Anti-snore bedding having adjustable portions

Abstract

An adjustable bed includes a stationary frame, a first head deck mattress support member supported by the frame, a second seat deck mattress support member supported by the frame and pivotally coupled to the head deck mattress support member, a sensor assembly adapted to detect a sound associated with human snoring, and a motorized drive assembly operatively coupled to the sensor assembly and to the first mattress support member. The adjustable bed may be such that detection of the snoring sound actuates the motorized drive assembly thereby causing relative movement of the first mattress support member with respect to the second mattress support member. The sensor assembly may further be adapted to recognize a sound associated with snoring of a particular person and actuation of the motorized drive assembly may move the first mattress support member between an inclined position and a horizontal flat position. The sensor assembly may further be adapted, after cessation of the snoring sound for a specific length of time, to return the first mattress support member to the horizontal flat position.

Description

, any other methods and/or components for securing the foot tubes 52 to the foot deck board 40 may alternatively be used.

Two seat tubes or connectors 62 are pivotally secured to the side rails 22 of the stationary frame 16 with fasteners 63 so that each pivots about a horizontal pivot axis 64. Each seat tube 62 has a center portion 66 and a pair of leg portions 68 extending downwardly from opposed ends of the center portion 66. The center portion 66 of each of the foot tubes 62 is secured to the seat deck board 36 with clips 70. Clips 70 are secured to the lower surface 45 of the seat deck board 36. Although each seat tube 62 is illustrated being secured to two clips 70, any other methods and/or components for securing the seat tubes 62 to the seat deck board 36 may alternatively be used.

With reference to FIGS. 2-4, two stops 72 are each secured to the inside surfaces of the side rails 22 of the frame 16 to prevent the seat tubes 62 from moving too far forwardly i.e. towards the head end of the bed. Similarly, two stops 74 are each secured to the inside surfaces of the side rails 22 of the frame 16 to prevent the foot tubes 52 from moving too far rearward i.e. towards the foot end of the bed. The articulated deck 30 may be moved by a motorized drive assembly 76 between a fully horizontal position (FIG. 2) in which the deck boards 34, 36, 38 and 40 are generally co-planar in a horizontal position or orientation and a fully inclined position (FIG. 3). In the fully inclined position, the head deck board 34 is inclined, the seat deck board 36 is substantially horizontal, the leg deck board 36 inclined and the foot deck board 40 slightly inclined. When the articulated deck 30 is in its fully horizontal position (FIG. 2), two braces 8, each secured to the head rail 26 of the frame 18 and extending upwardly therefrom, support the head deck board 34 of the articulated deck 30.

With reference to FIG. 4, the motorized drive assembly 76 (shown disassembled) may comprise two lever arms 78 pivotally secured at their respective lower ends 80 to the side rails 22 of the frame 16 such that each of the lever arms 78 pivots about a horizontal pivot axis 79. The lever arms 78 may have a fixed length. The upper ends 82 of the lever arms 78 are secured to brackets 84 which are, in turn, secured to the lower surface 43 of the head deck board 34. An electric motor 86 is secured to one of the lever arms 78. Alternatively, the electric motor 86 may be secured to the head deck board 34 or to any other suitable location or surface. The electric motor 86 maybe may be one of any suitable type, such as one manufactured by German manufacturer Hettich-Franke GmbH under the model designation Mosys Classic 1.61.03.

The output of the electric motor 86 drives or rotates a drive tube 88 that extends between the upper ends 82 of the lever arms 78. The electric motor 86 may be powered by a power supply 96 and may be controlled via a sensor assembly including, for example, a microphone 100 coupled to a processor 90. The power supply 96, microphone 100 and the processor 90 may be electrically powered, via respective connections, to a power source such as one in the form of a wall outlet 120. The electric motor 86 may be further controlled via a remote unit 130 coupled to a control unit 92 with a line 94.

With continued reference to FIG. 4, microphone 100 is suitably selected and configured to detect and distinguish sounds such as those produced by conventional human snoring. Microphone 100 may be positioned proximate adjustable bed 10 or at any other suitable location such that it may detect sounds made by a person (not shown) lying on the mattress 12 (FIG. 1). Processor 90 is suitably connected to microphone 100 such that processor 90 may receive a signal from microphone 100 and send, when a specific set of logic conditions is met, a signal or set of signals, such as an electric signal, to the electric motor 86. Such signal may be sent directly to the electric motor 86 or may alternatively be sent via control unit 92, as depicted in FIG. 4.

