Abstract: A solution implementation system includes a solution registry with a corrective action for each of a plurality of predefined root causes of exception errors. The system receives communication data transmitted through a distributed network comprising a plurality of servers. An exception error is detected corresponding to a failed transmission of the communication data between communicatively coupled servers of the distributed network. A first root cause of the exception error is determined. Properties of the distributed network at the time of the detected exception error are determined. Using the solution registry, a first corrective action is determined for the first root cause that is associated with the determined properties of the distributed network at the time of the detected exception error. The first corrective action is automatically implemented to resolve the exception error.

Abstract: An exception resolution system determines that an exception error corresponding to a failed transmission of communication data between servers of a distributed network. Based in part on a shortest data transfer route associated with the exception error, a containerized test environment is generated with the minimum replica components needed to replicate the exception error. The containerized test environment can be used to test possible changes for resolving the exception error.

Abstract: A solution implementation system includes a solution registry with a corrective action for each of a plurality of predefined root causes of exception errors. The system receives communication data transmitted through a distributed network comprising a plurality of servers. An exception error is detected corresponding to a failed transmission of the communication data between communicatively coupled servers of the distributed network. A first root cause of the exception error is determined. Properties of the distributed network at the time of the detected exception error are determined. Using the solution registry, a first corrective action is determined for the first root cause that is associated with the determined properties of the distributed network at the time of the detected exception error. The first corrective action is automatically implemented to resolve the exception error.

Abstract: An exception resolution system determines that an exception error corresponding to a failed transmission of communication data between servers of a distributed network. Based in part on a shortest data transfer route associated with the exception error, a containerized test environment is generated with the minimum replica components needed to replicate the exception error. The containerized test environment can be sued to test possible changes for resolving the exception error.

Abstract: An exception-resolution monitoring system determines an exception error is detected corresponding to a failed transmission of a message between servers of a distributed network. Changes are monitored that are tested and implemented to correct the detected exception errors. An executable corrective action is determined based on the monitored changes. The executable action is stored for future use and linked to a root cause of the exception error and properties of the distributed network at the time of the exception error.

Abstract: An apparatus includes a first database, a memory, and first and second processors. The first database stores a list including a first identifier assigned to the first processor and a second identifier assigned to the second processor. The processors each randomly shuffle a copy of the list and place the first element of their shuffled copy in a third list. Each processor further determines that the first identifier appears a first number of times and the second identifier appears a second number of times in the third list, the first number greater than the second number. In response to determining that the first number is greater than the second number, the first processor copies data stored in a second database into the memory and sets a flag to true, while the second processor determines that the flag is set to true and accesses the data copy stored in the memory.