Detection of micro-particles variability
Method and system for simultaneous detection of micro-particle concentration in suspension and their morphological and physiological traits
The method described is applicable to the detection and monitoring of microparticles, their various associations and aggregates of different shapes and sizes, such as microorganisms and other organic and inorganic particles in suspension, capable of absorbing and/or emitting radiation of different wavelengths. Importantly, this non-invasive method allows for the conservation of the properties of individual elements and whole populations of microparticles to be maintained in suspension, in either a liquid or gaseous phase, by creating a steady low turbulence stream, allowing them to pass into the detection area as averaged populations.
Advantages of the method
An exceptional advantage of this method is the ability to determine the number, structure, shape and composition of microparticles, their aggregations and assemblies by a non-invasive methodology. The method uses pulse-induced high frequency illumination to track the changes in properties and their states in real time.
This is the only known method for simultaneously obtaining the above information, without interference with the structure of the associations, which makes it possible to make a low-cost micro-particle detection device based on these principles.
Areas of application
The patent is applicable for specific tracing in many areas of particle detection in a particular system.
- The homogeneity / heterogeneity of cultures of bacteria, algae and fungi, useful in the food industry, such as dairy production, brewing, etc;
- Quantitative and qualitative detection of differently labeled elements in cell cultures, e.g. in mixed spheroids, growth such as quality of production tracking in bioreactors, applied in the medical biotechnology, pharmaceutical and cosmetic industries.
Production of materials – in the control of the homogeneity and behavior / activity of various microparticles in suspension, sensing by laser technologies;
- Air quality and detection of the presence of specific microparticles;
- Determination of impurities present in microparticle associations in various raw materials;
- Tracking and behavior of nanoparticles under various physicochemical conditions.
Scientific research in all the fields described above.
More information is available in the attached PDF file.