Abstract: A method for delivering notifications of software deprecations on an external unmanaged cloud environment is provided. The method may be implemented by at least one processor. The method may include gathering data from data sources hosted on an external unmanaged cloud environment but not serviced by the external unmanaged cloud environment; creating a data feed by aggregating the data gathered based on a predetermined criteria; streaming, via a network, the data feed to an internal managed cloud environment; storing the data feed in a data store on the internal managed cloud environment; joining the data feed with internal application data for at least one internal application on the internal managed cloud environment; and creating, based on the joined data, a backlog for delivering the notifications.

Abstract: A method for delivering notifications of software deprecations on an external unmanaged cloud environment is provided. The method may be implemented by at least one processor. The method may include gathering data from data sources hosted on an external unmanaged cloud environment but not serviced by the external unmanaged cloud environment; creating a data feed by aggregating the data gathered based on a predetermined criteria; streaming, via a network, the data feed to an internal managed cloud environment; storing the data feed in a data store on the internal managed cloud environment; joining the data feed with internal application data for at least one internal application on the internal managed cloud environment; and creating, based on the joined data, a backlog for delivering the notifications.

Abstract: Techniques are presented herein that combine a host-based analysis of an executable file on a host computer with a network-based analysis, i.e., an analysis of domain names to detect malware generated domain names that are used by the malicious executable files to establish malicious network connections. A server receives information from a host computer about an executable file that, when executed on the host computer, initiates a network connection. The server also receives information about the network connection itself. The server analyzes the information about the executable file to determine whether the executable file has a malicious disposition. Depending on a disposition of the executable file, the server analyzes the information about the network connection and determines whether the network connection is malicious.

Abstract: Techniques are presented herein that combine a host-based analysis of an executable file on a host computer with a network-based analysis, i.e., an analysis of domain names to detect malware generated domain names that are used by the malicious executable files to establish malicious network connections. A server receives information from a host computer about an executable file that, when executed on the host computer, initiates a network connection. The server also receives information about the network connection itself. The server analyzes the information about the executable file to determine whether the executable file has a malicious disposition. Depending on a disposition of the executable file, the server analyzes the information about the network connection and determines whether the network connection is malicious.

Abstract: A system includes a processor. The processor is configured to receive network traffic that includes a data block. The processor will generate a unique identifier (UID) for the file that includes a hash value corresponding to the file. The processor will determine whether the file is indicated as good or bad with the previously-stored UID. The processor will call a file-type specific detection nugget corresponding to the file's file-type to perform a full file inspection to detect whether the file is good or bad and store a result of the inspection together with the UID of the file, when the file is determined to be not listed in the previously-stored UIDs. The processor will not call the file-type specific detection nugget when the file's indicator is “good” or “bad” in the previously-stored UIDs. The processor will issue an alert about the bad file when the file's indicator is “bad”.

Abstract: A system includes a processor. The processor is configured to receive network traffic that includes a data block. The processor will generate a unique identifier (UID) for the file that includes a hash value corresponding to the file. The processor will determine whether the file is indicated as good or bad with the previously-stored UID. The processor will call a file-type specific detection nugget corresponding to the file's file-type to perform a full file inspection to detect whether the file is good or bad and store a result of the inspection together with the UID of the file, when the file is determined to be not listed in the previously-stored UIDs. The processor will not call the file-type specific detection nugget when the file's indicator is “good” or “bad” in the previously-stored UIDs. The processor will issue an alert about the bad file when the file's indicator is “bad”.

Abstract: An OSI layer 2 network device on the edge of a network such as a SAN is configured to replace the original source address of traffic entering the network with a known identifier or address, which is used to signify that entry point as the traffic source to the other nodes of the network. Nodes of the network recognize the new source address as a valid source address. The network device also maintains state (e.g., association of original source address with new source address/identifier) so as to translate addresses to enable reply traffic to be sent back to the original sender.

