SUPPORT ASSEMBLY

CROSS REFERENCE TO RELATED APPLICATIONS

[0001] This application claims the benefit of U.S. Provisional Application No. 63/467,223, filed May 17, 2023, which claims the benefit of U.S. Provisional Application No. 63/466,084, filed May 12, 2023, which claims the benefit of U.S. Provisional Application No. 63/434,168, filed December 21, 2022, which claims the benefit of U.S. Provisional Application No. 63/400,242, filed August 23, 2022, which claims the benefit of U.S. Provisional Application No. 63/398,632, filed August 17, 2022, each of which are incorporated herein by reference as if fully set forth.

FIELD OF INVENTION

[0002] The present disclosure generally relates to a child support assembly, and more particularly relates a convertible child support assembly that has at least one bassinet mode and a playard mode.

BACKGROUND

[0003] A bassinet is a framed enclosure that generally is configured to provide a safe and comfortable space for an infant or young child (hereinafter referred to as a “child”), and support occupants while sleeping or laying down.

[0004] A playard is another type of framed enclosure that provides a safe and comfortable space for a child to both sleep and play. Playards generally have a greater depth or higher sidewalls than bassinets.

[0005] Soft goods assemblies, such as fabric, mesh, or other material can be used to enclose an interior space in a bassinet or a playard. The soft goods assemblies can include sidewalls having some transparency such that caregivers can watch children inside of the bassinet or playard.

[0006] It would be desirable to provide a child support assembly that is capable of converting between a bassinet mode and a playard mode, that is also easy to fold for storage and travel. SUMMARY

[0007] According to one aspect, the present disclosure is directed to a child support assembly. The child support assembly can include a frame assembly and a soft goods assembly. The frame assembly can have a leg assembly connected to a top rail. The soft goods assembly can be connected to the frame assembly and configured to define an interior space for supporting a child. While the leg assembly is connected to the top rail, the child support assembly is configured to convert between: (i) a lower bassinet mode in which the frame assembly has a first height; (ii) a raised bassinet mode in which the frame assembly has a second height that is greater than the first height; and (iii) a playard mode in which the interior space has an increased depth compared to a depth of the interior space in both the lower bassinet mode and the raised bassinet mode.

[0008] According to another aspect, the present disclosure is directed to a child support assembly. The child support assembly can include a frame assembly and a soft goods assembly. The frame assembly can include a first fold hub having a release actuator; a second fold hub having a release actuator; a rail assembly including a first top rail and a second top rail. The first top rail and the second top rail are rotatably coupled to the first fold hub and the second fold hub for transitioning the rail assembly from an unfolded orientation to a folded orientation. The soft goods assembly can be connected to the frame assembly and configured to define an interior space for supporting a child. The release actuator of each of the first fold hub and the second fold hub can be actuated to transition the rail assembly from an unfolded orientation to a folded orientation. The child support assembly is configured to convert between: (i) a lower bassinet mode in which the frame assembly has a first height; (ii) a raised bassinet mode in which the frame assembly has a second height that is greater than the first height; and (iii) a playard mode in which the interior space has an increased depth compared to a depth of the interior space in both the lower bassinet mode and the raised bassinet mode.

[0009] According to yet another aspect, the present disclosure is directed to a child support assembly. The child support assembly can include a frame assembly, which can include a rail assembly including a first fold hub, a second fold hub, a first top rail, and a second top rail. A leg assembly can be coupled to the rail assembly. The canopy assembly can include a housing, a main canopy tube coupled to and extending from the housing, and a canopy protrusion extending from the housing in a non-parallel direction with respect to an axis of the main canopy tube. The canopy protrusion can be configured to be inserted into a receiving cavity of one or more of the first fold hub and the second fold hub to couple the canopy assembly to the rail assembly.

BRIEF DESCRIPTION OF THE DRAWINGS

[0010] The foregoing Summary as well as the following Detailed Description will be best understood when read in conjunction with the appended drawings, which illustrate embodiments of the disclosure. In the drawings:

[0011] Figure 1 is a side view of a child support assembly in a lower bassinet mode.

[0012] Figure 2 is a side view of the child support assembly in a raised bassinet mode.

[0013] Figure 3 is a side view of the child support assembly in a playard mode.

[0014] Figure 4A is a top perspective view of a frame assembly for the child support assembly in a first folded state.

[0015] Figure 4B is a top perspective view of the frame assembly of Figure 4A in a second folded state.

[0016] Figure 5A is a side perspective view of a frame assembly in a first upright state.

[0017] Figure 5B is a side perspective view of the frame assembly of Figure 5A in a semi-folded state.

[0018] Figure 5C is a side perspective view of the frame assembly of Figures 5A and 5B in a folded state with a leg assembly in a retracted state.

[0019] Figure 5D is a side perspective view of the frame assembly of Figures 5A-5C in a folded state with the leg assembly in an extended state.

[0020] Figure 6A is a magnified view of a hub for the frame assembly. [0021] Figure 6B is an exploded view of the hub of Figure 6A.

[0022] Figure 6C is a cross-sectional view of the hub of Figures 6A and 6B.

[0023] Figure 7A is a magnified view of a pivot connector assembly for a leg.

[0024] Figure 7B is a semi-transparent view of the pivot connector assembly of Figure 7A in a first state.

[0025] Figure 7C is a semi-transparent view of the pivot connector assembly of Figures 7A and 7B in a second state.

[0026] Figure 8A is a perspective view to show a first state of a canopy assembly.

[0027] Figure 8B is a perspective view to show a second state of a canopy assembly.

[0028] Figure 9A is a partial cross-sectional front view of a hub in an unfolded state.

[0029] Figure 9B is a cross-sectional side view of the hub in a locked state.

[0030] Figure 9C is a cross-sectional side view of the hub in an unlocked state.

[0031] Figure 10A is a partial cross-sectional front view of the hub in a folded state.

[0032] Figure 10B is a cross-sectional side view of the hub in a semi-locked state.

[0033] Figure 11A is a partial cross-sectional front view of a hub in an unfolded state.

[0034] Figure 1 IB is a cross-sectional side view of the hub in a locked state.

[0035] Figure 11C is a cross-sectional side view of the hub in an unlocked state.

[0036] Figure 11D is a cross-sectional side view of the hub in an unlocked state with legs folded.

[0037] Figure 12 is an exploded view of the hub illustrated in Figure 11A.

[0038] Figure 13 is a perspective view of another embodiment of the frame assembly.

[0039] Figure 14A is a detailed view of a fold hub in an unfolded orientation, as illustrated in Figure 13, showing the locking pins in a locked position. [0040] Figure 14B is a partially exploded view of the fold hub of Figure 14A.

[0041] Figure 15A is a detailed, partially transparent front view of the fold hub of Figure 14A, showing the locking pins in a locked position.

[0042] Figure 15B is a cross-sectional view taken along Section B-B in Figure 15A.

[0043] Figure 15C is a detailed, partially transparent front view of the fold hub of Figure 14A, showing the locking pins in an unlocked position.

[0044] Figure 15D is a detailed view of the fold hub of Figure 14A in a folded orientation.

[0045] Figure 15E is a detailed, partially transparent front view of the fold hub of Figure 15D.

[0046] Figure 16A is a partially exploded view of an alternative embodiment of a fold hub, similar to the embodiment illustrated in Figures 14A-15E

[0047] Figure 16B is a detailed, partially transparent front view of the fold hub of Figure 16A, showing the locking pins in a locked position.

[0048] Figure 16C is a detailed, partially transparent front view of the fold hub of Figure 16A, showing the locking pins in an unlocked position.

[0049] Figure 16D is a detailed view of the fold hub of Figure 16A in a folded orientation.

[0050] Figure 17A is a detailed view of another alternative embodiment of a fold hub in an unfolded orientation.

[0051] Figure 17B is a partially exploded view of the fold hub of Figure 17A.

[0052] Figure 17C is a cross-sectional front view of the fold hub of Figure

17A in a locked position.

[0053] Figure 17D is a cross-sectional perspective view of the fold hub of Figure 17A in the locked position.

[0054] Figure 17E is a cross-sectional front view of the fold hub of Figure 17A in an unlocked position.

[0055] Figure 17F is a cross-sectional perspective view of the fold hub of Figure 17A in the unlocked position.

[0056] Figure 17G is a cross-sectional front view of the fold hub of Figure

17A in the unlocked and folded orientation. [0057] Figure 18A is a perspective view of the frame assembly of Figure 13 in a folded orientation.

[0058] Figure 18B is a perspective view of the frame assembly of Figure 13 with the legs folded.

[0059] Figure 19 is a detailed perspective view of an end portion of a leg of the frame assembly of Figure 13.

[0060] Figure 20A is a cross-sectional view of the end portion of the leg in an extended orientation, taken along Section A-A as shown in Figure 19.

[0061] Figure 20B is a cross-sectional view of the end portion of the leg of Figure 20A transitioning to a folded orientation.

[0062] Figure 20C is a cross-sectional view of the end portion of the leg of Figure 20A in the folded orientation.

[0063] Figure 21A is a cross-sectional view of an alternative embodiment of the end portion of the leg in an extended orientation, similar to the embodiment illustrated in Figure 20A.

[0064] Figure 21B is a cross-sectional view of the alternative embodiment of the end portion of the leg of Figure 21A transitioning to a folded orientation.

[0065] Figure 21C is a cross-sectional view of the alternative embodiment of the end portion of the leg of Figure 21A in the folded orientation.

[0066] Figure 22A is a perspective view of an alternative embodiment of the leg in an extended orientation.

[0067] Figure 22B is a cross-sectional view of the end portion, of the leg of FIG. 22A, in an extended orientation.

[0068] Figure 22C is another cross-sectional view of the end portion, of the leg of FIG. 22A, in an extended orientation.

[0069] Figure 22D is a side cross-sectional view of the end portion, of the leg of FIG. 22A, in an extended orientation.

[0070] Figure 22E is another side cross-sectional view of the end portion, of the leg of FIG. 22A, in an extended orientation.

[0071] Figure 23 is a perspective view of a canopy assembly coupled to the frame assembly of Figure 13. [0072] Figure 24A is a detailed perspective view of a canopy connector of the canopy assembly of Figure 23, shown disassociated from the fold hub.

[0073] Figure 24B is a detailed perspective view of the canopy connector of the canopy assembly of Figure 23, shown assembled to the fold hub.

[0074] Figure 25 is a cross-sectional view of a canopy connector of the canopy assembly of Figure 23, shown assembled to the fold hub.

[0075] Figure 26A is a side view of the canopy assembly showing the canopy bow in a fully extended configuration.

[0076] Figure 26B is a side view of the canopy assembly showing the canopy bow in a partially extended configuration.

[0077] Figure 27A is a detailed perspective view of an alternative embodiment of a fold hub configured to connect to an alternative embodiment of the canopy connector of the canopy assembly.

[0078] Figure 27B is a detailed perspective view of the alternative embodiment of the canopy connector disassociated from the alternative embodiment of the fold hub of Figure 27A.

[0079] Figure 27C is another detailed perspective view of the alternative embodiment of the canopy connector disassociated from the alternative embodiment of the fold hub of Figure 27A.

[0080] Figure 27D is another detailed perspective view of the alternative embodiment of the canopy connector disassociated from the alternative embodiment of the fold hub of Figure 27A.

[0081] Figure 27E is a front view of the alternative embodiment of the canopy connector disassociated from the alternative embodiment of the fold hub of Figure 27A.

[0082] Figure 28A is a partial cross-sectional front view of an alternative embodiment of the canopy assembly coupled to a frame assembly.

[0083] Figure 28B is a magnified view of a portion of the alternative embodiment of the canopy assembly, as indicated in Figure 28A.

[0084] Figure 29A is a cross-sectional view of a canopy pivot connector of the canopy assembly. [0085] Figure 29B is a perspective view of the canopy pivot connector of Figure 29A.

[0086] Figure 29C is a perspective view of another embodiment of a canopy pivot connector.

[0087] Figure 29D is a front view of the canopy pivot connector of FIG. 29C connected to a canopy housing.

[0088] Figure 30A is a side view of an alternative embodiment of the canopy assembly showing the canopy bow in a fully extended configuration.

[0089] Figure 30B is a side view of the alternative embodiment of the canopy assembly showing the canopy bow oriented vertically in a partially open configuration.

[0090] Figure 30C is a side view of the alternative embodiment of the canopy assembly showing the canopy bow oriented horizontally in a partially open configuration.

DETAILED DESCRIPTION

[0091] Certain terminology is used in the following description for convenience only and is not limiting. The words “front”, “rear”, “upper”, and “lower” designate directions in the drawings to which reference is made. The words “inwardly” and “outwardly” refer to directions towards and away from parts referenced in the drawings. “Axially” refers to a direction along the axis of a shaft (or shaft-like structure), or a direction along a rotation axis. A reference to a list of items that are cited as “at least one of a, b, or c” (where a, b, and c represent the items being listed) means any single one of the items a, b, or c, or combinations thereof. The terms “about” and “approximately” are to be construed as within 10% of a stated value or ratio. The terminology includes the words specifically noted above, derivatives thereof, and words of similar import.

[0092] As shown in Figures 1-3, a child support assembly 10 is disclosed herein. The child support assembly 10 generally comprises a frame assembly 20, and a soft goods assembly 60 that is connected to the frame assembly 20 and is configured to define an interior space 100 for supporting a child. The term interior space 100 can generally refer to an enclosed perimeter. An upper portion of the interior space 100 can be open or can be enclosed by a canopy, for example.

[0093] As shown in Figures 4A and 4B, the frame assembly 20 can further comprise a rail assembly 30, that includes multiple supports, rods, frame elements, etc. The frame assembly 20 can further comprise a leg assembly 40 that is generally configured to support the rail assembly 30. The frame assembly 20 can generally define a support frame or structure for supporting the soft goods assembly 60.

[0094] The child support assembly 10 can be configured to convert between at least the following modes: (i) a lower bassinet mode in which the frame assembly has a first height (shown in Figure 1); (ii) a raised bassinet mode in which the frame assembly has a second height that is greater than the first height (shown in Figure 2); (iii) a playard mode in which the interior space has an increased depth compared to a depth of the interior space in both the lower bassinet mode and the raised bassinet mode (shown in Figure 3).

