Charger with Multi-sided Arrangement

• US 20130141046A1
• Filed: 12/05/2011
• Published: 06/06/2013
• Est. Priority Date: 12/05/2011
• Status: Abandoned Application

• Current Assignee: New Well Wealth Creation Limited
• Original Assignee: New Well Wealth Creation Limited
• Inventors: Law, Hung Hi
• Application Number:
  US13/311,325
• Publication Number:
  US 20130141046A1
• Time in Patent Office: Days
• US Class Current: 320/111
• CPC Class Codes: H02J 7/0013 acting upon several batteries simultaneously or sequentially H02J7/1423 takes precedence
• CPC Class Codes: H02J 7/0044 specially adapted for holding portable devices containing batteries H02J7/0045 takes precedence
• CPC Class Codes: H02J 7/0045 concerning the insertion or the connection of the batteries

Abstract

A charger for a plurality of rechargeable batteries includes a charger housing, a charging circuitry and a multi-sided charging arrangement. The charger housing defines a connecting side, and a plurality of charging sides. The charging circuitry is supported by the charger housing. The multi-sided charging arrangement includes a charger connector movably mounted to the connecting side of the housing. The multi-sided charging arrangement also electrically connects the charging circuitry to an external AC power source. The multi-sided charging arrangement further contains a plurality of charging slots indently formed on the charging sides of the charger housing respectively, wherein each of the charging slots is arranged to accommodate one of the rechargeable batteries so that each of the charging sides is arranged to be used for charging the rechargeable batteries by connecting the charger connector to the external AC power source.

Claims

1. A charger for a plurality of rechargeable batteries, comprising:

a charger housing defining a connecting side, and a plurality of charging sides;

a charging circuitry supported by said charger housing; and

a multi-sided charging arrangement, which comprises a charger connector movably and detachably mounted to said connecting side of said housing, and electrically connects said charging circuitry to an external AC power source, wherein said multi-sided charging arrangement further contains a plurality of charging slots indently formed on said charging sides of said charger housing respectively, wherein each of said charging slots is arranged to accommodate one of said rechargeable batteries so that each of said charging sides is arranged to be used for charging said rechargeable batteries by connecting said charger connector to said external AC power source.

2. The charger, as recited in claim 1, wherein said charger housing is rectangular in shape and comprises two said charging sides, wherein said charging sides are formed as said top and said bottom sides of said charger housing respectively for accommodating said rechargeable batteries.

3. The charger, as recited in claim 2, wherein said charger housing further has one charging side, wherein said charging sides are formed as said top side, said bottom side and a peripheral side of said charger housing respectively for accommodating said rechargeable batteries and for charging said rechargeable batteries simultaneously.

4. The charger, as recited in claim 2, wherein said multi-sided charging arrangement further comprises a plurality of charging terminals formed in said charging slots respectively, wherein each of said charging terminals is positioned to align with a corresponding battery terminal of said corresponding rechargeable battery, wherein each of said charging terminals is electrically connected to said charging circuitry so that when said battery terminal is accommodated in said corresponding charging slot, said corresponding battery terminal is arranged to be in physical contact with said corresponding charging terminal so as to electrically conduct said rechargeable battery with said charging circuitry.

5. The charger, as recited in claim 3, wherein said multi-sided charging arrangement further comprises a plurality of charging terminals formed in said charging slots respectively, wherein each of said charging terminals is positioned to align with a corresponding battery terminal of said corresponding rechargeable battery, wherein each of said charging terminals is electrically connected to said charging circuitry so that when said battery terminal is accommodated in said corresponding charging slot, said corresponding battery terminal is arranged to be in physical contact with said corresponding charging terminal so as to electrically conduct said rechargeable battery with said charging circuitry.

6. The charger, as recited in claim 4, wherein said charger connector comprises a connector body and a power adapter received in said connector body for converting AC power voltage input into a predetermined DC power output, wherein said connector body has a power acquiring side and a coupling side adapted for aligning with said connecting side of said housing, wherein said charger connector further comprises a power plug extended from said power acquiring side of said connector body, wherein said power plug is arranged to detachably connect to an external AC power source and said adapter so as to serve as a conductor for conducting AC power for said adapter.

