IP Library › Granted Patent US 10,106,110
Granted Patent B1
US 10,106,110 · App. 14/807,459 · Granted Oct 23, 2018

Direct current power management system

Inventor: Jeffrey R. Ganiere (Tarpon Springs, FL)
Assignee: GANIERE INNOVATIONS, L.L.C.
B60R16/033
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Quick Facts
Patent No.
US 10,106,110
App. No.
14/807,459
Granted
Oct 23, 2018
Kind
B1
Abstract

A vehicle power system may include a vehicle power source configured to output a first voltage, and batteries, each battery configured to provide a second voltage. The vehicle power system may also include switches coupled between the batteries, and a controller coupled to the switches. The controller may be configured to place the switches in a first mode of operation so that the batteries are coupled in parallel and receive a charge from the vehicle power source, and place the switches in a second mode of operation so that the batteries are coupled in series and provide a combined voltage greater than the first voltage and the second voltage, the combined voltage driving a load.

Claims (39)

1. A vehicle power system comprising:

a vehicle power source configured to output a first voltage;

a plurality of batteries, each battery configured to provide a second voltage;

a plurality of switches coupled between said batteries; and

a controller coupled to said plurality of switches and configured to

place said plurality of switches in a first mode of operation so that said plurality of batteries is coupled in parallel and receives a charge from said vehicle power source, and

place said plurality of switches in a second mode of operation so that said plurality of batteries is coupled in series and provides a combined voltage greater than the first voltage and the second voltage, the combined voltage driving a load.

2. The vehicle power system of claim 1 wherein said controller has a first input coupled to an output of said vehicle power source; and wherein said controller is configured to place said plurality of switches in the first mode of operation only when the first voltage is greater than or equal to a threshold voltage.

3. The vehicle power system of claim 2 wherein said controller has a second input coupled to an output of said plurality of batteries; and wherein said controller is configured to place said plurality of switches in the first mode of operation only when the second voltage is less than the threshold voltage.

4. The vehicle power system of claim 1 wherein said controller has a third input coupled to the load; and wherein said controller is configured to place said plurality of switches in the first and second modes of operation based upon an operational characteristic of the load.

5. The vehicle power system of claim 1 further comprising a power switch coupled between the vehicle power source and each battery of said plurality thereof.

6. The vehicle power system of claim 5 wherein said controller is configured to control said power switch.

7. The vehicle power system of claim 5 wherein said controller is configured to close said power switch after said plurality of switches has entered the first mode of operation.

8. The vehicle power system of claim 5 wherein said controller is configured to open said power switch in the second mode of operation.

9. The vehicle power system of claim 1 wherein said vehicle power source comprises a vehicle starter battery, and an alternator coupled thereto.

10. A vehicle power system comprising:

a vehicle power source configured to output a first voltage, said vehicle power source comprising a vehicle starter battery, and an alternator coupled thereto;

a plurality of batteries, each battery configured to provide a second voltage;

a plurality of switches coupled between said batteries;

a power switch coupled between the vehicle power source and each battery of said plurality thereof; and

a controller coupled to said plurality of switches and configured to

place said plurality of switches in a first mode of operation so that said plurality of batteries is coupled in parallel and receives a charge from said vehicle power source, and

place said plurality of switches in a second mode of operation so that said plurality of batteries is coupled in series and provides a combined voltage greater than the first voltage and the second voltage, the combined voltage driving a load.

11. The vehicle power system of claim 10 wherein said controller has a first input coupled to an output of said vehicle power source; and wherein said controller is configured to place said plurality of switches in the first mode of operation only when the first voltage is greater than or equal to a threshold voltage.

12. The vehicle power system of claim 11 wherein said controller has a second input coupled to an output of said plurality of batteries; and wherein said controller is configured to place said plurality of switches in the first mode of operation only when the second voltage is less than the threshold voltage.

13. The vehicle power system of claim 10 wherein said controller has a third input coupled to the load; and wherein said controller is configured to place said plurality of switches in the first and second modes of operation based upon an operational characteristic of the load.

14. The vehicle power system of claim 10 wherein said controller is configured to control said power switch.

15. The vehicle power system of claim 10 wherein said controller is configured to close said power switch after said plurality of switches has entered the first mode of operation.

16. The vehicle power system of claim 10 wherein said controller is configured to open said power switch in the second mode of operation.

17. A method of operating a vehicle power system comprising:

operating a vehicle power source to output a first voltage;

operating a plurality of batteries so that each battery provides a second voltage;

operating a controller coupled to a plurality of switches, the plurality of switches being coupled between the plurality of batteries; and

operating the controller to

place the plurality of switches in a first mode of operation so that the plurality of batteries is coupled in parallel and receives a charge from the vehicle power source, and

place the plurality of switches in a second mode of operation so that the plurality of batteries is coupled in series and provides a combined voltage greater than the first voltage and the second voltage, the combined voltage driving a load.

18. The method of claim 17 wherein the controller has a first input coupled to an output of the vehicle power source; and further comprising operating the controller to place the plurality of switches in the first mode of operation only when the first voltage is greater than or equal to a threshold voltage.

19. The method of claim 18 wherein the controller has a second input coupled to an output of the plurality of batteries; and further comprising operating the controller to place the plurality of switches in the first mode of operation only when the second voltage is less than the threshold voltage.

20. The method of claim 17 wherein the controller has a third input coupled to the load; and further comprising operating the controller to place the plurality of switches in the first and second modes of operation based upon an operational characteristic of the load.

Assignments (2)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Sep 20, 2018
From: GANIERE, JEFFREY R.
To: GANIERE INNOVATIONS, L.L.C.
Reel/Frame 046929/0665 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Dec 16, 2015
From: GANIERE, JEFFREY R.
To: GANIERE INNOVATIONS, L.L.C.
Reel/Frame 037308/0366 →
Continuity (2)
Provisional Application 62028096 · Jul 23, 2014
Provisional Application 62126081 · Feb 27, 2015
Cited By (2)
US 12,483,060 US 12,617,299