Patent Description:
Embodiments of the present disclosure relate to baby activity devices. More specifically, embodiments of the present disclosure relate to an adjustable bouncer for an infant.

A baby bouncer is a device that holds an infant and provides them with gentle motion in a manner that can stimulate an infant when they are active, soothe them when they are not, enable an infant to exercise, and enhance free time for parents. A baby bouncer may include a padded seat that cradles an infant and that is retained in a flexible manner on a stand. The seat and stand are dimensioned so that when the baby bouncer is located on a surface, an infant can gently rock while secured in a manner that allows the infant to entertain itself and relax the infant to promote sleep. When the infant moves, the flexible seat gently bounces the infant in accord with the infant's movement. A baby bouncer may include any number of additional features such as rattles, bells, toy bars, and visual stimulators such as lights and mirrors to soothe and/or stimulate the baby.

Most known baby bouncers are not very portable and are thus hard to bring when traveling. Others that are relatively transportable are not particularly easy to use, small in size and/or lightweight. Because of their popularity and because of the desirability to bring them along when traveling, a lightweight baby bouncer that folds into a compact space is highly desirable.

Additionally, prior baby bouncers are not generally adjustable to conform to the child's size, and to adjust with the child as the child grows. Thus, one may need to buy a new bouncer when the child becomes too large for the seat. Prior bouncers are also not designed to securely hold a small infant who may need extra padding and support.

<CIT> describes a bouncer comprising a base frame and a seat frame. In a use position the seat frame is inclined relative to the base frame. The baby bouncer further comprises a support device movably connecting the seat frame to the base frame. The support device is attached to the seat frame at one or ore respective first connection portions, and to the base frame, such that the inclination alternately increases and decreases during operation of the bouncer, and such that when the inclination of the seat frame decreases, the one or more first connection portions are moved forward relative to base frame, and vice versa.

<CIT> describes a bounce chair which comprises a base and a U-shaped pipe, the U-shaped pipe is hinged to the base, the bounce chair further comprises a buckle structure for locking the base and the U-shaped pipe, the buckle structure comprises a sliding block, the sliding block is connected with the base in a sliding fit mode, the sliding block is provided with a positioning groove matched with the U-shaped pipe, and the sliding block is further provided with a clamping groove; the sliding block upper cover is connected with the sliding block in a hinged mode, and the sliding block upper cover is provided with a moving cavity; the baffle is arranged at the opening of the movable cavity; one end of the switch is movably arranged at the position of the clamping groove, and the other end of the switch movably penetrates through the baffle and is arranged in the movable cavity; the switch moves back and forth relative to the baffle, so that one end of the switch is disengaged from or buckled to the clamping groove, and opening or locking of the sliding block upper cover and the sliding block is achieved.

<CIT> describes a folding chair that plays, concretely relates to baby equipment technical field, including the base, still be provided with the location spout on the base, hinged joint is passed through on the base to the one end of back pole, be provided with the support horizontal pole on the back pole, the one end and the support transverse rod movably connected of U -shaped bracing piece, it is provided with positioner to slide on the spout of location, the on -line screen storage device comprises a base, positioner is including the handle, the slider upper cover, slider lower cover and card key, an organic whole is connected from top to bottom with the slider lower cover to the slider upper cover, slider lower cover lower extreme is provided with the card key, the handle passes slider upper cover and slider lower cover and card key -type connection, the location spout is two mutual parallel arrangement's zigzag groove, the setting of card key is between two zigzag groove that are parallel to each other, and the slider lower cover is located zigzag groove.

<CIT> describes an adjustable infant chair which includes a base, arm or middle frame, joined to the base and a seat rotatable joined to the arm or middle frame. The infant chair is adjustable up and down, relative to the base by increasing an angle between the arm and the base, while maintaining an angle between the seat and the base.

Embodiments of the present disclosure solve the above-mentioned problems by providing an adjustable, lightweight baby bouncer that may include a removable infant insert conformable to a small infant and including structural features that accommodate growth of the child.

