Nanogrid device for off-grid power
A nanogrid device for off-grid power includes a housing and a plurality of energy-receiving components coupled to the housing. The energy-receiving components are movable relative to the housing from a first, stored position to a second, fully deployed position. The energy-receiving components are configured to form an A-frame structure in the second, fully deployed position, and the housing is configured to be disposed underneath the A-frame structure in the second, fully deployed position.
1. A nanogrid device for off-grid power, the nanogrid device comprising:
a housing having a first side portion and a second side portion disposed opposite the first side portion; and
a plurality of energy-receiving components movable relative to the housing from a first, stored position to a second, fully deployed position, the plurality of energy receiving components comprising at least a first stack of energy-receiving components that are slidable relative to one another and coupled to the first side portion of the housing and a second stack of energy-receiving components that are slidable relative to one another and coupled to the second side portion of the housing, wherein each of the first stack of energy receiving components and the second stack of energy-receiving components has a top edge;
wherein the each of the energy-receiving components of the first stack of energy-receiving components and each of the energy-receiving components of the second stack of energy-receiving components is a solar door having a first surface and a second surface, and
wherein the top edge of the firsts stack of energy-receiving components is disposed in contact with the top edge of the second stack of energy receiving components at an apex to thereby form an A-frame structure in the second, fully deployed position, and wherein the housing is configured to be disposed underneath the A-frame structure in the second, fully deployed position.
2. The nanogrid device of claim 1 , wherein each of the solar doors includes a solar panel disposed on the first surface thereof.
3. The nanogrid device of claim 1 , further comprising an electronic component coupled to each of the energy-receiving components, wherein the electronic component is configured to receive energy from the energy-receiving components.
4. The nanogrid device of claim 3 , wherein the electronic component is a controller, and wherein each of the energy-receiving components includes a solar panel.
5. The nanogrid device of claim 4 , wherein controller is coupled to the housing.
6. The nanogrid device of claim 1 , further comprising a hydrogen fuel cell disposed within the housing, a hydrogen generation unit coupled to the hydrogen fuel cell, and a hydrogen storage tank coupled to the hydrogen fuel cell.
7. A nanogrid device for off-grid power, the nanogrid device comprising:
a housing having a first side portion and a second side portion disposed opposite the first side portion;
a first stack of energy-receiving components coupled to the first side portion of the housing; and
a second stack of energy-receiving components coupled to the second side portion of the housing, wherein each of the first stack of energy-receiving components and the second stack of energy receiving components has a top edge;
wherein the energy-receiving components of the first stack of energy-receiving components are slidable relative to one another and wherein each of the energy receiving components of the first stack of energy-receiving components is a solar door;
wherein the energy-receiving components of the second stack of energy receiving components are slidable relative to one another and wherein each of the energy receiving components of the second stack of energy-receiving components is a solar door; and
wherein the first stack of energy-receiving components and the second stack of energy receiving components are movable relative to the housing from a first, stored position to a second, fully deployed position, and wherein the top edge of the first stack energy-receiving components is disposed in contact with and the top edge of the second stack of energy receiving components at an apex to thereby form an A-frame structure in the second, fully deployed position, and wherein the housing is configured to be disposed underneath the A-frame structure in the second, fully deployed position.
8. The nanogrid device of claim 7 , wherein each solar door defines a first surface and a second surface, and wherein each solar door includes a solar panel disposed on the first surface thereof.
9. The nanogrid device of claim 7 , further comprising supporting frame members coupled to the solar doors and configured to support the solar doors.
10. The nanogrid device of claim 9 , wherein the supporting frame members are pivotally coupled to one another and to the housing.
11. The nanogrid device of claim 9 , wherein each of the supporting frame members is a telescopic pole.
12. The nanogrid device of claim 7 , further comprising a plug-in for an electric vehicle to charge the electric vehicle, wherein the plug-in is coupled to both the first stack of energy-receiving components and the second stack of energy-receiving components and is configured to receive power from both the first stack of energy-receiving components and the second stack of energy-receiving components.
13. The nanogrid device of claim 12 , further comprising a controller, wherein the controller is coupled to both the first stack of energy-receiving components and the second stack of energy-receiving components and is configured to receive power from both the first stack of energy-receiving components and the second stack of energy-receiving components.
14. The nanogrid device of claim 7 , further comprising a controller configured to control sliding movement of the first stack of energy-receiving components and the second stack of energy-receiving components.
15. The nanogrid device of claim 13 , further comprising wireless communications equipment coupled to the controller to receive and transmit wireless communications signals to a remote location, wherein the wireless communication equipment is configured to permit the nanogrid device to be monitored and controlled remotely.
16. The nanogrid device for off-grid power of claim 1 , further comprising:
a hydrogen fuel cell disposed within the housing;
a hydrogen generation unit coupled to the hydrogen fuel cell; and
a hydrogen storage tank coupled to the hydrogen fuel cell.
17. The nanogrid device of claim 16 , wherein the hydrogen generation unit is arranged such that at least a portion of the energy generated by the solar doors is configured to be used to produce hydrogen through electrolysis within the hydrogen generation unit, wherein the hydrogen is configured to be stored in the hydrogen storage tank, and wherein the hydrogen in the hydrogen storage tank is configured to later be used by the hydrogen fuel cell to produce back-up power for the nanogrid device.
18. The nanogrid device of claim 2 , wherein:
in the first, stored position, the first surface of the solar door comprising the first stack of energy-receiving components faces the first side portion of the housing and the first surface of the solar door comprising the second stack of energy receiving components faces the second side portion of the housing; and
in the second, fully deployed position, the second surface of the solar door comprising the first stack of energy-receiving components faces the housing and the second surface of the solar door comprising the second stack of energy receiving components faces the housing.