Abstract: The disclosed embodiments describe systems, methods, and devices for a fluid run-off system. These systems, methods, and devices may include a fluid run-off system which may comprise a layer of foundation stone, at least one stormwater management system located above the layer of foundation stone, a layer of embedment stone located around the at least one stormwater chamber, a layer of initial fill located above the layer of embedment stone, a layer of final fill located above the layer of initial fill, a filtration fabric located around a perimeter of the layer of foundation stone and the layer of embedment stone, and a geogrid system located around a perimeter of the filtration fabric.

Abstract: Weir systems, methods, and apparatuses for containing and filtering runoff may be provided. In one implementation, a modular weir may be used to isolate suspended solids from a flow of water in a stormwater management crate array. The modular weir may include a plurality of weirs configured to isolate the flow of water from the stormwater management crate, a plurality of column grooves along the one or more weirs configured to extend around a plurality of columns in the stormwater management crate, an inlet located at a first end of the plurality of weirs configured to receive the flow of water within the stormwater management crate, and a cap located at a second end of the plurality of weirs configured to contain the flow of water within the modular weir.

Abstract: Systems and methods are provided for managing illumination associated with image capture by devices by adjusting illumination in one or more sub-portions of an area during image capture. In order to adjust illumination, configuration data may be obtained relating to image data generated by an image capture device. The image capture device may be associated with a controllable illumination device configured to provide independently controllable illumination for at least two sub portions of an area. The controllable illumination device may cause the generation of illumination based on independent illumination attributes associated with the at least two sub-portions. The illumination device can include independently controllable illumination units can include a light emitting diode (LED) array in which individual LEDs in the LED array are independently controllable.

Abstract: Disclosed embodiments relate to a stormwater management system. In some embodiments, the stormwater management system may comprise a plurality of stormwater crates connected in one or more rows and a sediment capture row located within the plurality of stormwater crates. In some embodiments, the sediment capture row may comprise one or more stormwater crates connected in a row, a geotextile wrap surrounding the one or more stormwater crates, a plurality of side panels located on an outer side of the geotextile wrap, and a front panel connected to a front end of the sediment capture row.

Abstract: Disclosed embodiments relate to a stormwater management system. In some embodiments, the stormwater management system may comprise a plurality of stormwater crates connected in one or more rows and a sediment capture row located within the plurality of stormwater crates. In some embodiments, the sediment capture row may comprise one or more stormwater crates connected in a row, a geotextile wrap surrounding the one or more stormwater crates, a plurality of side panels located on an outer side of the geotextile wrap, and a front panel connected to a front end of the sediment capture row.

Abstract: A device includes a first housing, a camera residing at least partially within the first housing, a switch residing at least partially within the first housing, and a second housing coupled to the first housing and at least partially residing within the first housing. The switch is configured to disable the camera. The second housing includes a receptacle configured to receive a battery, and an arm having a tab configured to engage and disengage a lever of the switch to disable the camera. One or more contacts at least partially reside within the first housing and are configured to electrically connect to an accessory coupled to the first housing.

Abstract: A micro- or nanotextured or structured surface and methods of making and using the same are provided. A structured or textured surface can comprise a substrate and a textured surface comprising a plurality of features and configured to reduce surface adhesion of a particulate to the structured surface. The micro- or nanotextured surface can be replicated using highly scalable processes, such as roll-to-roll nanoimprint lithography and roll-to-roll thermal embossing onto the substrate by a master mold, which can be created by ultrasonic nanocoining.

Abstract: Weir systems, methods, and apparatuses for containing and filtering runoff may be provided. In one implementation, a modular weir may be used to isolate suspended solids from a flow of water in a stormwater management crate array. The modular weir may include a plurality of weirs configured to isolate the flow of water from the stormwater management crate, a plurality of column grooves along the one or more weirs configured to extend around a plurality of columns in the stormwater management crate, an inlet located at a first end of the plurality of weirs configured to receive the flow of water within the stormwater management crate, and a cap located at a second end of the plurality of weirs configured to contain the flow of water within the modular weir.

Abstract: Weir systems, methods, and apparatuses for containing and filtering runoff may be provided. In one implementation, a modular weir may be used to isolate suspended solids from a flow of water in a stormwater management crate array. The modular weir may include a plurality of weirs configured to isolate the flow of water from the stormwater management crate, a plurality of column grooves along the one or more weirs configured to extend around a plurality of columns in the stormwater management crate, an inlet located at a first end of the plurality of weirs configured to receive the flow of water within the stormwater management crate, and a cap located at a second end of the plurality of weirs configured to contain the flow of water within the modular weir.

