Abstract: Systems and methods are provided for a utility meter assembly including a plurality of meter components configured for measuring and collecting data, and including a transceiver operative for signal communications over a network; a faceplate, with meter reading information displayed on the front; an exterior cover; and an internal dipole antenna situated within the exterior cover. The internal dipole antenna is typically situated away from the meter components, so as to minimize interference by the meter components. The internal dipole antenna is typically tuned for optimal matching impedance in an 850 MHz or 1900 MHz receiving band, so that the desired receiving band Standing Wave Ration (SWR) is achieved, and also a specified minimum radiated power threshold is maintained.

Abstract: Systems and methods are described for simulating an internal antenna within a telemetry device. The simulator device includes a housing having at least one opening, wherein the housing is configured to accommodate close proximity placement of the telemetry device. The simulator device also includes a simulator or test antenna within the housing that corresponds to an internal antenna within a housing of the telemetry device. The simulator device further includes a radio frequency (RF) connector coupled to the simulator housing, for connection to a communication device. The simulator device also includes a fastening mechanism to secure the simulator device over the telemetry device so that the simulator antenna is adjacent to the internal antenna. The proximity of the simulator antenna to the internal antenna provides simulator device RF characteristics that simulate internal antenna RF characteristics.

Abstract: Systems and methods are provided for a utility meter assembly comprising: a plurality of meter components configured for measuring and collecting data, wherein the meter components include a transceiver operative for signal communications over a network; a faceplate, configured such that meter reading information is displayed on the front of the faceplate; an exterior cover configured to enclose the meter components and the faceplate, wherein the faceplate is forward of the plurality of meter components; and an internal dipole antenna situated within the exterior cover, wherein the internal dipole antenna is beyond the front of the faceplate and toward the front of the utility meter assembly. The internal dipole antenna is typically situated away from the meter components, so as to minimize interference by the meter components.

Abstract: A utility meter assembly comprising: a plurality of meter components configured for measuring and collecting data, the meter components including a transceiver operative for communications over a network; a faceplate, configured such that meter reading information is displayed on the front of the faceplate; an exterior cover configured to enclose the meter components and the faceplate, wherein the faceplate is forward of the plurality of meter components; an internal dipole antenna that is situated in a space defined between the faceplate and the exterior cover toward the front of the utility meter assembly; and a mounting bracket that supports the internal dipole antenna. The combined sub-assembly of the mounting bracket and the internal dipole antenna is typically situated away from the meter components, so as to minimize interference by the meter components, and thus achieve improved communications properties measured in isotropic sensitivity and radiated power.

Abstract: In one or more embodiments, an intelligent communications device is disclosed. In one embodiment, an apparatus is disclosed for controlling the operations of temperature-sensitive electronic devices in an enclosure, based on a requisite temperature range. The apparatus includes a main circuit board with a plurality of secondary circuit board connectors that are operative to connect secondary circuit boards to the main circuit board. The apparatus also includes one or more temperature sensors that are operative to sense temperature within the enclosure, and one or more selectively actuatable heating elements that are mounted to the main circuit board in proximity to the plurality of secondary circuit board connectors. Each heating element is operative to emit heat when actuated.

Abstract: In one or more embodiments, an intelligent communications device is disclosed. In one embodiment, a plurality of circuit boards are operative to perform communication functions in a network, where the device includes a first circuit board and a second circuit board. The device includes a first actuatable member that is operative to selectively activate circuitry on the second circuit board, where the first actuatable member has a toggle switch that is operative to disable power supplied to the second circuit board while the first circuit board retains power and is fully operative to perform communications functions. The device includes a second actuatable member that is operatively coupled to an enclosure and a detachable cover. The detachable cover is configured to raise an alert when an unauthorized entity attempts to access the circuitry.