[0095] The heights, shapes, depths, and other profile aspects of the child support assembly 10 can vary in different embodiments of the present disclosure. In various examples of the lower bassinet mode, the child support assembly 10 has a height (Hl) of 10 inches — 18 inches, a height (Hl) of 12 inches — 16 inches, or a height (Hl) of about 14 inches. The child support assembly 10 in embodiments of the raised bassinet mode can have a height (H2) of 20 inches — 30 inches, a height (H2) of 22 inches - 26 inches, or a height (H2) of about 24 inches. The height of the child support assembly 10 can be measured between a lowermost and an uppermost portion of the entire child support assembly 10.

[0096] The interior space 100 in each of the lower bassinet mode and the raised bassinet mode can have a depth (DI) of 10 inches — 18 inches, a depth (DI) of 12 inches — 16 inches, or a depth (DI) of about 14 inches. The interior space 100 in the playard mode can have a depth (D2) of 20 inches — 30 inches, a depth (D2) of 22 inches — 26 inches, or a depth (D2) of about 24 inches. The depth of the interior space 100 can be measured between the base portion 66 and an upper edge of the soft goods assembly 60 or the frame assembly 20. [0097] The leg assembly 40 can have an adjustable height to convert between the lower bassinet mode and the raised bassinet mode. The leg assembly 40 can include a plurality of legs 42a-42d. In one example, four legs are provided but one of ordinary skill in the art would understand that fewer or more legs could be used, including embodiments with one, two, three, five, six, seven, or eight legs, or more. Each of the plurality of legs 42a-42d can have an adjustable length. Each of the legs 42a-42d can be independently adjusted, i.e. adjusting a height of the legs 42a-42d and adjusting a folded position of the legs 42a-42d.

[0098] The length of the legs can be adjusted via a variety of configurations, such as via telescoping configurations, folding/unfolding configurations, connecting/removing leg extenders, etc. In the configuration shown at least in Figures 4A and 4B, and Figures 5A-5D, the legs 42a-42d can have a telescoping configuration. Each of the legs 42a-42d can have a first leg portion 43a-43d and a second leg portion 44a-44b. Locking between the two leg portions 43a-43d, 44a- 44b can be controlled or maintained via a spring-loaded pin/hole configuration. As shown in Figure 2, a locking pin assembly 45 can be provided. One of ordinary skill in the art would understand that various types of connections or locking configurations could be used.

[0099] Each of the plurality of legs 42a-42d can be connected to the rail assembly 30 via at least one pivot connector assembly 38a-38d. The pivot connector assemblies 38a-38d can generally be configured to allow the legs 42a- 42d to fold or transition between a folded state and an unfolded, upright state. [00100] As shown in Figure 5D, in a folded state, each of the legs 42a-42d are positioned within an outer envelope or perimeter defined by the frame assembly 20, even with legs 42a-42d in the extended state. This allows for a more convenient folding configuration because users do not need to retract the legs 42a- 42d to be in the non-extended state in order to have a compact, folded frame assembly 20.

[00101] Figures 7A-7C illustrate the pivot connector assembly in more detail. As shown in Figures 7A-7C, the pivot connector assembly 38a can include an outer hub 39a, an inner hub 39b, a locking track 39c, and an actuator 39d or push button. The outer hub 39a can be attached to the rail assembly 30, and the inner hub 39b can be connected to the leg assembly, such as leg 42a. The locking track 39c can be configured to define a predetermined path or track for the leg 42a and the inner hub 39b to move while transitioning from the folded to unfolded positions. Based on the structure of the pivot connector assembly 38a, the inner hub 39b can be limited in its pivoting motion to a predetermined upright position (shown in Figure 7B) and folded position (shown in Figure 7C).

[00102] The frame assembly 20 can include a single rail or continuous frame or can be comprised of multiple rail elements. For example, at least one first top rail 32a and at least one second top rail 32b can be provided. The first top rail 32a and the second top rail 32b can be configured to be folded towards each other in a folded state and away from each other in a use state. The first and second top rails 32a, 32b can have a curved, semicircular profile, in one example. The shape of the first and second top rails 32a, 32b can vary. At least one hub 34a, 34b can be configured to connect with both the at least one first top rail 32a and the at least one second top rail 32b. Rail connectors 36a-36d (i.e. interfaces) can be provided for connecting the rails 32a, 32b to the hubs 34a, 34b.

[00103] Figures 6A-6C illustrate further details of the hub 34a, according to one example. As shown in Figures 6A-6C, the hub 34a can include various components, such as an actuator 35a or push button, an outer hub cover 35b, an outer canopy pivot 35c, an outer hub 35d, a locking gear 35e, an inner hub 35f, and an inner canopy pivot 35g. The outer hub 35d can include a receptacle or sleeve 35d’ for receiving a portion of the frame assembly 20, such as the first or second top rail 32a, 32b. The inner hub 35f can similarly include a receptacle or sleeve 35f for receiving a portion of the frame assembly 20, such as the first or second top rail 32a, 32b. The outer hub 35d and the inner hub 35f can function similar to the rail connectors 36a-36d shown in Figures 4A and 4B. The first and second top rails 32a, 32b can be configured to be removed from the hubs 34a, 34b for further compact storage of the frame assembly 20.

[00104] The outer canopy pivot 35c and the inner canopy pivot 35g can each be configured to receive a portion of a canopy assembly 70. The canopy assembly 70 can comprise a first canopy rail 72a and a second canopy rail 72b. The first and second canopy rails 72a, 72b can be independently adjusted to lay flat against a portion of the rail assembly 20, or pivot to an upward or upright position, and any intermediate positions therebetween. Although not specifically illustrated, the canopy assembly 70 can further include a cloth enclosure or material that is attached to the first and second canopy rails 72a, 72b.

[00105] Figures 8A and 8B show further details with respect to the first and second canopy rails 72a, 72b. In one example, the first canopy rail 72a is an outer canopy rail and the second canopy rail 72b is an inner canopy rail. Both of the canopy rails 72a, 72b can pivot about a main folding axis (X), which can be the same folding axis for both the canopy rails 72a, 72b and the top rails 32a, 32b. The canopy rails 72a, 72b can attach to a respective one of the inner and outer canopy pivots 35c, 35g on each hub. The canopy rails 72a, 72b are configured to rotate between an open position and a closed position. The canopy rails 72a, 72b rotate about the same axis as the main fold axis.

[00106] Figures 9A-9C, 10A, and 10B illustrate further aspects of the folding mechanism or assembly. More specifically, Figure 9B shows a locked state, Figure 9C shows an unlocked state, and Figure 10B illustrates a semi-locked state. The locking gear 35e is configured to engage with teeth on the inner and outer hubs 35d, 35f to hold them in an unfolded position. The locking gear 35e can slide along the main fold axis between a locked and an unlocked position. The locking gear 35e can be pushed or engaged by the actuator 35a. When the locking gear 35e is pushed to an unlocked position, it disengages with teeth 35d’ on the outer hub 35d. When in a folded position, the locking gear 35e has features that block it from fully engaging with the teeth 35d’ on the outer hub 35d. In this position, the teeth 35d’ on the outer hub 35d are ramped such that the teeth 35d’ will push the locking gear 35e to the fully unlocked position when the inner and outer hubs 35d, 35f are rotated to the unfolded position. This allows the unit to be semi-locked when in the folded position, but configured such that a user can overcome the lock by unfolding the unit without having to press the actuator 35a.

[00107] Figures 11A-11D and 12 illustrate an alternative aspect of a pivot connector assembly 138a. Portions of the alternate aspect of the pivot connector assembly disclosed in Figures 11A-11D are similar to aspects of the pivot connector assembly described above in Figures 7A-7C and those portions function similarly to those described above. The pivot connector assembly 138a can include a hub cover 139a, a leg hub 139b, a locking track 139c, an actuator 139d or push button, and a leg pivot 139e.

[00108] The pivot connector assembly 138a locks the leg 42a in an unfolded position and a folded position. The leg 42a is connected to the leg pivot 139e. The leg pivot 139e rotates relative to the leg hub 139b, which can be rigidly connected to the first top rail 32a. The actuator 139d can slide within the leg hub 139b and is biased into the locked position by, for example, a spring or other biasing member 140. The biasing member 140 bears against a spring carrier 141. The leg pivot 139e defines the locking track 139c that corresponds to the folded and unfolded positions. The locking track 139c can include, for example a slot or hole defined by the leg pivot 139e. The actuator 139d can define a hole 142 that is used to connect the actuator 139d to the leg pivot 139e by, for example, a pin 143. When the leg 42a is rotated to the unfolded position, the pin 143 is biased into a portion of the locking track 139c that locks the pivot leg 139e from rotating. When the actuator 139d is pushed, the pin 143 is moved into a radial portion of the locking track 139c, which allows the leg pivot 139e to rotate. When the leg pivot 139e is in the folded position, the pin 143 is again biased to a straight portion of the locking track 139c to prevent the leg pivot 139e from rotating. The folded position of the locking track 139c also contains a ramped surface to allow the user to unfold the leg 42a without pressing the actuator 139d.

[00109] The soft good assembly 60 can comprise a sidewall 62 and a base portion 66. The sidewall 62 can be comprised of fabric, mesh, or other material. The sidewall 62 can be comprised of a see-through material such that parents or caregivers can monitor or watch children within the interior space 100. The sidewall 62 can have a first sidewall portion 62a and a second sidewall portion 62b. The first sidewall portion 62a and the second sidewall portion 62b can be selectively connected to each other.

[00110] The base portion 66 can be composed of a material having a greater rigidity than the sidewall 62, and can include a plastic panel, or other material. The base portion 66 defines a generally flat support surface within the interior space 100. The base portion 66 can be configured to rest on a ground support surface (G) in the lower bassinet mode and the playard mode, and the base portion 66 can be configured to be raised above the ground support surface in the raised bassinet mode.

[00111] The child support assembly 10 can be configured to convert from the raised bassinet mode to the playard mode via engagement with a soft goods conversion assembly 64. The soft goods conversion assembly 64 can include a first soft goods converter 64a attached to an end (i.e. lower end or bottom end) of the first sidewall portion 62a and a second soft goods converter 64b attached to an end (i.e. lower end or bottom end) of the second sidewall portion 62b. In one configuration, the first soft goods converter 64a is attached to a bottom edge of the first sidewall portion 62a and the second soft goods converter 64b is attached to a bottom edge of the second sidewall portion 62b. The second soft goods converter 64b can be positioned at an intersection between the second sidewall portion 62b and the base portion 66, in one example.

[00112] The first soft goods converter 64a and the second soft goods converter 64b can be configured to fasten with each other. For example, the first soft goods converter 64a and the second soft goods converter 64b can include at least one of: a snap connection, a zipper connection, a buckle connector, or other type of mating fastener. In one example, the first soft goods converter 64a and the second soft goods converter 64b are comprised of a zipper that extends around an entire periphery of the sidewall 62. A user can unzip the first and second soft goods converters 64a, 64b from each other and lower the base portion 66. In order to shorten the depth of the interior space 100, a user can raise the base portion 66 until the first and second soft goods converters 64a, 64b are adjacent to each other, and then zip the first and second soft goods converters 64a, 64b such that they are attached with each other.

[00113] The soft goods assembly 60 can be configured to connect to the frame assembly 20 via a soft goods support connector comprising a plurality of connector flaps 69. The connector flaps 69 can be configured to wrap around a portion of the frame assembly 20 to secure the soft goods assembly 60 to the frame assembly 20. A person having ordinary skill in the art would understand from this disclosure that other connections could be provided between the soft goods assembly 60 and the frame assembly 20.

[00114] The frame assembly 20 can be configured to transition from an unfolded, standing mode to a folded, collapsed mode, and the soft goods assembly 60 can be configured to remain connected to the frame assembly 20 as the frame assembly 20 transitions between the unfolded, standing mode to the folded, collapsed mode.

[00115] A method of converting a child support assembly 10 between at least one bassinet mode and a playard mode is also disclosed herein. The method can include multiple steps, such as transitioning between a lower bassinet mode and a raised bassinet mode by raising or lowering an interior space 100 defined by a soft goods assembly 60 via engagement with a leg assembly 40 to adjust a height of the leg assembly 40. The method can also include increasing a depth of the interior space 100 defined by the soft goods assembly 60 via engagement with a soft goods conversion assembly 64.

[00116] A person having ordinary skill in the art would understand that any one or more of the sub-assemblies disclosed herein can be provided separately from the other sub-assemblies. For example, the frame assembly 20 can be provided by itself and can be configured for attachment with a soft goods assembly 60. The frame assembly 20 can include a rail assembly 30 and a leg assembly 40. The rail assembly 30 can include at least one top rail 32a, 32b and the leg assembly 40 can include a plurality of legs 42a-42d that are pivotally attached to the at least one top rail 32a, 32b. Each of the legs 42a-42d can be adjusted both in a pivoting direction and in a height or length direction.

[00117] A soft goods assembly 60 is also disclosed herein that can be provided separately from the frame assembly 20. The soft goods assembly 60 can include at least one flap connector 69 configured to wrap around a portion of a frame assembly 20. A sidewall 62 can comprise a first sidewall portion 62a and a second sidewall portion 62b, and a base portion 66. An interior space 100 can be defined by the sidewall 62 and the base portion 66. A soft goods conversion assembly 64 can comprise a first soft goods converter 64a positioned at an intersection between the first sidewall portion 62a and the second sidewall portion 62b, and a second soft goods converter 64b positioned at an intersection between the second sidewall portion 62b and the base portion 66. The first and second soft goods converters 64a, 64b can be configured to connect with each other to adjust a depth of the interior space 100.

[00118] A child support assembly 10 is disclosed herein that includes a frame assembly 20, and a soft goods assembly 60 connected to the frame assembly 20 and configured to define an interior space 100 for supporting a child. The interior space 100 is configured to have three different states: (i) a first state (i.e. lower bassinet mode) in which the interior space 100 is adjacent to a ground support surface, (ii) a second state (i.e. raised bassinet mode) in which the interior space 100 is raised above the ground support surface, and (iii) a third state (i.e. playard mode) in which the interior space 100 has a greater depth than a depth of the interior space 100 in the first and second states.

