Abstract: Aspects and embodiments of the instant disclosure provide a particle and/or intracellular organelle alignment agent for a particle analyzer used to analyze particles contained in a sample. An exemplary particle and/or intracellular organelle alignment agent includes an aqueous solution, a viscosity modifier, and/or a buffer. Embodiments also encompass systems, compositions, and methods for analyzing a sample containing particles. Parrticles such as blood cells can be categorized and counted by a digital image processor. A digital microscope camera can be directed, for example using certain focusing techniques, into a flowcell defining a symmetrically narrowing flowpath in which the sample stream flows in a ribbon flattened by flow and viscosity parameters between layers of sheath fluid. Blood cell images can be collected and analyzed using dynamic range extension processes and systems.

Abstract: The invention relates to detecting cell biomarker signatures and integrated cell biomarker-morphological profiles by detecting resonance-light scattering of functionalized nanoparticles.

Abstract: Aspects and embodiments of the instant disclosure provide a particle and/or intracellular organelle alignment agent for a particle analyzer used to analyze particles contained in a sample. An exemplary particle and/or intracellular organelle alignment agent includes an aqueous solution, a viscosity modifier, and/or a buffer. Embodiments also encompass systems, compositions, and methods for analyzing a sample containing particles. Particles such as blood cells can be categorized and counted by a digital image processor. A digital microscope camera can be directed, for example using certain focusing techniques, into a flowcell defining a symmetrically narrowing flowpath in which the sample stream flows in a ribbon flattened by flow and viscosity parameters between layers of sheath fluid. Blood cell images can be collected and analyzed using dynamic range extension processes and systems.

Abstract: Aspects and embodiments of the instant disclosure provide a particle and/or intracellular organelle alignment agent for a particle analyzer used to analyze particles contained in a sample. An exemplary particle and/or intracellular organelle alignment agent includes an aqueous solution, a viscosity modifier, and/or a buffer.

Abstract: Aspects and embodiments of the instant disclosure provide a particle and/or intracellular organelle alignment agent for a particle analyzer used to analyze particles contained in a sample. An exemplary particle and/or intracellular organelle alignment agent includes an aqueous solution, a viscosity modifier, and/or a buffer.

Abstract: Aspects and embodiments of the instant disclosure provide a particle and/or intracellular organelle alignment agent for a particle analyzer used to analyze particles contained in a sample. An exemplary particle and/or intracellular organelle alignment agent includes an aqueous solution, a viscosity modifier, and/or a buffer.

Abstract: The present disclosure relates to apparatus, systems, compositions, and methods for analyzing a sample containing particles. In some aspects the system comprises an analyzer which may be a visual analyzer. In one aspect, this disclosure relates to a particle imaging system comprising a flowcell through which a sample containing particles is caused to flow, and a high optical resolution imaging device which captures images for image analysis of samples. Other compositions, methods and features of this disclosure are disclosed herein.

Abstract: The present disclosure relates to apparatus, systems, compositions, and methods for analyzing a sample containing particles. In some aspects the system comprises an analyzer which may be a visual analyzer. In one aspect, this disclosure relates to a particle imaging system comprising a flowcell through which a sample containing particles is caused to flow, and a high optical resolution imaging device which captures images for image analysis of samples. Other compositions, methods and features of this disclosure are disclosed herein.

Abstract: Aspects and embodiments of the instant disclosure provide a particle and/or intracellular organelle alignment agent for a particle analyzer used to analyze particles contained in a sample. An exemplary particle and/or intracellular organelle alignment agent includes an aqueous solution, a viscosity modifier, and/or a buffer.

Abstract: Aspects and embodiments of the instant disclosure provide a particle and/or intracellular organelle alignment agent for a particle analyzer used to analyze particles contained in a sample. An exemplary particle and/or intracellular organelle alignment agent includes an aqueous solution, a viscosity modifier, and/or a buffer. Embodiments also encompass systems, compositions, and methods for analyzing a sample containing particles. Particles such as blood cells can be categorized and counted by a digital image processor. A digital microscope camera can be directed, for example using certain focusing techniques, into a flowcell defining a symmetrically narrowing flowpath in which the sample stream flows in a ribbon flattened by flow and viscosity parameters between layers of sheath fluid. Blood cell images can be collected and analyzed using dynamic range extension processes and systems.

Abstract: Methods and kits related to non-equilibrium, ultrasensitive two-site assays for detecting analytes are provided. In one aspect, a two-site assays for detecting analytes under non-equilibrium analyte binding conditions, using low concentrations of reporter specificity molecule (e.g., reporter antibody) and kits for performing the same is provided. In another aspect, methods for selecting antibodies or specificity molecules with low dissociation constants for use as reporter antibodies in non-equilibrium two-site immunoassays, including two-site immuno-PCR assays, and assays performed with those antibodies, are also provided.

