Cross-Reference to Related Applications
Technical Field
[0002] The present invention relates generally to the field of sleeping apparatuses for
children and infants, and more particularly to sleepers, rockers and the like.
Background
[0003] Continuing developments and improvements are sought in the field of sleeping apparatuses
for children and infants. It is to the provisions of an improved folding elevated
sleeper that the present invention is primarily directed.
Summary
[0004] In example embodiments, the present invention provides a folding elevated sleeper
including a collapsible frame and removable seat. The collapsible frame includes a
lower frame for rocking atop a support surface and an upper frame for supporting the
removable seat. Lower and upper frame ends are connected to a folding mechanism such
that manipulation of one of the lower or upper frames causes a generally synchronized
movement of the other of the lower or upper frames. In example embodiments, movement
of the lower frame from the expanded configuration to the collapsed configuration
similarly causes the upper frame to move from the expanded configuration to the collapsed
configuration.
[0005] In one aspect, the present invention relates to a folding elevated sleeper including
a child receiving receptacle and a collapsible frame assembly attached to and supporting
the child receiving receptacle. In example embodiments, the collapsible frame assembly
includes a lower frame portion movable between an extended configuration and a collapsed
configuration and an upper frame portion movable between an extended configuration
and a collapsed configuration. In example embodiments, the lower and upper frame portions
are linked together to provide synchronous movement of the lower and upper portions
between the expanded and collapsed configurations such that expansion of one of the
frame portions from the collapsed configuration to the extended configuration causes
a substantially synchronized movement of the other of the frame portions from the
collapsed configuration to the extended configuration. In example embodiments, collapsing
of one of the frame portions from the expanded configuration to the collapsed configuration
causes a substantially synchronized movement of the other of the frame portions from
the expanded configuration to the collapsed configuration.
[0006] In another aspect, the invention relates to a child support device including a child
receiving receptacle and a frame assembly attached to and supporting the child receiving
receptacle. In example embodiments, the frame assembly includes a lower frame portion
and an upper frame portion, the lower frame portion includes a first lower frame support
portion and a second lower frame support portion, the first and second lower frame
support portions each include base portions and upright leg members, the upper frame
portion including a first upper frame support portion and a second upper frame support
portion, the first and second upper frame support portions each including an intermediate
member and arm extensions. In example embodiments, the frame assembly is linked together
to provide synchronous movement of the lower and upper frame portions between the
expanded and collapsed configurations such that collapsing of one of the frame portions
from the expanded configuration to the collapsed configuration causes a substantially
synchronized movement of the other of the frame portions from the expanded configuration
to the collapsed configuration
[0007] In still another aspect, the invention relates to a method of using a folding elevated
sleeper including providing a lower frame support having a first lower frame support
portion and a second lower frame support portion, the first and second lower frame
support portions each having base portions and upright leg members, each of the upright
leg members having a connection end; providing an upper frame support having first
and second upper frame support portions, wherein each of the first and second upper
frame support portions include an intermediate member and arm extensions, each of
the arm extensions including connection ends; providing a pair of coupling hubs; coupling
connection ends of the upright leg members and arm extensions to the coupling hubs
such that both the lower and upper frame supports are in an expanded configuration;
and folding either of the lower or upper frame supports together from the expanded
configuration to the collapsed configuration, wherein a synchronous linkage assembly
of the coupling hubs cause a similar synchronous fold of the other of the lower and
upper frame supports between from the expanded configuration to the collapsed configuration.
[0008] These and other aspects, features and advantages of the invention will be understood
with reference to the drawing figures and detailed description herein, and will be
realized by means of the various elements and combinations particularly pointed out
in the appended claims. It is to be understood that both the foregoing general description
and the following brief description of the drawings and detailed description of example
embodiments are explanatory of example embodiments of the invention, and are not restrictive
of the invention, as claimed.
Brief Description of the Drawings
[0009]
Figure 1 is a perspective view of a folding elevated sleeper according to an example
embodiment of the present invention, shown in an expanded configuration.
Figure 2 is a perspective view of the folding elevated sleeper of Figure 1, shown
in a collapsed configuration.
Figure 3 is a perspective view of the folding elevated sleeper of Figure 3, showing
an infant receiving receptacle or seat removed from a frame of the sleeper.
Figure 4 is an assembly view of a folding mechanism of the frame of the sleeper of
Figure 3.
Figure 5 is a bottom plan view of the folding mechanism of the frame of Figure 3.
Figure 6 is the bottom plan view of the folding mechanism of the frame of Figure 5,
showing a release button actuated to unlock the folding mechanism.
Figure 7 is a front plan view of the folding mechanism of Figure 5, showing a locking
member positioned in the locked position.
Figure 8 is a front plan view of the folding mechanism of Figure 6, showing the lock
member positioned in the unlocked position.
Figure 9 shows the front plan view of the folding mechanism of Figure 8, wherein the
lock member is removed to show hidden portions thereof.
Figure 10 shows the front plan view of the folding mechanism of Figure 9, showing
the frame in a collapsed configuration.
Figure 11 shows a top perspective view of the folding mechanism of Figure 9, wherein
portions are removed to show hidden portions thereof.
Figure 12 shows a top perspective view of the folding mechanism of Figure 10, wherein
portions are removed to shown hidden portions thereof.
Figure 13 shows a rear perspective view of the folding mechanism of Figure 12.
Figure 14 shows an end view of the folding elevated sleeper of Figure 3, showing a
rocking mechanism having an actuating foot fully extending therefrom.
