Inflatable product provided with built-in battery case and socket

Information

  • Patent Grant
  • 6332760
  • Patent Number
    6,332,760
  • Date Filed
    Tuesday, April 4, 2000
    24 years ago
  • Date Issued
    Tuesday, December 25, 2001
    22 years ago
Abstract
An inflatable product includes an inflatable body, a socket, an electric pump and a battery case. The socket is built in the inflatable body. The electric pump is detachably connected to the socket to pump the inflatable body. The battery case is also built in the inflatable body for receiving batteries to supply the electric pump with power.
Description




BACKGROUND OF THE INVENTION




1. Field of the Invention




The present invention relates in general to an inflatable product provided with a built-in battery case and socket.




2. Description of the Related Art




Referring to

FIGS. 1A and 1B

, a conventional electric pump


14


for inflating an airbed has a fan and motor


142


inside. A plurality of batteries


144


are loaded into the electric pump


14


to supply the power. The airbed


10


is provided with a valve


12


. In operation, the electric pump


14


is moved in direction B to connect the valve


12


and then rotated in direction A to fasten the connection between the electric pump


14


and the airbed


10


.




SUMMARY OF THE INVENTION




An object of the present invention is to provide a modified airbed, which is inflated and deflated in a different way.




The airbed of the present invention includes an inflatable body, a socket, an electric pump and a battery case. The socket is built in the airbed. The electric pump is detachably connected to the socket to pump the airbed. The battery case is also built in the airbed for receiving batteries to supply the electric pump with power.











BRIEF DESCRIPTION OF THE DRAWINGS




The present invention can be more fully understood by reading the subsequent detailed description and examples with references made to the accompanying drawings, wherein:





FIG. 1A

depicts a conventional airbed;





FIG. 1B

is a sectional view along line I—I in

FIG. 1A

;





FIG. 2

locally depicts an airbed in accordance with a first embodiment of the present invention;





FIG. 3A

shows the inflating operation of the airbed of the first embodiment;





FIG. 3B

shows the deflating operation of the airbed of the first embodiment;





FIG. 4

locally depicts an airbed in accordance with a second embodiment of the present invention;





FIG. 5

is a perspective diagram of the electric pump of the second embodiment;





FIGS. 6A

,


6


B and


6


C show the inflating operation of the airbed of the second embodiment;





FIGS. 7A and 7B

show the deflating operation of the airbed of the second embodiment.











DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENT




Referring to

FIG. 2

, an airbed


26


of a first embodiment of the present invention is provided with a detachable electric pump


20


, a built-in battery case


22


and a built-in socket


24


. The battery case


22


has a cover


221


on which electrodes


222


are provided. Also, on the bottom of the battery case


22


are provided electrodes


223


corresponding to the electrodes


222


of the cover


221


. An O-ring


244


and an electrode


242


are provided on the inner wall of the socket


24


, wherein the electrode


242


is electrically connected to the electrodes


222


,


223


of the battery case


22


. Furthermore, the electric pump


20


is substantially cylindrical and has an electrode


202


on its side surfaces, an air inlet


204


and an air outlet


206


on its ends and a check valve


208


inside. The check valve


208


of the electric pump allows air to flow in a single direction from the inlet


204


to the outlet


206


.




In operation, batteries are loaded into the battery case


22


. The electric pump


20


is fitted into the socket


24


and then rotated so that the electrode


202


of the electric pump


20


contacts the electrode


242


of the socket


24


. Then, the electric pump


20


is actuated to pump outside air into the airbed


26


as shown in FIG.


3


A. The O-ring


242


in the socket


24


prevents the airbed


26


from leaking. In deflating operation, the user detaches the electric pump


20


from the socket


24


to deflate the airbed


26


, as shown in FIG.


3


B.




It is understood that the O-ring can be provided on the side surfaces of the electric pump


20


instead of in the socket


24


to prevent the airbed from leaking.




Referring to

FIG. 4

, an airbed of a second embodiment of the present invention is provided with a detachable electric pump


30


, a cap


37


for the electric pump


30


, a built-in battery case


32


and a built-in socket


34


. The battery case


32


has a cover


321


on which electrodes


322


are provided. Also, on the bottom of the battery case


32


are provided electrodes


323


corresponding to the electrodes


322


of the cover


321


. Furthermore, an arrow symbol


36


is marked on the airbed and besides the socket


34


. Flanges


342


are formed at the rim of the socket


34


, while electrodes


344


are provided on the inner wall of the socket


34


and are electrically connected to the electrodes


322


,


323


of the battery case


32


. Furthermore, the electric pump


30


is substantially cylindrical and has a flange


301


on its side surfaces, two electrodes


302


provided on the flange


301


, an air inlet


304


and an air outlet


306


on its ends. Also referring to

FIG. 5

, symbols “on”, “off” and “open” are marked on the side surfaces and the end of the electric pump


30


.




