Abstract: A network security platform (NSP) device and interaction method are disclosed. The interaction method provides network packet analysis for secure transmission protocols using ephemeral keys or keys that are negotiated dynamically. The NSP may be part of an Intrusion Protection System, or firewall. The disclosed approach does not use man-in-the-middle proxy. Instead, it includes monitoring connections ends: client and/or server, to intercept the required data or negotiated (or changed) encryption keys. Decrypted data may be sent to an NSP sensor in a secure manner for analysis. Alternatively, intercepted keys used for the encrypt/decrypt operations may be sent to an NSP sensor in a secure manner every time they are changed. The NSP sensor may then use the obtained keys to decrypt traffic prior to providing it to the inspection engines. Embodiments focused on inbound traffic to a web server may coordinate between a web server and an NSP.

Abstract: There is disclosed in one example a method of a work node synchronously load balancing to a multi-node service having an expected maximum of n work nodes, including: provisioning a flow table having m bucket groups, m?1, the bucket groups including n slots each; enumerating a static integer self-identification id0; initializing the flow table with id0 in each slot; performing a discovery iteration, including: discovering a peer device; enumerating a static integer identification idx for the peer device; assigning idx to each slot corresponding to a home position for the peer device; and load balancing slots not assigned to a home position according to a deterministic algorithm; and discovering additional nodes and performing discovery iteration for the additional nodes.

Abstract: An incident management system for enterprise operations is disclosed. The system 100 includes an operational details collection module 110, a data processing module 120, an operational details analysis module 130, an anomaly detection module 140 and an incident recognition module 150 including an incident cause analysis sub-module 155 and an incident cause description sub-module 160. The system 100 collects enterprise operational details from an operational database, analyzes huge volumes of logs, KPIs, traces, and IT asset relationships using proprietary machine learning techniques to identify one or more abnormal patterns, one or more hidden issues, one or more cross-domain performance issues, and one or more unusual system behaviors. Also, the system correlates, in real-time, with a huge volume of logs, KPIs, and IT system topologies to understand the relationship between different symptoms and problems at the machine's speed to arrive at a root cause and impacts.

Abstract: Systems and methods for switching from a linearly distributed live content and/or internet stream to other contents are provided by aligning timing between contents. Break points may be programmed between diverse non-time synced source encoder of the respective contents to facilitate switching between contents. A first linear stream is caused to be provided. A switchover time to a second linear stream is then identified. The second linear stream is caused to be provided at the switchover time. In different embodiments, switching may occur between different number of contents using the described systems and methods. One or more streaming contents may be up-converted and/or down-converted in different streaming systems.

Abstract: Systems and methods for switching from a linearly distributed live content and/or internet stream to other contents are provided by aligning timing between contents. Break points may be programmed between diverse non-time synced source encoder of the respective contents to facilitate switching between contents. A first linear stream is caused to be provided. A switchover time to a second linear stream is then identified. The second linear stream is caused to be provided at the switchover time. In different embodiments, switching may occur between different number of contents using the described systems and methods. One or more streaming contents may be up-converted and/or down-converted in different streaming systems.

Abstract: There is disclosed in one example a method of a work node synchronously load balancing to a multi-node service having an expected maximum of n work nodes, including: provisioning a flow table having m bucket groups, m?1, the bucket groups including n slots each; enumerating a static integer self-identification id0; initializing the flow table with id0 in each slot; performing a discovery iteration, including: discovering a peer device; enumerating a static integer identification idx for the peer device; assigning idx to each slot corresponding to a home position for the peer device; and load balancing slots not assigned to a home position according to a deterministic algorithm; and discovering additional nodes and performing discovery iteration for the additional nodes.

Abstract: Systems and methods for switching from a linearly distributed live content and/or internet stream to other contents are provided by aligning timing between contents. Break points may be programmed between diverse non-time synced source encoder of the respective contents to facilitate switching between contents. A first linear stream is caused to be provided. A switchover time to a second linear stream is then identified. The second linear stream is caused to be provided at the switchover time. In different embodiments, switching may occur between different number of contents using the described systems and methods. One or more streaming contents may be up-converted and/or down-converted in different streaming systems.

