Abstract: In an approach for controlling a computing device without mechanical buttons the computer detects an interaction with a touch capacitive sensing surface on a computing device. The computer determines that the detected interaction includes at least three interactions including at least two different touch capacitive sensing surfaces. The computer determines a virtual control button to display based on the detected interaction. The computer displays the determined virtual control button to the user. The computer receives an interaction with the displayed virtual control button. The computer implements an action associated with the determined virtual control button based on the received interaction.

Abstract: A configurable door panel cover includes a first face of a first door that is perforated and includes one or more attachment points, which one or more configurable panels may attach to. The configurable door panel cover includes a fastener assembly that includes at least one fastener that attaches to the configurable door panel cover, and a spacing mechanism. The spacing mechanism attaches to the fastener that is attached to the configurable door panel cover and to one of the one or more attachment points on the first face of the first door. The spacing mechanism attaches the first configurable door panel cover at a first orientation that includes a first angle between the configurable door panel cover and the first spacing mechanism. The fastener assembly may be rotated to the configurable door panel cover.

Abstract: In an approach for controlling a computing device without mechanical buttons the computer detects an interaction with a touch capacitive sensing surface on a computing device. The computer determines that the detected interaction includes at least three interactions including at least two different touch capacitive sensing surfaces. The computer determines a virtual control button to display based on the detected interaction. The computer displays the determined virtual control button to the user. The computer receives an interaction with the displayed virtual control button. The computer implements an action associated with the determined virtual control button based on the received interaction.

Abstract: Electronics rack door assemblies are provided to hingedly mount an air inlet or an air outlet side of an electronics rack, and be rotatable between closed and open positions. The door assembly includes a door frame, to hingedly mount to the electronics rack, with an opening to facilitate a flow of air through the electronics rack. The door assembly further includes an acoustical panel pivotably coupled to the door frame and aligned, at least in part, over the opening in the door frame. With the door frame hingedly mounted to the electronics rack at the air inlet or outlet side, the acoustical panel automatically pivots from an operation position relative to the door frame with the door frame in the closed position, to an at least partially collapsed position relative to the door frame with the door frame in the open position.

Abstract: In an approach to predicting user touch events, one or more computer processors receive a detected electromagnetic noise signal of an object. The one or more computer processors compare the detected electromagnetic noise signal of the object to one or more stored electromagnetic noise signals associated with one or more objects. Based, at least in part, on the comparison, the one or more computer processors determine the identity of the object. Responsive to determining the identity of the object, the one or more computer processors store metadata associated with at least one of the objects and an electromagnetic noise signal detection event. The one or more computer processors determine whether an amount of the metadata associated with the object meets a learning threshold. If the amount of metadata meets the learning threshold, the one or more computer processors predict a subsequent electromagnetic noise signal detection event associated with the object.

Abstract: A configurable door panel cover includes a first face of a first door that is perforated and includes one or more attachment points, which one or more configurable panels may attach to. The configurable door panel cover includes a fastener assembly that includes at least one fastener that attaches to the configurable door panel cover, and a spacing mechanism. The spacing mechanism attaches to the fastener that is attached to the configurable door panel cover and to one of the one or more attachment points on the first face of the first door. The spacing mechanism attaches the first configurable door panel cover at a first orientation that includes a first angle between the configurable door panel cover and the first spacing mechanism. The fastener assembly may be rotated to the configurable door panel cover.

Abstract: In an approach for controlling a computing device without mechanical buttons the computer detects an interaction with a touch capacitive sensing surface on a computing device. The computer determines that the detected interaction includes at least three interactions including at least two different touch capacitive sensing surfaces. The computer determines a virtual control button to display based on the detected interaction. The computer displays the determined virtual control button to the user. The computer receives an interaction with the displayed virtual control button. The computer implements an action associated with the determined virtual control button based on the received interaction.

Abstract: System and method for creating a machine vision application. A machine vision prototype comprising a plurality of machine vision steps specifying a machine vision image processing algorithm and associated parameters may be stored. The steps may be interpretable by an emulator to perform the specified image processing on an image by emulating or simulating execution of the steps on a hardware accelerator, e.g., a programmable hardware element or graphics processing unit. An emulator may emulate or simulate execution of the steps on the hardware accelerator, thereby generating image processing results, which may be displayed for validation of the emulating or simulating by a user. The prototype may be analyzed, and based on the analyzing, an estimate of resource usage or performance of the image processing algorithm for the hardware accelerator may be determined and displayed, and may be usable for target platform selection or modification of the image processing algorithm.

