Abstract: Novel tools and techniques are provided for implementing route-based service chaining of applications. In various examples, after receiving a data packet, at least one router may determine a plurality of routes to a destination address associated with the data packet, based on route announcements advertised by a plurality of service applications. The at least one router may select each of the routes based on at least routing policies and local preference values associated with the plurality of routes. The at least one router may send the data packet to each service application in turn over routes among the plurality of routes from highest priority to lowest priority, with the data packet returning to the at least one router after traversing through a service application(s) along each route, until the data packet is sent over the final route to a customer device at the destination address.

Abstract: A mounting assembly that includes a support bracket, a mounting bracket coupled to the support bracket, and a clamping mechanism coupled to the support bracket. The mounting bracket includes a bar, a first arm, a second arm, and a plate. The first arm is coupled between the bar and to the mounting bracket. The second arm is coupled between the bar and the mounting bracket. The plate is coupled to the bar and spaced apart from the first end and the second end. The clamping mechanism includes a first rail, a first clamp movably coupled to the first rail, a second rail, and a second clamp movably coupled to the second rail. The bar is pivotable about a first axis and the plate is pivotable about a second axis independent from the bar being pivotable about the first axis. The first and second rails are independently movable.

Abstract: A millimeter wave (MMW) display arrangement is envisioned to comprise a MMW camera that has an array of single pixel MMW detectors that capture MMWs and pipe MMW intensity data, of the captured MMWs, to a display screen where an MMW picture is assembled from a plurality of MMW sub-images from different portions of a scene scanned by the MMW camera. Each of the MMW sub-images comprise a plurality of contrast cells each of which are produced from a corresponding single pixel MMW detector. The MMW camera constructs the MMW picture by changing perspectives of the scene by way of either moving the camera or by shifting positions of a mirror between the camera and scene.

Abstract: A millimeter wave (MMW) display arrangement is envisioned to comprise a MMW camera that has an array of single pixel MMW detectors that capture MMWs and pipe MMW intensity data, of the captured MMWs, to a display screen where an MMW picture is assembled from a plurality of MMW sub-images from different portions of a scene scanned by the MMW camera. Each of the MMW sub-images comprise a plurality of contrast cells each of which are produced from a corresponding single pixel MMW detector. The MMW camera constructs the MMW picture by changing perspectives of the scene by way of either moving the camera or by shifting positions of a mirror between the camera and scene.

Abstract: A millimeter wave (MMW) display arrangement is envisioned to comprise a MMW camera that has an array of single pixel MMW detectors that capture MMWs and pipe MMW intensity data, of the captured MMWs, to a display screen where an MMW picture is assembled from a plurality of MMW sub-images from different portions of a scene scanned by the MMW camera. Each of the MMW sub-images comprise a plurality of contrast cells each of which are produced from a corresponding single pixel MMW detector. The MMW camera constructs the MMW picture by changing perspectives of the scene by way of either moving the camera or by shifting positions of a mirror between the camera and scene.

Abstract: A millimeter wave (MMW) display arrangement is envisioned to comprise a MMW camera that has an array of single pixel MMW detectors that capture MMWs and pipe MMW intensity data, of the captured MMWs, to a display screen where an MMW picture is assembled from a plurality of MMW sub-images from different portions of a scene scanned by the MMW camera. Each of the MMW sub-images comprise a plurality of contrast cells each of which are produced from a corresponding single pixel MMW detector. The MMW camera constructs the MMW picture by changing perspectives of the scene by way of either moving the camera or by shifting positions of a mirror between the camera and scene.

Abstract: A millimeter wave (MMW) display arrangement is envisioned to comprise a MMW camera that has an array of single pixel MMW detectors that capture MMWs and pipe MMW intensity data, of the captured MMWs, to a display screen where an MMW picture is assembled from a plurality of MMW sub-images from different portions of a scene scanned by the MMW camera. Each of the MMW sub-images comprise a plurality of contrast cells each of which are produced from a corresponding single pixel MMW detector. The MMW camera constructs the MMW picture by changing perspectives of the scene by way of either moving the camera or by shifting positions of a mirror between the camera and scene.

Abstract: A millimeter wave (MMW) display arrangement is envisioned to comprise a MMW camera that has an array of single pixel MMW detectors that capture MMWs and pipe MMW intensity data, of the captured MMWs, to a display screen where an MMW picture is assembled from a plurality of MMW sub-images from different portions of a scene scanned by the MMW camera. Each of the MMW sub-images comprise a plurality of contrast cells each of which are produced from a corresponding single pixel MMW detector. The MMW camera constructs the MMW picture by changing perspectives of the scene by way of either moving the camera or by shifting positions of a mirror between the camera and scene.

