BATTERY ASSEMBLY, ELECTRIC VEHICLE, AND METHOD FOR MONITORING BATTERY

1 . A battery assembly comprising:

at least one battery;

at least one sensing part on the battery, the at least one sensing part being configured to generate a deformation sensing signal corresponding to a deformation of the at least one battery; and

an alarm module electrically connected to the at least one sensing part, wherein the alarm module is configured to issue an alarm when the deformation sensing signal exceeds a threshold.

2 . The battery assembly of claim 1 , wherein the at least one sensing part is further configured to generate a temperature monitoring signal corresponding to a temperature of the at least one battery.

3 . The battery assembly of claim 1 comprising multiple batteries and multiple sensing parts, wherein each of the multiple sensing parts is electrically connected to the alarm module independently, and the alarm module is further configured to record a position of each of the multiple sensing parts and determine a position of a deformed battery among the multiple batteries.

4 . The battery assembly of claim 3 , wherein each of the multiple batteries and each of the multiple sensing parts is sheet shaped, and at least one of the multiple batteries is alternated with one of the multiple sensing parts.

5 . The battery assembly of claim 3 , wherein each of the multiple batteries and each of the multiple sensing parts is cylindrical shaped, the multiple batteries are arranged in an array of rows and columns, and one of the multiple sensing parts is at an intersection of two adjacent rows and two adjacent columns of the array of the multiple batteries.

6 . The battery assembly of claim 3 , wherein each of the multiple sensing parts is a mesh with a plurality of holes, and each of the plurality of holes is configured to receive at least one of the multiple batteries.

7 . The battery assembly of claim 3 , wherein each of the multiple batteries is cylindrical shaped, each of the multiple sensing parts comprises a flat surface or a curved surface, and each of the multiple sensing parts is between two of the multiple batteries.

8 . The battery assembly of claim 1 , wherein a number of the at least one battery and a number of the at least one sensing part are both one, the battery is sheet shaped; the sensing part is a non-porous continuous layer, or the sensing part is mesh shaped.

9 . The battery assembly of claim 1 , wherein a number of the at least one battery is one, a number of the at least one sensing part is greater than one, the battery is sheet shaped, the at least one sensing part is electrically insulated from each other, each of the at least one sensing part is electrically connected to the alarm module independently, and the alarm module is further configured to record a position of each of the at least one sensing part and determine a deformation region of the battery.

10 . An electric vehicle comprising:

a drive motor; and

a battery assembly electrically connected to the drive motor and configured for providing electric energy to the driving motor, the battery assembly comprising:

multiple batteries;

a sensing part being between at least two of the multiple batteries, the sensing part being configured to sense a deformation of the at least two of the multiple batteries and generate a deformation sensing signal; and

an alarm module electrically connected to the sensing part, wherein the alarm module is configured to receive and process the deformation sensing signal and issue an alarm when a deformation of the at least two of the multiple batteries exceeds a threshold.

11 . The electric vehicle of claim 10 , wherein the sensing part is further configured to generate a temperature monitoring signal corresponding to a temperature of the at least two of the multiple batteries.

12 . The electric vehicle of claim 10 , wherein the battery assembly comprises multiple sensing parts, each of the multiple sensing parts is electrically connected to the alarm module independently, and the alarm module is further configured to record a position of each of the multiple sensing parts and determine a position of a deformed battery among the multiple batteries.

13 . The electric vehicle of claim 12 , wherein each of the multiple batteries and each of the multiple sensing parts is sheet shaped, and at least one of the multiple batteries is alternated with one of the multiple sensing parts.

14 . The electric vehicle of claim 12 , wherein each of the multiple batteries and each of the multiple sensing parts is cylindrical shaped, the multiple batteries are arranged in rows and columns, and one of the multiple sensing parts is at an intersection of two adjacent rows and two adjacent columns of the multiple batteries.

15 . The electric vehicle of claim 12 , wherein each of multiple sensing parts is a mesh with a plurality of holes, and each of the plurality of holes is configured to receive at least one of the multiple batteries.

16 . The electric vehicle of claim 12 , wherein each of the multiple batteries is cylindrical shaped, each of the multiple sensing parts is comprises a flat surface or a curved surface, and each of the multiple sensing parts is between at least two of the multiple batteries.

17 . A method for monitoring battery comprising:

generating a deformation sensing signal corresponding to a deformation of multiple adjacent batteries; and

issuing an alarm if the deformation sensing signal exceeds a threshold.

18 . The method of claim 17 further comprising determining a position of a deformed battery among the multiple adjacent batteries.

19 . The method of claim 17 further comprising generating a temperature monitoring signal corresponding to a temperature of the at least two of the multiple batteries.

20 . The method of claim 17 further comprising determining whether deformation sensing signal exceeds the threshold.