Abstract: A high frequency data recorder (“HFDR”) can include a first set of contacts, on a first side of the HFDR, that are pluggable into a first meter receptacle of a meter box, wherein the first meter receptacle provides a connection to a power supply and a connection to a load. The HFDR also includes a second set of contacts, on a second side of the HFDR, that form a second meter receptacle. The second meter receptacle provides another connection to the power supply and another connection to the load. The HFDR can further include a processor that accesses a non-transitory machine readable memory that stores instruction that when executed cause the processor to passively measures current downstream from the meter box. The HFDR still further includes a wireless transceiver that wirelessly transmits data characterizing the measured current.

Abstract: A system for monitoring power flow at a premises can include a smart meter that measures coarse power flow data for the premises. The coarse power flow data characterizes power consumption and/or power generation. The system can also include a power data recorder having a first transceiver that communicates with the smart meter via a first protocol. The power data recorder can have a second transceiver that communicates with a node on a data mesh network via a second protocol. The smart meter transmits the coarse power flow data to a node on a meter mesh network in response to polling for the coarse power flow data, and the smart meter transmits the coarse power flow data to the power data recorder via the first protocol in response to detecting a fault condition or after a time interval has expired. The power data recorder encapsulates the coarse power flow data.

Abstract: A system for monitoring power flow at a premises can include a smart meter that measures coarse power flow data for the premises. The coarse power flow data characterizes power consumption and/or power generation. The system can also include a power data recorder having a first transceiver that communicates with the smart meter via a first protocol. The power data recorder can have a second transceiver that communicates with a node on a data mesh network via a second protocol. The smart meter transmits the coarse power flow data to a node on a meter mesh network in response to polling for the coarse power flow data, and the smart meter transmits the coarse power flow data to the power data recorder via the first protocol in response to detecting a fault condition or after a time interval has expired. The power data recorder encapsulates the coarse power flow data.

Abstract: A high frequency data recorder (“HFDR”) can include a first set of contacts, on a first side of the HFDR, that are pluggable into a first meter receptacle of a meter box, wherein the first meter receptacle provides a connection to a power supply and a connection to a load. The HFDR also includes a second set of contacts, on a second side of the HFDR, that form a second meter receptacle. The second meter receptacle provides another connection to the power supply and another connection to the load. The HFDR can further include a processor that accesses a non-transitory machine readable memory that stores instruction that when executed cause the processor to passively measures current downstream from the meter box. The HFDR still further includes a wireless transceiver that wirelessly transmits data characterizing the measured current.

Abstract: A service ticket control can close an open service ticket for a field service visit to resolve a power outage experienced at a given customer premises. The open service ticket can be closed in response to usage data from a given smart meter at the customer premises indicating that the customer premises is consuming power above a predetermined threshold level. The service ticket control closes the open service ticket prior to a service crew assigned the service ticket arriving at the given customer premises.

Abstract: A service ticket control can close an open service ticket for a field service visit to resolve a power outage experienced at a given customer premises. The open service ticket can be closed in response to usage data from a given smart meter at the customer premises indicating that the customer premises is consuming power above a predetermined threshold level. The service ticket control closes the open service ticket prior to a service crew assigned the service ticket arriving at the given customer premises.