Abstract: Transforming a website for dynamic web content management includes identifying aspects of a static website that are to be under dynamic web content management, organizing the aspects of the static website in preparation for storing the aspects, and storing the aspects of the static website with a specific identifier.

Abstract: Embodiments of the present invention provide methods, systems, and computer program products for building an environment. Embodiments of the present invention can be used to allocate resources and build an environment such that the environment is built when a user is prepared to test one or more portions of code in the environment. Embodiments of the present invention can be used to reduce the “lag time” developers experience between waiting for the code to be built and for resources to be provisioned, and can also provide a less costly alternative to maintaining and operating dedicated environments.

Abstract: Transforming a website for dynamic web content management includes identifying aspects of a static website that are to be under dynamic web content management, organizing the aspects of the static website in preparation for storing the aspects, and storing the aspects of the static website with a specific identifier.

Abstract: An approach is provided in which an emergency electrical distribution system detects an environmental alert invoked by an environmental sensor located in a particular location of building structure. The emergency electrical distribution system selects specific electrical source connections in proximity to the environmental sensor and, in turn, terminates electrical power to selected specific electrical source connections.

Abstract: Embodiments of the present invention provide methods, systems, and computer program products for building an environment. Embodiments of the present invention can be used to allocate resources and build an environment such that the environment is built when a user is prepared to test one or more portions of code in the environment. Embodiments of the present invention can be used to reduce the “lag time” developers experience between waiting for the code to be built and for resources to be provisioned, and can also provide a less costly alternative to maintaining and operating dedicated environments.

Abstract: A collaborative computing device group operative under a shared multiple discrete desktop user interface is established from a first desktop of a first computing device and a different discrete desktop of a second computing device physically located in user visual proximity to the first computing device. A color-coded graphical representation of a user-interface control port that allows authorized cursor navigation to and from the second computing device is displayed on the first desktop oriented in a respective direction of the second computing device. A cursor of the second computing device is authorized to migrate, under control of a user of the second computing device, from the different discrete desktop through the color-coded graphical representation of the user-interface control port of the second computing device to the first desktop and the first computing device is controlled in accordance with visual navigation and control of the cursor of the second computing device.

Abstract: A terminal operating system includes one or more processors configured to obtain one or more parameters of non-propulsion-generating cargo vehicles and to determine which of the non-propulsion-generating cargo vehicles are to be included in a vehicle system assembled in a terminal or yard based on the one or more parameters. The one or more parameters include one or more of an earliest time of availability at which cargo equipment will be available in the terminal or yard, a safety operational characteristic, an efficiency operational characteristic of the one or more non-propulsion-generating cargo vehicles, and/or a priority parameter of the one or more non-propulsion-generating cargo vehicles. The one or more processors are configured to automatically direct equipment within the terminal or yard to assemble the vehicle system based on the one or more parameters.

Abstract: A non-interactive screen sharing session executing within a computing device can be identified. The device can be communicatively linked to different computing devices of the screen sharing session. The contents of the remote screen buffer can be analyzed to determine a graphical representation of a Uniform Resource Locator (URL) within the contents prior to presenting the contents of the buffer within the device. A visible information item can be extracted and a non-visible reference can be established from the representation. An area surrounding the representation including a position and dimensions of the representation within the contents can be determined. The representation of the URL can be replaced with an interactive element in real-time. The element can include the visible and non-visible reference. The contents of the buffer can be presented within an interface associated with the session of the device, responsive to the replacing.

Abstract: A collaborative computing device group operative under a shared multiple discrete desktop user interface is established from a first desktop of a first computing device and a different discrete desktop of a second computing device physically located in user visual proximity to the first computing device. A color-coded graphical representation of a user-interface control port that allows authorized cursor navigation to and from the second computing device is displayed on the first desktop oriented in a respective direction of the second computing device. A cursor of the second computing device is authorized to migrate, under control of a user of the second computing device, from the different discrete desktop through the color-coded graphical representation of the user-interface control port of the second computing device to the first desktop and the first computing device is controlled in accordance with visual navigation and control of the cursor of the second computing device.

