Abstract: Disclosed are apparatus and methods for securely holding a substrate in a repeatable and predictable manner regardless of substrate inconsistencies or deformities. In particular, described are apparatus and methods for consistently, repeatedly, predictably and securely holding a microscope slide on or within an imaging device. The apparatus may include a holder having securing blocks for securely holding a microscope slide that can be adjusted to account for warpage or deformations that may occur in the microscope slide.

Abstract: This disclosure provides methods of fluorescence microscopy imaging for the analysis of biological samples. More particularly, this disclosure provides methods of reducing crosstalk in multiplexed fluorescence imaging.

Abstract: Disclosed are optical trains for imaging systems. More particularly described are imaging systems configured to limit optical aberrations. Also disclosed are methods of limiting optical aberrations in imaging systems.

Abstract: This disclosure relates generally to detecting multiple biomarkers on or within a sample, though more specifically, to detecting individual detection moieties within a plurality of detection moieties.

Abstract: This disclosure is directed to a system and method for changing an angle of incidence of a filter or filter wheel.

Abstract: This disclosure is directed to system for transferring a substrate, such as a microscope slide, and holding the substrate within at least one device. The system includes a holder for holding the substrate and a gripper for transferring the substrate, such as between a cassette or stack and the holder. A method is also discussed herein.

Abstract: This disclosure is directed to a device and a system for picking a target material from a sample.

Abstract: This disclosure is directed to system for transferring a substrate, such as a microscope slide, and holding the substrate within at least one device. The system includes a holder for holding the substrate and a gripper for transferring the substrate, such as between a cassette or stack and the holder. A method is also discussed herein.

Abstract: This disclosure is directed to an apparatus for securely holding a substrate, such as a microscope slide. A holder includes a frame including at least three walls, such as a base, a first arm, and a second arm. Each wall includes a platform or a portion of a platform to support the substrate. The first arm includes at least one securing block and a second arm opposite the first arm includes a secure bar with a securing block. The securing blocks include a ramp to guide the substrate off of the platforms and a stopper to set a maximum lift distance and to constrain the substrate.

Abstract: This disclosure is directed to a device and a system for picking a target analyte of a suspension. A picker introduces at least one force, such as by a magnetic gradient and/or by a pressure gradient, to extract the target analyte from a sample.

Abstract: This disclosure relates generally to detection and, in particular, to detecting objects within a sample or fraction thereof.

Abstract: This disclosure is directed to methods for retrieving and using at least one lymphocyte. Additionally, cell receptor sequences identified with this strategy could be used for antibody development, TCR discovery, or appropriate therapeutics development or evaluation.

Abstract: This disclosure is directed to an apparatus, system and method for retrieving a target material from a suspension. A system includes a plurality of processing vessels and a collector. The collector funnels portions of the target material from the suspension through a cannula and into the processing vessels. Sequential density fractionation is the division of a sample into fractions or of a fraction of a sample into sub-fractions by a step-wise or sequential process, such that each step or sequence results in the collection or separation of a different fraction or sub-fraction from the preceding and successive steps or sequences. In other words, sequential density fractionation provides individual sub-populations of a population or individual sub-sub-populations of a sub-population of a population through a series of steps.

Abstract: This disclosure is directed to a system and method for detecting a surface of a substrate within a scanner.

Abstract: This disclosure is directed to a system and method for detecting a surface of a substrate within a scanner.

Abstract: This disclosure is directed to an apparatus, system and method for retrieving target material from a suspension. A system includes a processing vessel, a displacement fluid, and a tube. The tube includes a funnel, a cannula, and a cavity. The cannula allows for fluid communication between the funnel and the cavity, such that the processing vessel is inserted into the cavity, and the cannula extends into the processing vessel.

Abstract: This disclosure is directed to an apparatus, system and method for retrieving a target material from a suspension. A system includes a plurality of processing vessels and a collector. The collector funnels portions of the target material from the suspension through a cannula and into the processing vessels. Sequential density fractionation is the division of a sample into fractions or of a fraction of a sample into sub-fractions by a step-wise or sequential process, such that each step or sequence results in the collection or separation of a different fraction or sub-fraction from the preceding and successive steps or sequences. In other words, sequential density fractionation provides individual sub-populations of a population or individual sub-sub-populations of a sub-population of a population through a series of steps.

Abstract: This disclosure is directed to system for transferring a substrate, such as a microscope slide, and holding the substrate within at least one device. The system includes a holder for holding the substrate and a gripper for transferring the substrate, such as between a cassette or stack and the holder. A method is also discussed herein.

Abstract: Kits, compositions, and methods for labeling target materials or target analytes are considered. The composition can include one or more affinity molecules indirectly conjugated to one or more detection moieties. The kit can be used to detect a single biomarker or multiple biomarkers. The kit can be used to perform a single round of labeling or multiple rounds of labeling.

Abstract: This disclosure is directed to system for transferring a substrate, such as a microscope slide, and holding the substrate within at least one device. The system includes a holder for holding the substrate and a gripper for transferring the substrate, such as between a cassette or stack and the holder. A method is also discussed herein.