Abstract: An OSI layer 2 network device on the edge of a network such as a SAN is configured to replace the original source address of traffic entering the network with a known identifier or address, which is used to signify that entry point as the traffic source to the other nodes of the network. Nodes of the network recognize the new source address as a valid source address. The network device also maintains state (e.g., association of original source address with new source address/identifier) so as to translate addresses to enable reply traffic to be sent back to the original sender.

Abstract: An OSI layer 2 network device on the edge of a network such as a SAN is configured to replace the original source address of traffic entering the network with a known identifier or address, which is used to signify that entry point as the traffic source to the other nodes of the network. Nodes of the network recognize the new source address as a valid source address. The network device also maintains state (e.g., association of original source address with new source address/identifier) so as to translate addresses to enable reply traffic to be sent back to the original sender.

Abstract: A polarizer comprising at least one subwavelength optical microstructure that includes linear prisms, and wherein said microstructure is partially covered with a light-transmissive inhibiting surface.

Abstract: Described is a method and system in which storyboard objects coordinate the animation of multiple elements and/or media displayed on a computer graphics display. Storyboards relate properties of elements in an element tree to a timeline, such that the properties associated with a storyboard are animated/play together as a group by starting, stopping, seeking or pausing the storyboard. Triggers, such as controlled by user interaction with the displayed information, including property triggers that change values in response to a state change, and event triggers that fire events, may cause the storyboard to start, stop, pause and seek. Storyboards may be used in XAML-based programs, and may be directly associated with elements, or indirectly associated with elements via styles. Complex properties and changeables are supported. Media playback may be controlled via storyboards, and thereby coordinated with other media playback and/or animations.

Abstract: A structure includes a layer which includes a first cured portion and a second cured portion which are formed from a same light curable material. The first cured portion is cured to a first amount, and the second cured portion is cured to a second amount. The first amount is sufficiently different than the second amount to result in a visible discontinuity on the surface of the structure. A method for forming a pattern in a radiation curable material includes providing between a radiation source and the radiation curable material, a pattern that can block a portion of the radiation from the radiation source. The material is cured with radiation from the radiation source to form a pattern in the radiation curable material.

Abstract: A light-redirecting optical structure includes a first side and a second side, the first side including plurality of linear prisms having a visibly random shaped surface on the prisms and a plurality of cross-cut prisms on first side which are oriented at an angle such that it is greater than zero degrees but less than 180 degrees. A backlight wedge includes a stepped structure on a bottom side that decreases in size traversing the wedge away from a light source which is positioned at an end and having a visibly random shaped surface on said wedge.

Abstract: Optical structures and sheeting that include polyurea and method for forming same are proposed in accordance with aspects of the present invention. One and two-component layers can be used to form the optical structures. The optical structures can include microstructures formed from polyurea. The sheeting can include at least one of cube-corner prisms, open-faced cube-corner prisms, linear prisms, lenticular lenses, moth-eye structures, lenses, Fresnel lens arrays, lenses, and fish-eye lens arrays.

Abstract: In order to allow for application development without requiring extensive graphical design by software developers or extensive software knowledge by graphical designers, applications are separated into a view and a model. Properties in the view and properties in the model are associated through data binding, for example, via a data binding engine. This association allows views to be defined declaratively. Transformations may be necessary to allow the data binding. The data binding allows the data and functionality in the model to be used via the UI as defined in the view. Automatically generated UI and command binding are also enabled.

Abstract: Described is a method and system in which storyboard objects coordinate the animation of multiple elements and/or media displayed on a computer graphics display. Storyboards relate properties of elements in an element tree to a timeline, such that the properties associated with a storyboard are animated/play together as a group by starting, stopping, seeking or pausing the storyboard. Triggers, such as controlled by user interaction with the displayed information, including property triggers that change values in response to a state change, and event triggers that fire events, may cause the storyboard to start, stop, pause and seek. Storyboards may be used in XAML-based programs, and may be directly associated with elements, or indirectly associated with elements via styles. Complex properties and changeables are supported. Media playback may be controlled via storyboards, and thereby coordinated with other media playback and/or animations.