65 results about "Automated microscopy" patented technology

An automated microscope and computer system captures a set of images for a capture area in a plurality of focal planes. The images can then be integrated into composite images for browsing to simulate viewing an item, such as a biological sample, under a microscope. A corrective filter can be constructed from the images to avoid an effect called “tiling.” Before capture, variable focal plane error can be avoided by collecting z locations for a set of points in the capture area. During image browsing, entire composite images can be loaded into memory in compressed form. Compressed image portions can be pre-decompressed to avoid delay as a browsing user navigates throughout the composite images. Pre-decompression can be done by a thread separate from the thread performing navigation operations.

A method comprises receiving an image of a tissue-sample set. A position in the image of each tissue sample relative to at least one other tissue sample is electronically identified. Each tissue sample is electronically identified based on the tissue sample position identification.

The invention relates to a doctor-patient remote alternation platform and a remote alternation method, comprising: a computer system at a server end, a microcomputer device at a medical referral centre institution end, a microcomputer device at a medical referral application end, a microcomputer device at a medical expert end, which are in a wide area network and realize network connection, thereby realizing facial transmission in a broadcasting mode, medical image of real-time transmission, remote control automatic microscope platform, and alternation speech communication is present on the basis of sharing real-time medical image. Three perfect remote medical solution with different applications are realized, including a pathology remote consultation solution, a pathology remote medical education solutionand a pathology remote medical communication solution.

A system for performing automated cell screening in drug discovery, including an automated microscope, a fast autofocus device and a digital imaging system. Processes are implemented in software through which relevant cellular material is segmented and quantified with minimal user interaction. Improvements in the following areas: known methods for image processing are implemented in such a way that automated segmentation is achieved; sets of known measurements (pixel counting, etc.) are implemented as methods which demonstrate aspects of biology in a reliable fashion; components for automated positioning, focusing, imaging and processing of a multiplicity of samples are integrated as systems within which the segmentation and measurement methods may be mounted; and components and methods are adapted into systems which yield more highly automated and more rapid cell screening.

The invention relates to a method for adjusting focus in an automated microscope. The method may comprise the steps of: providing an optical detector for image acquisition, wherein the optical detector comprises an array of sensor pixels; designating a region of interest in the array of sensor pixels to emulate a confocal aperture; directing a light beam to illuminate an object according to a predefined pattern, thereby forming an image of the illuminated pattern at the optical detector, wherein the image of the illuminated pattern substantially overlaps the designated region of interest; detecting a light intensity from sensor pixels located within the designated region of interest; and adjusting a relative focal position of an objective lens based on the detected light intensity.

The invention discloses a morphological analytical apparatus and method for erythrocytes. According to the invention, a sample is placed under an automatic microscope and amplified, morphological images of all the cells in the sample are collected by a CCD (charge-coupled device) and digitalized by an image digitizer, and then segmentation and positioning of the images and extraction of target characteristic parameters are carried out; morphological characteristic parameters of every erythrocyte are separated with a classifier established on the basis of a neural network; normalization treatment is carried out on morphological characteristic parameter data of every variety of erythrocytes with a characteristic fusion cage established on the basis of fuzzy clustering; statistical analysis is carried out on each variety of obtained normalization parameters; comprehensive statistical analysis is carried out on a plurality of the normalization parameters and is expressed with figures or numerical tables so as to determine whether morphology of the erythrocytes is normal; and sources and properties of the erythrocytes can be identified through detection of erythrocytes with abnormal morphology.

Disclosed in one aspect is a method for performing a complete blood count (CBC) on a sample of whole blood by metering a predetermined amount of the whole blood and mixing it with a predetermined amount of diluent and stain and transferring a portion thereof to an imaging chamber of fixed dimensions and utilizing an automated microscope with digital camera and cell counting and recognition software to count every white blood cell and red blood corpuscle and platelet in the sample diluent/stain mixture to determine the number of red cells, white cells, and platelets per unit volume, and analyzing the white cells with cell recognition software to classify them.

The invention relates to an assembly for illuminating objects with light of different wavelengths in microscopes, automatic microscopes and devices for fluorescent microscopy applications. Said assembly comprises LED light sources for illuminating the objects, which are positioned in the illumination beam path of the microscope or device. A receiving element (6; 13) that can be rotated about a rotational axis (5) is provided with respective fixing elements (7) for at least one LED (3; 3.1). The receiving device (6; 13) is situated in a housing (1) that can be placed on or positioned in the device housing (18). A drive unit (9) for the defined adjustment of the receiving device (6; 13) is provided in such a way that the LED (3; 3.1) can be positioned in front of a light emission opening of the housing (1) with the respective focal point wavelength that is required for measuring and/or observation purposes.

The present invention provides methods and systems for automatic detection of the location of cell colonies on a specimen slide, in particular under the coverslip of a specimen slide. Slide scanning can be performed using an automated microscope with motorized axes. The location of the colonies can be determined by image analysis, which is followed by automatically finding metaphase cells and associating them with each colony. The invention also provides an automated, Hough-transform-based method for identifying the location of the slide coverslip and, if desired, analyzing only the image area contained within the coverslip.