[00119] Referring to Figure 13, another embodiment of a frame assembly 220 is illustrated. The frame assembly 220 can be used in the child support assembly 10 as an alternative to the frame assembly 20 previously described. The frame assembly 220 can further comprise a rail assembly 230, that includes multiple supports, rods, rails, tubes, frame elements, etc. The frame assembly 220 can further comprise a leg assembly 240 that is generally configured to support the rail assembly 230. The frame assembly 220 can generally define a support frame or structure for supporting the soft goods assembly 60, as previously described. As shown best in Figures 18A-18B, the frame assembly 220 can be collapsed into a folded configuration in which the rail assembly 230 and the leg assembly 240 are rotated into a compact, folded frame assembly 220 for ease of transport.

[00120] Referring to Figures 13 and 23, the frame assembly 220 includes at least the rail assembly 230, a plurality of leg assemblies 240, and a canopy assembly 280. The rail assembly 230 includes at least a first top rail 232A, a second top rail 232B, a first fold hub 234A, and a second fold hub 234B. The first top rail 232A and the second top rail 232B can each comprise, without limitation, a rod, rail, or a tube. Each of the plurality of leg assemblies 240 includes at least a leg hub 242, a leg 244, and a leg cap 246 (Figure 20A), discussed further below. The canopy assembly 280 includes at least a first canopy connector 282A, a second canopy connector 282B, a first canopy rail 284A, and a second canopy rail 284B. [00121] In some embodiments, the rail assembly 230 can include a single or continuous rail. In other embodiments, the rail assembly 230 can include multiple rail elements or rail segments connected together. In the illustrated embodiment, the rail assembly 230 includes the first top rail 232A and the second top rail 232B. The first top rail 232A and the second top rail 232B can be configured to be folded inwards toward each other in a folded state/orientation as shown in Figures 18A and 18B and outwards away from each other in an unfolded or use state/orientation as shown in Figures 13 and 23. In some examples, the first and second top rails 232A, 232B can have a curved, semicircular profile. In other examples, the shape of the first and second top rails 232A, 232B can vary. Further, in some examples, the first and second top rails 232A, 232B can be constructed from a tube having a circular cross-section. In other examples, the first and second top rails 232A, 232B can be constructed from a tube having an ovular, square, a rectangular, or other geometric shaped cross-section different than a circular cross-section.

[00122] The first fold hub 234A and the second fold hub 234B are laterally spaced from each other and are positioned at opposed sides of the rail assembly 230 between the first top rail 232A and the second top rail 232B. More specifically, each of the first fold hub 234A and the second fold hub 234B are positioned between an end of the first top rail 232A and the second top rail 232B, such that the end of each of the first top rail 232A and the second top rail 232B are connected to the first fold hub 234A and the second fold hub 234B. The first fold hub 234A and the second fold hub 234B are configured to couple the first top rail 232A and the second top rail 232B, and are the mechanisms/assemblies that allow the frame assembly 220 to fold and unfolded, as discussed further below.

[00123] In the embodiment illustrated in at least Figures 13 and 18A-18B, the frame assembly 220 includes four leg assemblies 240 coupled to the rail assembly 230. In another embodiment, the frame assembly 220 can include more or less than four leg assemblies 240. The plurality of leg assemblies 240 are generally configured to support the rail assembly 230. Further, as shown in Figure 18B, the plurality of leg assemblies 240 are configured to fold into a folded configuration for ease of transport and storage when the child support assembly 10 is not being used. Each leg assembly 240 can have an adjustable height to convert between the lower bassinet mode and the raised bassinet mode as described above with reference to leg assembly 40 and shown in at least Figures 1-3.

[00124] Figure 14A is a detailed view of the first fold hub 234A in an unfolded orientation, with locking pins 266A, 266B shown in a locked position. Figure 14B is a partially exploded view of the first fold hub 234A. Figure 15A is a detailed view of the first fold hub 234A illustrated in Figure 14A with a body of the first fold hub 234A illustrated as transparent. Figure 15B is a cross-sectional view taken along Section B-B in Figure 15A. Figure 15C is a detailed view of the first fold hub 234A in an unfolded orientation, with locking pins 266A, 266B shown in an unlocked position. Figure 15D is a detailed view of the first fold hub 234A in a folded orientation. Figure 15E is a detailed view of the first fold hub 234A illustrated in Figure 15D with a body of the first fold hub 234A illustrated as transparent. Figures 14A-15E will be discussed together. Although the following disclosure is directed toward the first fold hub 234A, it is to be understood that the following disclosure equally applies to the second fold hub 234B and that the disclosure will not be repeated to avoid redundancy. While the first fold hub 234A is described in detail herein, it is to be understood that the second fold hub 234B can be identical to the first fold hub 234A.

[00125] Referring to Figures 14A-14B, the first fold hub 234A includes a body 260, a first pivot axis 262A, a second pivot axis 262B, a first fastener 263A, a second fastener 263B, a first locking slot 264A, a second locking slot 264B, a first locking pin 266A, a second locking pin 266B, and a release actuator 268 or button. The body 260 is the main body or housing portion of the first fold hub 234A in which the other components and features are situated. The first and second pivot axis 262A, 262B can each be an axis about which the first top rail 232A and/or the second top rail 232B pivot and rotate. More specifically, the first pivot axis 262A is positioned on a first end of the body 260 and the second pivot axis 262B is positioned on a second, opposite end of the body 260. In some examples, the first and second pivot axis 262A, 262B can each be aligned with the first and second fasteners 263A, 263B, respectively, such as, without limitation, a dowel, bolt, screw, or pin, that extend through and are fixed to the body 260. Further, the first top rail 232A and the second top rail 232B can be rotationally coupled to the first fastener 263A and the second fastener 263B, respectively, to facilitate the rotation of the rails 232A, 232B into and out of the folded orientation.

[00126] As illustrated in Figure 14B, each of the first top rail 232A and the second top rail 232B can include a pivot aperture 236A, 236B, a rail slot 238A, 238B, and an insert 250A, 250B positioned within a distal end of each of the rails 232A, 232B, respectively. Each of the inserts 250A, 250B can include an insert slot 252A, 252B, and an insert aperture 254A, 254B. When the inserts 250A, 250B are positioned within the respective rails 232A, 232B, the insert slots 252A, 252B are generally aligned with the pivot apertures 236A, 236B and the insert apertures 254A, 254B are generally aligned with the rail slots 238A, 238B. The shape and positioning of the aforementioned slots and apertures allow the cylindrically shaped inserts 250A, 250B to axially translate within the rails 232A, 232B during transition from the folded to unfolded orientation, or vice versa, discussed further below. Further, the pivot apertures 236A, 236B provide a pivot location in which the first and second fasteners 263A, 263B are inserted to rotationally couple the first top rail 232A and the second top rail 232B to the first fold hub 234A.

[00127] The first and second locking slots 264A, 264B are narrow apertures, slits, or tracks that may extend fully through the body 260, from a lateral outer surface of the body 260 to the opposite lateral outer surface of the body 260. The first and second locking slots 264A, 264B can include a convex shape relative to the release actuator 268 (i.e., a wave-like shape including a convex shaped portion). The first and second locking slots 264A, 264B can extend at an oblique angle from a lower corner of the body 260 towards an upper central portion of the body 260, such that the locking slots 264A, 264B are not a straight line or aperture extending from a first point to a second point on the body 260. As illustrated, the first locking slot 264A can be positioned adjacent the first pivot axis 262A and the second locking slot 264B can be positioned adjacent the second pivot axis 262B. The first and second locking slots 264A, 264B are configured to interface with and guide the first and second locking pins 266A, 266B, respectively, when the frame assembly 220 transitions from the unfolded configuration to the folded configuration, or vice-versa. Further, the first and second locking slots 264A, 264B are configured to aid in securing the frame assembly 220 in the folded and unfolded positions through a frictional force between the first and second locking slots 264A, 264B and the first and second locking pins 266A, 266B.

[00128] In the illustrated embodiment, the first fold hub 234A includes first and second locking pins 266A, 266B positioned on opposite halves of the body 260. Each of the first and second locking pins 266A, 266B may comprise, without limitation, a pin, bolt, or dowel, that extends through a respective one of the first and a second locking slots 264A, 264B within the body 260, and extends through the rail slots 238A, 238B of the first top rail 232A or the second top rail 232B, respectively. In the illustrated example, the first locking pin 266A extends through the first locking slot 264A from one side to the other side of the body 260, the first locking pin 266A extends through the rail slot 238A extending through an end of the first top rail 232A, and the first locking pin 266A extends through the insert aperture 254A extending through the insert 250A. Similarly, in the illustrated example, the second locking pin 266B extends through the second locking slot 264B from one side to the other side of the body 260, the second locking pin 266B extends through the rail slot 238B extending through an end of the second top rail 232B, and the second locking pin 266B extends through the insert aperture 254B extending through the insert 250B.

[00129] In some examples, a biasing member (e.g. a spring) can be positioned and coupled between the first top rail 232A and the insert 250A, and between the second top rail 232B and the insert 250B. The biasing members can be configured to engage the inserts 250A, 250B to force or bias the first and second locking pin 266A, 266B towards a central plane of the body 260. Therefore, the first locking pin 266A can extend through the insert aperture 254A, and a biasing member can bias the insert 250A and the first locking pin 266A toward a center of the body 260 to a locked position to secure the first top rail 232A in an unfolded position. The second locking pin 266B can extend through the insert aperture 254B, and a biasing member can bias the insert 250B and the second locking pin 266B toward a center of the body 260 to a locked position to secure the second top rail 232B in an unfolded position. The first and second locking pins 266A, 266B secure the first and second top rails 232A, 232B in the unfolded position until an external force or component translates the first and second locking pins 266A, 266B in a direction away from the center of the body 260, discussed below.

[00130] The release actuator 268 is positioned partially within the body 260 and partially outside the body 260 of the first fold hub 234A. Further, the release actuator 268 is positioned adjacent a lower surface of the body 260 of the first fold hub 234A. It will be appreciated that the release actuator 268 can be positioned on a side surface of the body 260 of the first fold hub 234A. The release actuator 268 is actuatable to release the frame assembly 220 from the unfolded orientation, allowing the frame assembly 220 to fold into the folded orientation. The release actuator 268 can be positioned within a groove or slot within the body 260, and the release actuator 268 can slide or translate vertically within the body 260. The release actuator 268 can be coupled to the body 260 through a biasing member (not shown) that is configured to force or bias the release actuator 268 downward away from the first and second top rails 232A, 232B. In some examples, the biasing member can be a spring that is coupled to both the body 260 and the release actuator 268, and the biasing member continually biases the release actuator 268 downward. Further, a stop (not shown) can be included within the body 260 and/or the release actuator 268 to prevent the release actuator 268 from translating fully out of the body 260.

[00131] The release actuator 268 can include a first ramped surface 268A and a second ramped surface 268B, each of which are positioned adjacent a top or upper surface of the release actuator 268. The first and second ramped surfaces 268A, 268B are configured to engage with the first and second locking pins 266A, 266B, respectively, to cause the first and second locking pins 266A, 266B to translate horizontally away from a central plane of the body 260. More specifically, when the rail assembly 230 is in the unfolded or in-use configuration (Figure 14A), a user can squeeze the release actuator 268 to cause the release actuator 268 to translate vertically towards the first and second locking pins 266A, 266B. During the vertical translation of the release actuator 268, the first and second ramped surfaces 268A, 268B engage with the first and second locking pins 266A, 266B, respectively, causing the first and second locking pins 266A, 266B to translate horizontally away from a center plane of the release actuator 268 and the body 260 to an unlocked position, as shown best in Figure 15C.

[00132] The horizontal translation of the first and second locking pins 266A, 266B away from the center of the body 260 further causes the locking pins 266A, 266B to translate within the rail slots 238A, 238B in the ends of the first and second top rails 232A, 232B. In turn, this causes the biasing members within the first and second top rails 232A, 232B to compress, allowing the locking pins 266A, 266B to translate within the locking slots 264A, 264B of the body 260. Once the locking pins 266A, 266B have translated outwards away from a central plane of the body 260 a specified distance, the locking pins 266A, 266B are free to translate into a curved central portion of each of the locking slots 264A, 264B. In addition, the first top rail 232A and the second top rail 232B are free to rotate about the first pivot axis 262A and the second pivot axis 262B, respectively, into the folded configuration.

[00133] As shown in Figures 15D, 15E, and 18A, when the first top rail 232A and the second top rail 232B rotate into the folded position, the first locking pin 266A and the second locking pin 266B translate through the convex shaped portion (i.e., wave-like portion) of the locking slots 264A, 264B, respectively, until the locking pins 266A, 266B reach an end of the locking slots 264A, 264B positioned closest to the bottom or lowermost surface of the body 260 of the first fold hub 234A. As illustrated, the first and second top rails 232A, 232B rotate from a generally horizontal position about the first and second pivot axis 262A, 262B until the first and second top rails 232A, 232B are rotated past a 90-degree angle from horizontal. In other words, the first and second top rails 232A, 232B can be rotated more than 90-degrees from the unfolded orientation until the first and second top rails 232A, 232B are angled inward towards a center of the body 260.

[00134] The inward angle of a lower portion of the locking slots 264A, 264B allows the top rails 232A, 232B to rotate into a desired angle into the folded orientation. Further, the inward angle of a lower portion of the locking slots 264A, 264B creates a frictional force between the first and second locking pins 266A, 266B and the first and second locking slots 264A, 264B to aid in securing the rail assembly 230 in the folded orientation. As shown in Figures 18A and 18B, after the rail assembly 230 is folded, the plurality of leg assemblies 240 can also be folded inward toward a center of the rail assembly 230 to achieve the desired compact design, discussed further below. The rail assembly 230 will remain in the folded orientation (Figure 18A) until a user rotates the first and second top rails 232A, 232B back into the unfolded orientation (Figure 13). Once fully unfolded, the first and second locking pins 266A, 266B will be biased horizontally into the locked position, as shown in Figure 14.

[00135] Figure 16A is a partially exploded view of an alternative embodiment of a fold hub 334A, similar to the fold hub 234A illustrated in Figures 14A-15E. Figure 16B is a detailed, partially transparent front view of the fold hub 334A, showing the locking pins in a locked position. Figure 16C is a detailed, partially transparent front view of the fold hub 334A, showing the locking pins in an unlocked position. Figure 16D is a detailed view of the fold hub 334A in a folded orientation. The fold hub 334A is substantially similar to the fold hub 234A, and the fold hub 334A is to be understood as an alternative or another embodiment that can be used with the overall frame assembly 220.