Abstract: A first example network security platform disclosed herein is to store a cryptographic session key from a server, the cryptographic session key associated with an encrypted network traffic flow between the server and a client different from the first network security platform. This disclosed first example network security platform is also to access a query from a second network security platform requesting the cryptographic session key, and generate a response including the cryptographic session key to send to the second network security platform.

Abstract: A first example network security platform disclosed herein includes a platform selector to determine a platform selection value based on a first parameter value in a first message from a client and a second parameter value in a second message from a server, the first and second messages associated with establishment of an encrypted network traffic flow between the client and the server. The example first network security platform also includes a key retriever to obtain a cryptographic session key associated with the encrypted network traffic flow from a selected one of a cluster of network security platforms based on the platform selection value, the first network security platform included in the cluster of network security platforms. The example first network security platform further includes a traffic analyzer to analyze network traffic associated with the encrypted network traffic flow based on the cryptographic session key.

Abstract: A network security platform (NSP) device and interaction method are disclosed. The interaction method provides network packet analysis for secure transmission protocols using ephemeral keys or keys that are negotiated dynamically. The NSP may be part of an Intrusion Protection System, or firewall. The disclosed approach does not use man-in-the-middle proxy. Instead, it includes monitoring connections ends: client and/or server, to intercept the required data or negotiated (or changed) encryption keys. Decrypted data may be sent to an NSP sensor in a secure manner for analysis. Alternatively, intercepted keys used for the encrypt/decrypt operations may be sent to an NSP sensor in a secure manner every time they are changed. The NSP sensor may then use the obtained keys to decrypt traffic prior to providing it to the inspection engines. Embodiments focused on inbound traffic to a web server may coordinate between a web server and an NSP.

Abstract: A network security platform (NSP) device and interaction method are disclosed. The interaction method provides network packet analysis for secure transmission protocols using ephemeral keys or keys that are negotiated dynamically. The NSP may be part of an Intrusion Protection System, or firewall. The disclosed approach does not use man-in-the-middle proxy. Instead, it includes monitoring connections ends: client and/or server, to intercept the required data or negotiated (or changed) encryption keys. Decrypted data may be sent to an NSP sensor in a secure manner for analysis. Alternatively, intercepted keys used for the encrypt/decrypt operations may be sent to an NSP sensor in a secure manner every time they are changed. The NSP sensor may then use the obtained keys to decrypt traffic prior to providing it to the inspection engines. Embodiments focused on inbound traffic to a web server may coordinate between a web server and an NSP.

Abstract: A network security platform (NSP) device and interaction method are disclosed. The interaction method provides network packet analysis for secure transmission protocols using ephemeral keys or keys that are negotiated dynamically. The NSP may be part of an Intrusion Protection System, or firewall. The disclosed approach does not use man-in-the-middle proxy. Instead, it includes monitoring connections ends: client and/or server, to intercept the required data or negotiated (or changed) encryption keys. Decrypted data may be sent to an NSP sensor in a secure manner for analysis. Alternatively, intercepted keys used for the encrypt/decrypt operations may be sent to an NSP sensor in a secure manner every time they are changed. The NSP sensor may then use the obtained keys to decrypt traffic prior to providing it to the inspection engines. Embodiments focused on inbound traffic to a web server may coordinate between a web server and an NSP.

Abstract: A server enforces a policy for selecting what received change to process. The non-selected changes are not processed by the server. Instead, after the selected change is processed and is incorporated into the current version of the text, the server sends an update to each of the clients indicating the change made to the current version of text. A client performs a conflict resolution procedure when its change was not processed by the server. The conflict resolution procedure detects the differences between the updated text version and its text change that was not accepted by the server and uses the differences to deduce the intent of the user and come up with a merged version of the text which preserves the intent and avoids data loss. The updated version is then sent back to the server to update the current version of the text.

