Abstract: Implementations of the disclosed subject matter provide systems and methods of assigning, at a server, a unique identifier to each of a plurality of devices communicatively coupled to one another and the server via a communications network. Each unique identifier may be converted to a device hash key by applying a hash function. A range of device hash keys of the plurality of devices may be split into N approximately equal sectors, where N is a prime number and each sector includes 1/N of the device hash keys of the plurality of the devices. K monitoring workers provided by the server may monitor the plurality of devices in an order based on the respective device hash key, where K is an integer.

Abstract: Implementations of the disclosed subject matter provide systems and methods of assigning, at a server, a unique identifier to each of a plurality of devices communicatively coupled to one another and the server via a communications network. Each unique identifier may be converted to a device hash key by applying a hash function. A range of device hash keys of the plurality of devices may be split into N approximately equal sectors, where N is a prime number and each sector includes 1/N of the device hash keys of the plurality of the devices. K monitoring workers provided by the server may monitor the plurality of devices in an order based on the respective device hash key, where K is an integer.

Abstract: Implementations of the disclosed subject matter provide systems and methods of assigning, at a server, a unique identifier to each of a plurality of devices communicatively coupled to one another and the server via a communications network. Each unique identifier may be converted to a device hash key by applying a hash function. A range of device hash keys of the plurality of devices may be split into N approximately equal sectors, where N is a prime number and each sector includes 1/N of the device hash keys of the plurality of the devices. K monitoring workers provided by the server may monitor the plurality of devices in an order based on the respective device hash key, where K is an integer.

Abstract: Implementations of the disclosed subject matter provide systems and methods of assigning, at a server, a unique identifier to each of a plurality of devices communicatively coupled to one another and the server via a communications network. Each unique identifier may be converted to a device hash key by applying a hash function. A range of device hash keys of the plurality of devices may be split into N approximately equal sectors, where N is a prime number and each sector includes 1/N of the device hash keys of the plurality of the devices. K monitoring workers provided by the server may monitor the plurality of devices in an order based on the respective device hash key, where K is an integer.

Abstract: Aspects of the technology include receiving (202) an event log of events, each that are associated with wall clock and uptime clock timestamps, and extracting (204) a currently analyzed event from the event log. Further, aspects include associating (208) a processor time to the currently analyzed event as a trusted event time if the event is the first event. Aspects include calculating (212) an elapsed time from wall clock times associated with an immediately preceding event and the currently analyzed event where the immediately preceding event is a boot log event. Further aspects can include calculating (214) the elapsed time from uptime clock times associated with the immediately preceding event and the currently analyzed event where the immediately preceding event is not a boot log event. Finally, aspects can include calculating (216) a trusted time by deducting the elapsed time from a trusted event time.

Abstract: Aspects of the technology include receiving (202) an event log of events, each that are associated with wall clock and uptime clock timestamps, and extracting (204) a currently analyzed event from the event log. Further, aspects include associating (208) a processor time to the currently analyzed event as a trusted event time if the event is the first event. Aspects include calculating (212) an elapsed time from wall clock times associated with an immediately preceding event and the currently analyzed event where the immediately preceding event is a boot log event. Further aspects can include calculating (214) the elapsed time from uptime clock times associated with the immediately preceding event and the currently analyzed event where the immediately preceding event is not a boot log event. Finally, aspects can include calculating (216) a trusted time by deducting the elapsed time from a trusted event time.