Abstract: In one or more embodiments, an intelligent communications device is disclosed. In one embodiment, an apparatus for managing a network connection of the intelligent communications device is disclosed. The apparatus includes a communication module for monitoring the network connection through a first port that is independent of a network port. The first port is associated with a computer-executable application that is operative to detect failure of the network connection. The apparatus further includes a detection module for detecting a failure of the network connection at the network port and, in response to the failure, causing the intelligent communications device to reconnect to the network. The apparatus also includes a power supply module for iteratively power-cycling operation of the intelligent communications device in response to a failed network connection.

Abstract: In one embodiment, a system for extending IPSec communication over a wireless mesh network is disclosed. A VPN appliance is operative to establish an end-to-end communication tunnel with at least one of a plurality of wireless mesh gateways. The VPN appliance is configured for secure communication with at least one of the mesh gateways, by establishing an outer tunnel. At least one of the wireless mesh gateways is configured to establish connection with a plurality of wireless routers, where the wireless routers are configured to establish connection with a plurality of intelligent communication devices. Multiple paths exist for routing data packets from the plurality of mesh gateways to the plurality of intelligent communication devices. The VPN appliance is also configured to establish a plurality of inner tunnels nested within the outer tunnel.

Abstract: In one embodiment, a network device having a plurality of hardware interfaces is disclosed. The network device includes a central processing unit and a main circuit board. The main circuit board has expansion slots that receivably connect corresponding secondary circuit boards to the main circuit board. The main circuit board also has sensors for detecting predetermined parameters. A voltage regulator is operative to regulate one or more particular expansion slots, in response to detection of a predetermined parameter associated with respective slots.

Abstract: In one embodiment, an enclosure for electronic circuit boards and components is disclosed. The enclosure has a closable, weather-resistant housing that is sized and shaped to receive mounted circuitry in an enclosed space that is defined by a back wall and side walls extending outwardly from the back wall. The housing includes a detachable cover for covering and sealing the enclosed space. In one embodiment, the circuitry includes a planar electronic circuit board that is mounted within the enclosed space. The planar electronic circuit board has a subsection of power supply circuitry that is operative to receive electrical power from outside of the enclosure. The circuitry further includes power supply transformers and capacitors that operate from power received from outside the housing, and data processing and communications components that include a data processor and a data bus. The data bus is coupled to electronic circuit connectors.

Abstract: In one embodiment, a system is disclosed for development of computer-executable applications in a network having a central utility with one or more utility-level applications and a plurality of intelligent devices operatively connected to the central utility. Each of the intelligent devices has at least one computer-executable application for causing a computer to perform functions that include core functions for supporting active communication by the intelligent devices upstream to one or more of the utility-level applications at the central utility and/or supporting local communication by the intelligent devices with another one or more of the intelligent devices that are operatively connected via the network. At least one of the utility-level applications is executable at the central utility to communicate data downstream with at least one computer-executable application on the one or more intelligent devices via the network, and also to receive communication data.

Abstract: In one embodiment, an intelligent communications device for operating in a network is disclosed. The device includes a storage device having a plurality of partitions storing images for performing boot operations. The device also includes a detection module that is operative to detect a boot failure, and a first restoration module that is operative to restore an active image with a first backup image, in response to a detected boot failure from an active image. The device further includes a second restoration module that is operative to restore a second backup image in response to a detected boot failure after restoration from a first backup image. The device also includes a programmable processor that is programmed to cause execution of boot operations and functions performed by the detection module, first restoration module, and second restoration module.

Abstract: In one embodiment, a main circuit board includes a plurality of expansion slots that are operative to receive a corresponding plurality of expansion cards. The plurality of expansion slots include at least one first expansion slot configured at a first position on the main circuit board, that is operative to connect to at least one corresponding first expansion card. At least one second expansion slot configured at a second position on the main circuit board, and the second expansion slot is operative to connect to at least one corresponding second expansion card. The plurality of expansion cards includes at least one secondary expansion card that is different from the main circuit board and that is configured to be operatively coupled to at least one of the plurality of expansion slots. One or more particular expansion slots are selected for connecting one or more corresponding particular expansion cards, based on the size, dimensions, and/or function of the particular expansion cards to be connected.

