Abstract: In a network capable of handling a number of concurrent network connections between network nodes, referred to as client and server, the client and server connection managers are customized by adding respective status handler components which add server status information requests, from client to server, and responsive status information, from server to client into message headers of messages being sent between the server and client. The supported server status information types for any given connection are defined when a connection is established through dialogue between the client and server, and then persist for the lifetime of the connection. The customizations of the server and client connection managers are modest and the increase in network traffic over the connection is proportionally very small. Moreover, status information requests can be processed and responded to quickly by attaching to messages that are being sent between the nodes.

Abstract: In a network capable of handling a number of concurrent network connections between network nodes, referred to as client and server, the client and server connection managers are customized by adding respective status handler components which add server status information requests, from client to server, and responsive status information, from server to client into message headers of messages being sent between the server and client. The supported server status information types for any given connection are defined when a connection is established through dialogue between the client and server, and then persist for the lifetime of the connection. The customizations of the server and client connection managers are modest and the increase in network traffic over the connection is proportionally very small. Moreover, status information requests can be processed and responded to quickly by attaching to messages that are being sent between the nodes.

Abstract: Embodiments of the present invention provide efficient systems and methods for scaling past the Java Virtual Machine (JVM) thread limit in a Java Virtual Machine. Embodiments of the present invention can be used to ensure that a received workload is executed, even if the workload is greater than a JVM thread limit of the system, by spawning a reduced number of threads from a main process, in order to provide enough resources for the effective execution of a received workload.

Abstract: Embodiments of the present invention provide efficient systems and methods for scaling past the Java Virtual Machine (JVM) thread limit in a Java Virtual Machine. Embodiments of the present invention can be used to ensure that a received workload is executed, even if the workload is greater than a JVM thread limit of the system, by spawning a reduced number of threads from a main process, in order to provide enough resources for the effective execution of a received workload.

Abstract: Embodiments of the present invention provide efficient systems and methods for scaling past the Java Virtual Machine (JVM) thread limit in a Java Virtual Machine. Embodiments of the present invention can be used to ensure that a received workload is executed, even if the workload is greater than a JVM thread limit of the system, by spawning a reduced number of threads from a main process, in order to provide enough resources for the effective execution of a received workload.

Abstract: Embodiments of the present invention provide efficient systems and methods for scaling past the Java Virtual Machine (JVM) thread limit in a Java Virtual Machine. Embodiments of the present invention can be used to ensure that a received workload is executed, even if the workload is greater than a JVM thread limit of the system, by spawning a reduced number of threads from a main process, in order to provide enough resources for the effective execution of a received workload.

Abstract: Embodiments of the present invention provide efficient systems and methods for scaling past the Java Virtual Machine (JVM) thread limit in a Java Virtual Machine. Embodiments of the present invention can be used to ensure that a received workload is executed, even if the workload is greater than a JVM thread limit of the system, by spawning a reduced number of threads from a main process, in order to provide enough resources for the effective execution of a received workload.

Abstract: Embodiments of the present invention provide efficient systems and methods for scaling past the Java Virtual Machine (JVM) thread limit in a Java Virtual Machine. Embodiments of the present invention can be used to ensure that a received workload is executed, even if the workload is greater than a JVM thread limit of the system, by spawning a reduced number of threads from a main process, in order to provide enough resources for the effective execution of a received workload.

Abstract: Embodiments of the present invention provide efficient systems and methods for scaling past the Java Virtual Machine (JVM) thread limit in a Java Virtual Machine. Embodiments of the present invention can be used to ensure that a received workload is executed, even if the workload is greater than a JVM thread limit of the system, by spawning a reduced number of threads from a main process, in order to provide enough resources for the effective execution of a received workload.