[00136] Referring to Figures 16A-16D, the first fold hub 334A includes a body 360, a first pivot axis 362A, a second pivot axis 362B, a first fastener 363A, a second fastener 363B, a first locking slot 364A, a second locking slot 364B, a first locking pin 366A, a second locking pin 366B, and a release actuator 368 or button. The body 360 is the main body or housing portion of the first fold hub 334A in which the other components and features are situated. In some embodiments, as illustrated, the body 360 can be a single unitary molded component. In other nonillustrated embodiments, the body 360 can include a first half and a second half that are bolted or otherwise fastened together to form the overall body 360. Those skilled in the art will appreciate that either embodiment is an alternative option for the body 360. The first and second pivot axis 362A, 362B can each be an axis about which the first top rail 232A and/or the second top rail 232B pivot and rotate. More specifically, the first pivot axis 362A is positioned on a first end of the body 360 and the second pivot axis 362B is positioned on a second, opposite end of the body 360. In some examples, the first and second pivot axis 362A, 362B can each be aligned with the first and second fasteners 363A, 363B, respectively, such as, without limitation, a dowel, bolt, screw, or pin, that extend through and are fixed to the body 360. Further, the first top rail 232A and the second top rail 232B can be rotationally coupled to the first fastener 363A and the second fastener 363B, respectively, to facilitate the rotation of the rails 232A, 232B into and out of the folded orientation.

[00137] As illustrated best in Figure 16A, each of the first top rail 232A and the second top rail 232B can include a pivot aperture 236A, 236B, a rail slot 238A, 238B, and an insert 350A, 350B positioned within a distal end of each of the rails 232A, 232B, respectively. Each of the inserts 350A, 350B can include an insert slot 352A, 352B, and an insert aperture 354A, 354B. When the inserts 350A, 350B are positioned within the respective rails 232A, 232B, the insert slots 352A, 352B are generally aligned with the pivot apertures 236A, 236B and the insert apertures 354A, 354B are generally aligned with the rail slots 238A, 238B. The shape and positioning of the aforementioned slots and apertures allow the cylindrically shaped inserts 350A, 350B to axially translate within the rails 232A, 232B during transition from the folded to unfolded orientation, or vice versa, discussed further below. Further, the pivot apertures 236A, 236B provide a pivot location in which the first and second fasteners 363A, 363B are inserted to rotationally couple the first top rail 232A and the second top rail 232B to the first fold hub 334A.

[00138] The first and second locking slots 364A, 364B are narrow apertures, slits, or tracks that may extend fully through the body 360, from a lateral outer surface of the body 360 to the opposite lateral outer surface of the body 360. The first and second locking slots 364A, 364B can include a convex shape relative to the release actuator 368 (i.e., a wave-like shape including a convex shaped portion). The first and second locking slots 264A, 264B can extend at an oblique angle from a lower corner of the body 360 towards an upper central portion of the body 360, such that the locking slots 364A, 364B are not a straight line or aperture extending from a first point to a second point on the body 360. As illustrated, the first locking slot 364A can be positioned adjacent the first pivot axis 362A and the second locking slot 364B can be positioned adjacent the second pivot axis 362B. The first and second locking slots 364A, 364B are configured to interface with and guide the first and second locking pins 366A, 366B, respectively, when the frame assembly 220 transitions from the unfolded configuration to the folded configuration, or vice-versa. Further, the first and second locking slots 364A, 364B are configured to aid in securing the frame assembly 220 in the folded and unfolded positions through a frictional force between the first and second locking slots 364A, 364B and the first and second locking pins 366A, 366B.

[00139] In the illustrated embodiment, the first fold hub 334A includes first and second locking pins 366A, 366B positioned on opposite halves of the body 360. Each of the first and second locking pins 366A, 366B may comprise, without limitation, a pin, bolt, or dowel, that extends through a respective one of the first and a second locking slots 364A, 364B within the body 360, and extends through the rail slots 238A, 238B of the first top rail 232A or the second top rail 232B, respectively. In the illustrated example, the first locking pin 366A extends through the first locking slot 364A from one side to the other side of the body 360, the first locking pin 366A extends through the rail slot 238A extending through an end of the first top rail 232A, and the first locking pin 366A extends through the insert aperture 354A extending through the insert 350A. Similarly, in the illustrated example, the second locking pin 366B extends through the second locking slot 364B from one side to the other side of the body 360, the second locking pin 366B extends through the rail slot 238B extending through an end of the second top rail 232B, and the second locking pin 366B extends through the insert aperture 354B extending through the insert 350B.

[00140] In some examples, a biasing member 351 can be positioned and coupled between the first top rail 232A and the insert 350A, and between the second top rail 232B and the insert 350B. The biasing member 351 can be configured to engage the inserts 350A, 350B to force or bias the first and second locking pin 366A, 366B towards a central plane of the body 360. Therefore, the first locking pin 366A can extend through the insert aperture 354A, and biasing member 351 can bias the insert 350A and the first locking pin 366A toward a center of the body 360 to a locked position to secure the first top rail 232A in an unfolded position. The biasing member 351 can be, for example and without limitation, an elastic member, a resilient member, or a spring, discussed further below. The second locking pin 366B can extend through the insert aperture 354B, and a biasing member can bias the insert 350B and the second locking pin 366B toward a center of the body 360 to a locked position to secure the second top rail 232B in an unfolded position. The first and second locking pins 366A, 366B secure the first and second top rails 232A, 232B in the unfolded position until an external force or component translates the first and second locking pins 366A, 366B in a direction away from the center of the body 360, discussed below.

[00141] The release actuator 368 is positioned partially within the body 360 and partially outside the body 360 of the first fold hub 334A. Further, the release actuator 368 is positioned adjacent a lower surface of the body 360 of the first fold hub 334A. It will be appreciated that the release actuator 368 can be positioned on a side surface of the body 360 of the first fold hub 334A. The release actuator

368 is actuatable to release the frame assembly 220 from the unfolded orientation, allowing the frame assembly 220 to fold into the folded orientation. The release actuator 368 can be positioned within a groove or slot within the body 360, and the release actuator 368 can slide or translate vertically within the body 360. The release actuator 368 can be coupled to the body 360 through a biasing member 369 that is configured to force or bias the release actuator 368 downward away from the first and second top rails 232A, 232B. In some examples, the biasing member

369 can be a spring that is coupled to both the body 360 and the release actuator 368, and the biasing member 369 continually biases the release actuator 368 downward. Further, a stop (not shown) can be included within the body 360 and/or the release actuator 368 to prevent the release actuator 368 from translating fully out of the body 360.

[00142] The release actuator 368 can include a first end 368A and a second end 368B, each of which are positioned adjacent a top or upper surface of the release actuator 368. The first and second ends 368A, 368B are configured to engage with the inserts 350A, 350B, respectively, to cause the inserts 350A, 350B and the first and second locking pins 366A, 366B to translate horizontally away from a central plane of the body 360. More specifically, when the rail assembly 230 is in the unfolded or in-use configuration (Figure 16B), a user can squeeze the release actuator 368 to cause the release actuator 368 to translate vertically towards the inserts 350A, 350B. During the vertical translation of the release actuator 368, the first and second ends 368A, 368B engage with ramped surfaces at the inner distal ends of the inserts 350A, 350B, respectively, causing the inserts 350A, 350B and the first and second locking pins 366A, 366B to translate horizontally away from a center plane of the release actuator 368 and the body 360 to an unlocked position, as shown best in Figure 16C.

[00143] The horizontal translation of the inserts 350A, 350B and the first and second locking pins 366A, 366B away from the center of the body 360 further causes the locking pins 366A, 366B to translate within the rail slots 238A, 238B in the ends of the first and second top rails 232A, 232B. In turn, this causes the biasing members within the first and second top rails 232A, 232B to compress, allowing the locking pins 366A, 366B to translate within the locking slots 364A, 364B of the body 360. Once the locking pins 366A, 366B have translated outwards away from a central plane of the body 360 a specified distance, the locking pins 366A, 366B are free to translate into a curved central portion of each of the locking slots 364A, 364B. In addition, the first top rail 232A and the second top rail 232B are free to rotate about the first pivot axis 362A and the second pivot axis 362B, respectively, into the folded configuration.

[00144] As shown in Figures 16D, when the first top rail 232A and the second top rail 232B rotate into the folded position, the first locking pin 366A and the second locking pin 366B translate through the convex shaped portion (i.e., the wave-like portion) of the locking slots 364A, 364B, respectively, until the locking pins 366A, 366B reach an end of the locking slots 364A, 364B positioned closest to the bottom or lowermost surface of the body 360 of the first fold hub 334A. As illustrated, the first and second top rails 232A, 232B rotate from a generally horizontal position about the first and second pivot axis 362A, 362B until the first and second top rails 232A, 232B are rotated past a 90-degree angle from horizontal. In other words, the first and second top rails 232A, 232B can be rotated more than 90-degrees from the unfolded orientation until the first and second top rails 232A, 232B are angled inward towards a center of the body 360.

[00145] The inward angle of a lower portion of the locking slots 364A, 364B allows the top rails 232A, 232B to rotate into a desired angle into the folded orientation. Further, the inward angle of a lower portion of the locking slots 364A, 364B creates a frictional force between the first and second locking pins 366A, 366B and the first and second locking slots 364A, 364B to aid in securing the rail assembly 230 in the folded orientation. As shown in Figures 18A and 18B, after the rail assembly 230 is folded, the plurality of leg assemblies 240 can also be folded inward toward a center of the rail assembly 230 to achieve the desired compact design, discussed further below. The rail assembly 230 will remain in the folded orientation (Figure 18A) until a user rotates the first and second top rails 232A, 232B back into the unfolded orientation (Figure 13). Once fully unfolded, the first and second locking pins 366A, 366B will be biased horizontally into the locked position, as shown in Figure 16B.

[00146] Figure 17A is a detailed view of another alternative embodiment of a fold hub 434A in an unfolded orientation. Figure 17B is a partially exploded view of the fold hub 434A of Figure 17A. Figure 17C is a cross-sectional front view of the fold hub 434A of Figure 17A in a locked position. Figure 17D is a cross- sectional perspective view of the fold hub 434A of Figure 17A in the locked position. Figure 17E is a cross-sectional front view of the fold hub 434A of Figure 17A in an unlocked position. Figure 17F is a cross-sectional perspective view of the fold hub 434A of Figure 17A in the unlocked position. Figure 17G is a cross- sectional front view of the fold hub 434A of Figure 17A in the unlocked and folded orientation. The fold hub 434A is substantially similar to the fold hubs 234A and 334A, and the fold hub 434A is to be understood as an alternative or another embodiment that can be used with the overall frame assembly 220.

[00147] Referring to Figures 17A-17G, the first fold hub 434A includes a body 460, a first fastener 463A, a second fastener 463B, and a release actuator (or button) 468. The body 460 is the main body or housing portion of the first fold hub 434A in which the other components and features are situated. The first and second fasteners 463A, 463B can each include a pivot axis extending through a central axis of the first and second fasteners 463A, 463B about which the first top rail 232A and the second top rail 232B pivot and rotate, respectively. More specifically, the first fastener 463A is positioned on a first end of the body 460 and the second fastener 463B is positioned on a second, opposite end of the body 460. In some examples, the first and second fasteners 463A, 463B can be, without limitation, a dowel, bolt, screw, or pin, that extend through and are fixed to the body 460. Further, the first top rail 232A and the second top rail 232B can be rotationally coupled to the first fastener 463A and the second fastener 463B, respectively, to facilitate the rotation of the rails 232A, 232B into and out of the folded orientation.

[00148] In addition, referring to FIG. 17A, the first fold hub 434A (as well as the second fold hub 434B) can include a spring 470 that is coupled to an interior of the first fold hub 434A and extends outwards from the first fold hub 434A. Further, in some embodiments, the first fold hub 434A can include two springs 470, with each extending outward from the first fold hub 434A in opposite directions. In some embodiments, the spring 470 can have a generally thin U- shape, which can also be described as being a leaf- like spring 470 or a torsion spring 470. The springs 470 can extend outward from the first fold hub 434A in opposite directions and, in some embodiments, the springs 470 can be positioned adjacent and contacting an underside of each of the first top rail 232A and the second top rail 232B, respectively. In embodiments, the springs 470 can have a biasing force that is configured to bias each of the first top rail 232A and the second top rail 232B in a direction upwards away from the release actuator 468, into a folded position or configuration (see FIG. 17G). As such, the springs 470 are configured to aid the user in folding the first top rail 232A and the second top rail 232B into the folded or collapsed position/configuration.

[00149] As illustrated best in Figure 17B, each of the first top rail 232A and the second top rail 232B can include a pivot aperture 236A, 236B and an insert 450A, 450B positioned within a distal end of each of the rails 232A, 232B, respectively. Each of the inserts 450A, 450B can include an insert slot 452A, 452B, respectively. When the inserts 450A, 450B are positioned within the respective rails 232A, 232B, the insert slots 452A, 452B are generally aligned with the pivot apertures 236A, 236B, respectively. The shape and positioning of the aforementioned slots and apertures allow the cylindrically shaped inserts 450A, 450B to axially translate within the rails 232A, 232B during transition from the folded to unfolded orientation, or vice versa, discussed further below. Further, the pivot apertures 236A, 236B provide a pivot axis/location in which the first and second fasteners 463A, 463B are inserted to rotationally couple the first top rail 232A and the second top rail 232B to the first fold hub 434A.

[00150] In some examples, a biasing member 451 can be positioned and coupled between the first top rail 232A and the insert 450A, and another biasing member 451 can be positioned and coupled between the second top rail 232B and the insert 450B. In other examples, a biasing member 451 can be positioned and coupled between the first fastener 463A and the insert 450A, and another biasing member 451 can be positioned and coupled between the second fastener 463B and the insert 450B. In either example, the biasing member 451 can be configured to engage the inserts 450A, 450B to force or bias the inserts 450A, 450B towards a central plane of the body 460 to a locked position to secure the first and second top rail 232A, 232B in an unfolded and locked position. The biasing member 451 can be, for example and without limitation, an elastic member, a resilient member, or a spring. The first and second inserts 450A, 450B along with the biasing members 451 secure the first and second top rails 232A, 232B in the unfolded position until an external force or component translates the first and second inserts 450A, 450B in a direction away from the center of the body 460, as discussed below.

