product development, the BS ISO 13320:2020 standard is an essential resource for achieving precise and reliable particle size analysis. Its comprehensive coverage of laser diffraction methods makes it a valuable addition to any professional library, providing the knowledge and tools needed to excel in your field.

Embrace the power of precision with the BS ISO 13320:2020 standard and elevate your particle size analysis to new heights.

DESCRIPTION

BS ISO 13320:2020


This standard BS ISO 13320:2020 Particle size analysis. Laser diffraction methods is classified in these ICS categories:
  • 19.120 Particle size analysis. Sieving

This document provides guidance on instrument qualification and size distribution measurement of particles in many two-phase systems (e.g. powders, sprays, aerosols, suspensions, emulsions and gas bubbles in liquids) through the analysis of their light-scattering properties. It does not address the specific requirements of particle size measurement of specific materials.

This document is applicable to particle sizes ranging from approximately 0,1 µm to 3 mm. With special instrumentation and conditions, the applicable size range can be extended above 3 mm and below 0,1 µm.

For spherical and non-spherical particles, a size distribution is reported, where the predicted scattering pattern for the volumetric sum of spherical particles matches the measured scattering pattern. This is because the technique assumes a spherical particle shape in its optical model. For non-spherical particles the resulting particle size distribution is different from that obtained by methods based on other physical principles (e.g. sedimentation, sieving).