Abstract: Disclosed herein are system, method, and computer program product embodiments for multi-cluster distribution. In some embodiments, a server on a primary computing cluster receives an update to an object stored on the primary computing cluster and to be implemented by a secondary computing cluster. Furthermore, the server receives a request to distribute the object to the secondary computing cluster. The server further retrieves the object based on an object identifier or an identifier of the secondary computing cluster. Moreover, the server identifies the secondary computing cluster based on the object identifier or the identifier of the secondary computing cluster. The server then distributes the object to the secondary computing cluster via a persistent connection.

Abstract: Disclosed herein are system, method, and computer program product embodiments for multi-cluster boot-strapping. In some embodiments, a server residing on a primary computing cluster receives a first request to establish a temporary connection between the primary computing cluster and a secondary computing cluster. The server establishes the temporary connection between the primary computing cluster and the secondary computing cluster using the first set of credentials. Furthermore, the server receives a second request to establish a persistent connection between the primary computing cluster and the secondary computing cluster. The server establishes the persistent connection by transmitting a third request comprising the configuration settings to the secondary computing cluster thereby causing the secondary computing cluster to generate a second set of credentials corresponding to the primary computing cluster. The server receives and stores the second set of credentials.

Abstract: Disclosed herein are system, method, and computer program product embodiments for multi-cluster distribution. In some embodiments, a server on a primary computing cluster receives an update to an object stored on the primary computing cluster and to be implemented by a secondary computing cluster. Furthermore, the server receives a request to distribute the object to the secondary computing cluster. The server further retrieves the object based on an object identifier or an identifier of the secondary computing cluster. Moreover, the server identifies the secondary computing cluster based on the object identifier or the identifier of the secondary computing cluster. The server then distributes the object to the secondary computing cluster via a persistent connection.

Abstract: Systems and methods for dynamically integrating disparate computer-aided dispatch (CAD) systems are disclosed. The systems and methods provide bi-directional interoperability between disparate CAD systems and maintain stateful ongoing interactions between interconnected CAD systems. Information objects in one CAD system are associated and bound to related objects in other CAD systems through a centralized information hub that transforms data items intelligently to facilitate communication and interaction between the CAD systems connected to the hub. The described systems and methods maintain complete and current perspectives of all relevant information for each CAD system connected to the information hub, thereby eliminating the need for point-to-point intelligence maintained by the CAD systems about the other interconnected CAD systems.

Abstract: Systems and methods for dynamically integrating disparate computer-aided dispatch (CAD) systems are disclosed. The systems and methods provide bi-directional interoperability between disparate CAD systems and maintain stateful ongoing interactions between interconnected CAD systems. Information objects in one CAD system are associated and bound to related objects in other CAD systems through a centralized information hub that transforms data items intelligently to facilitate communication and interaction between the CAD systems connected to the hub. The described systems and methods maintain complete and current perspectives of all relevant information for each CAD system connected to the information hub, thereby eliminating the need for point-to-point intelligence maintained by the CAD systems about the other interconnected CAD systems.

Abstract: Systems and methods for dynamically integrating disparate computer-aided dispatch (CAD) systems are disclosed. The systems and methods provide bi-directional interoperability between disparate CAD systems and maintain stateful ongoing interactions between interconnected CAD systems. Information objects in one CAD system are associated and bound to related objects in other CAD systems through a centralized information hub that transforms data items intelligently to facilitate communication and interaction between the CAD systems connected to the hub. The described systems and methods maintain complete and current perspectives of all relevant information for each CAD system connected to the information hub, thereby eliminating the need for point-to-point intelligence maintained by the CAD systems about the other interconnected CAD systems.

Abstract: Systems and methods for dynamically integrating disparate computer-aided dispatch (CAD) systems are disclosed. The systems and methods provide bi-directional interoperability between disparate CAD systems and maintain stateful ongoing interactions between interconnected CAD systems. Information objects in one CAD system are associated and bound to related objects in other CAD systems through a centralized information hub that transforms data items intelligently to facilitate communication and interaction between the CAD systems connected to the hub. The described systems and methods maintain complete and current perspectives of all relevant information for each CAD system connected to the information hub, thereby eliminating the need for point-to-point intelligence maintained by the CAD systems about the other interconnected CAD systems.

Abstract: Methods and uses of RNAi-inducing agents for medicaments and treating or preventing a viral infection.