Blue lasers improve measurement sensitivity and accuracy, making Bluewave the most versatile particle size analyser on the market.
The Bluewave provides accurate, reliable, and repeatable particle size analysis for a diverse range of applications by utilising the proven theory of Mie compensation for spherical particles and the proprietary principle of Modified Mie calculations for non-spherical particles.
The Bluewave is optimised for materials below 1 micron delivering unsurpassed resolution. The Bluewave measures particle size from 0.01 to 2800 microns.
Since the early 1970’s Microtrac has a tradition of delivering innovative solutions in particle size analysis through light scattering technology. The Bluewave laser diffraction analyser is a continuation of that tradition. Utilising the patented tri-laser technology, the Bluewave provides accurate, reliable and repeatable particle size information for applications ranging from research and development to production, process, and quality control. The Microtrac Bluewave complies with or exceeds ISO 13320-1 particle size analysis – light diffraction methods.
The patented tri-laser system allows light scattering measurements to be made from the forward low angle region to almost the entire angular spectrum (0.2 to 165 degrees). It does so by a combination of three lasers and two detector arrays, all in fixed positions.
The primary laser (on-axis) produces scatter from nearly on-axis to about 60 degrees, detected by a forward array and a high-angle array, both of which have logarithmic spacing of the detector segments. The second laser (off-axis) is positioned to produce scatter beyond the 60 degree level which is detected using the same detector arrays. The third laser (off-axis) is positioned to produce backscatter, again using the same detector arrays. This technique effectively multiplies the number of sensors that are available for detection of scattered light.
The calculation of the particle size distribution can be done with Fraunhofer or Mie calculation. Microtrac was the first on the market to introduce a special calculation mode to respect irregular shape instead of spherical particles. This algorithm has been further refined for transparent, absorbing and reflecting particles.
The Bluewave is fitted with a sample circuit system (Sample dispersion controller) with short paths from dispersion unit to measurement cell to optimise sample flow. The speed of the centrifugal pump can be adjusted according to the viscosity or sedimentation properties of the sample. An ultrasonic tip is integrated and can be regulated by the software. All parameters important to homogenisation and dispersion are thus highly controllable. All parts that come into contact with the sample are made from resistant materials like quartz glass, Teflon, stainless steel or Kalrex (chemical compatibility class I). A second integrated pump allows for automatic filling and cleaning.
You can gain a deeper understanding of your material with integrated dynamic image analysis.
Applications for the Microtrac Bluewave:
- Biotechnology / Pharmaceuticals
- Metals / Metal powders
- Food / Beverages
- Geological research
- Academic research
- Click here for our application note on the benefits of using blue lasers
Microtrac Bluewave features:
- Tri–laser, blue / red, multi-detector, multi-angle optical system
- True blue lasers (not LEDs)
- Algorithms that utilise Mie compensation and Modified Mie calculations for spherical and non-spherical materials
- Measurement capability from 0.01 to 2800 microns
- Wet and dry measurements
- Fixed detectors and lasers
- Enclosed optical path ensures complete protection of the optical components leading to little or no operator intervention
- Small bench footprint
Microtrac Bluewave benefits:
- Utilising blue lasers, the resolution of the low-end measurements increases to dramatically improve the accuracy of measurements below one micron
- Proprietary Modified Mie calculations allow users to accurately measure non-spherical particles that other particle analysers struggle to accurately characterise
- Seamless transition from wet to dry measurement reduces down time
- Fixed detectors provide rugged durability and assure proper positioning
- Small bench footprint reduces demand on valuable laboratory space
- Measurement principle: Laser diffraction
- Measurement range: 0.01 to 2,000 microns
- Detection systems: Two fixed photo-electric detectors with logarithmically spaced segments placed at correct angles for optimal scattered light detection – 0.02 to 165 degrees using 151 detector segments.
- Light sources: Laser 780 nm / 480 nm wavelength / 3 mW nominal
- Typical analysis time: 10 to 30 seconds
- Click here to view the technical data sheet
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