Abstract: A computer-implemented method, a computer system, and a computer program product are provided for estimating output data that includes or is based on a number of containers, which may or may not be in receptacles. The method involves using an object detection algorithm operating on an input digital image to detect container images and receptacle images (if any), and using an estimation algorithm operating on the detected images to estimate the number of containers. Estimating the number of containers may involve counting the number of containers within different container classes, as determined by the object detection algorithm. Estimating the number of containers may involve estimating a size of a receptacle in a detected receptacle image based on analysis of a detected reference container image. A detected reference object image may be used to assist with classifying detected container images in different container classes.

Abstract: Certain exemplary embodiments can provide a system, which comprises a ship flight deck (e.g., an aluminum flight deck). The system further comprises a plurality of heat pipes. Each of the plurality of heat pipes is installed in a cavity defined by a ship flight deck. Each of the plurality of heat pipes can be surrounded by a high heat capacity material such as a Phase Change Material.

Abstract: A computer-implemented method, a computer system, and a computer program product are provided for estimating output data that includes or is based on a number of containers, which may or may not be in receptacles. The method involves using an object detection algorithm operating on an input digital image to detect container images and receptacle images (if any), and using an estimation algorithm operating on the detected images to estimate the number of containers. Estimating the number of containers may involve counting the number of containers within different container classes, as determined by the object detection algorithm. Estimating the number of containers may involve estimating a size of a receptacle in a detected receptacle image based on analysis of a detected reference container image. A detected reference object image may be used to assist with classifying detected container images in different container classes.

Abstract: A panel assembly that includes a core having first and second opposing major surfaces, a first laminate skin secured to the first major surface of the core, a second laminate skin secured to the second major surface of the core, and at least a first layer of polyimide aerogel incorporated into one of the first laminate skin or the second laminate skin.

Abstract: A panel assembly that includes a core having first and second opposing major surfaces, a first laminate skin secured to the first major surface of the core, a second laminate skin secured to the second major surface of the core, and at least a first layer of polyimide aerogel incorporated into one of the first laminate skin or the second laminate skin.

Abstract: A header unit for a reductant tank is provided. The header unit includes a reductant draw conduit extending into an interior space of the reductant tank. The reductant draw conduit is configured to draw a reductant from the reductant tank. The reductant draw conduit includes at least one expansion opening provided along a length thereof. The header unit also includes a valve element coupled to the reductant draw conduit. The valve element includes a main body member defining a channel therethrough. The main body member circumferentially surrounds at least a portion of the reductant draw conduit corresponding to the at least one expansion opening. The main body member is made of an elastomeric material configured to accommodate an expansion thereof.

Abstract: Certain exemplary embodiments provide a barrier comprising a shield unit that comprises of a bullet resistant material, such as metal, plastic, ceramic or a composite material. The shield unit can comprise one or more windows of a substantially transparent comprising a bullet resistant material, such as a bullet resistant plastic or glass. The shield unit can comprise an armaments port through which firearms can be shot. The shield unit can comprise two sets of wheels, one for transporting the shield unit with a motor vehicle to an active site, the second of which is used to move the shield unit after the shield unit is deployed at the active site.

Abstract: Certain exemplary embodiments provide a barrier comprising a shield unit that comprises of a bullet resistant material, such as metal, plastic, ceramic or a composite material. The shield unit can comprise one or more windows of a substantially transparent comprising a bullet resistant material, such as a bullet resistant plastic or glass. The shield unit can comprise an armaments port through which firearms can be shot. The shield unit can comprise two sets of wheels, one for transporting the shield unit with a motor vehicle to an active site, the second of which is used to move the shield unit after the shield unit is deployed at the active site.

Abstract: A knife assembly for a shredder includes a base and a knife cap coupled to the base. The knife cap is configured to cut a material passed through the shredder. In addition, a brazing material is positioned between the base and the knife cap to secure the base and the knife cap together. The base and the knife cap have generally the same outer footprint.

Abstract: A panel assembly that includes a core having first and second opposing major surfaces, a first laminate skin secured to the first major surface of the core, a second laminate skin secured to the second major surface of the core, and at least a first layer of polyimide aerogel incorporated into one of the first laminate skin or the second laminate skin.

Abstract: A knife assembly for a shredder includes a base and a knife cap coupled to the base. The knife cap is configured to cut a material passed through the shredder. In addition, a brazing material is positioned between the base and the knife cap to secure the base and the knife cap together. The base and the knife cap have generally the same outer footprint.

