Abstract: Provided is a light scattering cell classification technology which can classify cells into various types and at the same time classify cells with very high accuracy despite the rotation of the cells. A cell analysis apparatus using a plurality of lasers, according to an embodiment of the present invention, comprises: a plurality of laser generators which are installed around a movement path through which cells to be classified are moved, and which irradiate laser beams at one measurement point on the movement path at different angles; a plurality of photodetectors, installed around the one measurement point, which collect a second laser beam, which is a laser beam generated as the laser beams irradiated from the laser generators are incident on the cells and then scattered; and a cell analysis unit which classifies the cells to be classified according to the second laser beam collected by the photodetectors.

Abstract: Provided is a technique for automatically performing quality control of a blood cell analyzer so as to minimize waste of time and manpower and quality control errors through automation of everyday repetitive quality control tasks.

Abstract: Provided is a technology for medical tests wherein microcells are tested, which allows remote samples to be tested in one integrated testing place automatically and manually and enables learning based on test results therefor, thereby increasing the accuracy of automatic medical testing and maximally reducing limitations on the manpower, time, and place for manual and automatic analyses.

Abstract: Provided is a light scattering cell classification technology which can classify cells into various types and at the same time classify cells with very high accuracy despite the rotation of the cells. A cell analysis apparatus using a plurality of lasers, according to an embodiment of the present invention, comprises: a plurality of laser generators which are installed around a movement path through which cells to be classified are moved, and which irradiate laser beams at one measurement point on the movement path at different angles; a plurality of photodetectors, installed around the one measurement point, which collect a second laser beam, which is a laser beam generated as the laser beams irradiated from the laser generators are incident on the cells and then scattered; and a cell analysis unit which classifies the cells to be classified according to the second laser beam collected by the photodetectors.

Abstract: Provided is a flow cytometry method including adjusting cell populations targeted by antibodies conjugated with a same-color fluorochrome to show different fluorescence intensities according to types of the antibodies. Unlike a conventional flow cytometry method capable of classifying a positive and negative of one target using one antibody per color, the flow cytometry method adjusts several types of antibodies conjugated with a single-color fluorochrome to respectively show different fluorescence intensities, or adjusts the amounts of antibodies conjugated with a fluorochrome differently according to types of the antibodies, thereby classifying a positive and negative of multiple targets using one color. Accordingly, even when a current flow cytometer capable of classifying a limited number of colors is used, it is possible to classify a variety of cell populations to be clinically examined.

Abstract: This invention is related to the diagnostic method of hemolytic anemia, which allows early diagnosis of hemolytic anemia and discrimination of significant schistocytes from insignificant old schistocytes by utilizing the flow cytometric detection of damaged RBCs using anti-Hb in a hypotonic solution compared to saline solution, in the case of the presence of schistocytes in the peripheral blood, such as microangiopathic hemolytic anemia (MAHA).