Abstract: Aspects and embodiments of the instant disclosure provide a particle and/or intracellular organelle alignment agent for a particle analyzer used to analyze particles contained in a sample. An exemplary particle and/or intracellular organelle alignment agent includes an aqueous solution, a viscosity modifier, and/or a buffer.

Abstract: The present disclosure relates to apparatus, systems, compositions, and methods for analyzing a sample containing particles. In some aspects the system comprises an analyzer which may be a visual analyzer. In one aspect, this disclosure relates to a particle imaging system comprising a flowcell through which a sample containing particles is caused to flow, and a high optical resolution imaging device which captures images for image analysis of samples. Other compositions, methods and features of this disclosure are disclosed herein.

Abstract: Particles such as blood cells can be categorized and counted by a digital image processor. A digital microscope camera can be directed into a flowcell defining a symmetrically narrowing flowpath in which the sample stream flows in a ribbon flattened by flow and viscosity parameters between layers of sheath fluid. A contrast pattern for autofocusing is provided on the flowcell, for example at an edge of a rear illumination opening. The image processor assesses focus accuracy from pixel data contrast. A positioning motor moves the microscope and/or flowcell along the optical axis for autofocusing on the contrast pattern target. The processor then displaces microscope and flowcell by a known distance between the contrast pattern and the sample stream, thus focusing on the sample stream. Blood cell images are collected from that position until autofocus is reinitiated, periodically, by input signal, or when detecting temperature changes or focus inaccuracy in the image data.

Abstract: For analyzing a sample containing particles of at least two categories, such as a sample containing blood cells, a particle counter subject to a detection limit is coupled with an analyzer capable of discerning particle number ratios, such as a visual analyzer, and a processor. A first category of particles can be present beyond detection range limits while a second category of particles is present within respective detection range limits. The concentration of the second category of particles is determined by the particle counter. A ratio of counts of the first category to the second category is determined on the analyzer. The concentration of particles in the first category is calculated on the processor based on the ratio and the count or concentration of particles in the second category.

Abstract: A method includes a first firewall device performing a firewall function on a first redundant input data packet and outputting the first redundant input data packet as a first redundant output data packet according to the firewall function. A second firewall device performs only the same firewall function on a second redundant input data packet and outputs the second redundant input data packet as a second redundant output data packet according to the firewall function. The redundant output data packets are at least substantially similar when the firewall devices are functioning properly. A controller receives the redundant output data packets and transmits at a given time one of the redundant output data packets to a target. The controller transmits the first redundant output data packet to the target while the second device is failed.

Abstract: A method includes receiving first, second, and third content streams at a first device via a distribution system. The second content stream is selected by a second device and the third content stream is selected by a third device. The method also includes sending data to a display device to concurrently present the first, second, and third content streams and first, second, and third regions, respectively. A content control and buffer module is instructed to request a fourth content stream in response to receiving a request made at the second device. The method further includes sending data to the display device to display the fourth content stream in the first region. In response to the request, the first content stream replaces the second content stream in the second region.

Abstract: This invention describes compositions and methods for use in PSA assays having low functional sensitivity which are useful, for example, in the detection of early stage recurrence of prostate disease following treatment and in the determination of whether patients have early stage biochemical reoccurrence (ES-BCR) or stable disease.

Abstract: A method includes receiving, at a first server, data from a set-top box device including login information for a user to establish a first session with a multimedia distribution system. The method includes determining at the first server that the user belongs to at least one presence group when the login information is verified. The method includes identifying one or more on-line members that are members of the at least one presence group and have established sessions with the multimedia distribution system. The method also includes sending information from the first server to the set-top box device, the information corresponding to session activity of each of the one or more on-line members. The information includes video content selected by a user of a particular set-top box corresponding to one of the one or more on-line members, where the video content is concurrently sent to the particular set-top box device.

Abstract: A method includes a first firewall device performing a firewall function on a first redundant input data packet and outputting the first redundant input data packet as a first redundant output data packet according to the firewall function. A second firewall device performs only the the same firewall function on a second redundant input data packet and outputs the second redundant input data packet as a second redundant output data packet according to the firewall function. The redundant output data packets are at least substantially similar when the firewall devices are functioning properly. A controller receives the redundant output data packets and transmits at a given time one of the redundant output data packets to a target. The controller transmits the first redundant output data packet to the target while the second device is failed.