Abstract: A millimeter wave (MMW) display arrangement is envisioned to comprise a MMW camera that has an array of single pixel MMW detectors that capture MMWs and pipe MMW intensity data, of the captured MMWs, to a display screen where an MMW picture is assembled from a plurality of MMW sub-images from different portions of a scene scanned by the MMW camera. Each of the MMW sub-images comprise a plurality of contrast cells each of which are produced from a corresponding single pixel MMW detector. The MMW camera constructs the MMW picture by changing perspectives of the scene by way of either moving the camera or by shifting positions of a mirror between the camera and scene.

Abstract: A system is disclosed for remotely determining patient compliance with an orthodontic device. This system includes a handheld portable computing device having a camera, and the handheld portable computing device is configured for communication via the Internet. A patient compliance application is executed by the handheld portable computing device, and an image analysis module is associated with the patient compliance application. The image analysis module receives an image from the camera, and the image analysis module analyzes the image to determine a presence status of the removable orthodontic device. The patient compliance application is further configured to communicate the presence status to an orthodontic provider at a remote location relative the user.

Abstract: An outdoor Wi-Fi bollard includes a bollard housing having a vertical tube with a vertical wall and top and bottom openings and a cap disposed over the top opening; a base disposed at the bottom opening; first and second vertical members inside the housing and extending adjacent the wall from the base to the top opening, the first and second vertical members including first and second lower ends, respectively, operably attached to the base; and a first brace attached to the first and second upper ends, the first and second vertical members including first and second upper ends, respectively, operably attached to the first brace.

Abstract: A vehicle has an internal combustion engine, a motor configured to propel the vehicle, and a supercharger. A mechanical connection is configured to transfer torque from at least one of the engine and machine to the supercharger. The supercharger is a single torque load on the mechanical connection. The vehicle further has a first clutch between the motor and engine and a second clutch between the motor and supercharger.

Abstract: A hanger assembly for clamping onto a T-bar of a suspended ceiling, the T-bar including a flange portion and a web portion, the hanger assembly including a first bracket for attaching to an access point, the first bracket including a first horizontal wall for hanging onto one section of the flange on one side of the web portion; a second bracket slidable with respect to the first bracket, the second bracket including a second horizontal wall for hanging onto another section of the flange portion on another side of the web portion; a first guideway and a second guideway attached to the first bracket; the second bracket is slidable toward or away from the first bracket along the first and second guideways; and a first spring to urge the second bracket toward the first bracket.

Abstract: A system is disclosed for remotely determining patient compliance with an orthodontic device. This system includes a handheld portable computing device having a camera, and the handheld portable computing device is configured for communication via the Internet. A patient compliance application is executed by the handheld portable computing device, and an image analysis module is associated with the patient compliance application. The image analysis module receives an image from the camera, and the image analysis module analyzes the image to determine a presence status of the removable orthodontic device. The patient compliance application is further configured to communicate the presence status to an orthodontic provider at a remote location relative the user.

Abstract: A vehicle includes an engine, an electric machine, and a controller. The electric machine is configured to start the engine. The controller is programmed to pre-flux the electric machine with current that has a magnitude that changes as temperature of the engine changes within a predefined range.

Abstract: Systems and methods for operating an engine that may be frequently stopped and restarted are described. In one example, an engine is rotated in small crankshaft angle increments and stopped after the engine is rotated through a predetermined actual total number of crankshaft degrees so that the engine position does not change when the engine reaches a desired position.

Abstract: A vehicle includes an engine, an electric machine, and a controller. The electric machine is configured to start the engine. The controller is programmed to pre-flux the electric machine with current that has a magnitude that changes as temperature of the engine changes within a predefined range.

Abstract: A vehicle has an internal combustion engine, a motor configured to propel the vehicle, and a supercharger. A mechanical connection is configured to transfer torque from at least one of the engine and machine to the supercharger. The supercharger is a single torque load on the mechanical connection. The vehicle further has a first clutch between the motor and engine and a second clutch between the motor and supercharger.

Abstract: Systems and methods for operating an engine that may be frequently stopped and restarted are described. In one example, an engine is rotated in small crankshaft angle increments and stopped after the engine is rotated through a predetermined actual total number of crankshaft degrees so that the engine position does not change when the engine reaches a desired position.

Abstract: An information handling system (IHS) includes a processor with a cache memory system. The processor includes a processor core with an L1 cache memory that couples to an L2 cache memory. The processor includes an arbitration mechanism that controls load and store requests to the L2 cache memory. The arbitration mechanism includes control logic that enables a load request to interrupt a store request that the L2 cache memory is currently servicing. When the L2 cache memory finishes servicing the interrupting load request, the L2 cache memory may return to servicing the interrupted store request at the point of interruption.