In operation, batteries are loaded into the battery case


32


to supply the electric pump


30


with the power. The electric pump


30


in this embodiment is used to inflate or deflate the airbed. In inflating operation, the electric pump


30


is fitted into the socket


34


with the air outlet


306


inside the airbed and the air inlet


304


outside the airbed. The electric pump


30


is rotated to change the positions of symbols “on”, “off” and “open”. When the arrow symbol


36


points at the symbol “on” as shown in

FIG. 6A

, the electrodes


302


of the electric pump


30


contact the electrodes


344


of the socket


34


to actuate the electric pump


30


. Then, outside air is pumped into the airbed as shown in FIG.


6


B. When the arrowsymbol


36


points at the symbol “off”, the electric pump


30


is stopped. When the arrow symbol


36


points at the symbol “open”, the electric pump


30


is detachable from the socket


34


.

FIG. 6C

depicts the airbed full of air, wherein the air outlet of the electric pump


30


is closed by the cap


37


to seal the airbed after the inflating operation.




In deflating operation, the electric pump


30


is reversely fitted into the socket


34


, with the air inlet


304


inside the airbed and the air outlet


306


outside the airbed. The electric pump


30


is rotated to change the positions of symbols “on”, “off” and “open” on its side surfaces. When the arrow symbol


36


points at the symbol “on” as shown in

FIG. 7A

, the electrodes


302


of the electric pump


30


contact the electrodes


344


of the socket


34


to actuate the electric pump


30


. Then, air inside the airbed is pumped out as shown in FIG.


7


B. When the arrow symbol


36


points at the symbol “off”, the electric pump


30


is stopped. When the arrow symbol


36


points at the symbol “open”, the electric pump


30


is detachable from the socket


34


.




In either of the inflating and deflating operations, the flanges


342


of the socket


34


are used for confining the flange


301


of the electric pump


30


, thus preventing the electric pump


30


from separating with the socket


34


when the arrow symbol


36


points at the symbols “on” and “off”. However, the flanges


342


are spaced apart at the rim of the socket


34


to avoid confining the flange


301


of the electric pump


30


when the arrow symbol


36


points at the symbol “open”. Thus, the electric pump


30


is detachable from the socket


34


when the arrow symbol


36


points at the symbol “open”.




While the invention has been described by way of example and in terms of the preferred embodiment, it is to be understood that the invention is not limited to the disclosed embodiments. To the contrary, it is intended to cover various modifications and similar arrangements (as would be apparent to those skilled in the art). Therefore, the scope of the appended claims should be accorded the broadest interpretation so as to encompass all such modifications and similar arrangements.



Claims
  • 1. An inflatable product including:an inflatable body; a socket built in the inflatable body; an electric pump detachably connected to the socket to pump the inflatable body; and a battery case also built in the inflatable body for receiving batteries to supply the electric pump with power.
  • 2. An inflatable product as claimed in claim 1, wherein the socket has at least one first electrode inside to electrically connect the batteries, the electric pump has at least one second electrode, the electric pump is actuated to pump the inflatable body when the electric pump is rotated to a first position so that the at least one second electrode contacts the at least one first electrode, and the electric pump is stopped when the electric pump is rotated to a second position so that the at least one first electrode and the at least one second electrode separate.
  • 3. An inflatable product as claimed in claim 2, wherein the socket further has confining means for preventing the electric pump from separating with the socket when the electric pump is at the first and second positions, and the electric pump is released from the confining means when the electric pump is rotated to a third position.
  • 4. A method of inflating an inflatable product including the steps of:providing an electric pump; providing a built-in battery case in the inflatable product; loading batteries into the battery case; and connecting the electric pump to a socket in a first direction to pump the inflatable product, wherein the batteries supply the electric pump with power.
  • 5. A method as claimed in claim 4, further including the step of separating the electric pump from the socket to directly deflate the inflatable product through the socket.
  • 6. A method as claimed in claim 4, further including the steps of:(d) separating the electric pump from the socket; (e) connecting the electric pump to the socket in a second direction opposite to the first direction to pump air inside the inflatable product out.
  • 7. An inflatable product as claimed in claim 1, wherein the socket has at least one first electrode inside to electrically connect the batteries, the electric pump has at least one second electrode, the electric pump is actuated to deflate the inflatable body when the electric pump is rotated to a first position so that the at least one second electrode contacts the at least one first electrode, and the electric pump is stopped when the electric pump is rotated to a second position so that the at least one first electrode and the at least one second electrode separate.
  • 8. An inflatable product including:an inflatable body; a socket built in the inflatable body; an electric pump detachably connected to the socket to pump the inflatable body; a battery case also built in the inflatable body; and at least one battery disposed in the battery case to supply the electric pump with power.
US Referenced Citations (7)
Number Name Date Kind
4678014 Owen et al. Jul 1987
5057819 Valenti Oct 1991
5068933 Sexton Dec 1991
5216778 Suzuki et al. Jun 1993
5367726 Chaffee Nov 1994
5584084 Klearman et al. Dec 1996
5606756 Price Mar 1997