Ultracapacitor generator start module

1. An energy storage module for replacing one or more batteries within a generator start energy system, the energy storage module comprising:

a housing for installation within a compartment of the generator start energy system;

one or more ultracapacitors disposed within the housing;

a two-post electrical connection disposed on the housing, the two-post electrical connection comprising a positive terminal and a negative terminal,

wherein each of the positive terminal and the negative terminal are electrically connected to the one or more ultracapacitors for charging and discharging the one or more ultracapacitors;

an electrical circuit disposed within the housing, the electrical circuit interfacing with the one or more ultracapacitors; and

two or more Positive Temperature Coefficient (PTC) thermistors disposed in parallel within the electrical circuit for passively limiting a charge current of the one or more ultracapacitors based on an internal temperature of the energy storage module and passively distributing the charge current within the electrical circuit.

2. The energy storage module of claim 1 , further comprising:

an auxiliary charging port for charging the one or more ultracapacitors via one or more external power sources, the auxiliary charging port comprising a dry contact for isolating the auxiliary charging port from the two-post electrical connection.

3. The energy storage module of claim 2 , wherein the one or more external power sources comprises a solar panel, and wherein an output of the solar panel is electrically connected to the auxiliary charging port for supplying electrical energy to charge the one or more ultracapacitors.

4. The energy storage module of claim 3 , wherein an input current of the auxiliary charging port is passively limited such that the input current is electrically shorted when the one or more ultracapacitors are fully charged.

5. The energy storage module of claim 1 ,

wherein the electrical circuit comprises a plurality of current path channels for providing current path diversity within the electrical circuit,

wherein a respective one of the two or more PTC thermistors is disposed within each current path channel of the plurality of current path channels.

6. The energy storage module of claim 1 , further comprising:

an auxiliary connector port configured to interface with a Bluetooth module; and

a cutaway portion in the housing that provides space for the Bluetooth module.

7. The energy storage module of claim 6 , wherein a signal indicative of one or more parameters of the energy storage module is transmitted through the auxiliary connector port to the Bluetooth module for analysis of the one or more parameters of the energy storage module.

8. An energy storage system for providing energy for one or more electrical devices, the energy storage system comprising:

a plurality of energy storage modules disposed within a compartment associated with the one or more electrical devices, each energy storage module of the plurality of energy storage modules comprising:

a housing for installation within the compartment associated with the one or more electrical devices;

one or more ultracapacitors disposed within the housing;

a two-post electrical connection disposed on the housing, the two-post electrical connection comprising a positive terminal and a negative terminal,

wherein each of the positive terminal and the negative terminal are electrically connected to the one or more ultracapacitors for charging and discharging the one or more ultracapacitors;

an electrical circuit disposed within the housing, the electrical circuit interfacing with the one or more ultracapacitors; and

one or more Positive Temperature Coefficient (PTC) thermistors disposed within the electrical circuit for passively limiting a charge current of the one or more ultracapacitors based on an internal temperature of the respective energy storage module,

wherein the electrical circuit comprises a plurality of current path channels for providing current path diversity within the electrical circuit,

wherein a respective one of the one or more PTC thermistors is disposed within each current path channel of the plurality of current path channels.

9. The energy storage system of claim 8 , further comprising one or more batteries disposed within the compartment associated with the one or more electrical devices.

10. The energy storage system of claim 9 , wherein the plurality of energy storage modules and the one or more batteries are electrically connected in series.

11. The energy storage system of claim 9 , wherein the plurality of energy storage modules and the one or more batteries are electrically connected in parallel.

12. The energy storage system of claim 8 , further comprising a strap disposed around two or more energy storage modules of the plurality of energy storage modules for securing the two or more energy storage modules within the compartment associated with the one or more electrical devices.

13. The energy storage system of claim 8 , wherein the one or more PTC thermistors provide additional energy when the internal temperature of the respective energy storage module is below a predefined threshold temperature.

14. The energy storage system of claim 8 , wherein the one or more PTC thermistors provide reduced energy when the internal temperature of the respective energy storage module is above a predefined threshold temperature.

15. An energy storage module for replacing one or more batteries within a generator start energy system, the energy storage module comprising:

a mountable housing for installation within a compartment of the generator start energy system, the mountable housing comprising a cutaway portion providing space around the mountable housing of the energy storage module;

one or more ultracapacitors disposed within the mountable housing;

a two-post electrical connection disposed on the mountable housing, the two-post electrical connection comprising a positive terminal and a negative terminal,

wherein each of the positive terminal and the negative terminal are electrically connected to the one or more ultracapacitors for charging and discharging the one or more ultracapacitors;

an electrical circuit disposed within the mountable housing, the electrical circuit interfacing with the one or more ultracapacitors; and

an auxiliary charging port disposed on the mountable housing within the cutaway portion for charging the one or more ultracapacitors via one or more external power sources, the auxiliary charging port comprising a dry contact for isolating the auxiliary charging port from the two-post electrical connection.

16. The energy storage module of claim 15 , further comprising:

one or more Positive Temperature Coefficient (PTC) thermistors disposed within the electrical circuit for passively limiting a charge current of the one or more ultracapacitors based on an internal temperature of the energy storage module.

17. The energy storage module of claim 16 , further comprising:

an auxiliary connector port disposed on the mountable housing within the cutaway portion for interfacing the energy storage module with one or more external devices.

18. The energy storage module of claim 17 , further comprising:

a Bluetooth module disposed within the cutaway portion and connected to the auxiliary connector port, the Bluetooth module operable to wirelessly communicate with the one or more external devices.

19. The energy storage module of claim 18 , wherein the Bluetooth module comprises a processor for actively monitoring the one or more ultracapacitors.

20. The energy storage module of claim 15 , wherein the energy storage module is configured to be jumpstarted via the two-post electrical connection after installation within the compartment of the generator start energy system.