Abstract: A method includes: accessing a set of hardware parameters characterizing an embedded device; identifying a set of supported container functions based on the set of hardware parameters; accessing a selection of container functions; identifying a set of selected container functions based on the selection of container functions and the set of supported container functions; generating a hardware abstraction layer (HAL) including a set of libraries supporting the set of selected container functions; generating a container runtime environment (CRE) configured to execute, at the embedded device, a containerized application via the HAL, the containerized application including the set of selected container functions; installing the HAL and the CRE onto the embedded device; installing the containerized application onto the embedded device via the CRE; and at the embedded device, executing the containerized application via the CRE and the HAL.

Abstract: A method includes: accessing a set of hardware parameters characterizing an embedded device; identifying a set of supported container functions based on the set of hardware parameters; accessing a selection of container functions; identifying a set of selected container functions based on the selection of container functions and the set of supported container functions; generating a hardware abstraction layer (HAL) including a set of libraries supporting the set of selected container functions; generating a container runtime environment (CRE) configured to execute, at the embedded device, a containerized application via the HAL, the containerized application including the set of selected container functions; installing the HAL and the CRE onto the embedded device; installing the containerized application onto the embedded device via the CRE; and at the embedded device, executing the containerized application via the CRE and the HAL.

Abstract: A method includes: accessing a set of hardware parameters characterizing an embedded device; identifying a set of supported container functions based on the set of hardware parameters; accessing a selection of container functions; identifying a set of selected container functions based on the selection of container functions and the set of supported container functions; generating a hardware abstraction layer (HAL) including a set of libraries supporting the set of selected container functions; generating a container runtime environment (CRE) configured to execute, at the embedded device, a containerized application via the HAL, the containerized application including the set of selected container functions; installing the HAL and the CRE onto the embedded device; installing the containerized application onto the embedded device via the CRE; and at the embedded device, executing the containerized application via the CRE and the HAL.

Abstract: A tool for removing a coating from an interior surface of a component. The tool includes a rotary device; a grinding attachment attached to the rotary device; a tool holder configured to: set an axial position of the grinding attachment coupled to the rotary device over the coating on the interior surface of the component; and set a radial position of the grinding attachment coupled to the rotary device, the radial position defining a cutting depth of the grinding attachment into the coating on the interior surface of the component; and a wheel assembly coupled to the tool holder for guiding the tool holder about an interior perimeter of the component.

Abstract: A method includes: accessing a set of hardware parameters characterizing an embedded device; identifying a set of supported container functions based on the set of hardware parameters; accessing a selection of container functions; identifying a set of selected container functions based on the selection of container functions and the set of supported container functions; generating a hardware abstraction layer (HAL) including a set of libraries supporting the set of selected container functions; generating a container runtime environment (CRE) configured to execute, at the embedded device, a containerized application via the HAL, the containerized application including the set of selected container functions; installing the HAL and the CRE onto the embedded device; installing the containerized application onto the embedded device via the CRE; and at the embedded device, executing the containerized application via the CRE and the HAL.

Abstract: A microprocessor carrier, comprising a frame comprising a metal. The first frame surrounds an aperture for receiving a microprocessor package. At least one hinge assembly is on a first frame edge, and at least one latch assembly is on a second frame edge. One or more alignment tabs coupled to the frame. The one or more alignment tabs extend orthogonally from at least one frame edge. The alignment tabs are to align the microprocessor package with a microprocessor socket. The hinge assembly and the latch assembly are to engage with a microprocessor loading mechanism coupled to a printed circuit board.

Abstract: A method includes: accessing a set of hardware parameters characterizing an embedded device; identifying a set of supported container functions based on the set of hardware parameters; accessing a selection of container functions; identifying a set of selected container functions based on the selection of container functions and the set of supported container functions; generating a hardware abstraction layer (HAL) including a set of libraries supporting the set of selected container functions; generating a container runtime environment (CRE) configured to execute, at the embedded device, a containerized application via the HAL, the containerized application including the set of selected container functions; installing the HAL and the CRE onto the embedded device; installing the containerized application onto the embedded device via the CRE; and at the embedded device, executing the containerized application via the CRE and the HAL.