Figure 15 shows a side view of the folding elevated sleeper of Figure 14, showing
a front end of the sleeper elevated at its maximum rocking height.
Figure 16 shows a side view of the folding elevated sleeper of Figure 15, showing
the front end of the sleeper elevated at its minimum height wherein the foot of the
rocking mechanism is fully retracted therein.
Figure 17 shows a rear perspective view of the rocking mechanism of Figure 14.
Figure 18 shows a perspective view of a pivotal connection provided between a support
of the rocking mechanism and a portion of the support frame of Figure 17.
Figure 19 shows a detailed perspective view of the rocking mechanism of Figure 17,
showing a receiver formed on a portion of the support frame for providing removable
engagement with a support of the rocking mechanism.
Detailed Description of Example Embodiments
[0010] The present invention may be understood more readily by reference to the following
detailed description of example embodiments taken in connection with the accompanying
drawing figures, which form a part of this disclosure. It is to be understood that
this invention is not limited to the specific devices, methods, conditions or parameters
described and/or shown herein, and that the terminology used herein is for the purpose
of describing particular embodiments by way of example only and is not intended to
be limiting of the claimed invention. Any and all patents and other publications identified
in this specification are incorporated by reference as though fully set forth herein.
[0011] Also, as used in the specification including the appended claims, the singular forms
"a," "an," and "the" include the plural, and reference to a particular numerical value
includes at least that particular value, unless the context clearly dictates otherwise.
Ranges may be expressed herein as from "about" or "approximately" one particular value
and/or to "about" or "approximately" another particular value. When such a range is
expressed, another embodiment includes from the one particular value and/or to the
other particular value. Similarly, when values are expressed as approximations, by
use of the antecedent "about," it will be understood that the particular value forms
another embodiment.
[0012] With reference now to the drawing figures, wherein like reference numbers represent
corresponding parts throughout the several views, Figures 1-2 show a child support
device or folding elevated sleeper 10 according to an example embodiment of the present
invention. In example embodiments, the sleeper 10 comprises a support frame 12 configured
to rest on a support surface S and an infant receiving receptacle 14 coupled to the
support frame 12 and adapted for receiving an infant. In example embodiments, the
infant receiving receptacle 14 is supported a distance above the support surface by
the support frame 12. In example embodiments, the support frame is constructed of
a suitably resilient material (e.g., plastic, metal, combinations thereof, or other
available material(s)) that is capable of supporting the weight of the infant receiving
receptacle and a child occupying the infant receiving receptacle.
[0013] According to example embodiments, the support frame 12 comprises a lower support
frame assembly 16 and an upper support frame assembly 40. In example embodiments,
the lower and upper support assemblies 16, 40 can be generally U-shaped, for example
wherein the lower frame assembly 16 comprises a first lower frame support portion
20 comprising a base portion 22 and upright leg members 24, 25, and second lower frame
support portion 30 comprising a base portion 32 and upright leg members 34, 35. The
upper support frame assembly 40 comprises a first upper frame support portion 42 comprising
an intermediate member 44 and arm extensions 46, 47, and a second upper frame support
portion 50 comprising an intermediate member 52 and arm extensions 54, 55. In example
embodiments, the base portions 22, 32 are configured to rest on a support surface
and the upright leg portions 24, 25, 34, 35 couple to and extend generally upwardly
from the base portions 22, 32. In example embodiments, the base portions 22, 32 can
be curved to allow the sleeper 10 to rock on the support surface S. The sleeper 10
can be configured for front-to-back rocking, side-to-side rocking, an alternative
rocking motion (such as a circular rocking), or any combination thereof. In example
embodiments, the child support device can be automatically rocked by a drive system
200 (see Figure 1) and/or manually rocked by a caregiver. Moreover, a power supply
can be provided that powers the drive system. Example embodiments of the sleeper can
further include various accessories, such as an audio unit, a vibration unit, a toy
bar, a projector, toys, a mobile, a canopy, and the like. According to one example
embodiment, feet 36 can be provided at the ends of the base portions 22, 32 to limit
the extent of the front-to-back rocking motion. In one example embodiment, a retractable
member can be incorporated within one or more of the feet 36 to prevent substantially
all rocking motion. Optionally, one or more of the feet 36 can comprise a wheel attached
thereto, for example, to provide assistance for transporting or rolling the sleeper
10 along a support surface.
[0014] In example embodiments, the infant receiving receptacle 14 is coupled to the upper
support assembly 40 of the support frame assembly 12 and is adapted to receive and
support a child therein. In example embodiments, the seat can be constructed of a
pliant material (e.g., fabric or foam) that is comfortable for a child to rest on.
Alternatively, the seat can be formed from a less pliable material and can include
a cushioning element positioned thereon for comfort. Optionally, the seat is at least
partially formed from a breathable material, such as a mesh. Also optionally, the
seat is removable from the seat frame for washing or cleaning. Some example embodiments
of the seat include a harness or belt for restraining a child occupying the infant
receiving receptacle.