[00151] The release actuator 468 is positioned partially within the body 460 and partially outside the body 460 of the first fold hub 434A. Further, the release actuator 468 is positioned adjacent a lower surface of the body 460 of the first fold hub 434A. It will be appreciated that the release actuator 468 can be positioned on a side surface of the body 460 of the first fold hub 434A. The release actuator 468 is actuatable to release the frame assembly 220 from the unfolded orientation, allowing the frame assembly 220 to fold into the folded orientation. The release actuator 468 can be positioned within a groove or slot within the body 460, and the release actuator 468 can slide or translate vertically within the body 460. The release actuator 468 can be coupled to the body 460 through a biasing member 469 that is configured to force or bias the release actuator 468 downward away from the first and second top rails 232A, 232B. In some examples, the biasing member 469 can be a spring that is coupled to both the body 460 and the release actuator 468, and the biasing member 469 continually biases the release actuator 468 downward away from the inserts 450A, 450B. Further, a stop (not shown) can be included within the body 460 and/or the release actuator 468 to prevent the release actuator 468 from translating fully out of the body 460.

[00152] The release actuator 468 can include a first end 468A and a second end 468B, each of which are positioned adjacent a top or upper surface of the release actuator 468 (in the orientation shown in Figure 17C). The first and second ends 468A, 468B are configured to engage with the inserts 450A, 450B, respectively, to cause the inserts 450A, 450B to translate horizontally away from a central plane of the body 460. More specifically, when the rail assembly 230 is in the unfolded or in-use configuration (Figure 17A and 17C), a user can squeeze the release actuator 468 to cause the release actuator 468 to translate vertically towards the inserts 450A, 450B. During the vertical translation of the release actuator 468, the first and second ends 468A, 468B engage with ramped or angled surfaces 453A, 453B, respectively, at the inner distal ends of the inserts 450A, 450B, respectively, causing the inserts 450A, 450B to translate horizontally away from a center plane of the release actuator 468 and the body 460 to an unlocked position, as shown best in Figure 17E.

[00153] The horizontal translation of the inserts 450A, 450B away from the center of the body 460 further causes the biasing members 451 to compress, and also causes the insert locking features 466A, 466B to disengage or translate out from the body locking features 467A, 467B, respectively (refer to Figure 17F). In some examples, the insert locking features 466A, 466B can be protrusions or extensions positioned at and extending from an inner end of the inserts 450A, 450B that are positioned within the body 460 of the first fold hub 434A. Further, in some examples, the body locking features 467A, 467B can be grooves, cavities, or apertures that are formed within the body 460 adjacent a center plane of the body 460 in a widthwise direction, with the body locking features 467A, 467B being sized and shaped to accept the insert locking features 466A, 466B. Once the inserts 450A, 450B and the insert locking features 466A, 466B have translated outwards away from a central plane of the body 460 a specified distance (shown in Figure 17E), the first top rail 232A and the second top rail 232B are free to rotate about the axis of the first and second fasteners 463A, 463B, respectively, into the folded configuration (as shown in Figure 17G).

[00154] Referring now to Figure 17G, when the first top rail 232A and the second top rail 232B rotate into the folded position, the first and second inserts 450A, 450B rotate and translate through the interior of the body 460 until the first and second top rails 232A, 232B contact and abut an upper portion of the body 460 positioned opposite the release actuator 468. Further, when in the folded position/configuration, the insert locking features 466A, 466B can abut an inner surface or feature of the body 460 such that a friction fit holds the components together and prevents the first top rail 232A and the second top rail 232B from falling or rotating out of the folded position into the unfolded position unless a user deliberately forces the rotation or unfolding to occur.

[00155] As illustrated and discussed, the first and second top rails 232A, 232B rotate from a generally horizontal position about the first and second fasteners 463A, 463B, respectively, until the first and second top rails 232A, 232B are rotated past a 90-degree angle from horizontal. In other words, the first and second top rails 232A, 232B can be rotated more than 90-degrees from the unfolded orientation until the first and second top rails 232A, 232B are angled inward towards a center of the body 460. As shown in Figures 18A and 18B, after the rail assembly 230 is folded, the plurality of leg assemblies 240 can also be folded inward toward a center of the rail assembly 230 to achieve the desired compact design, discussed further below. The rail assembly 230 will remain in the folded orientation (Figures 17G and 18A) until a user rotates the first and second top rails 232A, 232B back into the unfolded orientation (Figures 13 and 17A). Once fully unfolded, the first and second inserts 450A, 450B will be biased by the biasing members 451 horizontally into the locked position, as shown in Figures 17C and 17D.

[00156] Figure 19 is a detailed perspective view of an end portion of the leg assembly 240. Figure 20A is a cross-sectional view of the end portion of the leg assembly 240 taken along Section A-A in Figure 19. Figure 20B is a cross-sectional view of the end portion of the leg assembly 240 transitioning to a folded orientation. Figure 20C is a cross-sectional view of the end portion of the leg assembly 240 in the folded orientation. Figures 19-20C will be discussed together. [00157] The leg assembly 240 includes at least a leg hub 242, a leg 244, a leg cap 246, a pin 248, and a spring member (not shown). The leg hub 242 is the uppermost portion of the leg assembly 240 that is coupled to the first top rail 232A and/or the second top rail 232B. The leg hub 242 includes a coupling aperture 270 extending fully through an upper cylindrical portion of the leg hub 242. To secure the leg hub 242 to the first top rail 232A and/or the second top rail 232B, the rail 232A, 232B is inserted into the coupling aperture 270 of the leg hub 242 and then the leg hub 242 is translated along the rail 232A, 232B to a desired position. The leg hub 242 may include one or more apertures, such as apertures 243A, 243B shown in Figure 19, that can receive one or more fasteners (not shown) to secure the leg hub 242 to the rail 232A, 232B, as will be appreciated by those skilled in the art. Each of the plurality of leg assemblies 240 can be coupled to the first top rail 232A and/or the second top rail 232B in this manner.

[00158] The leg hub 242 may include a housing 245 having a locking cavity 278 positioned at mid-portion of the leg hub 242 beneath the coupling aperture 270. The leg hub 242 can include a protrusion 272 that is positioned under the locking cavity 278 and adjacent a lower portion of the leg hub 242, at an opposite end of the leg hub 242 as the coupling aperture 270. Further, the protrusion 272 is positioned on only one side of the leg hub 242, as shown best in Figures 20A and 20B, while the other side of the leg hub 242 is free of a protrusion and includes an open or empty space. As illustrated, the protrusion 272 includes a rounded or curved profile that extends radially outwards from an outer surface of the leg hub 242, with respect to an axis of the leg 244. The protrusion 272 allows the leg 244 with the attached leg cap 246 to rotate into the folded configuration, discussed further below.

[00159] The leg 244 is positioned at least partially within an interior of the leg hub 242 and at least partially outside the leg hub 242. More specifically, the axially end of the leg 244 positioned furthest from a ground surface (or other support surface) is positioned at least partially within the leg hub 242. Further, the leg cap 246 is positioned at least partially within the axially end of the leg 244 positioned furthest from a ground surface. The leg cap 246 is fixedly coupled to the leg 244, such that the leg cap 246 does not rotate or translate relative to the leg 244. The leg cap 246 is configured to facilitate the rotation of the leg 244 from the unfolded orientation to the folded orientation, or vice versa. The leg cap 246 may include a rounded end 247 and a cap slot 276 extending through side walls of the leg cap 246. The cap slot 276 is orientated generally parallel with an axis of the leg 244. The cap slot 276 is configured to engage with the pin 248 that is fixedly coupled to the lower portion of the leg hub 242, discussed below.

[00160] As shown in FIG. 20A, with the leg assembly 240 in the extended or unfolded orientation, the rounded end 274 of the leg cap 246 is positioned adjacent and abutting an upper surface 279 of the locking cavity 278 of the leg hub 242. The rounded end 274 of the leg cap 246 includes a mating profile with the upper surface 279 of the locking cavity 278 to ensure the leg 244 and the leg cap 246 remain secured in the unfolded orientation. Further, a spring member (not shown) can be coupled between the leg hub 242 and the leg cap 246 and/or the leg 244 to bias the leg cap 246 and the leg 244 towards the upper surface 279 of the locking cavity 278 to ensure the leg 244 and the leg cap 246 remain secured in the unfolded orientation. The spring member can be any component capable of biasing the leg 244 and the leg cap 246 in the desired direction (towards the upper surface of the locking cavity 278 and the coupling aperture 270 of the leg hub 242). The leg 244 and the leg cap 246 remain in the unfolded orientation until an external force causes the leg 244 and the leg cap 246 to translate out of the locking cavity 278 and to rotate and transition into the folded orientation.

[00161] As shown in Figure 20B, to transition the legs from the unfolded orientation (Figure 18A) to the folded orientation (Figure 18B), a user pulls the leg 244 with the coupled leg cap 246 in an axial direction along an axis of the leg 244 away from the leg hub 242. The user pulls the leg 244 and leg cap 246 in the axial direction to overcome the spring force produced by the spring member, which causes the leg 244 and leg cap 246 to translate in the axial direction away from the leg hub 242. Further, during translation, the cap slot 276 translates relative to the fixed pin 248 of the leg hub 242 until the pin 248 reaches and engages an end of the cap slot 276. Then the leg 244 and the leg cap 246 can rotate about an axis of the pin 248, such that the rounded end 274 of the leg cap 246 enters the protrusion 272 of the leg hub 242.

[00162] As shown in Figure 20C, during the rotation about the pin 248, the leg 244 is rotated into the open or empty space of the leg hub 242 that is positioned across from the protrusion 272. The leg 244 is rotated about the pin 248 until the rounded end 274 of the leg cap 246 is positioned fully within the protrusion 272 of the leg hub 242. The protrusion can include a stopping surface (not shown) which restricts further rotation of the leg 244 in the folded position. In an aspect, the protrusion 272 includes an inner surface that has a protrusion or a recess that corresponds to a recess or a protrusion on an outer surface of the rounded end 274, respectively, such that in the folded orientation the leg 244 is releasably locked to the leg hub 242 by the interface between the protrusion/recess of the inner surface of the protrusion 272 and the recess/protrusion of the outer surface of the rounded end 274.

[00163] The leg 244 and the leg cap 246 remain in the folded orientation (Figures 18B and 20C) until a user rotates the leg 244 and leg cap 246 about the pin 248 and back into the unfolded orientation (Figures 18A and 20A). Once the leg 244 and the leg cap 246 reach the position illustrated in Figure 20B, the spring member biases and forces the leg 244 and the leg cap 246 toward the leg hub 242 until the leg 244 and leg cap 246 reach the position illustrated in Figure 20A. The components and functionality of the components discussed regarding the leg assembly 240 applies to each of the plurality of leg assemblies 240 in the frame assembly 220. As such, the process or method of folding and unfolding the leg assembly 240 can be repeated for each of the plurality of leg assemblies 240 of the frame assembly 220.

[00164] Figure 21A is a cross-sectional view of an alternative embodiment of the end portion of the leg assembly 240 in an extended orientation, similar to the embodiment illustrated in Figure 20A. Figure 2 IB is a cross-sectional view of the alternative embodiment of the end portion of the leg assembly 240 of Figure 21A transitioning to a folded orientation. Figure 21C is a cross-sectional view of the alternative embodiment of the end portion of the leg assembly 240 of Figure 21A in the folded orientation. Figures 21A-21C will be discussed together. The alternative embodiment of the end portion of the leg assembly 240 illustrated in Figures 21A-21C is substantially similar to the end portion of the leg assembly 240 illustrated in Figures 20A-20C, and it is to be understood as an alternative or another embodiment that can be used with the overall frame assembly 220.

[00165] The leg assembly 240 illustrated in Figures 21A-21C includes at least a leg hub 342, a leg 344, a leg cap 346, a pin 348, and a spring member (not shown). The leg hub 342 is the uppermost portion of the leg assembly 240 that is coupled to the first top rail 232A and/or the second top rail 232B. The leg hub 342 includes a coupling aperture 370 extending fully through an upper cylindrical portion of the leg hub 342. To secure the leg hub 342 to the first top rail 232A and/or the second top rail 232B, the rail 232A, 232B is inserted into the coupling aperture 370 of the leg hub 342 and then the leg hub 342 is translated along the rail 232A, 232B to a desired position. The leg hub 342 may include one or more apertures (not shown but similar to apertures 243A and 243B in FIG. 19) that can receive one or more fasteners to secure the leg hub 342 to the rail 232A, 232B, as will be appreciated by those skilled in the art. Each of the plurality of leg assemblies 240 can be coupled to the first top rail 232A and/or the second top rail 232B in this manner.

[00166] The leg hub 342 may include a housing 345 having a locking cavity 378 positioned at a mid-portion of the leg hub 342 beneath the coupling aperture 370. The leg hub 342 can also include a leg hub tooth 372 that is positioned adjacent and under the coupling aperture 370 and at least partially within the locking cavity 378. As illustrated, the leg hub tooth 372 includes a generally tapered rectangular profile extending away from the coupling aperture 370 into the locking cavity 378. In other words, the leg hub tooth 372 tapers in width in a direction towards the locking cavity 378, such that the portion of the leg hub tooth 372 positioned furthest from the coupling aperture 370 has the smallest width and the portion of the leg hub tooth 372 positioned closest to the coupling aperture 370 has the largest width. Although the leg hub tooth 372 is described as having a generally tapered rectangular shape, it is to be understood that the leg hub tooth 372 can have any other geometric shape that facilitates coupling the leg hub 342 to the leg cap 346, discussed further below. The leg hub tooth 372 aids in ensuring the leg 344 with the attached leg cap 346 remains in the unfolded configuration until an external force causes the leg 344 to transition into the folded configuration, discussed further below.