According to the invention a baby bouncer, includes :
a telescopic base for positioning the baby bouncer on a support surface, wherein the telescopic base includes an outer shell portion and an inner extending portion located at least partially within the outer shell portion; an adjustable upper support pivotally coupled to the telescopic base; a connection limb having a first end operatively coupled to the adjustable upper support and a second end operatively coupled to the inner extending portion; an actuation pedal for adjusting an angle of the adjustable upper support in relation to the telescopic base, wherein adjustment of the adjustable upper support causes telescoping of the inner extending portion via the connection limb; a bouncer seat removably coupled to the adjustable upper support including a receiving area and an attachment pocket; an insert for placement in the receiving area and for receiving an infant, the insert including at least one retaining member; and a harness assembly for fastening an infant into the bouncer seat, wherein a portion of the harness assembly is inserted through the at least one retaining member of the insert.

The present invention provides a baby bouncer as defined in claim <NUM>. Preferred features of the invention are set out in the dependent claims.

Other aspects and advantages of the present disclosure will be apparent from the following detailed description of the embodiments and the accompanying drawing figures.

Embodiments of the present disclosure are described in detail below with reference to the attached drawing figures, wherein:.

The drawing figures do not limit the present disclosure to the specific embodiments disclosed and described herein. The drawings are not necessarily to scale, emphasis instead being placed upon clearly illustrating the principles of the present disclosure.

The following detailed description references the accompanying drawings that illustrate specific embodiments in which the present disclosure can be practiced. The embodiments are intended to describe aspects of the present disclosure in sufficient detail to enable those skilled in the art to practice the present disclosure. The following detailed description is, therefore, not to be taken in a limiting sense. The scope of the present disclosure is defined only by the appended claims.

In this description, references to "one embodiment," "an embodiment," or "embodiments" mean that the feature or features being referred to are included in at least one embodiment of the technology. Separate references to "one embodiment," "an embodiment," or "embodiments" in this description do not necessarily refer to the same embodiment and are also not mutually exclusive unless so stated and/or except as will be readily apparent to those skilled in the art from the description.

Broadly, embodiments of the present disclosure provide for a baby bouncer that provides benefits to both a baby, infant, toddler, or small child (hereinafter infant) and to the parent, guardian, or caregiver (hereinafter, caregiver). Specifically, embodiments of the present disclosure are directed to a baby bouncer comprising multiple parts, components, assemblies, and/or subassemblies that may cooperate to provide multiple advantages to both the infant and the caregiver. Generally, embodiments of the present disclosure provide for a baby bouncer comprising: a frame for providing structural support and a base; a bouncer seat providing a receiving area for accepting an infant and/or an infant insert; an infant insert providing support and stability to an infant; and a harness for securing the infant to the bouncer seat. As described in greater detail below, the infant may be safely restrained while in position in the bouncer seat, allowing the infant to gently bounce for a calming and relaxing effect. As further described below, the caregiver may interact with the frame and bouncer seat for assembly, adjustment, and/or storage.

<FIG> is an exploded view depicting various parts of a baby bouncer <NUM> and an exemplary assembly of baby bouncer <NUM>. In some embodiments, baby bouncer <NUM> includes a frame <NUM>, a bouncer seat <NUM>, an insert <NUM>, a harness <NUM>, and a harness attachment assembly <NUM> (see <FIG>), or any combination thereof. In some embodiments, bouncer seat <NUM>, insert <NUM>, and/or harness <NUM> may be considered as the "soft goods" portion of baby bouncer <NUM> and may engage with an infant placed in baby bouncer <NUM>. Starting at a bottom level for engagement with a surface, frame <NUM> may provide the base or structure of baby bouncer <NUM>. Bouncer seat <NUM> may be placed on or secured to frame <NUM> in a manner described herein. In embodiments utilizing an insert <NUM>, insert <NUM> may be placed in a receiving region <NUM> of bouncer seat <NUM>. To secure insert <NUM> and/or an infant to baby bouncer <NUM>, harness <NUM> may be inserted into an attachment pocket <NUM> of bouncer seat <NUM>. In embodiments utilizing an insert <NUM>, harness <NUM> may be inserted through retaining member <NUM> prior to insertion into attachment pocket <NUM>. It will be appreciated that in further embodiments, optional and/or additional parts or components may be added to baby bouncer <NUM>, which may aid in operability for a caregiver, for entertainment or safety purposes for the infant, or for other purposes.

