Apparatus, system, and method for integrated real time low-cost automatic load disaggregation, remote monitoring, and control

1. An apparatus for providing load disaggregation, remote monitoring, and controlling a plurality of loads, the apparatus comprising:

a universal embedded metering and control system (UEMCS) including,

a main device engine, including an embedded electronic control and safety module;

a communication module coupled to the main device engine;

a plurality of control modules, wherein the plurality of control modules is coupled to the plurality of loads; and

an expander coupled to the plurality of control modules and to the embedded electronic control and safety module, wherein the expander is configured to receive a control signal from the embedded electronic control and safety module and provide an output to at least one control module of the plurality of control modules based on the control signal; and

a universal storage and renewable energy interface (USREI) coupled to the UEMCS, the USREI configured to be coupleable to at least one renewable energy source and configured to provide energy output by the at least one renewable energy source to the UEMCS for output to at least one load of the plurality of loads,

wherein the main device engine is configured to

compare a measured energy output of the at least one renewable energy source to a power set point, and

perform a renewable energy source operation according to the comparison.

2. The apparatus of claim 1 , wherein the at least one control module of the plurality of control modules is configured to control input power to a particular load of the plurality of loads, wherein the particular load is coupled to the at least one control module.

3. The apparatus of claim 1 , wherein the expander of the UEMCS includes a demultiplexer.

4. The apparatus of claim 1 , wherein the renewable energy source operation comprises at least one of increasing or decreasing energy output by the at least one renewable energy source.

5. The apparatus of claim 1 , wherein the renewable energy source operation comprises publishing a renewable energy source deficiency notification.

6. The apparatus of claim 1 , wherein the communication module is configured to communicate with a device external to the UEMCS and to receive at least one set of firmware data from the device external to the UEMCS.

7. The apparatus of claim 6 , wherein the at least one set of firmware data contains firmware update data associated with at least one of the main device engine or the communication module, and wherein the at least a portion of the at least one set of firmware data contains an updated firmware.

8. The apparatus of claim 6 , wherein the at least one set of firmware data contains firmware update data associated with at least one of the main device engine or the communication module, and wherein the at least a portion of the at least one set of firmware data contains a downgraded firmware.

9. The apparatus of claim 1 , wherein the main device engine is configured to cause at least a portion of energy generated by the at least one renewable energy source to be transmitted to a power grid coupled to the apparatus.

10. A power distribution apparatus, comprising:

a conductive bus coupleable to a power grid;

a power meter and control device coupled to the conductive bus;

at least one universal control module coupled to the conductive bus and coupleable to a load of the power distribution apparatus;

an expander coupled to the at least one universal control module and to an embedded electronic control and safety module, wherein the expander is configured to receive a control signal from the embedded electronic control and safety module and provide an output to the at least one universal control module based on the control signal; and

a universal storage and renewable energy interface coupled to the power meter and control device and further connected to at least one renewable energy source,

wherein the power meter and control device is configured to

compare a measured energy output of the at least one renewable energy source to a power set point, and

perform a renewable energy source operation according to the comparison.

11. The power distribution apparatus of claim 10 , wherein the power distribution apparatus is configured to be coupleable to an existing power distribution panel.

12. The power distribution apparatus of claim 10 , wherein the power distribution apparatus includes a breaker processing engine configured to receive the control signal and to perform at least one circuit breaking operation responsive to the control signal, wherein the power distribution apparatus is configured to operate as a replacement to an existing power distribution panel.

13. A method for providing load disaggregation, remote monitoring, and controlling a plurality of loads in a system coupled to at least one renewable energy source and a power grid, the method comprising:

obtaining a current maximum power value associated with the plurality of loads coupled to the system and state of charge information relating to at least one power storage device;

determining a power set point for the power grid;

setting one or more power values associated with at least one load of the plurality of loads and the at least one power storage device;

measuring an energy output of the at least one renewable energy source;

comparing the measured energy output of the at least one renewable energy source to the power set point by determining whether excess power is currently being received from the at least one renewable energy source; and

performing a renewable energy source operation, wherein the renewable energy source operation includes adjusting a power output level of the at least one renewable energy source when it is determined that excess power is currently being received from the at least one renewable energy source.

14. The method of claim 13 , further comprising:

comparing a state of charge value of the at least one power storage device after determining that excess power is currently being received from the at least one renewable energy source; and

selectively providing charging power to the at least one power storage device when the state of charge value is below a predetermined threshold.

15. The method of claim 13 , further comprising:

determining whether insufficient power is currently being received from the at least one renewable energy source; and

selectively transmitting power from the at least one power storage device when it is determined that insufficient power is currently being received from the at least one renewable energy source.

16. The method of claim 15 , wherein the selectively transmitting power from the at least one power storage device comprises first obtaining a current state of charge value of the at least one power storage device, and transmitting power from the at least one power storage device when the current state of charge value exceeds a predetermined threshold.

17. The method of claim 13 , further comprising providing at least a portion of the excess power to the power grid when it is determined that excess power is currently being received from the at least one renewable energy source.

18. The method of claim 13 , further comprising selectively providing at least a portion of power stored by the at least one power storage device to the power grid.

19. The method of claim 13 , further comprising:

sorting a list of rules according to a rule priority associated with each rule of the list of rules, at least one of the rules relating to at least one of providing load disaggregation, remote monitoring, or controlling a plurality of loads;

selecting a current rule of the sorted list of rules;

determining whether a condition associated with the current rule is satisfied;

selectively determining whether action associated with the current rule may be performed without violating a higher priority rule of the list of rules;

selectively determining whether a partial action may be taken when it is determined that the action associated with the current rule may not be performed without violating the higher priority rule;

selectively performing at least one of the action associated with the current rule or the partial action; and

selecting a next rule of the sorted list of rules for determining whether a condition associated with the next rule is satisfied.