[0015] In example embodiments, a connection hub 60 is provided at each end of the sleeper
10 for pivotally coupling respective ends of the upright leg portions 24, 25, 34,
35 and arm extensions 46, 47, 54, 55 together. For example a coupling 60 is provided
for pivotally coupling the upright leg members 25, 35 and arm extensions 47, 55 together,
and a coupling 60 is provided for pivotally coupling upright leg members 24, 34 and
arm extensions 46, 54 together. As will be described in detail below, the connection
hub 60 comprises a synchronous folding mechanism that is configured for synchronous
pivotal movement such that expansion or collapsing of either of the lower or upper
support assemblies causes a similar synchronous expansion or collapsing of the other
of the lower or upper support assemblies. For example, the support frame assembly
12 is movable between an expanded configuration (see Figure 1) and a collapsed configuration
(see Figure 2). For example, in the expanded configuration the base portions 22, 32
are spaced a distance apart and are configured for rocking atop a support surface
S and the upper support frame assembly 40 is expanded to receive and support the infant
receiving receptacle 14. In the collapsed configuration the upper and lower support
frame assemblies 16, 40 are generally compacted and positioned close together such
that the support frame assembly 12 can be easily stored or transported. In example
embodiments, the infant receiving receptacle being removably mounted to the upper
support frame assembly 12 does not affect the operation of the support assemblies
pivoting in a synchronized manner between the collapsed and expanded configurations.
[0016] Figures 4-13 show the connection hub 60 in greater detail. As depicted in Figure
4, the connection hub 60 generally comprises first and second arm assemblies comprising
guide arms 62, 102 and drive arms 74, 114, a hub member 82, first and second end couplings
92, 124, a locking assembly 132, a pair of guidance pins 156, and a lock pin 164.
In example embodiments, the first lock assembly (e.g., guide arm 62 and drive arm
74) couples to the end of the upright leg portion 25, and the second lock assembly
(e.g., guide arm 102 and drive arm 114) couples to an end of the upright leg portion
35. In example embodiments, the first and second lock assemblies (and being coupled
to respective upright leg portions 25, 35) pivotally mount to spaced apart pivots
83, 84 provided on the hub 82 and central conduits 64, 104 of the arm assemblies axially
align to receive the lock pin 164. In example embodiments, the connection hub 60 at
an opposite end of the sleeper 10 preferably provides a similar connection, for example,
such that the upright leg portions 24, 34 couple to the arm assemblies of the connection
hub 60. Accordingly, the first and second lower frame support portions are pivotally
linked together wherein each of the arm assemblies pivotally mounts to the hub (e.g.,
pivotal about projections 83, 84 of the hub 82) and wherein the arm assemblies are
pivotally coupled together with the lock pin 164 extending through their respective
conduit 64, 104.
[0017] In example embodiments, first and second end couplings 92, 124 are provided for coupling
engagement with the arm extensions 47, 55 of the upper support frame 40. As shown
in Figure 4, the first and second end couplings 92, 124 comprise a pivot conduit 93,
125, a driving receiver 95, 127 and an end receiver 96, 129 for receiving ends of
the arm extensions. In example embodiments, the pivot conduits 93, 125 axially align
with each other and further align with a central conduit 85 formed through the hub
82. The driving receivers 95, 127 are generally spaced a distance from their respective
pivot conduit 93, 125 and align with a pair of radial or curved slots 86, 87 formed
through the hub 82. Thus, pivotal motion of the end couplings 92, 124 is such that
the driving receivers 95, 127 follow along the path of their respective curved slot
86, 87. Accordingly, with the end couplings 92, 124 pivotally coupled to the central
conduit 85 of the hub 82, the guidance pins 156 extend through each respective driving
receiver 95, 127 and curved slot 86, 87, and further extend through intermediate driving
conduits 65, 76, 105, 116 of the pivotally coupled arm assemblies. As such, the arm
assemblies pivotally link the first and second lower support frame portions 20, 30
together, which are further linked to the end couplings 92, 124 by extension of the
guidance pins 156 through the driving receivers 95, 127, through the curved slots
86, 87, and through the intermediate driving conduits 65, 76, 105, 116 of the arm
assemblies, for example, such that pivotal movement of either of the lower or upper
frame supports 16, 40 causes a substantially synchronous pivotal movement of the other
of the lower of upper frame supports 16, 40.
[0018] In example embodiments, the locking assembly 132 comprises a lock member 133 comprising
spaced-apart channels 134, 135 for movably mounting to the arm assemblies, for example
generally proximal the pivots thereof, and a central slot 137 is formed through the
locking assembly 132 for receiving a portion of the lock pin 164 to constrain the
movement of lock pin 164 to a defined path. For example, as depicted in Figures 7-8,
a pin 180 extends through each slot 134, 135, and further extends through each arm
assembly to engage with the projections 83, 84. In example embodiments, the pins 180
fasten the locking mechanism 132 and arm assemblies 61, 101 to the hub 82 but provide
at least some clearance such that the lock member 133 can move between a locked and
unlocked position (see Figures 7-8). Generally adjacent the locking assembly 132 is
an actuating member or press button 144 that is movable or actuatable such that the
movement or actuation thereof effects the position of the lock assembly 132 (e.g.,
from a locked position to an unlocked position). In example embodiments, the connection
hub 60 is unlocked by actuation of the button 144 to permit pivotal movement of the
lower and upper frame supports 16, 40 from an expanded configuration to the collapsed
configuration. According to one example embodiment, each coupling hub 60 comprises
a press button 144 for unlocking the locking assembly and allowing pivotal movement
of the lower and upper frame support assemblies 16, 40 between the collapsed and expanded
configurations.