Abstract: A collaborative computing device group operative under a shared multiple discrete desktop user interface is established from a first desktop of a first computing device and a different discrete desktop of a second computing device physically located in user visual proximity to the first computing device. A color-coded graphical representation of a user-interface control port that allows authorized cursor navigation to and from the second computing device is displayed on the first desktop oriented in a respective direction of the second computing device. A cursor of the second computing device is authorized to migrate, under control of a user of the second computing device, from the different discrete desktop through the color-coded graphical representation of the user-interface control port of the second computing device to the first desktop and the first computing device is controlled in accordance with visual navigation and control of the cursor of the second computing device.

Abstract: A non-interactive screen sharing session executing within a computing device can be identified. The device can be communicatively linked to different computing devices of the screen sharing session. The contents of the remote screen buffer can be analyzed to determine a graphical representation of a Uniform Resource Locator (URL) within the contents prior to presenting the contents of the buffer within the device. A visible information item can be extracted and a non-visible reference can be established from the representation. An area surrounding the representation including a position and dimensions of the representation within the contents can be determined. The representation of the URL can be replaced with an interactive element in real-time. The element can include the visible and non-visible reference. The contents of the buffer can be presented within an interface associated with the session of the device, responsive to the replacing.

Abstract: A non-interactive screen sharing session executing within a computing device can be identified. The device can be communicatively linked to different computing devices of the screen sharing session. The contents of the remote screen buffer can be analyzed to determine a graphical representation of a Uniform Resource Locator (URL) within the contents prior to presenting the contents of the buffer within the device. A visible information item can be extracted and a non-visible reference can be established from the representation. An area surrounding the representation including a position and dimensions of the representation within the contents can be determined. The representation of the URL can be replaced with an interactive element in real-time. The element can include the visible and non-visible reference. The contents of the buffer can be presented within an interface associated with the session of the device, responsive to the replacing.

Abstract: A computer-implemented method includes: monitoring, by a computing device, usage of an application by a user; detecting, by the computing device, satisfaction of a customization rule based on the monitored usage of the application; and customizing, by the computing device, the application based on the detecting. The customizing may include at least one of: adding a feature to a menu of the application, and adding at least one of a file and link associated with the added feature; and removing a feature from the menu of the application, and removing at least one of a file and a link associated with the removed feature.

Abstract: Systems and methods configured to facilitate multi-modal user inputs in lieu of physical input for a processing device configured to execute an application include obtaining non-physical input for processing device and the application, wherein the physical input comprises one or more of touch-based input and tilt input; processing the non-physical input to convert into appropriate physical input commands for the application; and providing the physical input commands to the processing device.

Abstract: Systems and methods configured to facilitate multi-modal user inputs in lieu of physical input for a processing device configured to execute an application include obtaining non-physical input for processing device and the application, wherein the physical input comprises one or more of touch-based input and tilt input; processing the non-physical input to convert into appropriate physical input commands for the application; and providing the physical input commands to the processing device.

Abstract: A computer-implemented method, a system, and software includes providing output from a touch-based device to an external display; detecting gestures from a user located away from and not physically touching the touch-based device; and translating the detected gestures into appropriate commands for the touch-based device. The systems and methods provide alternative control of touch-based devices such as mobile devices. The systems and methods can include a mobile device coupled to an external display device and controlled via user gestures monitored by a collocated sensor. Accordingly, the systems and methods allow users to operate applications (“apps”) on the mobile device displayed on the external display device and controlled without touching the mobile device using gestures monitored by the collocated sensor. This enables the wide variety of rich apps to be operated in a new manner.

Abstract: Embodiments of the present invention provide methods, systems, and computer program products for building an environment. Embodiments of the present invention can be used to allocate resources and build an environment such that the environment is built when a user is prepared to test one or more portions of code in the environment. Embodiments of the present invention can be used to reduce the “lag time” developers experience between waiting for the code to be built and for resources to be provisioned, and can also provide a less costly alternative to maintaining and operating dedicated environments.

Abstract: A wire singulating device includes a carrier member and a retention feature. The carrier member has a front edge and an opposite rear edge. The front edge defines an opening to a slot that extends at least partially towards the rear edge. The carrier member is configured to move relative to a wire bundle that includes plural wires such that the front edge engages the wire bundle. The slot is configured to receive one wire of the wire bundle therein. The retention feature is coupled to the carrier member and juxtaposed relative to the slot to retain the wire within the slot as the carrier member moves away from the wire bundle to separate the wire from the wire bundle.