With reference to FIGS. 2-3, in operation starting from the fully horizontal position of the adjustable bed 10 shown in FIG. 2 in which the articulated deck 30 is generally horizontal, the microphone 100 or similar device detects a sound corresponding to snoring coming from a person sleeping on the adjustable bed 10. The signal is processed by the processor 90, which recognizes the sound and sends a signal to the electric motor 86, as described above, thereby actuating the motor 86. Activation of the motor 86 rotates the drive tube 88 which causes the lever arms 78 of the drive assembly 76 to rotate or pivot about horizontal axis 79 at the lower ends 80 of the lever arms 78 i.e. where the lever arms 78 are pivotally secured to the side rails 22 of the frame 18. Thus, the head deck board 34 moves from its fully horizontal position (FIG. 2) to a second position (not shown) between the first horizontal position and the fully inclined position (FIG. 3) in which the head edge 102 of the head deck board 34 is above the rear edge 104 of the head deck board 34. The transition from the fully horizontal position to the second position may induce the snoring person to change sleeping positions, thereby causing the snoring to stop.

The processor 90 may be configured to cause actuation of the electric motor 86 in one direction so as to cause the change in position described above from the fully horizontal position (FIG. 2) to a position between the fully horizontal position (FIG. 2) and the fully inclined position (FIG. 3). The processor 90 may be further configured such that, upon detection of a sound corresponding to human snoring, it will first detect the position of the head deck board 34 such that, if for example the head deck board 34 is in the second position, it will actuate the motor 86 to cause movement of the head deck board 34 from the second position to the fully horizontal position (FIG. 2) or to the fully inclined position (FIG. 3). Similarly, the processor 90 may be configured such that, upon detection of a sound corresponding to human snoring, it will first detect the position of the head deck board 34 and cause it to move from such position to any other position between the fully horizontal position (FIG. 2) and the fully inclined position (FIG. 3).

With continued reference to FIGS. 23 2-3, the processor 90 may be also configured such that after a predetermined length of time without detected snoring, it causes the head deck board 34 to return from any starting position between the fully horizontal position (FIG. 2) and the fully inclined position (FIG. 3) back to the fully horizontal position (FIG. 2). Processor 90 may also be configured or “taught”, via components and methods known in the art, to recognize the snoring sound associated with a particular person, such that it will cause actuation of the electric motor 86 only when snoring from such particular person is detected.

Movement of the head deck board 34 between the fully horizontal position (FIG. 2) and the fully inclined position (FIG. 3) may be also achieved via manual actuation of the remote unit 130. Remote unit 130 may be further configured such that it can cause movement of the head deck board 34 between any starting position and any desired ending position between and including the fully horizontal position (FIG. 2) and the fully inclined position (FIG. 3). A user of the adjustable bed 10 may, therefore, be able, for example, to move the bed 10 from any starting position to the fully inclined position (FIG. 3). In such exemplary motion, as the head deck board 34 inclines, the person using the bed 10 may lean forward causing the rear edge 104 of the head deck board 34 to move towards the head end of the bed, causing or pulling the seat deck board 36 horizontally towards the head end of the bed. The seat deck board 36 also lowers due to the connectors 32 and more particularly, the seat tubes 62 pivoting about horizontal pivot axes 64 in a counterclockwise direction as shown in FIGS. 2-3.

With continued reference to FIGS. 2-3, as the seat deck board 36 moves downwardly and towards the head end of the bed, the leg deck board 38 moves or is pulled from its fully horizontal position (FIG. 2) to its fully inclined position (FIG. 3). In this fully inclined position, the front edge 106 of the leg deck board 38 is lower than the rear edge 108 of the leg deck board 38. This movement of the leg deck board 38 causes or pulls the foot deck board 40 towards the head end of the bed as the connectors 32 and in particular the foot tubes 52 are pivoted about horizontal pivot axes 54 in a counterclockwise direction. In its fully inclined position (FIG. 3), the front edge 110 of the foot deck board 40 is higher than the rear edge 112 of the foot deck board 40.

The adjustable bed 10 may be also moved from its fully inclined position (FIG. 3), in which the front edge 102 of the head deck board 34 is above the rear edge 104 of the head deck board 34, back to its fully horizontal position (FIG. 2) via use of the motorized drive assembly 76 along with the person using the bed 10 shifting his or her weight backwardly.

Accordingly, many further embodiments, applications and modifications of the invention will become readily apparent to those of ordinary skill in the art without departing from the scope of the invention which is intended to be defined by the claims appended hereto.

Claims

1. An adjustable bed comprising:

a stationary frame;

a first head deck mattress support member supported by said frame;

a second seat deck mattress support member supported by said frame and pivotally coupled to said first mattress support member;

a sensor assembly adapted to detect a sound associated with human snoring; and

a motorized drive assembly operatively coupled to said sensor assembly and to said first mattress support member;

wherein detection of said snoring sound actuates said motorized drive assembly thereby causing relative movement of said first mattress support member with respect to said second mattress support member along a transverse axis of the adjustable bed, between a horizontal flat position and an inclined position.