[0019] In example embodiments, a block or follower finger 150 extends from a bottom end
of the locking member 133 for providing sliding engagement along a cam surface 147
formed with the button 144, for example such that actuation of the button 144 drives
the follower finger 150 to move along the cam surface 147 and cause movement of the
locking member 133. As depicted in Figures 5-8, translational movement of the button
144 in a first direction causes translational movement of the locking member 133 in
a second direction, for example with the second direction being generally transverse
the first direction. As depicted in Figures 5-6, the button 144 is pressed to move
in a first direction within the connection hub 60 such that the cam surface 147 drives
the follower finger 150 to cause movement of the locking member 133 in the second
direction, for example, wherein the second direction as depicted in Figures 7-8 shows
the locking member 133 moving from right to left. In example embodiments, the follower
finger moves a distance D1 in the second direction when the button 144 is pressed
to move in the first direction. In example embodiments, the distance D1 is between
about 8-18 millimeters, for example between about 12-14 millimeters according to one
example embodiment. In example embodiments, the button 144 comprises a finger latch
148 extending therefrom for providing removable engagement with a lower receiver 90
of the hub 82. Thus, according to example embodiments, actuation of the button 144
causes removable engagement of the finger latch 148 and the lower receiver 90 so that
the locking member 133 remains in an unlocked position.
[0020] In example embodiments, the central slot 137 of the locking member 133 is generally
L-shaped, for example, such that the position of the locking member 133 effects the
allowable movement of the lock pin 164, and thus ultimately effects the allowable
pivotal movement of the lower and upper frame support assemblies 16, 40. As depicted
in Figure 7 with the lock assembly 132 locked with the locking member 133 in a locked
position, the lock pin 164 is positioned within a first portion of the L-shaped slot
137 wherein the lock pin 164 is constrained to move along a generally horizontal path
and is prevented from moving in a vertical direction. In example embodiments, a biasing
spring 139 is provided for engagement between the hub 82 and locking member 133 to
bias the locking member 133 in the locked position (see Figure 7).
[0021] According to example embodiments, the finger latch 148 remains removably engaged
with the lower receiver 90 when the locking member 133 is in the unlocked position
and with the lower and upper support assemblies being in an expanded configuration.
However, as one of the lower or upper support assemblies 16, 40 is collapsed, the
lock pin 164 begins to move up the slot 137 and the locking member 133 is forced to
move back at least partially in a direction generally opposite the second direction
(e.g., left to right). Accordingly, movement of the locking member 133 in a direction
opposite the second direction causes movement of the follower finger 150 along the
cam surface 147, thereby causing extension of the button 144 outwardly such that the
finger latch 148 disengages with the lower receiver 90 and extends back to a neutral
position.
[0022] According to one example embodiment, a portion of the slot 137 can be supported by
one or more supports, for example a plate or backing 136 shaped and sized to follow
the contour of a portion of the slot 137. In example embodiments, the plate 136 is
positioned to provide support to the slot 137 when the locking mechanism is in the
locked position. For example, as a user may attempt to collapse the frame 12 with
the locking members 133 in the locked position, the plate 136 provides additional
support and structural integrity to the slot 137, for example such that attempting
to collapse the frame 12 with the locking members 133 in the locked position does
not damage the slot 137.
[0023] For example, as depicted in Figures 9-13, the synchronous folding mechanism comprises
a linkage assembly wherein the arm assemblies 61, 101 pivotally couple to the hub
82 and to each other, and wherein the end couplings 92, 124 pivotally couple to the
hub 82 at the central conduit 85 and connect to the arm assemblies 61, 101 by the
guidance pins 156 extending therebetween. According to one example embodiment, the
end couplings 92, 124 pivot about a first axis X
1, the first arm assembly 61 pivots about a second axis X
2 and the second arm assembly 124 pivots about a third axis X
3 (see Figure 12). In example embodiments, the axes X
1, X
2, X
3 are parallel with respect to each other with the first axis X
1 being generally central and above the second and third axes X
2, X
3. The lock pin164 coupling the arm assemblies 61, 101 together is generally positioned
to be substantially aligned and offset from the first axis X
1. In example embodiments, the lock pin 164 is generally capable of moving a distance
D
2 in a substantially vertical direction. According to one example embodiment, the distance
D
2 is between about 14-24 millimeters, for example between about 18-20 millimeters according
to one example embodiment. For example, according to example embodiments, the conduits
64, 104 of the guidance arms 62, 102 preferably are at least partially oversized and
oval or generally shaped irregularly to allow at least some pivotal movement of the
arm assemblies 61, 101 and thus the end couplings 92, 124.
[0024] In the expanded configuration, the upright legs 25, 35 define an angle α1 with respect
to a horizontal surface and the end couplings generally define an angle β1 with respect
to a vertical axis. Similarly, in the collapsed configuration, the upright legs 25,
35 define an angle α2 with respect to a horizontal surface and the end couplings generally
define an angle β2 with respect to a vertical axis. According to example embodiments,
the angle α1 is between about 124-126 degrees, the angle β1isbetween about 89-91 degrees,
the angle α2 is between about 98-100 degrees, and the angle β2 is between about 28-30
degrees. Optionally the angles α1, α2, β1, and β2 are configured as desired.
[0025] In example embodiments, the synchronous folding mechanism of each connection hub
40 preferably provides for the synchronous or simultaneous movement of the lower and
upper frame supports 16, 40 for example such that collapsing or expansion of one of
the lower or upper supports 16, 40 causes a similar collapsing or expansion of the
other of the lower or upper supports 16, 40. As depicted in Figures 9-12, one of the
guidance pins156 extends from the driving receiver 95 of the end coupling 92, through
the curved slot 86, through the intermediate driving conduit 76 of the first arm assembly
61 and through the elongate guidance slot 106 of the second arm assembly 101. Similarly,
the other of the guidance pins 156 extends from the driving receiver 127 of the end
coupling 124, through the curved slot 87, through the intermediate driving conduit
116 of the second arm assembly 101 and through the elongate guidance slot 66 of the
first arm assembly 61. Accordingly, each guidance pin 156 extends through portions
of each of the arm assemblies 61, 101 such that independent movement of one of the
arm assemblies 61, 101 or end couplings 92, 124 is prevented, but wherein pivotal
movement of either of the lower or upper frame supports 16, 40 causes a synchronous
pivotal movement of the other of the lower of upper frame supports 16,40.