[00167] The leg 344 is positioned at least partially within an interior of the leg hub 342 and at least partially outside the leg hub 342. More specifically, the axially end of the leg 344 positioned furthest from a ground surface (or other support surface) is positioned at least partially within the leg hub 342. Further, the leg cap 346 is coupled to an outer surface of the leg 344 at the axial end of the leg 344 positioned furthest from a ground surface. The leg cap 346 is fixedly coupled to the leg 344, such that the leg cap 346 does not rotate or translate relative to the leg 344. The leg cap 346 can be coupled to the leg 344 through an adhesive, rivet, or other known fastening means. In some examples, the leg 344 and the leg cap 346 can include aligned apertures that are configured to receive a rivet, bolt, etc. to securely couple the leg cap 346 to the leg 344. The leg cap 346 is configured to facilitate the rotation of the leg 344 from the unfolded orientation to the folded orientation, or vice versa. The leg cap 346 may include a rounded end 374 and a cap slot 376 extending through side walls of the leg cap 346. The cap slot 376 is orientated generally parallel with an axis of the leg 344. The cap slot

376 is configured to engage with the pin 348 that is fixedly coupled to the lower portion of the leg hub 342, discussed below.

[00168] Further, the leg cap 346 includes a leg cap cavity 377 positioned at the distal end of the leg cap 346 that is positioned closest to the coupling aperture 370 of the leg hub 342. The leg cap cavity 377 includes a corresponding or mating shape with the leg hub tooth 372. In the illustrated embodiment, the leg cap cavity

377 includes a generally tapered rectangular cutout extending into the distal end of the leg cap 346. More specifically, the leg cap cavity 377 includes a tapered shape such that the width of the leg cap cavity 377 adjacent the outer rounded end 374 is greater than the width of the leg cap cavity 377 positioned closest to the cap slot 376 of the leg hub 342. The leg cap cavity 377 is configured to accept the leg hub tooth 372 to aid in ensuring the leg 344 with the attached leg cap 346 remains in the unfolded configuration until an external force causes the leg 344 to transition into the folded configuration, discussed further below.

[00169] Further, the corresponding tapered shape of the leg hub tooth 372 and the leg cap cavity 377 creates a tight fit between the components when the leg cap 346 is pushed or biased towards the leg hub 342. In turn, the tapered surfaces create a friction fit between the leg hub tooth 372 and the leg cap cavity 377 to secure the leg 344 in the unfolded orientation. In addition, the position of the leg cap cavity 377 is offset from a center (axial centerline) of the leg 344 and the leg cap 342 to reduce exposure of the leg cap cavity 377 when the leg 344 is rotated to the collapsed/folded orientation (see FIG. 21C). In other words, when the leg 344 is rotated into the folded orientation, the leg cap cavity 377 remains within the housing 345 to prevent exposure outside of the leg hub 342. If the leg cap cavity 377 were exposed, this could create an undesired catch point for fingers, cloth, debris, etc.

[00170] As shown in FIG. 21A, with the leg assembly 240 in the extended or unfolded orientation, the rounded end 374 of the leg cap 346 is positioned adjacent and abutting an upper surface 379 of the locking cavity 378 of the leg hub 342. The rounded end 374 of the leg cap 346 includes a mating profile with the upper surface 379 of the locking cavity 378 to ensure the leg 344 and the leg cap 346 remain secured in the unfolded orientation. In addition, as discussed, the leg cap cavity 377 includes a mating profile with the leg hub tooth 372 to ensure the leg 344 and the leg cap 346 remain secured in the unfolded orientation.

[00171] A spring member (not shown) can be coupled between the leg hub 342 and the leg cap 346 and/or the leg 344 to bias the leg cap 346 and the leg 344 towards the upper surface 379 of the locking cavity 378 to ensure the leg 344 and the leg cap 346 remain secured in the unfolded orientation. The spring member can be any component capable of biasing the leg 344 and the leg cap 346 in the desired direction (towards the upper surface of the locking cavity 378 and the coupling aperture 370 of the leg hub 342). In addition, the spring member ensures that the leg hub tooth 372 remains within the leg cap cavity 377 when the leg assembly 240 is in the unfolded orientation. The leg 344 and the leg cap 346 remain in the unfolded orientation until an external force causes the leg 344 and the leg cap 346 to translate out of the locking cavity 378 and to rotate and transition into the folded orientation.

[00172] As shown in Figure 21B, to transition the legs from the unfolded orientation (Figure 18A) to the folded orientation (Figure 18B), a user pulls the leg 344 with the coupled leg cap 346 in an axial direction along an axis of the leg 344 away from the leg hub 342. The user pulls the leg 344 and leg cap 346 in the axial direction to overcome the spring force produced by the spring member, which causes the leg 344 and leg cap 346 to translate in the axial direction away from the leg hub 342. Further, during translation, the cap slot 376 translates relative to the fixed pin 348 of the leg hub 342 until the pin 348 reaches and engages an end of the cap slot 376. At the same time, during translation of the leg 344 and the leg cap 346 away from the leg hub 342, the leg cap cavity 377 of the leg cap 346 is separated from the leg hub tooth 372 of the leg hub 342. Then the leg 344 and the leg cap 346 can rotate about an axis of the pin 348, such that the rounded end 374 of the leg cap 346 rotates within the leg hub 342.

[00173] As shown in Figure 21C, during the rotation about the pin 348, the leg 344 is rotated into the open or empty space of the leg hub 342 that is positioned across from the housing 345. The leg 344 is rotated about the pin 348 until the rounded end 374 of the leg cap 346 is positioned adjacent the housing 345, which can include a stopping surface (not shown) which restricts further rotation of the leg 344 in the folded position. The leg 344 and the leg cap 346 remain in the folded orientation (Figures 18B and 21C) until a user rotates the leg 344 and leg cap 346 about the pin 348 and back into the unfolded orientation (Figures 18A and 21A). Once the leg 344 and the leg cap 346 reach the position illustrated in Figure 2 IB, the spring member biases and forces the leg 344 and the leg cap 346 toward the leg hub 342 until the leg 344 and leg cap 346 reach the position illustrated in Figure 21A. The components and functionality of the components discussed regarding the leg assembly 240 applies to each of the plurality of leg assemblies 240 in the frame assembly 220. As such, the process or method of folding and unfolding the leg assembly 240 can be repeated for each of the plurality of leg assemblies 240 of the frame assembly 220. [00174] The leg assembly 240 illustrated in Figures 22A-22E includes a leg hub 442, a leg 444, a leg cap 446, a pin 448, and a spring member 449. The leg hub 442 is the uppermost portion of the leg assembly 240 that is coupled to the first top rail 232A and/or the second top rail 232B. The leg hub 442 includes a coupling aperture 470 extending fully through an upper portion of the leg hub 442. To secure the leg hub 442 to the first top rail 232A and/or the second top rail 232B, the rail 232A, 232B is inserted into the coupling aperture 470 of the leg hub 442 and then the leg hub 442 is translated along the rail 232A, 232B to a desired position. The leg hub 442 may include one or more apertures that can receive one or more fasteners to secure the leg hub 442 to the rail 232A, 232B, as will be appreciated by those skilled in the art. Each of the plurality of leg assemblies 240 can be coupled to the first top rail 232A and/or the second top rail 232B in this manner.

[00175] The leg hub 442 may include a housing 445 having a locking cavity 478 positioned at a mid-portion of the leg hub 442 beneath the coupling aperture 470. A leg cap 446 is coupled to an outer surface of the leg 444 at the axial end of the leg 444 positioned furthest from a ground or supporting surface. The leg cap 446 is fixedly coupled to the leg 444, such that the leg cap 446 does not rotate or translate relative to the leg 444. The leg cap 446 can be coupled to the leg 444 through an adhesive, rivet, or other known fastening means. In some examples, the leg 444 and the leg cap 446 can include aligned apertures that are configured to receive a rivet, bolt, etc. to securely couple the leg cap 446 to the leg 444. Further, the leg 444 and the leg cap 446 can rotate or pivot about an axis AA of the rivet, bolt, etc. to transition between the unfolded orientation and the folded orientation. As such, the leg cap 446 is configured to facilitate the rotation of the leg 444 from the unfolded orientation to the folded orientation, or vice versa. The leg cap 446 may include a rounded end 474 to facilitate the rotation of the leg 444 and the leg cap 446.

[00176] A leg fold actuator 472 is disposed around and adjacent an outer surface of the leg 444, and the leg fold actuator 472 is actuatable and/or translatable relative to the leg 444. More specifically, the leg fold actuator 472 can translate axially a small distance along the leg 444, such that the leg fold actuator 472 can translate toward and away from the leg cap 446. In addition, the leg fold actuator 472 is positioned closer to the ground or supporting surface than the leg cap 446. Further, the leg fold actuator 472 can be coupled to the pin 448 that is positioned within the leg 444. The pin 448, in turn, can be coupled to a locking plunger 476 that is positioned at least partially within the leg 444 and the leg cap 446. In other words, a first end of the locking plunger 476 can be coupled to the pin 448 and a second end of the locking plunger 476 can extend towards the leg cap 446.

[00177] More specifically, the second end of the locking plunger 476 can extend through the leg cap 446 when in a first position (FIG. 22B), and the second end of the locking plunger 476 can be positioned fully within the leg cap 446 when in a second position (FIG. 22C). The spring member 449 can be positioned within a groove or slot of the locking plunger 476 and the spring member 449 can be configured to force the locking plunger 476 into the first position, in which the second end of the locking plunger 476 extends through the leg cap 446 (FIG. 22B). As such, the locking plunger 476 is biased into the first position with the second end of the locking plunger 476 extending through the leg cap 446 until an external force causes the locking plunger 476 to translate relative to the leg 444 and the leg cap 446.

[00178] To transition the leg 444 from an unfolded, extended orientation to a folded, collapsed orientation, a user grasps the leg fold actuator 472 and pulls the leg fold actuator 472 downward away from the leg cap 446, such that the leg fold actuator 472 translates along an outer surface of the leg 444 away from the leg cap 446. Since the pin 448 is coupled to the leg fold actuator 472, the pin 448 translates with the leg fold actuator 472 during the translation of the leg fold actuator 472. Further, since the locking plunger 476 is coupled to the pin 448, the locking plunger 476 also translates with the leg fold actuator 472 during the translation of the leg fold actuator 472. The downward translation of the locking plunger 476 causes the second end of the locking plunger 476 to translate from outside the leg cap 446 (FIG. 22B, engaged with the locking cavity 478) to fully within the leg cap 446 (FIG. 22C, disengaged from the locking cavity 478). With the second end of the locking plunger 476 disengaged from the locking cavity 478, the leg 444 is free to rotate about its rounded end 474 into the folded, collapsed orientation. In this manner, the leg assembly 240 illustrated in Figures 22A-22E provides for the leg fold actuator 472 to move independently of the leg 444, which may simplify operation relative to other embodiments of the leg fold assembly 240 (for example, in other embodiments the child support assembly 10 may need to be lifted slightly to pull a leg downward to disengage from the locking cavity and/or leg hub).

[00179] In embodiments, the locking plunger 476 is spring biased (by the spring member 449) towards the locking cavity 478 to ensure that the second end of the locking plunger 476 is positioned within and/or engaging the locking cavity 478 to keep the leg 444 in the extended orientation until a user intends to fold the leg 444. In such an event, the user can then pull the leg fold actuator 472 away from the leg cap 446 to cause the locking plunger 476 to translate away from the leg cap 446, such that the second end of the locking plunger 476 disengages from the locking cavity 478. In turn, this allows the user to fold the leg 444 into the fold, collapsed configuration.

[00180] The components and functionality of the components discussed regarding the leg assembly 240 applies to each of the plurality of leg assemblies 240 in the frame assembly 220. As such, the process or method of folding and unfolding the leg assembly 240 can be repeated for each of the plurality of leg assemblies 240 of the frame assembly 220.

[00181] Figure 23 is a perspective view of the canopy assembly 280 that can be coupled to the frame assembly 220. The canopy assembly 280 may include a first canopy connector 282A, a second canopy connector 282B, a first canopy rail 284A, and a second canopy rail 284B. The first canopy connector 282A is positioned adjacent and coupled to the first fold hub 234A and the second canopy connector 282B is positioned adjacent and coupled to the second fold hub 234B. The canopy assembly 280 can be coupled to and uncoupled from the frame assembly 220, as desired by the user. To couple the canopy assembly 280 to the frame assembly 220, the first and second canopy connectors 282A, 282B are coupled to the first and second fold hubs 234A, 234B, respectively. Further, the first and second canopy connectors 282A, 282B provide a rotation axis AX about which the first and second canopy rails 284A, 284B can rotate about to raise and/or lower the canopy assembly 280 as desired as shown in Figures 26A and 26B.

[00182] The first and second canopy rails 284A, 284B can be independently adjusted to lay flat against a portion of the rail assembly 230, or pivot to an upward or upright position, and any intermediate positions therebetween. Although not specifically illustrated, the canopy assembly 280 can further include a cloth enclosure or material that is attached to the first and second canopy rails 284A, 284B. In one example, the first canopy rail 284A is an outer canopy rail and the second canopy rail 284B is an inner canopy rail. In some examples, the canopy rails 284A, 284B can attach to each of the first canopy connector 282A and the second canopy connector 282B. In other examples, only one of the canopy rails 284A, 284B can be coupled to canopy connectors 282A, 282B, and the other canopy rail can be coupled to the rail assembly 230. The canopy rails 284A, 284B are configured to rotate between an open position and a closed position. Figure 26A illustrates the canopy assembly 280 in a fully extended configuration, such that the canopy would fully cover a child within the frame assembly 220. Figure 26B illustrates the canopy assembly 280 in a partially extended configuration, such that the canopy assembly 280 is half open and half closed. The canopy assembly 280 can transition between fully open, fully closed, and any intermediate position therebetween.

[00183] Figure 24A is a detailed perspective view of the first canopy connector

282A of the canopy assembly 280 before being coupled to the first fold hub 234A. Figure 24B is a detailed perspective view of the first canopy connector 282A assembled to the first fold hub 234A. Although the following disclosure is directed towards the first canopy connector 282A, it is to be understood as equally applying to the second canopy connector 282B. The following disclosure will not be repeated to avoid redundancy.