Abstract: There is provided a recall and triggering system and method for the control of on-air graphics at remote locations. The system including a television network and an affiliated station, the television network configured to insert a command into a video and transmit the video including the command to the affiliated station, and the affiliated station configured to receive the video including the command from the television network, store the video in the memory, detect the command from the video stored in the memory, retrieve the data from a database based on the command, modify the video using the data to generate a modified video, and transmit the modified video to a display device. The database may be stored in the memory of the affiliated station or on a separate server. The data may include graphics, content, databases, spreadsheets, tables, websites, news, or other graphical content.

Abstract: There is provided a recall and triggering system and method for the control of on-air graphics at remote locations. The system including a television network and an affiliated station, the television network configured to insert a command into a video and transmit the video including the command to the affiliated station, and the affiliated station configured to receive the video including the command from the television network, store the video in the memory, detect the command from the video stored in the memory, retrieve the data from a database based on the command, modify the video using the data to generate a modified video, and transmit the modified video to a display device. The database may be stored in the memory of the affiliated station or on a separate server. The data may include graphics, content, databases, spreadsheets, tables, websites, news, or other graphical content.

Abstract: A network security platform (NSP) device and interaction method are disclosed. The interaction method provides network packet analysis for secure transmission protocols using ephemeral keys or keys that are negotiated dynamically. The NSP may be part of an Intrusion Protection System, or firewall. The disclosed approach does not use man-in-the-middle proxy. Instead, it includes monitoring connections ends: client and/or server, to intercept the required data or negotiated (or changed) encryption keys. Decrypted data may be sent to an NSP sensor in a secure manner for analysis. Alternatively, intercepted keys used for the encrypt/decrypt operations may be sent to an NSP sensor in a secure manner every time they are changed. The NSP sensor may then use the obtained keys to decrypt traffic prior to providing it to the inspection engines. Embodiments focused on inbound traffic to a web server may coordinate between a web server and an NSP.

Abstract: A network security platform (NSP) device and interaction method are disclosed. The interaction method provides network packet analysis for secure transmission protocols using ephemeral keys or keys that are negotiated dynamically. The NSP may be part of an Intrusion Protection System, or firewall. The disclosed approach does not use man-in-the-middle proxy. Instead, it includes monitoring connections ends: client and/or server, to intercept the required data or negotiated (or changed) encryption keys. Decrypted data may be sent to an NSP sensor in a secure manner for analysis. Alternatively, intercepted keys used for the encrypt/decrypt operations may be sent to an NSP sensor in a secure manner every time they are changed. The NSP sensor may then use the obtained keys to decrypt traffic prior to providing it to the inspection engines. Embodiments focused on inbound traffic to a web server may coordinate between a web server and an NSP.

Abstract: A server enforces a policy for selecting what received change to process. The non-selected changes are not processed by the server. Instead, after the selected change is processed and is incorporated into the current version of the text, the server sends an update to each of the clients indicating the change made to the current version of text. A client performs a conflict resolution procedure when its change was not processed by the server. The conflict resolution procedure detects the differences between the updated text version and its text change that was not accepted by the server and uses the differences to deduce the intent of the user and come up with a merged version of the text which preserves the intent and avoids data loss. The updated version is then sent back to the server to update the current version of the text.

Abstract: A server enforces a policy for selecting what received change to process. The non-selected changes are not processed by the server. Instead, after the selected change is processed and is incorporated into the current version of the text, the server sends an update to each of the clients indicating the change made to the current version of text. A client performs a conflict resolution procedure when its change was not processed by the server. The conflict resolution procedure detects the differences between the updated text version and its text change that was not accepted by the server and uses the differences to deduce the intent of the user and come up with a merged version of the text which preserves the intent and avoids data loss. The updated version is then sent back to the server to update the current version of the text.

Abstract: Systems, methods and computer program products to insert frame accurate triggers in media programs, by receiving indication that a first tally, of a plurality of tallies, is active, the first tally corresponding to a media program, identifying a type of the first tally, generating a trigger based on the type of the first tally, and inserting a message in the media program responsive to the trigger.