7. The charger, as recited in claim 5, wherein said charger connector comprises a connector body and a power adapter received in said connector body for converting AC power voltage input into a predetermined DC power output, wherein said connector body has a power acquiring side and a coupling side adapted for aligning with said connecting side of said housing, wherein said charger connector further comprises a power plug extended from said power acquiring side of said connector body, wherein said power plug is arranged to detachably connect to an external AC power source and said adapter so as to serve as a conductor for conducting AC power for said adapter.

8. The charger, as recited in claim 6, wherein said charger connector further comprises a coupling assembly provided on said coupling side of said connector body and is arranged to rotatably connect said connector body with said connecting side of said housing, so that said housing is rotatably connected to said charger connector through said coupling assembly.

9. The charger, as recited in claim 7, wherein said charger connector further comprises a coupling assembly provided on said coupling side of said connector body and is arranged to rotatably connect said connector body with said connecting side of said housing, so that said housing is rotatably connected to said charger connector through said coupling assembly.

10. The charger, as recited in claim 8, wherein said coupling assembly comprises a rotor provided on said coupling side and a conducting shaft extended from said adapter and penetrates through said rotor to electrically connect with said charging circuitry received in said housing.

11. The charger, as recited in claim 9, wherein said coupling assembly comprises a rotor provided on said coupling side and a conducting shaft extended from said adapter and penetrates through said rotor to electrically connect with said charging circuitry received in said housing.

12. The charger, as recited in claim 10, wherein said rotor comprises a rotor base provided on said connecting side of said housing, and a rotating wheel mounted on said coupling side of said connector body and is rotatably coupled with said rotor base so that said rotor is capable of rotatably coupling said housing with said connector body.

13. The charger, as recited in claim 11, wherein said rotor comprises a rotor base provided on said connecting side of said housing, and a rotating wheel mounted on said coupling side of said connector body and is rotatably coupled with said rotor base so that said rotor is capable of rotatably coupling said housing with said connector body.

14. The charger, as recited in claim 12, wherein said power adapter comprises a voltage conversion circuitry mounted in said charger connector for converting said externally acquired AC power into a predetermined DC output, which is then transmitted to said charging circuitry for charging said rechargeable batteries.

15. The charger, as recited in claim 13, wherein said power adapter comprises a voltage conversion circuitry mounted in said charger connector for converting said externally acquired AC power into a predetermined DC output, which is then transmitted to said charging circuitry for charging said rechargeable batteries.

16. The charger, as recited in claim 11, wherein said multi-sided charging arrangement further comprises a power extension mechanism provided between said charger housing and said charger connector for allowing said charger housing to acquire electrical power positioned at a distance therefrom.

17. The charger, as recited in claim 13, wherein said multi-sided charging arrangement further comprises a power extension mechanism provided between said charger housing and said charger connector for allowing said charger housing to acquire electrical power positioned at a distance therefrom.

18. The charger, as recited in claim 15, wherein said multi-sided charging arrangement further comprises a power extension mechanism provided between said charger housing and said charger connector for allowing said charger housing to acquire electrical power positioned at a distance therefrom.

19. The charger, as recited in claim 16, wherein said power extension mechanism comprises a power connector provided on said charger connector, and a power cord detachably extended between said power connector and said charger housing, wherein said power connector is electrically connected to said conducting shaft of said coupling assembly, so that said charging circuitry is capable of utilizing said power acquired by said charger connector which is positioned at a distance from said charger housing to charge said rechargeable battery accommodated in said charger housing.

20. The charger, as recited in claim 17, wherein said power extension mechanism comprises a power connector provided on said charger connector, and a power cord detachably extended between said power connector and said charger housing, wherein said power connector is electrically connected to said conducting shaft of said coupling assembly, so that said charging circuitry is capable of utilizing said power acquired by said charger connector which is positioned at a distance from said charger housing to charge said rechargeable battery accommodated in said charger housing.

21. The charger, as recited in claim 18, wherein said power extension mechanism comprises a power connector provided on said charger connector, and a power cord detachably extended between said power connector and said charger housing, wherein said power connector is electrically connected to said conducting shaft of said coupling assembly, so that said charging circuitry is capable of utilizing said power acquired by said charger connector which is positioned at a distance from said charger housing to charge said rechargeable battery accommodated in said charger housing.