[00184] The first canopy connector 282A can include a housing 286, a main canopy tube 288, and an exposed canopy tube end 290. The housing 286 is the main body component of the first canopy connector 282A and the main canopy tube 288 is coupled to the housing 286. The main canopy tube 288 includes an exposed canopy tube end 290 which extends through the housing 286 such that the exposed canopy tube end 290 protrudes from the housing 286. As illustrated in Figure 24A, the first fold hub 234A can include a receiving cavity 292 that is sized to accept and receive the exposed canopy tube end 290. Therefore, to couple the first canopy connector 282A to the first fold hub 234A, the exposed canopy tube end 290 is inserted into the receiving cavity 292 of the first fold hub 234A. As illustrated in Figure 24B, once the exposed canopy tube end 290 is inserted into the receiving cavity 292, it clips into place and is secured to the first fold hub 234A, as discussed below.

[00185] Figure 25 is a cross-sectional view of the first canopy connector 282A of the canopy assembly 280 coupled to the first fold hub 234A. As illustrated, a latch 294 of the first canopy connector 282A is the component that secures the first canopy connector 282A to the first fold hub 234A. More specifically, the latch 294 is coupled at a first end 295A of the latch 294 to an aperture extending through the exposed canopy tube end 290. The first end 295A of the latch 294 can be coupled to the aperture through a pin or other fastener. The first end 295A of the latch 294 can be pivotably coupled to the aperture via a pin or other fastener. Further, the latch 294 is coupled at a second, opposite end 295B of the latch 294 to an aperture extending through the housing 286 such that a button 296 of the latch 294 extends through the aperture in the housing 286. An angled surface 298 of the latch 294 extends between the first end 295A and the second end 295B of the latch 294.

[00186] During insertion of the first canopy connector 282A into the first fold hub 234A, the angled surface 298 of the latch 294 contacts a surface of the first fold hub 234A, causing the latch 294 to rotate, flex, or deform inwards toward the exposed canopy tube end 290. In turn this causes the button 296 to disengage from the aperture in the housing 286, allowing the first canopy connector 282A to be inserted into the first fold hub 234A. Once the exposed canopy tube end 290 and the button 296 of the latch 294 are inserted far enough into the first fold hub 234A, the latch 294 rotates, flexes, or deforms in a direction away from the exposed canopy tube end 290 and the button 296 extends through the aperture within the housing 286. Further, a flange 300 of the latch 294 engages with a mating flange of the first fold hub 234A to secure the first canopy connector 282A to the first fold hub 234A. In an aspect, the latch 294 can be biased outward away from the exposed canopy tube end 290 (e.g. in a radial direction away from an axis of the exposed canopy tube end 290) by a biasing force (e.g. provided by a spring), such that after the exposed canopy tube end 290 is inserted far enough into the first fold hub 234A, the button 296 is forced outward into the aperture within the housing 286 by the biasing force.

[00187] The first canopy connector 282A remains coupled to the first fold hub 234A until a user depresses the button 296 of the latch 294, causing the latch 294 to rotate, flex, or deform inward towards the exposed canopy tube end 290 to disengage the flange 300 from the mating flange of the first fold hub 234A. With the flange 300 disengaged, the first canopy connector 282A can be pulled vertically away from the first fold hub 234A to uncouple the components and to remove the canopy assembly 280 from the frame assembly 220. The method of coupling and uncoupling the first canopy connector 282A with the first fold hub 234A can be repeated for the second canopy connector 282B to couple and uncouple the second canopy connector 282B with the second fold hub 234B. Therefore, the first and second canopy connectors 282A, 282B provide a solution for easily coupling/uncoupling the canopy assembly 280 to/from the rail assembly 230.

[00188] Figure 27A is a detailed perspective view of the alternative embodiment of the fold hub 334A configured to connect to an alternative embodiment of the first canopy connector 382A of a canopy assembly 380. Figure 27B is a detailed perspective view of the first canopy connector 382A disassociated from the fold hub 334A of Figure 27A. Figure 27C is another detailed perspective view of the first canopy connector 382A disassociated from the fold hub 334A of Figure 27A. Figure 27D is another detailed perspective view of the first canopy connector 382A disassociated from the fold hub 334A of Figure 27A. Figure 27E is a front view of the first canopy connector 382A disassociated from the fold hub 334A of Figure 27A. Although the following disclosure is directed towards the first canopy connector 382A, it is to be understood as equally applying to a second canopy connector 382B. The following disclosure will not be repeated to avoid redundancy. [00189] The first canopy connector 382A can include a housing 386, a main canopy tube 388 extending from the housing 386, and a canopy protrusion 390. The housing 386 is the main body component of the first canopy connector 382A and the main canopy tube 388 is coupled to the housing 386. The main canopy tube 388 includes a generally U-shaped profile and extends between and is coupled at opposite ends to each of the first canopy connector 382A and the second canopy connector 382B (see FIG. 28A). The canopy protrusion 390 is positioned axially below the main canopy tube 388, with regards to an axis of a main tube connector 389 extending from the housing 386. As illustrated, the main tube connector 389 can include a generally hollow-cylindrical shape configured to mate with and accept an end of the main canopy tube 388.

[00190] The canopy protrusion 390 can extend from the housing 386 generally perpendicular to the axis of the main tube connector 389. Further, the canopy protrusion 390 can extend inward from the housing 386, such that the canopy protrusion 390 of the first canopy connector 382A faces the canopy protrusion 390 of the second canopy connector 382A, when the canopy assembly 380 is assembled to the frame assembly 220, shown best in Figure 28A. In some embodiments, as illustrated, the canopy protrusion 390 can include a generally flat disc or wafer shape, such that the canopy protrusion 390 is wider than it is thick. In other embodiments, the canopy protrusion 390 can have any other shape, so long as the canopy protrusion 390 is capable of mating with a receiving cavity 392 of the first fold hub 334A, discussed further below.

[00191] As mentioned, the first fold hub 334A can include a receiving cavity 392 that is shaped and sized to accept and receive the canopy protrusion 390. The receiving cavity 392 can be coupled to or formed integral with an upper surface of the first fold hub 334A. The receiving cavity 392 can include a generally C-shaped or U-shaped profile with a lid, cap, surface, etc. covering the uppermost portion of the receiving cavity 392. In other words, the receiving cavity 392 can be described as being a pocket or notch that is configured to accept the canopy protrusion 390. The open portion of the receiving cavity 392 of the first fold hub 334A and the receiving cavity 392 of the second fold hub 334B each face outward away from a center of the frame assembly 220, allowing the canopy protrusions 390 of the first canopy connector 382A and the second canopy connector 382B to be inserted into the receiving cavities 392 of the first fold hub 334A and the second fold hub 334B, respectively.

[00192] Referring now to Figures 28A-28B, a method of coupling the canopy assembly 380 to the first fold hub 334A and the second fold hub 334B is disclosed. Figure 28A a partial cross-sectional front view of the canopy assembly 380 coupled to the first fold hub 334A and the second fold hub 334B. Figure 28B is a magnified view of a portion of the canopy assembly 380, as indicated in Figure 28A. As discussed and illustrated, the open portion of the receiving cavity 392 of the first fold hub 334A and the receiving cavity 392 of the second fold hub 334B each face outward away from the center of the frame assembly 220. Further, the canopy protrusions 390 of the first canopy connector 382A and the second canopy connector 382B each face inward towards the center of the frame assembly 220, and towards the receiving cavities 392 of the first fold hub 334A and the second fold hub 334B, respectively.

[00193] To couple the first canopy connector 382A and the second canopy connector 382B to the first fold hub 334A and the second fold hub 334B, respectively, a user flexes the main canopy tube 388 horizontally outwards (with respect to the illustrated view in Figures 28A) to increase the horizontal width between the first canopy connector 382A and the second canopy connector 382B. More specifically, the main canopy tube 388 is a resilient element which is biased inwards towards a center of the arc shaped main canopy tube 388. Therefore, during installation a user will have to slightly force the main canopy tube 388 outward (i.e., in a straightening direction away from the center) before installing the main canopy tube 388 onto the first fold hub 334A and the second fold hub 334B. With the first canopy connector 382A and the second canopy connector 382B being horizontally outwards of the first fold hub 334A and the second fold hub 334B, respectively, the user can then vertically position the first canopy connector 382A and the second canopy connector 382B to be adjacent to the first fold hub 334A and the second fold hub 334B, respectively. Next the respective canopy protrusions 390 are inserted into the respective receiving cavities 392 to couple the first canopy connector 382A and the second canopy connector 382B the first fold hub 334A and the second fold hub 334B, respectively. The resilient bias of the main canopy tube 388 may aid with inserting the canopy protrusions 390 and/or may aid with retaining the canopy protrusions within the respective receiving canopies 392.

[00194] As shown best in Figure 28B, with the canopy protrusion 390 inserted into the receiving cavity 392, the canopy protrusion 390 is prevented from moving vertically in either direction, and is prevented from moving inwardly toward a center of the frame assembly 220. In other words, with the canopy protrusion 390 inserted into the receiving cavity 392, the canopy protrusion 390 is prevented from moving in any direction except outwards away from the center of the frame assembly 220. Further, with the canopy protrusion 390 inserted into the receiving cavity 392, the shape and flexure of the main canopy tube 388 induces a force on the canopy protrusion 390 to aid in keeping the canopy protrusion 390 within the receiving cavity 392. In addition, the force-fit or friction-fit between the canopy protrusion 390 within the receiving cavity 392 further aids in preventing the canopy protrusion 390 from uncoupling from the receiving cavity 392, until a user deliberately forces the canopy protrusion 390 out from the receiving cavity 392 to remove the canopy assembly 380 from the frame assembly 220. As such, the main canopy tube 388 can be described as being configured to be under tension to bias the canopy protrusion 390 into engagement with the receiving cavity 392.

[00195] Figure 29A is a cross-sectional view of a canopy pivot connector 394 of the canopy assembly 380. Figure 29B is a perspective view of the canopy pivot connector 394. The canopy pivot connector 394 includes a canopy pivot 396 and a canopy extension 398. The canopy pivot connector 394 includes a generally circular cross-sectional shape, and the canopy pivot 396 includes a generally cylindrical shape. Further, the canopy pivot 396 extends from a surface of the canopy pivot connector 394 such that the canopy pivot 396 is axially aligned with a central axis of the canopy pivot connector 394. The canopy extension 398 extends from the canopy pivot connector 394 in a direction generally perpendicular to the central axis of the canopy pivot connector 394.

[00196] Referring to Figures 28B and 29A, it is shown that the canopy pivot connector 394 is configured to be coupled to the housing 386, such that the canopy pivot connector 394 can rotate relative to the housing 386. More specifically, the canopy pivot 396 of the canopy pivot connector 394 is configured to be inserted into and coupled to a central aperture extending into and/or through a portion of the housing 386. As such, the canopy pivot connector 394 is configured to rotate about the canopy pivot 396 relative to the housing 386. Referring now to Figure 27B, a first canopy rail 384A is configured to be inserted into and coupled to the canopy extension 398. As such, the first canopy rail 384A is configured to rotate along with the canopy extension 398 as the canopy pivot connector 394 is rotated about the canopy pivot 396 relative to the housing 386. In addition, a second canopy rail 384B can be coupled to an extension of the housing 386. In some examples, the second canopy rail 384B can remain stationary relative to the housing 386. In other examples, the second canopy rail 384B can rotate about an axis of the extension of the housing 386.

[00197] Figure 29C is a perspective view of another embodiment of a canopy pivot connector 394A. Figure 29D is a front view of the canopy pivot connector 394A connected to the housing 386. Figures 29C-29D will be discussed together. The canopy pivot connector 394A of Figure 29C is similar to the canopy pivot connector 394 of Figures 29A-29B, with minor differences, and the canopy pivot connector 394A can be utilized similarly to the canopy pivot connector 394 of Figures 29A-29B. The canopy pivot connector 394A includes an outer ring 395A, a cap 396A (Figure 29D), and a canopy extension 398A. The outer ring 395A can be fixedly coupled to the canopy extension 398A such that the outer ring 395A and the canopy extension 389A can pivot and rotate together. In addition, the canopy extension 398A can extend from the outer ring 395A. The cap 396A can be separate from the outer ring 395A, such that the outer ring 395A and the canopy extension 398A can pivot and rotate relative to the stationary cap 396A. In this embodiment, the cap 396A can be coupled to the housing 386 such that the cap 396A remains stationary with the housing 386 during the pivoting and rotation of the outer ring 395A and the canopy extension 398A. In the embodiment illustrated in Figure 29C, a logo, symbol, or other marking can be on an outer surface of the cap 396A, such that during rotation of the outer ring 395A and the canopy extension 398A the logo, symbol, or other marking on the cap 396A remains stationary and in the desired orientation for viewing.

[00198] Figure 30A is a side view of the canopy assembly 380 showing the canopy in a fully extended configuration. Figure 30B is a side view of the canopy assembly 380 showing the canopy in a partially open configuration with the first canopy rail 384A oriented vertically. Figure 30C is a side view of the canopy assembly 380 showing the canopy in a partially open configuration with the first canopy rail 384A. oriented horizontally. Although it is not specifically illustrated, it is to be understood that a canopy fabric can be coupled to each of the main canopy tube 388, the first canopy rail 384A, and the second canopy rail 384B. Further, during actuation or rotation of the canopy pivot connector 394 relative to the housing 386, the canopy fabric is adjusted or changed between fully-closed, fully-open, and partially-open, as will be understood by those skilled in the art.

[00199] As illustrated in Figure 30A, when the canopy assembly 380 is in the fully extended or fully closed configuration, the first canopy rail 384A and the second canopy rail 384B are disposed generally horizontally, such that the first canopy rail 384A and the second canopy rail 384B are approximately 180 degrees from each other. In this configuration, the canopy fabric may extend from the second canopy rail 384B, over the main canopy tube 388, and to the first canopy rail 384A. This results in the canopy assembly 380 being fully extended or fully closed.