In some embodiments, bouncer seat <NUM> may be configured and adapted for receiving both an infant and insert <NUM>, providing caregivers with additional flexibility and options over the prior art. In some embodiments, such a design may be advantageous for increasing the lifespan or usability of baby bouncer <NUM>, providing caregivers with a single baby bouncer <NUM> that may be used with an infant as the infant grows and develops with age. By way of non-limiting example, a caregiver may utilize a baby bouncer <NUM> to secure an infant from just a few months old until at least a toddler age by utilizing an insert <NUM> when the infant is young, and when the infant grows in height and/or weight, transferring the infant from the insert <NUM> to directly on bouncer seat <NUM>. For example, a baby bouncer <NUM> with a coupled insert <NUM> may be adapted for use with infants up to a weight of approximately <NUM> (<NUM> lb). Continuing with this example, after the infant reaches a weight of approximately <NUM> (<NUM> lb), the insert <NUM> may be detached or removed from baby bouncer <NUM> and the infant may be placed and secured directly on to receiving region <NUM>. Receiving region <NUM> may be adapted for use with infants up to a weight of approximately <NUM> (<NUM> lb). However, as described in greater detail below, additional and/or optional inserts or structures may be added to baby bouncer <NUM> to increase the strength and/or stability of baby bouncer <NUM> to allow for heavier weights of infants that may be placed and secured on baby bouncer <NUM>.

Bouncer seat <NUM> of baby bouncer <NUM> may generally act as a receiving portion for one or more additional parts or components of baby bouncer <NUM>, including insert <NUM>, and/or for receiving an infant. Generally, bouncer seat <NUM> comprises a geometric design defined by an outer edgewall <NUM>, comprising a left edgewall <NUM>, a right edgewall <NUM>, a top edgewall <NUM>, and a bottom edgewall <NUM>. Referring to <FIG>, in some embodiments, bouncer seat <NUM> may comprise a seat or receiving region (or more simply, "receiving region <NUM>"), which may be adapted and configured for accepting an infant and/or an insert <NUM>, as described in greater detail below. Receiving region <NUM> may comprise a generally oval-shaped design, similar to that of a seat and adapted for the placement of an infant. However, receiving region <NUM> may comprise other shapes or designs that are compatible for receiving an infant or insert <NUM>. As described in greater detail below, insert <NUM> may comprise a generally oval-shaped design similar or identical to the overall shape of receiving region <NUM>.

In some embodiments, bouncer seat <NUM> may be coupled to or otherwise attached to frame <NUM>. Attachment of bouncer seat <NUM> to frame <NUM> may occur via a variety of means and methods. For example, bouncer seat <NUM> may be removably coupled to frame <NUM> using mechanical methods and means, such as a mechanical means, such as through hook and loop fasteners, tying, zippers, snap systems, etc. In further embodiments, bouncer seat <NUM> may be permanently coupled to frame <NUM> using permanent methods and means of attachment, such as chemical adhering adhesives, or other permanent manners of attachment. Additionally, in some embodiments, a portion, or portions of the frame <NUM> may be received by a portion or portions of the bouncer seat <NUM>. For instance, a loop or hole may be sewn or otherwise formed into a fabric portion of bouncer seat <NUM> such that the loop or hole is configured to receive a portion or portions of the frame <NUM>.

Further, in some embodiments, bouncer seat <NUM> may be adapted and configured to comprise an elastic band (not shown) at an outer perimeter of bouncer seat <NUM> such that bouncer seat <NUM> may be wrapped around a portion of frame <NUM> and an interference fit is created between bouncer seat <NUM> and frame <NUM>. For example, bouncer seat <NUM> may comprise one or more openings adapted and configured to allow bouncer seat <NUM> to wrap around an upper support <NUM> of frame <NUM> and be retained in place through an interference fit. Additionally, additional fasteners may be utilized in addition to an interference fit to further secure bouncer seat <NUM> to upper support <NUM>. However, it will be appreciated that bouncer seat <NUM> may be attached to frame <NUM> using any known methods of attachment, and the examples provided herein are intended to be illustrative rather than limiting.

