Granted Patent B2

US 12,583,352 · App. 17/793,300 · Granted Mar 24, 2026

Inventors: Hassan Shahriar (Toronto, CA); Amgad El-Deib (Toronto, CA)

Assignee: Adaptr, Inc.

B60L53/66B60L55/00H02J3/322H02J3/381

Abstract

Claims (61)

1 . A system comprising:

a plurality of nano-grids, each nano-grid being air-gapped from any energy storage station for charging or discharging at least one stored energy vehicle (SEV), each SEV having a vehicle computing device and a vehicle storage device for storing an electrical energy payload, and including a nano-grid storage appliance configured to store electricity for the nano-grid discharged from the electrical energy payload of the SEV and a nano-grid computing device comprising a processor configured to execute software programming of a nano-grid controller; and

a grid-control server in communication with a plurality of client computing devices including each nano-grid computing device and configured to execute software programming of a grid controller, wherein the grid controller, when executed by the grid-control server, is configured to:

receive, from one or more data sources, energy data associated with the plurality of client computing devices in communication with the grid-control server;

determine an energy requirement including an amount of energy for the nano-grid based upon the energy data received from the one or more data sources;

generate an SEV schedule of one or more SEVs for the plurality of nano-grids indicating the amount of energy of the energy requirement of each particular nano-grid; and

transmit to the vehicle computing device of an SEV an instruction to discharge the amount of energy to the nano-grid storage appliance and geographic data for the nano-grid.

2 . The system according to claim 1 , wherein the grid-control server is further configured to:

receive an indication from the nano-grid controller that the nano-grid storage appliance has received the amount of energy of the energy requirement; and

update a database to indicate the amount of energy discharged to the nano-grid.

3 . The system according to claim 1 , wherein the grid-control server is further configured to:

determine an energy surplus including a surplus amount of energy for a second nano-grid based upon the energy data received from the one or more data sources; and

transmit to the vehicle computing device a second instruction to charge, from a second nano-grid storage appliance of the second nano-grid, the surplus amount of energy.

4 . The system according to claim 1 , wherein the plurality of client computing devices in communication with the grid-control server further includes an energy supply server coupled to a central energy storage station, and

wherein the grid-control server is further configured to:

receive the energy data associated with the central energy storage station from the energy supply server; and

update a database to include a centralized amount of energy at one or more central energy storage stations.

5 . The system according to claim 4 , wherein the one or more data sources includes a source of meteorological data, and wherein the grid-control server is further configured to:

receive meteorological data from an external server hosting the meteorological data;

and identify one or more energy storage appliances associated with a weather event at a forecasted time as indicated by the meteorological data, based upon the geographic data for each of the one or more energy storage appliances, wherein the grid-control server determines the energy requirement for the one or more energy storage appliances associated with the weather event responsive to the grid-control server identifying the one or more energy storage appliances, and

wherein the grid-control server transmits to the vehicle computing device the instruction to discharge the amount of energy to the one or more energy storage appliances associated with the weather event in accordance with the forecasted time.

6 . The system according to claim 1 , wherein the vehicle computing device is configured to:

monitor a state of charge of the vehicle storage device; and

instruct the vehicle storage device to charge or discharge a predetermined amount of energy at one or more nano-grids of the plurality of nano-grids, wherein an amount of voltage for the predetermined amount of energy is not increased for delivery to each geographic location of the one or more nano-grids.

7 . The system according to claim 1 , wherein the grid-control server is further configured to:

receive the energy requirement from an end-consumer computer via the nano-grid controller, wherein the energy requirement includes a request for the amount of energy for the nano-grid.

8 . The system according to claim 1 , wherein the grid-control server is further configured to:

determine a route for the SEV associated with the vehicle computing device based upon the geographic data for one or more nano-grids and meteorological data received from the one or more data sources.

9 . A computer-implemented method for controlling mobile energy grid subsystems, the method comprising:

receiving from one or more data sources, by a grid-control server executing grid controller software, energy data associated with a plurality of nano-grids, each nano-grid being air gapped from any energy storage station for charging or discharging at least one stored energy vehicle (SEV), each SEV having a vehicle computing device and a vehicle storage device for storing an electrical energy payload, and a plurality of client computing devices in communication with the grid-control server;

determining, by the grid-control server, an energy requirement including an amount of energy for a nano-grid based upon the energy data for the nano-grid received from the one or more data sources;

generating, by the grid-control server, an SEV schedule of one or more SEVs for the plurality of nano-grids indicating the amount of energy of the energy requirement of each particular air-gapped nano-grid; and

transmitting, by the grid-control server, to the vehicle computing device of an SEV an instruction to discharge the amount of energy to a nano-grid storage appliance of the nano-grid and geographic data for the nano-grid, the nano-grid storage appliance configured to store electricity for the nano-grid discharged from the electrical energy payload of the SEV.