2. The adjustable bed of claim 1 wherein said sensor assembly is further adapted to recognize a sound associated with snoring of a particular person.

3. The adjustable bed of claim 1 wherein said motorized drive assembly is secured to said frame.

4. The adjustable bed of claim 1 wherein said motorized assembly comprises an electric motor.

5. The adjustable bed of claim 1 wherein:

said first mattress support member comprises a first edge;

said second mattress support member comprises a second edge generally parallel to and adjacent said first edge; and

said first and second mattress support members are pivotally coupled along said first edge.

6. The adjustable bed of claim 1 wherein said relative movement comprises incremental relative movements of said first mattress support member with respect to said second mattress support member.

7. The adjustable bed of claim 1 further comprising a leg deck mattress support member pivotally coupled to said second seat deck mattress support member.

8. The adjustable bed of claim 7 further comprising a foot deck mattress support member pivotally coupled to said leg deck mattress support member.

9. The adjustable bed of claim 8 further comprising a remote control unit configured to control relative movement of said first head deck mattress support member with respect to said second mattress support member.

10. The adjustable bed of claim 8 wherein said seat deck mattress support member, said leg deck mattress support member and said foot deck mattress support member each move toward said head deck mattress support member when said head deck mattress support member is inclined.

11. The adjustable bed of claim 1 wherein said motorized drive assembly comprises a processor operative to receive a signal from said sensor and when a specific set of logic conditions are met, send a signal to said motorized drive assembly, thereby to cause relative movement of said first mattress support member.

12. An adjustable bed comprising:

a stationary frame;

a first head deck mattress support member supported by said frame;

at least one other mattress support member supported by said frame, said at least one other mattress support member being pivotally coupled to said first mattress support member;

a sensor assembly adapted to detect a sound associated with human snoring; and

a motorized drive assembly operatively coupled to said sensor assembly and to said first mattress support member;

wherein detection of said snoring sound actuates said motorized drive assembly thereby causing relative movement of said first mattress support member with respect to said at least one other mattress support member along a transverse axis of the adjustable bed, between a horizontal flat position and an inclined position.

13. The adjustable bed of claim 12 wherein said motorized drive assembly comprises a processor operative to receive a signal from said sensor and when a specific set of logic conditions are met, send a signal to said motorized drive assembly, thereby to cause relative movement of said first mattress support member.

14. The adjustable bed of claim 12 wherein said sensor assembly is further adapted to recognize a sound associated with snoring of a particular person.

15. The adjustable bed of claim 12 wherein said motor assembly is secured to said frame.

16. The adjustable bed of claim 12 wherein said motorized assembly comprises an electric motor.

17. The adjustable bed of claim 12 wherein:

said first mattress support member comprises a first edge;

one of said at least one other support mattress member comprises a second edge generally parallel to and adjacent said first edge; and

said first mattress support member and said one of said at least one other mattress support member are pivotally coupled along said first edge.

18. The adjustable bed of claim 12 wherein said relative movement comprises incremental relative movements of said first mattress support member with respect to said at least one other mattress support member.

19. The adjustable bed of claim 12 further comprising a remote control unit configured to control relative movement of said first head deck mattress support member with respect to said at least one other mattress support member.

20. The adjustable bed of claim 12 wherein the detection by said sensor assembly of the cessation of said snoring sound for a predetermined length of time activates said motorized drive assembly to cause said first mattress support member to be moved back from an inclined position to a horizontal flat position.

21. An adjustable bed comprising:

a stationary frame having a pair of opposed side rails, a head end rail and a foot end rail;

a pair of generally inverted u-shaped foot tubes pivotally secured to said side rails of said frame;

a pair of generally inverted u-shaped seat tubes pivotally secured to said side rails of said frame;

a head deck board;

a seat deck board secured to said seat tubes and hingedly secured to said head deck board;

a leg deck board hingedly secured to said seat deck board;

a foot deck board hingedly secured to said leg deck board and secured to said foot tubes;

a sensor assembly adapted to detect a sound associated with human snoring; and

a motorized drive assembly operatively coupled to said sensor assembly and comprising a pair of lever arms pivotally secured to said side rails of said frame and a motor secured to one of the lever arms for rotating a drive tube extending between the lever arms, said lever arms being operatively coupled to said head deck board, wherein activation of said motorized drive assembly causes movement of at least one of said deck boards,

wherein detection of said snoring sound actuates said motorized drive assembly thereby causing relative movement of said head deck board with respect to said seat deck board along a transverse axis of the adjustable bed, between a horizontal flat position and an inclined position.