[0026] As depicted in Figures 11-12, the guide arm 62 of the first arm assembly 61 comprises
an elongate groove or projection 68 for extension within a channel or guide 79 formed
in a portion of the driving arm 74. In example embodiments, the interengagement of
the projection 68 and the guide 79 preferably couple the two arms of the assembly
61 together such that movement or rotation of one or the arms 62, 74 is relative to
the other of the arms 62, 74 is prevented. As shown in Figure 13, the upright leg
members 25, 35 can comprise an opening or conduit for receiving a fastener, for example,
to coupled the leg members 25, 35 to the arm assemblies 61, 101. The arm extensions
47, 55 comprise Valco snap buttons or other projections extending from end portions
thereof for fitting engagement with the end receivers 96, 129 of the end couplings
92, 124. According to example embodiments, a release button 98, 130 is formed on a
portion of the end couplings 92, 124 such that actuation thereof provides for disengagement
of the projections such that the arm extensions 47, 55 can be removed from the end
couplings 92, 124.
[0027] Figures 14-19 show the drive system 200 for automatically rocking the sleeper 10
in a front-to-back rocking direction. In example embodiments, the drive system 200
comprises a drive mechanism 210 comprising a housing 212, a first link 214 comprising
a first slot 216 and a second slot 218 and pivotable about a pin 220, a drive link
222 comprising a driving pin 224, and a connecting link 226 comprising a first portion
mounted to the driving pin 224 and a second pin 230 connected to the first slot 216
of the first link 214. In example embodiments, rotary movement of the drive link 222
causes the connecting link 226 to pivotally move the first link 214 such that a drive
finger or projection 240 translates in and out of the drive mechanism 210 to permit
an end 242 thereof to contact the support surface S and rock the sleeper 10 in a front-to-back
rocking motion. In some example embodiments, a wheel or other member projects from
the end of the projection 240 to limit the amount of friction when contacting the
support surface S. IN example embodiments, a push button or switch 213 is formed or
a portion of the drive mechanism 210 for starting or stopping the drive mechanism
210.
[0028] As depicted in Figure 15, the projection 240 fully extends from the drive mechanism
210 such that an angle θ
1 is defined between the support surface S and an axis extending substantially parallel
to the frame 12. In example embodiments, the maximum rearward rocking position of
the frame 12 occurs when the projection 240 is fully extended. And, as depicted in
Figure 16, the projection 240 is fully retracted within the drive mechanism 210 such
than an angle θ
2 is defined between the support surface S and an axis extending substantially parallel
to the frame 12. In example embodiments, the angle θ
1 is between about 85-90 degrees and the angle θ
2 is between about 90-95 degrees. According to other example embodiments, the change
between the angles θ
1 and θ
2 can range from between about 5-20 degrees, for example between about 10 degrees according
to one example embodiment. According to example embodiments, the infant receiving
receptacle 14 defines an angle ϕ between the back and seat portion thereof. In example
embodiments, the angle ϕ is configured such that a child or infant seated therein
is positioned generally at the center of gravity such that the sleeper 10 is less
likely to unintentionally tip over or malfunction. In example embodiments, the sleeper
10 can also include a recline adjustment mechanism and/or a height adjustment mechanism.
For example, the seat may include a first seat position, wherein the seat supports
a child occupant in a relatively horizontal orientation, and a second seat position,
wherein the seat supports the child occupant at an incline relative to horizontal
(e.g., 15°). The support device can further one or more rock restricting mechanisms
for limiting the range of rocking motion and/or a stopping mechanism that allows for
selectively prohibiting the support device from rocking. Certain example embodiments
of the support device can include wheels, or other sliding or rolling means, that
allow the support device to be rolled across the support surface, for example, which
can be coupled to one or more of the feed 36. A handle can also be provided to facilitate
a caregiver pushing or pulling the support device across the support surface.
[0029] Referring to Figures 17-19, the drive system 200 is generally mounted to the upright
leg members 25, 35 of the lower support 16. In example embodiments, the drive mechanism
210 is generally suspended between the upright leg portions 25, 35 wherein a support
system 260 generally extends from the drive mechanism 210 (or housing 212 thereof)
for coupling to the upright leg portions 25, 35. In example embodiments, a first support
262 extends from a side of the drive mechanism 210 to the upright leg member 35 and
a second support 264 extends from an opposite side of the drive mechanism 210 to the
upright leg member 25. In example embodiments, the upright leg member 25 comprises
a coupling 266 comprising a coupler portion 268 for engagement with the upright leg
member 25, and receiver 269 extends therefrom and defines an elongate conduit 270
extending therethrough such that the second support 264 can pivotally mount thereto.