10 . The method according to claim 9 , further comprising:

receiving, by the grid-control server, an indication from the nano-grid controller that the nano-grid storage appliance has received the amount of energy of the energy requirement;

and updating, by the grid-control server, a database to indicate the amount of energy discharged to the nano-grid.

11 . The method according to claim 9 , further comprising:

determining, by the grid-control server, an energy surplus including a surplus amount of energy for a second nano-grid based upon the energy data received from the one or more data sources; and

transmitting, by the grid-control server, to the vehicle computing device a second instruction to charge, from a second nano-grid storage appliance of the second nano-grid, the surplus amount of energy.

12 . The method according to claim 9 , wherein the plurality of client computing devices in communication with the grid-control server further includes an energy supply server coupled to a central energy storage station, and

wherein the method further comprises:

receiving, by the grid-control server, the energy data associated with the central energy storage station from the energy supply server; and

updating, by the grid-control server, a database to include a centralized amount of energy at one or more central energy storage stations.

13 . The method according to claim 12 , further comprising transmitting, by the grid-control server, to the vehicle computing device a second instruction to charge from the central energy storage station the amount of energy of the energy requirement.

14 . The method according to claim 9 , wherein the grid-control server receives from the vehicle computing device a state of charge of the vehicle storage device in the energy data, and instructs the vehicle computing device to charge or discharge energy for the vehicle storage device.

15 . The method according to claim 9 , further comprising receiving, by the grid-control server, the energy requirement from the nano-grid controller, the energy requirement including a request for the amount of energy for the nano-grid.

16 . The method according to claim 9 , further comprising determining, by the grid-control server, a route for the vehicle computing device based upon the geographic data for one or more nano-grids and meteorological data received from the one or more data sources.

17 . A system comprising:

a grid-control server configured to execute software programming of a grid controller and in communication with a plurality of client computing devices, including a plurality of nano-grid computing devices; and

a plurality of nano-grids, each nano-grid being air-gapped from any energy storage station for charging at least one stored energy vehicle (SEV), each SEV having a vehicle computing device and a vehicle storage device for storing an electrical energy payload, and including a nano-grid storage appliance configured to store electricity for the nano-grid discharged from the electrical energy payload of the SEV and a nano-grid computing device comprising a processor configured to execute software programming of a nano-grid controller, wherein the nano-grid controller when executed by the nano-grid computing device is configured to:

transmit a scheduling request for an SEV, the scheduling request containing energy data indicating an energy requirement associated with the nano-grid to the grid-control server;

update the energy data associated with the nano-grid to include an additional amount energy, responsive to the nano-grid storage appliance receiving from a vehicle storage appliance of the SEV an electric charge of the additional amount of energy corresponding to the energy data according to an SEV schedule from the grid-control server for the at least one SEV including the SEV; and

transmit to the grid-control server an indication that the nano-grid storage appliance has received the amount of energy from the vehicle storage appliance.

18 . The system according to claim 17 , wherein the nano-grid controller is further configured to determine an energy requirement for the nano-grid based upon the energy data, wherein the energy data includes a consumption rate and a current state of charge of the nano-grid storage appliance, and

wherein the energy data transmitted to the grid-control server includes a request for the energy requirement.

19 . The system according to claim 17 , wherein the nano-grid controller is configured to:

determine an energy surplus for the nano-grid based upon the energy data for the nano-grid, wherein the energy data includes a consumption rate and a state of charge of the nano-grid storage appliance; and

receive from the grid-control server an instruction to discharge the energy surplus to the vehicle storage appliance.

20 . The system according to claim 17 , further comprising a nano-grid energy generator configured to generate additional energy and store the additional energy into the nano-grid storage appliance, wherein the nano-grid controller is configured to:

update the energy data for the nano-grid according to the additional energy, responsive to detecting the additional energy in the nano-grid storage appliance; and

transmit the energy data indicating the additional energy to the grid-control server.

Assignments (1)

Continuity (2)

References Cited (17)