22. The charger, as recited in claim 9, wherein said coupling assembly comprises a coupling member which is protruded from said coupling side of said connector body and defines a plurality of elongated sliders formed at two sides of said coupling member respectively, wherein said coupling assembly further comprises a plurality of sliding tracks formed at two side portions of said connecting side of said charger housing respectively, wherein said two elongated sliders are arranged to detachably slide into said sliding tracks for slidably and detachably connect said charger housing with said charger connector.

23. The charger, as recited in claim 22, wherein said coupling assembly further comprises a plurality of first connectors provided on said coupling side of said connector body, and a plurality of second connectors provided on said connecting side of said charger housing, wherein said first connectors are aligned with said second connectors when said connector body is slidably coupled with said charger housing, wherein said first connectors are electrically connected to said power adapter while said second connectors are electrically connected to said charging circuitry in such a manner that when said connector body is slidably coupled with said charger housing through said coupling assembly, said first and said second connectors are in physical contact and are arranged to conduct voltage output from said power adapter to said charging circuitry.

24. A charger for a plurality of rechargeable batteries, comprising:

a charger housing defining a power side, and a plurality of charging sides;

a charging circuitry supported by said charger housing; and

a multi-sided charging arrangement electrically connects said charging circuitry to an external AC power source, wherein said multi-sided charging arrangement further contains a plurality of charging slots indently formed on said charging sides of said charger housing respectively, wherein each of said charging slots is arranged to accommodate one of said rechargeable batteries so that each of said charging sides is arranged to be used for charging said rechargeable batteries by connecting said charger housing to said external AC power source.

25. The charger, as recited in claim 24, wherein said charger housing is rectangular in shape and comprises two said charging sides, wherein said charging sides are formed as said top and said bottom sides of said charger housing respectively for accommodating said rechargeable batteries.

26. The charger, as recited in claim 24, wherein said charger housing further has one charging side, wherein said charging sides are formed as said top side, said bottom side and a peripheral side of said charger housing respectively for accommodating said rechargeable batteries and for charging said rechargeable batteries simultaneously.

27. The charger, as recited in claim 25, wherein said multi-sided charging arrangement further comprises a plurality of charging terminals formed in said charging slots respectively, wherein each of said charging terminals is positioned to align with a corresponding battery terminal of said corresponding rechargeable battery, wherein each of said charging terminals is electrically connected to said charging circuitry so that when said battery terminal is accommodated in said corresponding charging slot, said corresponding battery terminal is arranged to be in physical contact with said corresponding charging terminal so as to electrically conduct said rechargeable battery with said charging circuitry.

28. The charger, as recited in claim 26, wherein said multi-sided charging arrangement further comprises a plurality of charging terminals formed in said charging slots respectively, wherein each of said charging terminals is positioned to align with a corresponding battery terminal of said corresponding rechargeable battery, wherein each of said charging terminals is electrically connected to said charging circuitry so that when said battery terminal is accommodated in said corresponding charging slot, said corresponding battery terminal is arranged to be in physical contact with said corresponding charging terminal so as to electrically conduct said rechargeable battery with said charging circuitry.

29. The charger, as recited in claim 27, wherein multi-sided charging arrangement comprises a power adapter received in said charger housing for converting AC power voltage input into a predetermined DC power output, wherein said charger housing further comprises a power plug extended from said power side of said charger housing to detachably connect to an external AC power source, wherein said power adapter comprises a voltage conversion circuitry electrically connecting said power plug with said charging circuitry for converting said externally acquired AC power into a predetermined DC output and for supplying said DC output to said charging circuitry for charging said rechargeable batteries.

30. The charger, as recited in claim 28, wherein multi-sided charging arrangement comprises a power adapter received in said charger housing for converting AC power voltage input into a predetermined DC power output, wherein said charger housing further comprises a power plug extended from said power side of said charger housing to detachably connect to an external AC power source, wherein said power adapter comprises a voltage conversion circuitry electrically connecting said power plug with said charging circuitry for converting said externally acquired AC power into a predetermined DC output and for supplying said DC output to said charging circuitry for charging said rechargeable batteries.