A method of automatically focusing a microscope on a specimen is carried out by capturing an image from each of a plurality of focal planes in or on said specimen, calculating a focus score for each of said images, selecting the focal plane corresponding to the image having the best focus score, and then repositioning said specimen relative to said microscope so that said microscope is focused on said selected focal plane, the method includes a plurality of exogenous targets in or on said specimen, which aids in focusing in the event particular objects of interest, such as cells/pathogens that may or may not be in the sample, are not present, or are present in low numbers. Automated microscopes and microscope cartridges useful in such methods are also described, along with methods of detecting pathogens in biological samples.

Operational means for automatic microscopic detection and analysis of fluorescent signals from a treated biological sample.

An automated microscope apparatus comprises an outer housing having an external wall; optionally but preferably an internal wall in the housing configured to form a first compartment and a separate second compartment in the outer housing; a microscope assembly in the housing (preferably in the first compartment); a microprocessor in the housing (preferably in the second compartment), and (optionally but preferably) a heat sink mounted on the housing external wall, preferably adjacent the second compartment, with the microprocessor thermally coupled to said heat sink and operatively associated with the microscope assembly. Systems and methods employing the same are also described, along with component parts thereof.

The invention relates to a method for remotely analyzing a pathological section. A person who participates in analysis performs information communication according to a remote network platform; the remote network platform comprises a central management server system, a pathological expert-side microcomputer device, a microscope holding-side microcomputer device and a visit-side microcomputer device; and the central management server system, the pathological expert-side microcomputer device, the microscope holding-side microcomputer device and the visit-side microcomputer device are in a wide area network environment and realize network connection, so broadcast surface transmission can be realized, real-time medical images are transmitted, an automatic microscope platform can be controlledremotely, and interactive voice communication is realized on the basis of sharing the real-time medical images. The method provided by the invention has the advantages that: the mailing of the pathological section is eliminated; a patient does not need to go to different cities; difficulty in finding an expert can be eliminated; efficiency is improved; the precious time of the expert is saved; and the significance of pathology in the field of medicine can be remarkably improved.

A system for reading microscope slides in an automated fashion.

A method for preparing microscopic image of hologram digitalized slab includes using automatic microscope to collect microscopic image information of a slab to generate sequenced multiple microscopic image unit data, carrying out matching treatment on relevant position between each two adjacent microscopic image units to obtain position data of each microscopic image unit, carrying out fusing treatment on overlapped portion between each two adjacent microscopic image units according to visual habits of human eyes for generating microscopic image of hologram digitalized slab then compressing said image blocking-store it in image file.

An automated microscope apparatus, comprises an outer housing having an external wall; optionally but preferably an internal wall in said housing, and configured to form a first compartment and a separate second compartment in said outer housing; a microscope assembly in said housing, preferably in said first compartment; and a microprocessor in said housing, preferably in said second compartment; and optionally but preferably a heat sink mounted on said housing external wall, preferably adjacent said second compartment, with said microprocessor thermally coupled to said heat sink and operatively associated with said microscope assembly.

An automated, highly sensitive, specific and potentially quantitative detection method using an automated microscope for identifying and enumerating rare cancer cells in blood and other fluids.

An automatic microscope is disclosed which incorporates dynamic scanning of the microscope slide and other interchangeable optical path components.

The invention discloses an automatic focusing method for an automatic microscope. The method comprises the following steps of: a preprocessing step of moving a focusing device on the automatic microscope onto a slide, acquiring an image of a current position, calculating definition of the image, setting the definition and a position of the current position as initial definition and position,, andsetting a preset step length and an initial direction; a searching step of searching a peak value with the preset step length and acquiring a rising edge and a falling edge; and a fitting step of fitting the peak value and the rising edge as well as the falling edge, finding out an optimal focal plane position and moving the focusing device on the automatic microscope to the position so as to complete the focusing process. By foreground region extraction, measurement of the peak value and the rising edge as well as the falling edge, parabola fitting and four-point single-peak fitting, the automatic focusing method for the automatic microscope solves the problems that a conventional automatic focusing method is insufficient in focusing speed and accuracy and particularly is lower in accuracy when focusing is carried out on a view field with an ultralow contrast or an ultra few foreground contents.

The invention discloses an identification and classification method for the roughness of LED chip surfaces; the method includes the following steps: (1) the LED chip is put under a microscope to observe p electrode area and N electrode area in the LED ship and the microscopic images are photographed; (2) a gray scale identification system is utilized to identify the gray scale for the P electrode area and N electrode area of the LED chip in the microscopic images and the value of gray scale is output; (3) the observed LED chips are classified into four types; (4) when an operation under microscope is necessary, LED chips of the same types classified according to the step (3) are deemed as the same batch and operated in the way of line production. According to the classification method of the invention, classified LED chips can be easily recognized when the chips are under automatic microscopic operation. The classification method of the invention can be used for the classification of LED chips of different surface roughness.