Abstract: A secure antenna chassis access for an information handling system reconfigurable antenna may comprise a chassis enclosing the information handling system including a top cover, and a rear chassis wall, an antenna mounting insertion slot within the rear chassis wall, a reconfigurable antenna grounding bracket with an internal mounting portion configured to mount internally to the chassis via an internal fastener, a hardwired antenna operably coupled to a Wireless Local Area Network (WLAN) network interface device of the information handling system via an electrically conductive wire to transceive data at or above 6 GHz frequency, the hardwired antenna operably disposed through the antenna mounting insertion slot of the rear chassis wall from the interior of the chassis and coupled to the reconfigurable antenna grounding bracket internally mounted to the chassis, and an antenna security cover enclosing the hardwired antenna and removable by internal access to the chassis.

Abstract: An information handling system includes a processor that provides a USB-2 channel and a USB-3 channel to a device. The device provides the USB-2 and -3 channels to selected ports. Each port includes a USB-3 enable setting. When the USB-3 enable setting for each particular USB port is in a first state, the associated device USB-3 channel is active, and when the USB-3 enable setting for each particular USB port is in a second state, the associated device USB-3 channel is inactive. The USB-3 enable setting for at least one of the USB ports is placed into the second state to reduce electromagnetic interference between the associated USB-3 channel and an antenna.

Abstract: A secure antenna chassis access for an information handling system reconfigurable antenna may comprise a chassis enclosing the information handling system including a top cover, and a rear chassis wall, an antenna mounting insertion slot within the rear chassis wall, a reconfigurable antenna grounding bracket with an internal mounting portion configured to mount internally to the chassis via an internal fastener, a hardwired antenna operably coupled to a Wireless Local Area Network (WLAN) network interface device of the information handling system via an electrically conductive wire to transceive data at or above 6 GHz frequency, the hardwired antenna operably disposed through the antenna mounting insertion slot of the rear chassis wall from the interior of the chassis and coupled to the reconfigurable antenna grounding bracket internally mounted to the chassis, and an antenna security cover enclosing the hardwired antenna and removable by internal access to the chassis.

Abstract: Described are a height adjust stand (HAS) for a display and an all in one computing device. The HAS includes a base. A riser assembly connects to the base, and angled greater than 90 degrees from vertical of the HAS. A lift plate in the riser assembly that includes an arm, the arm angled greater than 90 degrees from vertical of the HAS. The lift plate provides vertical travel for the display. A VESA assembly includes a mating component that fits into the opening of the arm. The VESA assembly including an internal hinge that provides tilt for the display. In an all in one computing device, a computing cartridge assembly is snapped into the back of the riser assembly.

Abstract: In one embodiment, a method for monitoring total power consumption of a component coupled to a riser card includes: capturing, by a power cable sensor, a first signal associated with a power cable; receiving, by a power monitor, the first signal from the power cable sensor via a first bus; determining, by the power monitor, a first power consumption level indicating a first voltage supplied to the component via the power cable; capturing, by a card slot sensor, a second signal associated with a card slot; receiving, by the power monitor, the second signal from the card slot sensor via a second bus; determining, by the power monitor, a second power consumption level indicating a second voltage supplied to the component via the card slot; and determining, by the power monitor, a total power consumption level associated with the component based on the first and the second power consumption levels.

Abstract: An information handling system includes a processor that provides a USB-2 channel and a USB-3 channel to a device. The device provides the USB-2 and -3 channels to selected ports. Each port includes a USB-3 enable setting. When the USB-3 enable setting for each particular USB port is in a first state, the associated device USB-3 channel is active, and when the USB-3 enable setting for each particular USB port is in a second state, the associated device USB-3 channel is inactive. The USB-3 enable setting for at least one of the USB ports is placed into the second state to reduce electromagnetic interference between the associated USB-3 channel and an antenna.

Abstract: An information handling system includes a processor that provides a USB-2 channel and a USB-3 channel to a device. The device provides the USB-2 and -3 channels to selected ports. Each port includes a USB-3 enable setting. When the USB-3 enable setting for each particular USB port is in a first state, the associated device USB-3 channel is active, and when the USB-3 enable setting for each particular USB port is in a second state, the associated device USB-3 channel is inactive. The USB-3 enable setting for at least one of the USB ports is placed into the second state to reduce electromagnetic interference between the associated USB-3 channel and an antenna.

Abstract: An information handling system includes a processor that provides a USB-2 channel and a USB-3 channel to a device. The device provides the USB-2 and -3 channels to selected ports. Each port includes a USB-3 enable setting. When the USB-3 enable setting for each particular USB port is in a first state, the associated device USB-3 channel is active, and when the USB-3 enable setting for each particular USB port is in a second state, the associated device USB-3 channel is inactive. The USB-3 enable setting for at least one of the USB ports is placed into the second state to reduce electromagnetic interference between the associated USB-3 channel and an antenna.

Abstract: An anti-fatigue mat is disclosed including a foam member and a gel member that each exhibit a different durometer. The foam member includes a support surface that supports the gel member atop the foam member. The foam member includes a foam ramp that extends outwardly downward from the gel member to a bottom surface of the foam member. A flexible cover layer is situated above the gel member and extends over the foam ramp so that the foam member and the flexible cover layer together encapsulatively seal the gel member therein. The flexible cover layer includes an indentation region situated substantially adjacent a gel/foam interface between the gel member and the foam member and further situated a predetermined distance from the peripheral edge of the mat in one embodiment. The bottom surface of the mat may include a non-slip surface to stabilize the mat on the particular surface that the mat covers.

Abstract: Method and apparatus for fabricating an anti-fatigue mat are disclosed. In one embodiment an anti-fatigue mat includes a foam member and a gel member, wherein each member exhibits a different durometer. The foam member includes a gel receiver that is configured with a geometry shaped to receive the gel member. A top fabric is situated on the top of the mat above the gel member and the foam member. A non-slip surface is provided on the bottom of the anti-fatigue mat. The gel member may be sealed within the mat by the foam member and the top fabric.