According to example embodiments, the coupling 266 facilitates the pivotal coupling
of the second support 264 thereto, for example to move or swing based on the drive
system 200 being coupled with the lower frame support in the expanded configuration,
or for example to become partially removed such that the lower frame support can move
to the collapsed configuration. The upright leg member 35 comprises a coupling 280
having a coupler portion 282 for engagement with the upright leg member 35 and a receiver
portion 284 for removably mounting the first support 262 thereto. In example embodiments,
a resilient tab or clip 286 is provided near the end of the first support 262 for
providing removable engagement with the receiver portion 284. For example, when coupled
thereto, actuation or manipulation of the clip 286 allows for disengagement of the
first support 262 with the coupling 280. Thus, when it is desired to collapse the
sleeper 10 after use, the drive system 200 is partially removed (e.g., first support
262 is removed from engagement with the coupling 280) from engagement with the frame
12 such that the frame 12 can be collapsed (see Figure 2). Accordingly, in example
embodiments, the present invention provides a partially removable cross bar such that
the drive system 200 acts as a structural feature for maintaining rigidity and sturdiness
to the frame and as a support for supporting the drive mechanism 210.
[0030] According to another example embodiment, the present invention relates to a method
of using a folding elevated sleeper. In example embodiments, the method comprises
providing a lower frame support comprising a first lower frame support portion and
a second lower frame support portion, the first and second lower frame support portions
each comprising base portions and upright leg members, each of the upright leg members
comprising a connection end; providing an upper frame support comprising first and
second upper frame support portions, wherein each of the first and second upper frame
support portions comprise an intermediate member and arm extensions, each of the arm
extensions comprising connection ends; providing a pair of coupling hubs; coupling
connection ends of the upright leg members and arm extensions to the coupling hubs
such that both the lower and upper frame supports are in an expanded configuration;
and folding either of the lower or upper frame supports together from the expanded
configuration to the collapsed configuration, wherein a synchronous linkage assembly
of the coupling hubs cause a similar synchronous fold of the other of the lower and
upper frame supports between from the expanded configuration to the collapsed configuration.
[0031] While the invention has been described with reference to example embodiments, it
will be understood by those skilled in the art that a variety of modifications, additions
and deletions are within the scope of the invention, as defined by the following claims.
[0032] For the avoidance of doubt, the present application extends to the subject-matter
described in the following numbered paragraphs (referred to as "Para" or "Paras"):
- 1. A folding elevated sleeper comprising:
a child receiving receptacle; and
a collapsible frame assembly attached to and supporting the child receiving receptacle,
the collapsible frame assembly comprising a lower frame portion movable between an
extended configuration and a collapsed configuration, the collapsible frame assembly
further comprising an upper frame portion movable between an extended configuration
and a collapsed configuration,
wherein the lower and upper frame portions are linked together to provide synchronous
movement of the lower and upper portions between the extended and collapsed configurations
such that expansion of one of the frame portions from the collapsed configuration
to the extended configuration causes a substantially synchronized movement of the
other of the frame portions from the collapsed configuration to the extended configuration.
- 2. The folding elevated sleeper of Para 1, wherein collapsing of one of the frame
portions from the extended configuration to the collapsed configuration causes a substantially
synchronized movement of the other of the frame portions from the extended configuration
to the collapsed configuration.
- 3. The folding elevated sleeper of Para 1 or 2, wherein the lower frame comprises
a first lower frame support portion and a second lower frame support portion, the
first and second frame support portions each comprising base portions and upright
leg members, each of the upright leg members comprising a connection end.
- 4. The folding elevated sleeper of any preceding Para, wherein the upper frame portion
comprises first and second upper frame support portions, wherein each of the first
and second upper frame support portions comprise an intermediate member and arm extensions,
each of the arm extensions comprising connection ends.
- 5. The folding elevated sleeper of any preceding Para, further comprising a connection
hub for linking each end of the lower and upper frame portions together.
- 6. The folding elevated sleeper of Para 5, wherein the arm extensions couple with
end couplings of the connection hub, each end coupling comprising a connection portion
for coupling to the connection end and having a pivot conduit generally formed transverse
to the connection portion for receiving a fastener to pivot thereabout.
- 7. The folding elevated sleeper of Para 6, wherein each end coupling further comprises
a driving receiver offset from the pivot conduit.
- 8. The folding elevated sleeper of Para 7, further comprising a hub member comprising
a first conduit extending along a first axis, the first conduit provided for receiving
a fastener to provide pivotally coupling a pair of the end couplings thereto, wherein
the pivot conduits of each end coupling axially align and pivot about the first conduit.
- 9. The folding elevated sleeper of Para 8, wherein the hub member comprises a pair
of curved slots formed therethrough and generally symmetrically spaced a distance
from the first conduit, wherein the curved slots align respectively with the guidance
conduit of each end coupling.
- 10. The folding elevated sleeper of Para 9, further comprising a guidance pin extending
through each respective driving receiver and curved slot such that the first and second
upper frame support portions are constrained to pivot within a boundary defined by
each of the curved slots.
- 11. The folding elevated sleeper of Para 10, wherein the boundary is such that each
of the end couplings can pivot about 45 degrees.
- 12. The folding elevated sleeper of Para 10 or 11, wherein the hub member further
comprises a second and third pivot axis extending generally parallel and laterally
offset from the first pivot axis, the second and third pivot axes aligned with conduits
and projections for pivotal mounting of the connection ends of the first and second
lower frame support portions thereto.
- 13. The folding elevated sleeper of Para 12, further comprising a first arm assembly
engaged with the connection ends of the first lower frame support portion and a second
arm assembly engaged with the connection ends of the second lower frame support portion,
the first and second arm each comprising an opening for pivotal engagement with respective
projections of the hub member.
- 14. The folding elevated sleeper of Para 13, wherein the first and second arm assembly
each comprise a guide arm and a drive arm, the guide and drive arm configured for
engagement together and for engagement to the connection ends, wherein the first and
second arm assemblies extend from their respective connection ends.