22. The adjustable bed of claim 21 wherein said sensor assembly is further adapted to recognize a sound associated with snoring of a particular person.

23. The adjustable bed of claim 21 wherein said relative movement comprises incremental relative movements of said head deck board with respect to said seat deck board.

24. The adjustable bed of claim 21 further comprising a remote control unit configured to control relative movement of said head deck board with respect to said seat deck board.

25. The adjustable bed of claim 21 wherein said motorized drive assembly comprises a processor operative to receive a signal from said sensor assembly and when a specific set of logic conditions is met, send a signal to said motorized drive assembly, thereby to cause relative movement of said head deck board.

26. The adjustable bed of claim 21 wherein the detection by said sensor assembly of cessation of said snoring sound for a predetermined length of time activates said motorized drive assembly to cause said head deck board to be moved back from the inclined position to the horizontal flat position.

27. The adjustable bed of claim 21 wherein said seat deck board moves towards said head end rail and lowers when said head deck board is inclined.

28. The adjustable bed of claim 21 wherein said seat deck board, said leg deck board and said foot deck board each moves toward said head end rail when said head deck board is inclined.

29. An adjustable bed comprising:

a stationary frame having a pair of opposed side rails, a head end rail and a foot end rail;

a pair of generally inverted u-shaped seat tubes pivotally secured to said side rails of said frame;

a head deck board;

a seat deck board secured to said seat tubes and hingedly secured to said head deck board;

a sensor assembly adapted to detect a sound associated with human snoring; and

a motorized drive assembly operatively coupled to said sensor assembly and comprising a pair of lever arms pivotally secured to said side rails of said frame and a motor secured to one of the lever arms for rotating a drive tube extending between the lever arms, said lever arms being operatively coupled to said head deck board, wherein activation of said motorized drive assembly causes movement of at least one of said deck boards,

wherein detection of said snoring sound actuates said motorized drive assembly thereby causing relative movement of said head deck board with respect to said seat deck board along a transverse axis of the adjustable bed, between a horizontal flat position and an inclined position.

30. The adjustable bed of claim 29 wherein said sensor assembly is further adapted to recognize a sound associated with snoring of a particular person.

31. The adjustable bed of claim 29 wherein said relative movement comprises incremental relative movements of said head deck board with respect to said seat deck board.

32. The adjustable bed of claim 29 further comprising a remote control unit configured to control relative movement of said head deck board with respect to said seat deck board.

33. The adjustable bed of claim 29 wherein said motorized drive assembly comprises a processor operative to receive a signal from said sensor assembly and when a specific set of logic conditions is met, send a signal to said motorized drive assembly, thereby to cause relative movement of said head deck board.

34. The adjustable bed of claim 29 wherein the detection by said sensor assembly of cessation of said snoring sound for a predetermined length of time activates said motorized drive assembly to cause said head deck board to be moved back from the inclined position to the horizontal flat position.

35. The adjustable bed of claim 29 wherein said seat deck board moves towards said head end rail and lowers when said head deck board is inclined.

36. An adjustable bed comprising:

a stationary frame;

a pair of generally inverted u-shaped foot tubes pivotally secured to said frame;

a pair of generally inverted u-shaped seat tubes pivotally secured to said frame;

a seat deck board secured to said seat tubes;

a foot deck board secured to said foot tubes, a leg deck board hingedly secured to and positioned between said seat deck board and said foot deck board;

a head deck board hingedly secured to said seat deck board;

a sensor assembly adapted to detect a sound associated with human snoring; and

a motorized drive assembly comprising a pair of lever arms pivotally secured to said frame and a motor for rotating a drive tube extending between the lever arms, said lever arms being operatively coupled to said head deck board, wherein activation of said motorized drive assembly causes said head deck board to move between an inclined position and a flat position,

wherein detection of said snoring sound actuates said motorized drive assembly thereby causing relative movement of said head deck board with respect to at least one other of said deck boards along a transverse axis of the adjustable bed, between a horizontal flat position and an inclined position.

37. The adjustable bed of claim 36 further comprising a remote control unit configured to control relative movement of said head deck board with respect to said seat deck board.

38. The adjustable bed of claim 36 wherein said seat deck board, said leg deck board and said foot deck board each moves when said head deck board is inclined.

39. The adjustable bed of claim 36 wherein said sensor assembly is further adapted to recognize a sound associated with snoring of a particular person.

40. The adjustable bed of claim 36 wherein said motorized drive assembly comprises a processor operative to receive a signal from said sensor assembly and when a specific set of logic conditions is met, send a signal to said motorized drive assembly, thereby to cause relative movement of said head deck board.