Abstract: Certain exemplary embodiments can provide a system, which can comprise an opposing pair of face sheets. Each of the opposing pair of face sheets can define a sheet longitudinal axis. The system can comprise a core adapted to separate and maintain a gap between the opposing pair of face sheets.

Abstract: Methods and apparatuses for passive jet blast deflection or the like. Use of the passive jet blast deflector permits the efficient dispersal of a fast moving local heat source into the environment through passive means while providing a high strength structure. The jet blast deflector system may include a first plate, a second plate, and a cellular core disposed between them adapted to allow cooling ambient air to flow through the cellular core, wherein the first plate, second plate, and core are all seamlessly coupled heat pipes that form a single vapor core to facilitate the spreading and even storing of thermal energy. An ejector plate may be attached to the top of the second plate to create a low pressure zone as the heat source passes over it, thereby pulling the ambient air through the cellular core, facilitating the removal the thermal energy from the system.

Abstract: Methods and apparatuses for passive jet blast deflection or the like. Use of the passive jet blast deflector permits the efficient dispersal of a fast moving local heat source into the environment through passive means while providing a high strength structure. The jet blast deflector system may include a first plate, a second plate, and a cellular core disposed between them adapted to allow cooling ambient air to flow through the cellular core, wherein the first plate, second plate, and core are all seamlessly coupled heat pipes that form a single vapor core to facilitate the spreading and even storing of thermal energy. An ejector plate may be attached to the top of the second plate to create a low pressure zone as the heat source passes over it, thereby pulling the ambient air through the cellular core, facilitating the removal the thermal energy from the system.

Abstract: A method of displaying an image includes receiving image data for the image; buffering the image data for the image, including creating a frame of the image; defining a first sub-frame and at least a second sub-frame for the frame of the image; and displaying the first sub-frame and the second sub-frame, including synchronizing shifting a displayed image of the second sub-frame with displaying the second sub-frame.

Abstract: A ceiling panel system includes a panel, a strut, a support, a fastener assembly configured to secure the strut and the support in spaced relation with at least a portion of the panel sandwiched therebetween, and means for securing the fastener assembly, with the portion of the panel sandwiched between the strut and the support, to a mounting surface. The panel is adjacent to the strut and the panel is positioned over a portion of the support. The fastener assembly includes a bolt having a head and a shaft, and a button for threadingly engaging the shaft. The securing means includes a mount, wherein the head is secured within a channel of the mount and the mount is secured to the mounting surface. The ceiling panel system may also include an edge cover and an edge molding. A method for installing the ceiling panel system is also disclosed.

Abstract: A method of displaying an image includes receiving image data for the image; buffering the image data for the image, including creating a frame of the image; defining a first sub-frame and at least a second sub-frame for the frame of the image; and displaying the first sub-frame and the second sub-frame, including synchronizing shifting a displayed image of the second sub-frame with displaying the second sub-frame.

Abstract: The invention interconnects stacks executing the same protocol in the same node by means of a software implemented input/output device, thereby eliminating the need for physical resources otherwise required for data communication between the stacks. First and second connection objects are built in the virtual device in association with the first and second stacks, respectively. An association is also built between the first and second connection objects, thereby enabling communication between the stacks via the first and second connection objects.

Abstract: Management of datastream construction prior to transmission of the datastream across a channel of a communications system by providing for data blocking while reducing movement or copying of the data improves the performance in a communications system. Multiple header segments received from a higher layer in the communications stack are copied into the datastream header area of a datastream such that the header segments are sequentially stored in the datastream header area. A datastream buffer list having entries referencing the datastream header area is generated. Buffer list entries referencing data segments received from higher layers in the communications stack are also stored in the datastream buffer list. The data segments are not physically moved or copied into the datastream during processing by the communications stack. Rather, a "virtual" datastream is generated by the communications stack for transmission without physically moving or copying the data segment.

Abstract: Management of the processing of relatively large data objects in a communications stack having multiple layers improves the performance in a communications system in preparing relatively large data objects for transmission across a communications network. This reduces or eliminates data movement and copying during segmentation of the relatively large data objects into relatively small data objects, and appendage of headers to the relatively small data object segments during processing in the communications stack. A shared storage manager creates and controls multiple tokens representing multiple images of portions of the relatively large data objects to enable separate scheduling of the multiple images from the same storage unit or buffer to be passed from one layer in a communications stack to the next lower layer in the communications stack. The large data object is segmented into a plurality of relatively small data object segments at one or more of the layers in the communications stack.