- 15. The folding elevated sleeper of Para 14, wherein the first and second arm assemblies
each comprise an opening for pivotally mounting with respective projections of the
hub member, a central conduit for pivotally coupling the arm assemblies together,
an intermediate driving conduit defining a cam surface, and an elongate guidance slot.
- 16. The folding elevated sleeper of Para 15, wherein the guidance pin of each of the
end couplings extend through their respective driving receiver and curved slot, through
their respective intermediate driving conduit, and through the elongate guidance slot
corresponding to the opposite arm assembly.
- 17. The folding elevated sleeper of Para 16, further comprising a locking mechanism
for selective locking of the lower and upper frame portions in the extended configuration.
- 18. The folding elevated sleeper of Para 17, further comprising a lock pin pivotally
coupling the first and second arm assemblies together, the lock pin extending through
the central conduit of each of the assemblies to provide for pivotal coupling therebetween.
- 19. The folding elevated sleeper of Para 18, wherein the locking mechanism comprises
a pair of spaced apart channels for movably mounting to the projections of the hub
member, the locking mechanism further comprising a slot formed therein for providing
engagement with the lock pin.
- 20. The folding elevated sleeper of Para 19, further comprising an actuating member
provided on the connection hub and linked with the locking mechanism for providing
selective unlocking of the locking mechanism.
- 21. The folding elevated sleeper of Para 20, wherein depressing the actuating member
moves the locking mechanism from a locked position to an unlocked position such that
the lock pin is permitted to move along the slot of the locking mechanism to permit
the lower and upper frame supports to pivot from the expanded configuration to the
collapsed configuration.
- 22. The folding elevated sleeper of Para 21, wherein in the unlocked position, the
locking mechanism permits the lock pin to move along the slot such that the first
and second lower frame members can pivot about the second and third pivot axes, and
wherein with the arm assemblies connected together by the lock pin and linked through
the guidance pins extending through the guidance slots and driving conduits of the
arm assemblies, curved slots of the hub and driving receivers of the end couplings,
the upper and lower frames are configured to provide synchronous movement between
the collapsed and expanded configurations.
- 23. The folding elevated sleeper of any of Paras 19-22, wherein in the locked position,
the locking mechanism is biased by a biasing member to prevent upward movement of
the lock pin within the slot thereof and thereby preventing pivotal movement of the
first and second lower frame support portions, wherein by extension of the guidance
pins through the guidance slots and driving conduits of the arm assemblies and curved
slots of the hub, pivotal movement of the first and second upper frame support portions
is prevented.
- 24. The folding elevated sleeper of any preceding Para, further comprising a partially
removable cross bar for supporting the lower frame portions in the extended configuration.
- 25. The folding elevated sleeper of any preceding Para, further comprising a partially
removable cross bar for supporting a drive system for rocking the collapsible frame
assembly.
- 26. A child support device comprising:
a child receiving receptacle; and
a frame assembly attached to and supporting the child receiving receptacle, the frame
assembly comprising a lower frame portion and an upper frame portion, the lower frame
portion comprising a first lower frame support portion and a second lower frame support
portion, the first and second lower frame support portions each comprising base portions
and upright leg members, the upper frame portion comprising a first upperframe support
portion and a second upper frame support portion, the first and second upper frame
support portions each comprising an intermediate member and arm extensions, wherein
the frame assembly is linked together to provide synchronous movement of the lower
and upper frame portions between the expanded and collapsed configurations such that
collapsing of one of the frame portions from the expanded configuration to the collapsed
configuration causes a substantially synchronized movement of the other of the frame
portions from the expanded configuration to the collapsed configuration.
- 27. A method of using a folding elevated sleeper comprising:
providing a lower frame support comprising a first lower frame support portion and
a second lower frame support portion, the first and second lower frame support portions
each comprising base portions and upright leg members, each of the upright leg members
comprising a connection end;
providing an upper frame support comprising first and second upper frame support portions,
wherein each of the first and second upper frame support portions comprise an intermediate
member and arm extensions, each of the arm extensions comprising connection ends;
providing a pair of coupling hubs;
coupling connection ends of the upright leg members and arm extensions to the coupling
hubs such that both the lower and upper frame supports are in an expanded configuration;
and
folding either of the lower or upper frame supports together from the expanded configuration
to the collapsed configuration, wherein a synchronous linkage assembly of the coupling
hubs cause a similar synchronous fold of the other of the lower and upper frame supports
between from the expanded configuration to the collapsed configuration.
1. A folding elevated sleeper comprising:
a child receiving receptacle; and
a collapsible frame assembly attached to and supporting the child receiving receptacle,
the collapsible frame assembly comprising a lower frame portion movable between an
extended configuration and a collapsed configuration, the collapsible frame assembly
further comprising an upper frame portion movable between an extended configuration
and a collapsed configuration,
wherein the lower and upper frame portions are linked together to provide synchronous
movement of the lower and upper portions between the extended and collapsed configurations
such that expansion of one of the frame portions from the collapsed configuration
to the extended configuration causes a substantially synchronized movement of the
other of the frame portions from the collapsed configuration to the extended configuration.
2. The folding elevated sleeper of claim 1, wherein collapsing of one of the frame portions
from the extended configuration to the collapsed configuration causes a substantially
synchronized movement of the other of the frame portions from the extended configuration
to the collapsed configuration.
3. The folding elevated sleeper of claim 1 or 2, wherein the lower frame comprises a
first lower frame support portion and a second lower frame support portion, the first
and second frame support portions each comprising base portions and upright leg members,
each of the upright leg members comprising a connection end.
