Abstract: A system, method, and apparatus for identifying product placement utilizing a computer vision, artificial intelligence, and/or machine-learning model that includes an object recognition model. The computer vision, artificial intelligence, and/or machine-learning model can be trained to recognize each placement pattern in a first directory of placement patterns, eliminate additional data, where the additional data includes data not recognized as being in the first directory of placement patterns, and recognize each first pixel pattern in a second directory of pixel patterns. The system, method, and apparatus can be utilized to recognize, using the computer vision, artificial intelligence, and/or machine-learning model, the placement patterns present in an image; eliminate the additional data from the image, construct a modified image including the recognized placement patterns; and identify the first pixel patterns present in the modified image.

Abstract: A method includes: receiving control data at a first data selector of a plurality of data selectors, in which the control data comprises (i) a configuration registry address specifying a location in a configuration state registry and (ii) configuration data specifying a circuit configuration state of a circuit element of a computational circuit; transferring the control data, from the first data selector, to an entry in a trigger table registry; responsive to a first trigger event occurring, transferring the configuration data to the location in the configuration state registry specified by the configuration registry address; and updating a state of the circuit element based on the configuration data.

Abstract: A method includes: receiving control data at a first data selector of a plurality of data selectors, in which the control data comprises (i) a configuration registry address specifying a location in a configuration state registry and (ii) configuration data specifying a circuit configuration state of a circuit element of a computational circuit; transferring the control data, from the first data selector, to an entry in a trigger table registry; responsive to a first trigger event occurring, transferring the configuration data to the location in the configuration state registry specified by the configuration registry address; and updating a state of the circuit element based on the configuration data.

Abstract: A system, method, and apparatus for identifying product placement utilizing a computer vision, artificial intelligence, and/or machine-learning model that includes an object recognition model. The computer vision, artificial intelligence, and/or machine-learning model can be trained to recognize each placement pattern in a first directory of placement patterns, eliminate additional data, where the additional data includes data not recognized as being in the first directory of placement patterns, and recognize each first pixel pattern in a second directory of pixel patterns. The system, method, and apparatus can be utilized to recognize, using the computer vision, artificial intelligence, and/or machine-learning model, the placement patterns present in an image; eliminate the additional data from the image, construct a modified image including the recognized placement patterns; and identify the first pixel patterns present in the modified image.

Abstract: A method includes: receiving control data at a first data selector of a plurality of data selectors, in which the control data comprises (i) a configuration registry address specifying a location in a configuration state registry and (ii) configuration data specifying a circuit configuration state of a circuit element of a computational circuit; transferring the control data, from the first data selector, to an entry in a trigger table registry; responsive to a first trigger event occurring, transferring the configuration data to the location in the configuration state registry specified by the configuration registry address; and updating a state of the circuit element based on the configuration data.

Abstract: A device (901) is manufactured from a sheet layer (100) defining a plurality of panels (101,102,103). Each panel is connected to at least one other panel along a common edge (104). A perforation (105) extends along the common edge and defines a separation location allowing the each panel to be separated from adjoining panels when an applied force pulls each panel away from the adjoining panels. A score line (115) bisects each panel and is oriented orthogonally with the perforation. The score line allows a first portion (116) of each panel to fold about the score line to abut a second portion (117) of each panel. An adhesive (501), disposed along the first portion, retains the first portion to the second portion, as well as retains the filament between the first portion and the second portion.

Abstract: A device (901) is manufactured from a sheet layer (100) defining a plurality of panels (101,102,103). Each panel is connected to at least one other panel along a common edge (104). A perforation (105) extends along the common edge and defines a separation location allowing the each panel to be separated from adjoining panels when an applied force pulls each panel away from the adjoining panels. A score line (115) bisects each panel and is oriented orthogonally with the perforation. The score line allows a first portion (116) of each panel to fold about the score line to abut a second portion (117) of each panel. An adhesive (501), disposed along the first portion, retains the first portion to the second portion, as well as retains the filament between the first portion and the second portion.

Abstract: A fluid collection container (1500) includes a vessel (901) and a lid (1300). A splash retarding cover (100) can be attached to a mouth (501) of the vessel (901). The splash retarding cover (100) can include a centrally disposed suspended funnel (101), a collar (102) surrounding the funnel (101), a vessel mounting ring (109), and a plurality of sloping facets (104) circumscribing the collar (102) and sloping outwardly from an outer circumference (105) of the collar (102) and terminating at the vessel mounting ring (109). An optional cache (1904) of coagulant material can be disposed within an interior of the vessel as well.

Abstract: A multi-well assembly including a filter plate and receiver plate. Each plate includes a plurality of wells, which, when the filter plate is placed in nesting relationship with the receiver plate, each filter plate well has a corresponding receiver plate well into which it extends. The receiver plate wells are of a non-uniform cross-section in order to increase the gap between the outer walls of the filter plate wells and the inner walls of a corresponding receiver plate well when the receiver plate and filter plate are in nesting relationship. The increased gap size reduces wicking and cross-contamination. A multi-section well of maximum cross-section in an upper region and a minimized cross-section in a lower region, with a gradual transition between the regions, is thus provided.