Abstract: A head cover that can be worn by health care professionals is provided. The head cover includes a surgical cap portion and a bouffant cap portion. The surgical cap portion includes a top surface and a side panel secured to the top surface via a seam. Further, the bouffant cap portion is secured to a rear portion of the side panel, where the bouffant cap portion is maintained against the rear portion of the side panel in an undeployed state and is deployable from the rear portion of the side panel to contain a wearer's hair. As such, the head cover enables a wearer to secure his or her hair inside the bouffant cap as needed, yet bouffant cap portion does not cover the wearer's entire head, which minimizes the amount of heat that is trapped within the head cover and increases the level of comfort for the wearer.

Abstract: Cardiac anodal electrostimulation detection systems and methods are described, such as for distinguishing between cathodal-only capture and at least partially anodal capture (e.g., combined anodal and cathodal capture, or between two anodes of which only one captures nearby cardiac tissue, etc.).

Abstract: A microprocessor carrier, comprising a frame comprising a metal. The first frame surrounds an aperture for receiving a microprocessor package. At least one hinge assembly is on a first frame edge, and at least one latch assembly is on a second frame edge. One or more alignment tabs coupled to the frame. The one or more alignment tabs extend orthogonally from at least one frame edge. The alignment tabs are to align the microprocessor package with a microprocessor socket. The hinge assembly and the latch assembly are to engage with a microprocessor loading mechanism coupled to a printed circuit board.

Abstract: A head cover that can be worn by health care professionals is provided. The head cover includes a surgical cap portion and a bouffant cap portion. The surgical cap portion includes a top surface and a side panel secured to the top surface via a seam. Further, the bouffant cap portion is secured to a rear portion of the side panel, where the bouffant cap portion is maintained against the rear portion of the side panel in an undeployed state and is deployable from the rear portion of the side panel to contain a wearer's hair. As such, the head cover enables a wearer to secure his or her hair inside the bouffant cap as needed, yet bouffant cap portion does not cover the wearer's entire head, which minimizes the amount of heat that is trapped within the head cover and increases the level of comfort for the wearer.

Abstract: Cardiac anodal electrostimulation detection systems and methods are described, such as for distinguishing between cathodal-only capture and at least partially anodal capture (e.g., combined anodal and cathodal capture, or between two anodes of which only one captures nearby cardiac tissue, etc.).

Abstract: Cardiac anodal electrostimulation detection systems and methods are described, such as for distinguishing between cathodal-only capture and at least partially anodal capture (e.g., combined anodal and cathodal capture, or between two anodes of which only one captures nearby cardiac tissue, etc.).

Abstract: Cardiac anodal electrostimulation detection systems and methods are described, such as for distinguishing between cathodal-only capture and at least partially anodal capture (e.g., combined anodal and cathodal capture, or between two anodes of which only one captures nearby cardiac tissue, etc.).

Abstract: The disclosure provides a method of reducing or eliminating Neu5Gc in a cell culture or in a human subject. The method includes flooding the system with the human sialic acid i\7-acetylneuraminic acid (Neu5Ac) in glycosidically-bound or free form, or its precursor N-acetylmannosamine (ManNAc) in an amount sufficient to metabolically compete out the Neu5Gc, either as it enters the cells for the first time or when it recycles from break-down of preexisting cellular molecules. Additionally, Neu5Ac feeding results in reduction of Neu5Gc expression even in some animal cells capable of Neu5Gc production.

Abstract: A hair clip formed of a molded shape-memory plastic body having an elongate protruding tail with a pronounced bulge tapering to a distal point, the inward length of the tail following a slight arcuate curve to a sharp elbow, which doubles back on itself to a curved hook positioned approximately midway along the tail. The upwardly-turned hook terminates at a blunt point and generally defining a semi-circle. In use, the distal point of the elongate protruding tail is inserted under a lock of hair, and the bulged portion of the tail biased up and over the curved hook end such that the bulged portion of the tail seats itself within the contour of the open hook, firmly clamping the lock of hair therein. In addition, an ornamental assembly is removably attached to the curved hook end of said molded plastic body and extends from the device for aesthetics.

Abstract: An oxidation process for the production of alkenes and carboxylic acids from a feed comprising alkene and/or alkane, carbon monoxide, a molecular oxygen containing gas and optionally water in the presence of an oxidation catalyst in which the level of carbon monoxide is maintained between 1% and 20% by volume of the total feed to the reactor.

Abstract: An oxidation process for the production of alkenes and carboxylic acids from a feed comprising alkene and/or alkane, carbon monoxide, a molecular oxygen containing gas and optionally water in the presence of an oxidation catalyst in which the level of carbon monoxide is maintained between 1% and 20% by volume of the total feed to the reactor.