4. The folding elevated sleeper of any preceding claim, wherein the upper frame portion
comprises first and second upper frame support portions, wherein each of the first
and second upper frame support portions comprise an intermediate member and arm extensions,
each of the arm extensions comprising connection ends.
5. The folding elevated sleeper of any preceding claim, further comprising a connection
hub for linking each end of the lower and upper frame portions together; wherein optionally
the arm extensions couple with end couplings of the connection hub, each end coupling
comprising a connection portion for coupling to the connection end and having a pivot
conduit generally formed transverse to the connection portion for receiving a fastener
to pivot thereabout; and wherein optionally each end coupling further comprises a
driving receiver offset from the pivot conduit;
optionally further comprising a hub member comprising a first conduit extending along
a first axis, the first conduit provided for receiving a fastener to provide pivotally
coupling a pair of the end couplings thereto, wherein the pivot conduits of each end
coupling axially align and pivot about the first conduit; wherein optionally the hub
member comprises a pair of curved slots formed therethrough and generally symmetrically
spaced a distance from the first conduit, wherein the curved slots align respectively
with the guidance conduit of each end coupling;
optionally further comprising a guidance pin extending through each respective driving
receiver and curved slot such that the first and second upper frame support portions
are constrained to pivot within a boundary defined by each of the curved slots; wherein
optionally the boundary is such that each of the end couplings can pivot about 45
degrees.
6. The folding elevated sleeper of claim 5, wherein the hub member further comprises
a second and third pivot axis extending generally parallel and laterally offset from
the first pivot axis, the second and third pivot axes aligned with conduits and projections
for pivotal mounting of the connection ends of the first and second lower frame support
portions thereto;
optionally further comprising a first arm assembly engaged with the connection ends
of the first lower frame support portion and a second arm assembly engaged with the
connection ends of the second lower frame support portion, the first and second arm
each comprising an opening for pivotal engagement with respective projections of the
hub member; wherein optionally the first and second arm assembly each comprise a guide
arm and a drive arm, the guide and drive arm configured for engagement together and
for engagement to the connection ends, wherein the first and second arm assemblies
extend from their respective connection ends; wherein optionally the first and second
arm assemblies each comprise an opening for pivotally mounting with respective projections
of the hub member, a central conduit for pivotally coupling the arm assemblies together,
an intermediate driving conduit defining a cam surface, and an elongate guidance slot.
7. The folding elevated sleeper of claim 6, wherein the guidance pin of each of the end
couplings extend through their respective driving receiver and curved slot, through
their respective intermediate driving conduit, and through the elongate guidance slot
corresponding to the opposite arm assembly.
8. The folding elevated sleeper of claim 7, further comprising a locking mechanism for
selective locking of the lower and upper frame portions in the extended configuration;
optionally further comprising a lock pin pivotally coupling the first and second arm
assemblies together, the lock pin extending through the central conduit of each of
the assemblies to provide for pivotal coupling therebetween.
9. The folding elevated sleeper of claim 8, wherein the locking mechanism comprises a
pair of spaced apart channels for movably mounting to the projections of the hub member,
the locking mechanism further comprising a slot formed therein for providing engagement
with the lock pin.
10. The folding elevated sleeper of claim 9, further comprising an actuating member provided
on the connection hub and linked with the locking mechanism for providing selective
unlocking of the locking mechanism.
11. The folding elevated sleeper of claim 10, wherein depressing the actuating member
moves the locking mechanism from a locked position to an unlocked position such that
the lock pin is permitted to move along the slot of the locking mechanism to permit
the lower and upper frame supports to pivot from the expanded configuration to the
collapsed configuration.
12. The folding elevated sleeper of claim 11, wherein in the unlocked position, the locking
mechanism permits the lock pin to move along the slot such that the first and second
lower frame members can pivot about the second and third pivot axes, and wherein with
the arm assemblies connected together by the lock pin and linked through the guidance
pins extending through the guidance slots and driving conduits of the arm assemblies,
curved slots of the hub and driving receivers of the end couplings, the upper and
lower frames are configured to provide synchronous movement between the collapsed
and expanded configurations.
13. The folding elevated sleeper of any of claims 9-12, wherein in the locked position,
the locking mechanism is biased by a biasing member to prevent upward movement of
the lock pin within the slot thereof and thereby preventing pivotal movement of the
first and second lower frame support portions, wherein by extension of the guidance
pins through the guidance slots and driving conduits of the arm assemblies and curved
slots of the hub, pivotal movement of the first and second upper frame support portions
is prevented.
14. The folding elevated sleeper of any preceding claim, further comprising a partially
removable cross bar for supporting the lower frame portions in the extended configuration
and/or a partially removable cross bar for supporting a drive system for rocking the
collapsible frame assembly.
15. A method of using a folding elevated sleeper comprising:
providing a lower frame support comprising a first lower frame support portion and
a second lower frame support portion, the first and second lower frame support portions
each comprising base portions and upright leg members, each of the upright leg members
comprising a connection end;
providing an upper frame support comprising first and second upper frame support portions,
wherein each of the first and second upper frame support portions comprise an intermediate
member and arm extensions, each of the arm extensions comprising connection ends;
providing a pair of coupling hubs;
coupling connection ends of the upright leg members and arm extensions to the coupling
hubs such that both the lower and upper frame supports are in an expanded configuration;
and
folding either of the lower or upper frame supports together from the expanded configuration
to the collapsed configuration, wherein a synchronous linkage assembly of the coupling
hubs cause a similar synchronous fold of the other of the lower and upper frame supports
between from the expanded configuration to the collapsed configuration.