Abstract: A multi-well assembly including a filter plate and receiver plate. Each plate includes a plurality of wells, which, when the filter plate is placed in nesting relationship with the receiver plate, each filter plate well has a corresponding receiver plate well into which it extends. The receiver plate wells are of a non-uniform cross-section in order to increase the gap between the outer walls of the filter plate wells and the inner walls of a corresponding receiver plate well when the receiver plate and filter plate are in nesting relationship. The increased gap size reduces wicking and cross-contamination. A multi-section well of maximum cross-section in an upper region and a minimized cross-section in a lower region, with a gradual transition between the regions, is thus provided.

Abstract: A multi-well assembly including a filter plate and receiver plate. Each plate includes a plurality of wells, which, when the filter plate is placed in nesting relationship with the receiver plate, each filter plate well has a corresponding receiver plate well into which it extends. The receiver plate wells are of a non-uniform cross-section in order to increase the gap between the outer walls of the filter plate wells and the inner walls of a corresponding receiver plate well when the receiver plate and filter plate are in nesting relationship. The increased gap size reduces wicking and cross-contamination. A multi-section well of maximum cross-section in an upper region and a minimized cross-section in a lower region, with a gradual transition between the regions, is thus provided.

Abstract: An adapter for endoscopic treatments has a fiber constraint device that is set at a desired maximum fiber retraction distance, and provides a physical barrier to prevent excessive fiber retraction into the endoscope. The restricted retraction prevents the fiber from firing within the endoscope, thus avoiding expensive damage to both the endoscope and fiber. This benefits the patient with potentially shorter treatment time and less exposure to anesthesia. The adapter also limits maximum extension of fibers. Limiting maximum extension protects the fiber tip and avoids patient complications. The adapter is securely attached to the optical fiber with a connecting means. When using directionally radiating fiber tips, fiber orientation can be defined and the fiber can be rotated relative to the initial angular position of the fiber tip.

Abstract: A fluid collection container (1500) includes a vessel (901) and a lid (1300). A splash retarding cover (100) can be attached to a mouth (501) of the vessel (901). The splash retarding cover (100) can include a centrally disposed suspended funnel (101), a collar (102) surrounding the funnel (101), a vessel mounting ring (109), and a plurality of sloping facets (104) circumscribing the collar (102) and sloping outwardly from an outer circumference (105) of the collar (102) and terminating at the vessel mounting ring (109). An optional cache (1904) of coagulant material can be disposed within an interior of the vessel as well.

Abstract: A telescope design having an integrated baffle is disclosed herein. The integrated baffle is configured as both a baffle and a mirror support. The integrated baffle can be shaped to the F-cone between the primary and secondary mirrors of a given telescope design. The baffle design can be adjusted to minimize or otherwise reduce the total obscuration of the baffle to improve the optical throughput. The interior facing surfaces of the integrated baffle can be configured with corner reflectors, so that the detector views itself, instead of the baffle.

Abstract: A telescope design having an integrated baffle is disclosed herein. The integrated baffle is configured as both a baffle and a mirror support. The integrated baffle can be shaped to the F-cone between the primary and secondary mirrors of a given telescope design. The baffle design can be adjusted to minimize or otherwise reduce the total obscuration of the baffle to improve the optical throughput. The interior facing surfaces of the integrated baffle can be configured with corner reflectors, so that the detector views itself, instead of the baffle.

Abstract: A telescope design is disclosed that has at least some of its interior facing surfaces configured with corner reflectors, so that a detector operatively coupled to the telescope views itself, instead of those surfaces. The corner reflectors may be on, for example, interior facing surfaces of a conventional baffle appended to the telescope and/or mirror supports or other structures inside the telescope housing that are within the detector's FOV. Likewise, the corner reflectors may be on interior facing surfaces of a baffle that is integrated into the telescope housing. In some such cases, the integrated baffle can be configured as both a baffle and a mirror support. The integrated baffle can be shaped to the F-cone between mirrors of a given telescope design, and/or configured to minimize or otherwise reduce the total obscuration of the baffle to improve the optical throughput.

Abstract: A telescope design is disclosed that has at least some of its interior facing surfaces configured with corner reflectors, so that a detector operatively coupled to the telescope views itself, instead of those surfaces. The corner reflectors may be on, for example, interior facing surfaces of a conventional baffle appended to the telescope and/or minor supports or other structures inside the telescope housing that are within the detector's FOV. Likewise, the corner reflectors may be on interior facing surfaces of a baffle that is integrated into the telescope housing. In some such cases, the integrated baffle can be configured as both a baffle and a mirror support. The integrated baffle can be shaped to the F-cone between minors of a given telescope design, and/or configured to minimize or otherwise reduce the total obscuration of the baffle to improve the optical throughput.