Abstract: Systems and methods for communicating with a radio frequency (RF) device are disclosed herein. In particular, a method of recovering an out-of-service node comprises sending a hailing message on a plurality of hailing channels from a second node to the out-of-service node, the second node being in direct wireless communication with the out-of-service node, and sending a synchronization request message from the second node to the out-of-service node on a first data channel.

Abstract: Systems and methods for distributing a firmware upgrade within a mesh network are provided. In one implementation, a firmware upgrade distributing system comprises a utility provider, which is configured to provide utility services to a plurality of customers, a plurality of meters, and a plurality of nodes. Each meter is configured to measure utility usage data of a respective customer. The nodes are configured to transmit the utility usage data from the plurality of meters to the utility provider. When at least one of the meters is scheduled to receive a firmware upgrade, the utility provider is configured to forward the firmware upgrade to at least one of the plurality of nodes. The at least one node is configured to receive and store the firmware upgrade and, after storing the firmware upgrade, is further configured to forward the firmware upgrade to at least one of the plurality of meters.

Abstract: Systems and methods for communicating with a radio frequency (RF) device are disclosed herein. In particular, a method of recovering an out-of-service node comprises sending a hailing message on a plurality of hailing channels from a second node to the out-of-service node, the second node being in direct wireless communication with the out-of-service node, and sending a synchronization request message from the second node to the out-of-service node on a first data channel.

Abstract: Systems and methods for communicating with a radio frequency (RF) device are disclosed herein. In particular, a method of the present disclosure includes: listening for a first hailing signal to be received on at least one hailing channel selected from a plurality of hailing channels, selecting at least one hailing channel based upon a system time and a node identification; determining a noise floor for the at least one hailing channel; and upon receiving a noise signal on the at least one hailing channel, adjusting the noise floor in response to the noise signal.

Abstract: The present disclosure relates to systems and methods for communicating with a radio frequency (RF) device. An exemplary method includes: sending to the RF device a hailing signal based on a system time; and sending to the RF device a data message.

Abstract: Systems and methods for distributing a firmware upgrade within a mesh network are provided. In one implementation, a firmware upgrade distributing system comprises a utility provider, which is configured to provide utility services to a plurality of customers, a plurality of meters, and a plurality of nodes. Each meter is configured to measure utility usage data of a respective customer. The nodes are configured to transmit the utility usage data from the plurality of meters to the utility provider. When at least one of the meters is scheduled to receive a firmware upgrade, the utility provider is configured to forward the firmware upgrade to at least one of the plurality of nodes. The at least one node is configured to receive and store the firmware upgrade and, after storing the firmware upgrade, is further configured to forward the firmware upgrade to at least one of the plurality of meters.

Abstract: The present disclosure relates to systems and methods for communicating with a radio frequency (RF) device. An exemplary method includes: sending to the RF device a hailing signal based on a system time; and sending to the RF device a data message.

Abstract: Systems and methods for communicating with a radio frequency (RF) device are disclosed herein. In particular, a method of the present disclosure includes: listening for a first hailing signal to be received on at least one hailing channel selected from a plurality of hailing channels, selecting at least one hailing channel based upon a system time and a node identification; determining a noise floor for the at least one hailing channel; and upon receiving a noise signal on the at least one hailing channel, adjusting the noise floor in response to the noise signal.