[00200] To transition to the partially open configuration illustrated in Figure 30B, a user rotates the first canopy rail 384A about the canopy pivot connector 394 until the first canopy rail 384A is oriented generally vertically. In other words, when the canopy assembly 380 is partially open (as illustrated in Figure 30B), the first canopy rail 384A and the second canopy rail 384B are disposed generally perpendicular to each other, such that the first canopy rail 384A and the second canopy rail 384B are approximately 90 degrees from each other. Although Figure 30B illustrates the first canopy rail 384A being generally perpendicular to the second canopy rail 384B, it is to be understood that the first canopy rail 384A can be positioned at any angle relative to the second canopy rail 384B. [00201] Further, as illustrated, the first canopy rail 384A has a greater radius/diameter than the main canopy tube 388, such that the first canopy rail 384A extends over and radially outward of the main canopy tube 388. As such, the first canopy rail 384A is configured to rotate over and past the main canopy tube 388. In the partially open configuration illustrated in Figure 30B, the canopy fabric can hang loose and result in an undesirable look or aesthetic. To address this a user can continue to rotate the first canopy rail 384A about the canopy pivot connector 394 until the first canopy rail 384A reaches the position/orientation illustrated in Figure 30C. In such an orientation, the first canopy rail 384A is oriented generally parallel to the second canopy rail 384B, such that the angle between the components is approximately zero.

[00202] The partially open orientation illustrated in Figure 30C results in the canopy fabric being taut or tight (not relaxed or slacking) because the canopy fabric is coupled to each of the first canopy rail 384A, the second canopy rail 384B, and the main canopy tube 388. Further, rotating the first canopy rail 384A past the main canopy tube 388 tightens the canopy fabric and results in a desirable look or aesthetic. The canopy assembly 380 allows a user to adjust the canopy fabric to a desired position/orientation to fully-close, fully-open, or partially-open the canopy assembly 380 as desired. In addition, the canopy assembly 380 is easily removeable from the frame assembly 220 to fully remove the canopy assembly 380 if the user does not wish to use the canopy assembly 380. The canopy assembly 380 provides many advantages over existing designs, as will be appreciated by those skilled in the art.

[00203] While a particular series of modes and configurations has been described for a child support assembly, one of ordinary skill in the art would understand that additional modes are possible.

[00204] Having thus described the illustrated embodiments in detail, it is to be appreciated and will be apparent to those skilled in the art that many physical changes, only a few of which are exemplified in the detailed description of the disclosure, could be made without altering the inventive concepts and principles embodied therein. It is also to be appreciated that numerous embodiments incorporating only part of the illustrated embodiment are possible which do not alter, with respect to those parts, the inventive concepts and principles embodied therein.

[00205] The present embodiment and optional configurations are therefore to be considered in all respects as exemplary and/or illustrative and not restrictive, the scope of the disclosure being indicated by the appended claims rather than by the foregoing description, and all alternate embodiments and changes to this embodiment which come within the meaning and range of equivalency of said claims are therefore to be embraced therein.

List of Embodiments

[00206] According to one aspect, the present disclosure is directed to a child support assembly. The child support assembly can include a frame assembly and a soft goods assembly connected to the frame assembly and configured to define an interior space for supporting a child. The child support assembly can be configured to convert between: (i) a lower bassinet mode in which the frame assembly has a first height; (ii) a raised bassinet mode in which the frame assembly has a second height that is greater than the first height; and (iii) a playard mode in which the interior space has an increased depth compared to a depth of the interior space in both the lower bassinet mode and the raised bassinet mode.

[00207] In one aspect, the child support assembly can further include a leg assembly having an adjustable height to convert between the lower bassinet mode and the raised bassinet mode.

[00208] In one aspect, the leg assembly includes a plurality of legs, and each of the plurality of legs has an adjustable length.

[00209] In one aspect, the child support assembly can further include a rail assembly, and each of the plurality of legs can be connected to the rail assembly via at least one pivot connector assembly.

[00210] In one aspect, a length and a rotational position of each of the plurality of legs are configured to be independently adjusted.

[00211] In one aspect, the frame assembly includes at least one first top rail and at least one second top rail, and the at least one first top rail and the at least one second top rail are configured to be folded towards each other and away from each other.

[00212] In one aspect, the frame assembly further includes at least one hub configured to connect with both the at least one first top rail and the at least one second top rail.

[00213] In one aspect, the child support assembly is configured to convert from the raised bassinet mode to the playard mode via engagement with a soft goods conversion assembly.

[00214] In one aspect, the soft good assembly further includes a sidewall and a base portion, the sidewall has a first sidewall portion and a second sidewall portion, the first sidewall portion and the second sidewall portion are connected to each other.

[00215] In one aspect, the base portion is configured to rest on a ground support surface in the lower bassinet mode and the playard mode, and the base portion is configured to be raised above the ground support surface in the raised bassinet mode.

[00216] In one aspect, the soft goods conversion assembly includes a first soft goods converter positioned at an intersection of the first sidewall portion and the second sidewall portion, and a second soft goods converter positioned at an intersection of the second sidewall portion and the base portion.

[00217] In one aspect, the first soft goods converter and the second soft goods converter are configured to fasten with each other.

[00218] In one aspect, the first soft goods converter and the second soft goods converter include at least one of: a snap connection, a zipper connection, or a buckle connection.

[00219] In one aspect, the soft goods assembly is configured to connect to the frame assembly via a soft goods support connector.

[00220] In one aspect, the frame assembly is configured to transition from an unfolded, standing mode to a folded, collapsed mode, and the soft goods assembly is configured to remain connected to the frame assembly as the frame assembly transitions between the unfolded, standing mode to the folded, collapsed mode. [00221] In one aspect, the child support assembly has a height of 10 inches — 18 inches in the lower bassinet mode.

[00222] In one aspect, the child support assembly has a height of 20 inches — 30 inches in the raised bassinet mode.

[00223] In one aspect, the interior space has a depth of 20 inches — 30 inches in the playard mode.

[00224] In one aspect, the interior space has a depth of 10 inches — 18 inches in the lower bassinet mode and the raised bassinet mode.

[00225] According to another aspect, the present disclosure is directed to a method of converting a child support assembly between at least one bassinet mode and a playard mode. The method can include engaging a leg assembly to adjust a height of the leg assembly to transition between a lower bassinet mode and a raised bassinet mode by raising or lowering an interior space defined by a soft goods assembly; and increasing or decreasing a depth of the interior space defined by the soft goods assembly via engagement with a soft goods conversion assembly such that a base portion of the soft goods assembly is configured to be raised and lowered.

[00226] In one aspect, the leg assembly includes a plurality of legs that are each independently adjustable to adjust the height of the leg assembly.

[00227] In one aspect, the soft goods assembly comprises a sidewall having a first sidewall portion, a second sidewall portion, and a base portion, and the soft goods conversion assembly includes a first soft goods converter positioned at an intersection between the first sidewall portion and the second sidewall portion, and a second soft goods converter positioned at an intersection between the second sidewall portion and the base portion, and the first and second soft goods converters are configured to connect with each other to set the depth of the interior space.

[00228] According to another aspect, the present disclosure is directed to a frame assembly configured for attachment with a soft goods assembly. The frame assembly can include a rail assembly and a leg assembly. The rail assembly includes at least one top rail and the leg assembly includes a plurality of legs that are pivotally attached to the at least one top rail, the plurality of legs each have an adjustable height.

[00229] According to another aspect, the present disclosure is directed to a child support assembly. The child support assembly can include a frame assembly including a rail assembly including a first fold hub, a second fold hub, a first top rail, and a second top rail. The first top rail and the second top rail are rotatably coupled to the first fold hub and the second fold hub for transitioning the rail assembly from an unfolded orientation to a folded orientation, and a plurality of leg assemblies each coupled to the rail assembly. A release actuator of each of the first fold hub and the second fold hub is actuated to cause at least one locking pin to translate through at least one locking slot to transition the rail assembly from an unfolded orientation to a folded orientation.

[00230] In one aspect, the first fold hub and the second fold hub are each positioned at opposite sides of the rail assembly between the first top rail and the second top rail.

[00231] In one aspect, the at least one locking pin extends through a rail slot within an end of the first top rail and the second top rail.

[00232] In one aspect, an insert is positioned within a distal end of the first top rail, and the insert is axially translatable within the first top rail.

[00233] In one aspect, the at least one locking pin extends through an insert aperture extending through the insert.

[00234] In one aspect, an inner end of the insert includes a ramped surface, and during actuation of the release actuator an end of the release actuator is configured to engage the inner end of the insert to cause the insert and the at least one locking pin to translate horizontally away from a center plane of the release actuator to an unlocked position.

[00235] In one aspect, an inner end of the insert includes a ramped surface, and during actuation of the release actuator an end of the release actuator is configured to engage the inner end of the insert to cause the insert and to translate horizontally away from a center plane of the release actuator to an unlocked position. [00236] In one aspect, during the horizontal translation an insert locking feature of the insert disengages from a body locking feature, allowing the first top rail to rotate about a fastener extending through a pivot aperture extending through the first top rail.

[00237] In one aspect, a fastener extends through a pivot aperture within the first top rail, and the first top rail is rotatable about the fastener.

[00238] In one aspect, the at least one locking pin is spring biased toward a central plane of the first folding hub.

[00239] In one aspect, the locking slot includes a convex shape relative to the release actuator or a wave -like shape.

[00240] In one aspect, each of the plurality of leg assemblies are configured to transition from an unfolded orientation to a folded orientation when the rail assembly is transitioned from an unfolded orientation to a folded orientation.

[00241] In one aspect, the child support assembly further includes a soft goods assembly connected to the frame assembly and configured to define an interior space for supporting a child.

[00242] According to another aspect, the present disclosure is directed to a child support assembly. The child support assembly can include a frame assembly including a rail assembly and a plurality of leg assemblies each coupled to the rail assembly. The plurality of leg assemblies each being configured to transition from an unfolded orientation to a folded orientation. Each of the plurality of leg assemblies including a leg hub including an upper locking cavity a leg including a leg cap fixedly coupled to the leg. The leg cap includes a rounded end at a distal end of the leg cap and a cap slot extending through sidewalls of the leg cap, a pin pivotably coupling the leg to the leg hub, and a biasing member configured to bias the leg cap into the locking cavity of the leg hub. The pin of the leg hub extends through the cap slot, and the leg cap and leg are rotatable about the pin such that the rounded end of the leg cap rotates out of the upper locking cavity upon rotation of each of the plurality of leg assemblies.

[00243] In one aspect, the child support assembly further includes a soft goods assembly connected to the frame assembly and configured to define an interior space for supporting a child. [00244] In one aspect, the biasing member is a spring.

[00245] In one aspect, the leg cap is inserted into the leg, and the rounded end of the leg cap extends outside the leg.

[00246] In one aspect, the leg cap is coupled to an exterior surface of the leg at an end of the leg positioned furthest from a support surface.

[00247] In one aspect, the rounded end of the leg cap includes a complimentary mating profile with an upper surface of the locking cavity.

[00248] In one aspect, the leg hub further includes a leg hub tooth extending from an inner surface of the leg hub into the upper locking cavity of the leg hub.

[00249] In one aspect, the leg hub tooth includes a tapered profile, such that the leg hub tooth tapers in width extending towards the upper locking cavity.

[00250] In one aspect, the rounded end of the leg cap includes a leg cap cavity extending into the rounded end of the leg cap, the leg cap cavity having a mating shape or profile with the leg hub tooth of the leg hub.

[00251] In one aspect, the leg cap cavity is configured to accept and receive the leg hub tooth when each of the plurality of leg assemblies is in the unfolded orientation.

[00252] In one aspect, the leg hub further includes a lower protrusion, and upon rotation of the leg cap and the leg about the pin the rounded end of the leg cap enters the protrusion of the leg hub.

[00253] In one aspect, the rounded end of the leg cap includes a complimentary mating profile with an inner surface of the protrusion.

[00254] According to another aspect, the present disclosure is disrect to a child support assembly. The child support assembly include a frame assembly including a rail assembly including a first fold hub, a second fold hub, a first top rail, and a second top rail. A plurality of leg assemblies are each coupled to the rail assembly. A canopy assembly includes a housing, a main canopy tube extending from the housing, an exposed canopy tube end protruding from the housing, the exposed canopy tube end being configured to insert into a receiving cavity of the first fold hub or the second fold hub, and a latch coupled at a first end to the exposed canopy tube end, wherein the latch is configured to disengage a flange of the latch from a flange of the first fold hub or the second fold hub. [00255] In one aspect, the latch is coupled at a second end to the housing, the latch including a button that once depressed disengages the flange of the latch from the flange of the first fold hub or the second fold hub.

[00256] In one aspect, the child support assembly can further include a soft goods assembly connected to the frame assembly and configured to define an interior space for supporting a child.

[00257] In one aspect, the main canopy tube extends fully through the housing.

[00258] In one aspect, the latch is coupled to the exposed canopy tube end through a pin or dowel.

[00259] In one aspect, the latch is rotatable about the pin or dowel.

[00260] In one aspect, the flange of the latch is positioned between the first and second ends of the latch.

[00261] In one aspect, the latch includes an angled surface extending between the first and second ends of the latch.

[00262] In one aspect, the angled surface engages the first or second fold hub during insertion into the first or second fold hub, causing the latch do deflect in a direction towards the exposed canopy tube end.

[00263] In one aspect, the latch is biased in a radial direction away from an axis of the exposed canopy tube end.

[00264] According to another aspect, the present disclosure is directed to a child support assembly. The child support assembly including a frame assembly including a rail assembly. The rail assembly including a first fold hub, a second fold hub, a first top rail, and a second top rail. A plurality of leg assemblies are each coupled to the rail assembly. A canopy assembly includes a housing, a main tube connector extending from the housing, a main canopy tube coupled to the main tube connector, and the main canopy tube extending from the main tube connector. The canopy protrusion extending from the housing in a non-parallel direction with respect to an axis of the main tube connector. The canopy protrusion is configured to be inserted into a receiving cavity of one of the first fold hub or the second fold hub to couple the canopy assembly to the rail assembly. [00265] In one aspect, the canopy protrusion extends from the housing in a direction perpendicular to the axis of the main tube connector.

[00266] In one aspect, the canopy protrusion includes a generally flat disc or wafer shape.

[00267] In one aspect, the receiving cavity of one of the first fold hub or the second fold hub is disposed on an upper surface of the first fold hub or the second fold hub.

[00268] In one aspect, the receiving cavity is shaped and sized to accept and receive the canopy protrusion.

[00269] In one aspect, the receiving cavity includes a generally C-shaped or U-shaped profile with a lid, cap, or surface covering an uppermost portion of the receiving cavity.

[00270] In one aspect, the protrusion faces inward toward a center of the frame assembly when the canopy assembly is coupled to the rail assembly.

[00271] In one aspect, the receiving cavity faces outward away from the center of the frame assembly.