Abstract: The present invention is directed to compounds which have been identified, as inhibitors of the expression of CDR1 (Cdr1p) and/or CDR2 (Cdr2p), both ABC-type plasma, membrane transporters, which are major contributor to antifungal therapy resistance. These compounds may be used in the treatment of fungal infections, especially Candida infections, either alone or in combination with azole antifungal agents such as fluconazole, itraconazole, miconazole, clotrimazole and the like. Often the inhibitor compounds described herein are useful for reversing the antifungal therapy resistance exhibited by the overexpression of CDR1 and/or CDR2 in strains of fungi, especially including Candida spp. Combination therapy and compositions for treating fungal infections, especially including azole resistant fungal infections represent important embodiments of the present invention.

Abstract: An optical Boresight alignment device that leverages creation of an opto-mechanical reference to the rifle barrel so that the riflescope can be used to directly measure the axis of the rifle barrel and thereby offer the necessary feedback to precisely boresight the riflescope. An illumination multiplexer module (IMM) allows the riflescope to function as an illuminated precision autocollimator with which to optically measure the barrel angle. The present invention leverages the two most accurate rifle components: the barrel and the riflescope themselves to directly measure the axes of each device, the optical (riflescope) and the mechanical (barrel). This is an improvement over existing methods by successfully using the external surface of the rifle barrel as a kinematic mechanical reference.

Abstract: A cannula and method include a shaft portion having a proximal end, a distal end, a longitudinal axis and a lumen extending from the proximal end to the oppositely disposed distal end along the longitudinal axis. A hub is attached to the proximal end of the shaft portion and includes a transverse portion, which extends transversely relative to the longitudinal axis of the shaft portion. An opaque marker is disposed on the transverse portion at a position corresponding to an expanded size of an expandable element such that the opaque marker indicates the expanded size in an imaging system image.

Abstract: A method of generating a hardware design to calculate a modulo value for any input value in a target input range with respect to a constant value d using one or more range reduction stages. The hardware design is generated through an iterative process that selects the optimum component for mapping successively increasing input ranges to the target output range until a component is selected that maps the target input range to the target output range. Each iteration includes generating hardware design components for mapping the input range to the target output range using each of a plurality of modulo preserving range reduction methods, synthesizing the generated hardware design components, and selecting one of the generated hardware design components based on the results of the synthesis.

Abstract: A method of generating a hardware design to calculate a modulo value for any input value in a target input range with respect to a constant value d using one or more range reduction stages. The hardware design is generated through an iterative process that selects the optimum component for mapping successively increasing input ranges to the target output range until a component is selected that maps the target input range to the target output range. Each iteration includes generating hardware design components for mapping the input range to the target output range using each of a plurality of modulo preserving range reduction methods, synthesizing the generated hardware design components, and selecting one of the generated hardware design components based on the results of the synthesis.

Abstract: A method of generating a hardware design to calculate a modulo value for any input value in a target input range with respect to a constant value d using one or more range reduction stages. The hardware design is generated through an iterative process that selects the optimum component for mapping successively increasing input ranges to the target output range until a component is selected that maps the target input range to the target output range. Each iteration includes generating hardware design components for mapping the input range to the target output range using each of a plurality of modulo preserving range reduction methods, synthesizing the generated hardware design components, and selecting one of the generated hardware design components based on the results of the synthesis.

Abstract: A cannula and method include a shaft portion having a proximal end, a distal end, a longitudinal axis and a lumen extending from the proximal end to the oppositely disposed distal end along the longitudinal axis. A hub is attached to the proximal end of the shaft portion and includes a transverse portion, which extends transversely relative to the longitudinal axis of the shaft portion. An opaque marker is disposed on the transverse portion at a position corresponding to an expanded size of an expandable element such that the opaque marker indicates the expanded size in an imaging system image.

Abstract: A cannula and method include a shaft portion having a proximal end, a distal end, a longitudinal axis and a lumen extending from the proximal end to the oppositely disposed distal end along the longitudinal axis. A hub is attached to the proximal end of the shaft portion and includes a transverse portion, which extends transversely relative to the longitudinal axis of the shaft portion. An opaque marker is disposed on the transverse portion at a position corresponding to an expanded size of an expandable element such that the opaque marker indicates the expanded size in an imaging system image.

Abstract: A method of generating a hardware design to calculate a modulo value for any input value in a target input range with respect to a constant value d using one or more range reduction stages. The hardware design is generated through an iterative process that selects the optimum component for mapping successively increasing input ranges to the target output range until a component is selected that maps the target input range to the target output range. Each iteration includes generating hardware design components for mapping the input range to the target output range using each of a plurality of modulo preserving range reduction methods, synthesizing the generated hardware design components, and selecting one of the generated hardware design components based on the results of the synthesis.