Abstract: Systems and methods are provided for charging a super capacitor bank. One method provides for determining a charge voltage for the super capacitor bank, providing a charging current, limiting the charging current according to a corresponding worst case temperature within the super capacitor bank operating temperature range, limiting the charge voltage according to the worst case temperature, and turning off the charging current once the super capacitor bank is charged. One system provides a super capacitor bank for storing energy providing specified power demand to a circuit, a current charger providing charging current to the super capacitor bank, the charging current limited in accordance with a corresponding worst case temperature within the super capacitor bank operating temperature range, a voltage sense circuit to detect the super capacitor bank voltage, and a control to disconnect the current charger from the super capacitor bank once the super capacitor bank is charged.

Abstract: In one aspect, the present disclosure relates to a system for controlling a power load. In one exemplary embodiment, the system includes a processor capable of receiving a signal from a sensor, where the signal is related to an ambient temperature of the sensor. The processor is further capable of generating a control signal. The system further includes an 802.11X-based transceiver that is operatively connected to the processor and capable of communicating data received from an antenna to the processor. The system further includes a switch that is operatively connected to the processor, receiving the control signal from the processor, for switch controlling activation of a power load.

Abstract: In one aspect, the present disclosure relates to a method to read energy-related data in a power meter. In one exemplary embodiment, the method includes the step of sending a request message to an on-premise processor, directing the on-premise processor to read energy-related data from a power meter, using an 802.11 X-based wireless protocol. The method further includes the step of retrieving energy-related data stored in a memory of the power meter by the on-premise processor, using the 802.11 X-based wireless protocol, and the step of receiving a response message sent at a host processor, communicated from the on-premise processor, using the 802.11 X wireless protocol. The method further includes the step of recording the energy related data in a data structure in memory of the host processor, along with a date and time information.

Abstract: In one aspect, the disclosure relates to a system for managing power loads. In one exemplary embodiment, the system includes a management host processor storing a plurality of records associated with a plurality of power meters, that is operatively connected to a distribution network capable of sending and receiving messages of a first protocol. An on-premise processor is co-located with at least one of the plurality of power meters, and is operatively connected to the distribution network, for receiving messages of the first protocol from the management host processor. The on-premise processor includes an 802.11X-based wireless communications link interface for sending and receiving messages of a second protocol. A power load controller is associated with the power load and operatively communicates with the on-premise processor using 802.11X-based wireless communications to send and receive messages of the second protocol from the on-premise processor.

Abstract: Systems and methods are provided for the automatic configuration of digital utility meters. One embodiment provides for pre-producing digital devices, the digital devices comprising integrated module components, configured for communication with a data management system via a wireless network and further configured for monitoring capability, producing a list file associated with the digital devices and including identities for each integrated module component, activating a digital devices using the wireless network, and distributing deployment information to the digital device from at least one configuration server via the wireless network, including customer data for configuring the digital device and for registering the digital device with a transaction management system.

Abstract: Systems and methods are provided for the automatic configuration of digital utility meters. One embodiment provides for pre-producing digital devices, the digital devices comprising integrated module components, configured for communication with a data management system via a wireless network and further configured for monitoring capability, producing a list file associated with the digital devices and including identities for each integrated module component, activating a digital devices using the wireless network, and distributing deployment information to the digital device from at least one configuration server via the wireless network, including customer data for configuring the digital device and for registering the digital device with a transaction management system.

Abstract: Systems and methods are provided for charging a super capacitor bank. One method provides for determining a charge voltage for the super capacitor bank, providing a charging current, limiting the charging current according to a corresponding worst case temperature within the super capacitor bank operating temperature range, limiting the charge voltage according to the worst case temperature, and turning off the charging current once the super capacitor bank is charged. One system provides a super capacitor bank for storing energy providing specified power demand to a circuit, a current charger providing charging current to the super capacitor bank, the charging current limited in accordance with a corresponding worst case temperature within the super capacitor bank operating temperature range, a voltage sense circuit to detect the super capacitor bank voltage, and a control to disconnect the current charger from the super capacitor bank once the super capacitor bank is charged.