Abstract: A method and associated computer program product for providing targeted digital advertisements to a user. The method includes receiving a detected electromagnetic noise signal of one or more objects, comparing the detected electromagnetic noise signal to one or more stored electromagnetic noise signals associated with one or more objects, and determining an identity of the one or more objects based on the comparison between the detected electromagnetic noise signal the stored electromagnetic noise signals. The method further includes providing targeted digital advertisement(s) to the user based on the determined identity of the one or more objects.

Abstract: A product according to one embodiment includes a first bracket for coupling to a rail of a computer rack, and a bezel having a lock for selectively locking the bezel to the first bracket. A method according to another embodiment includes coupling a first bracket to a rail of a computer rack, and coupling a bezel to the first bracket. A system according to yet another embodiment includes a computer rack, a first bracket coupled to a rail of the computer rack, and a bezel having a lock for selectively locking the bezel to the first bracket.

Abstract: In an approach for controlling a computing device without mechanical buttons the computer detects an interaction with a touch capacitive sensing surface on a computing device. The computer determines that the detected interaction includes at least three interactions including at least two different touch capacitive sensing surfaces. The computer determines a virtual control button to display based on the detected interaction. The computer displays the determined virtual control button to the user. The computer receives an interaction with the displayed virtual control button. The computer implements an action associated with the determined virtual control button based on the received interaction.

Abstract: In an approach for controlling a computing device without mechanical buttons the computer detects an interaction with a touch capacitive sensing surface on a computing device. The computer determines that the detected interaction includes at least three interactions including at least two different touch capacitive sensing surfaces. The computer determines a virtual control button to display based on the detected interaction. The computer displays the determined virtual control button to the user. The computer receives an interaction with the displayed virtual control button. The computer implements an action associated with the determined virtual control button based on the received interaction.

Abstract: In an approach for controlling a computing device without mechanical buttons the computer detects an interaction with a touch capacitive sensing surface on a computing device. The computer determines that the detected interaction includes at least three interactions including at least two different touch capacitive sensing surfaces. The computer determines a virtual control button to display based on the detected interaction. The computer displays the determined virtual control button to the user. The computer receives an interaction with the displayed virtual control button. The computer implements an action associated with the determined virtual control button based on the received interaction.

Abstract: A structure of a server rack and sidecar combination. The structure may include; a server rack having an opening and a server door on a front side of the server rack; a sidecar mounted to a side of the server rack, the sidecar has an access area on a front side of the sidecar, wherein the server rack opening and the access area are accessible form a common side; an adapter mounted to the accessible common side, wherein the adapter does not restrict access to the server rack opening and the access area, the adapter has at least three vertical sides; and a cable management bar located within the at least three vertical sides.

Abstract: In an approach to predicting user touch events, one or more computer processors receive a detected electromagnetic noise signal of an object. The one or more computer processors compare the detected electromagnetic noise signal of the object to one or more stored electromagnetic noise signals associated with one or more objects. Based, at least in part, on the comparison, the one or more computer processors determine the identity of the object. Responsive to determining the identity of the object, the one or more computer processors store metadata associated with at least one of the objects and an electromagnetic noise signal detection event. The one or more computer processors determine whether an amount of the metadata associated with the object meets a learning threshold. If the amount of metadata meets the learning threshold, the one or more computer processors predict a subsequent electromagnetic noise signal detection event associated with the object.

Abstract: In an approach to predicting user touch events, one or more computer processors receive a detected electromagnetic noise signal of an object. The one or more computer processors compare the detected electromagnetic noise signal of the object to one or more stored electromagnetic noise signals associated with one or more objects. Based, at least in part, on the comparison, the one or more computer processors determine the identity of the object. Responsive to determining the identity of the object, the one or more computer processors store metadata associated with at least one of the objects and an electromagnetic noise signal detection event. The one or more computer processors determine whether an amount of the metadata associated with the object meets a learning threshold. If the amount of metadata meets the learning threshold, the one or more computer processors predict a subsequent electromagnetic noise signal detection event associated with the object.

Abstract: A structure of a server rack and sidecar combination. The structure may include; a server rack having an opening and a server door on a front side of the server rack; a sidecar mounted to a side of the server rack, the sidecar has an access area on a front side of the sidecar, wherein the server rack opening and the access area are accessible form a common side; an adapter mounted to the accessible common side, wherein the adapter does not restrict access to the server rack opening and the access area, the adapter has at least three vertical sides; and a cable management bar located within the at least three vertical sides.

Abstract: A structure of a server rack and sidecar combination. The structure may include; a server rack having an opening and a server door on a front side of the server rack; a sidecar mounted to a side of the server rack, the sidecar has an access area on a front side of the sidecar, wherein the server rack opening and the access area are accessible form a common side; an adapter mounted to the accessible common side, wherein the adapter does not restrict access to the server rack opening and the access area, the adapter has at least three vertical sides; and a cable management bar located within the at least three vertical sides.