As described in greater detail below and in some embodiments, frame <NUM> may comprise one or more telescopic arms or limbs for extending a length of at least a portion of frame <NUM>. In further embodiments, baby bouncer <NUM> may comprise interchangeable frames <NUM> of varying sizes that may be used with a single bouncer seat <NUM>. Accordingly, in some embodiments, bouncer seat <NUM> may be configured and adapted for size manipulation, such that a caregiver may increase or decrease the length and/or width of bouncer seat <NUM>. For example, in some embodiments, bouncer seat <NUM> may comprise an amount of fabric or material that is greater than a maximum length of frame <NUM>, such that at a first length of frame <NUM>, bouncer seat <NUM> comprises a length that is greater than the length of frame <NUM>. Because of the excess of material of bouncer seat <NUM> in such an embodiment, the material may need to be accounted for to prevent the excess material from becoming entangled with frame <NUM> or for causing a tripping hazard to the caregiver. To account for the excess of material, certain implementations may be used. In some embodiments, the excess of material may be folded providing for a decrease of relative length of bouncer seat <NUM>. The excess material that is folded may be folded towards frame <NUM> or folded underneath a portion of the frame <NUM>, providing a more aesthetically pleasing look to baby bouncer <NUM>; however, it will be appreciated that the excess material could be folded away from frame <NUM>. In some embodiments, the excess material may be held in place via fastening means, such as hook and loop fasteners, buckles, straps, or other mechanical fasteners, providing a caregiver with a method for increasing or decreasing the length of bouncer seat <NUM> when desired. It will be further appreciated that other methods of dealing with the excess material of bouncer seat <NUM> may also be employed, and methods such as cinching, bunching, or other suitable methods may be employed.

As described above, baby bouncer <NUM> may comprise an insert <NUM>, which may be adapted and configured for removable attachment to the bouncer seat <NUM>. In embodiments, insert <NUM> may be used with infants of a predetermined weight and/or size to provide additional support, safety, and/or comfort. For example, insert <NUM> may be utilized by a caregiver to secure an infant to baby bouncer <NUM> that may not be large enough in weight or size to be placed directly on bouncer seat <NUM>. Accordingly, in some embodiments, insert <NUM> may be selectively and removably attached to bouncer seat <NUM>, providing a caregiver with the option to remove insert <NUM> from bouncer seat <NUM>. Methods of such removable attachment are described in greater detail below. As best depicted in <FIG>, insert <NUM> may be received by region <NUM> of bouncer seat <NUM>.

Referring to <FIG>, insert <NUM> comprises an insert body <NUM> providing the structure and shape of insert <NUM>. Insert body <NUM> may comprise varying designs or profiles, depending on the embodiments, but may generally comprise a design adapted for receiving an infant and/or for fitting within the dimensions of receiving region <NUM>, including for example a generally oval shape or shape that is otherwise compatible with receiving region <NUM>.

In some embodiments, insert body <NUM> may comprise a lower portion <NUM>, side supports 256a, 256b, and a back support <NUM>. Lower portion <NUM> may be adapted and configured as a seat for receiving an infant. Back support <NUM> may be adapted and configured to provide support to an infant that is placed in insert <NUM>. Like bouncer seat <NUM>, in some embodiments, insert <NUM> may comprise multiple layers of material. Accordingly, in some embodiments, padding <NUM> may be placed between two layers of material in insert <NUM>. Padding <NUM> may be selectively placed at advantageous positions on insert body <NUM> for the safety and/or comfort of the infant. For example, in some embodiments, padding <NUM> may be selectively placed at each of side supports 256a, 256b to provide side support to the infant. Accordingly, side supports 256a, 256b may be adapted and configured to aid in maintaining the infant in an upright position and preventing the infant from falling to one side. In further embodiments, padding <NUM> may be selectively placed approximate to lower portion <NUM> to provide bottom support to the infant. Accordingly, the padding <NUM> corresponding to lower portion <NUM> may be configured as a thigh support and aid in elevating the infant's knees, positioning the infant in a more ergonomic position. In even further embodiments, padding <NUM> may be selectively placed approximate to back support <NUM> to provide rear support to the infant. It will be appreciated that the padding <NUM> may be placed in multiple positions of insert body <NUM>, including any combination of the described locations.

In some embodiments, the degree of padding or rigidity provided by padding <NUM> may vary and may be determined on factors including but not limited to the age of the infant, the weight of the infant, the height of the infant, the location of padding <NUM> on insert body <NUM>, among other factors. For example, an insert <NUM> intended for use with a newborn infant may comprise greater rigidity or degree of support than an insert <NUM> intended for use with a toddler. Further, the degree of rigidity or padding may vary depending on the location of padding <NUM>. For example, more padding or a greater degree of padding may be incorporated in the area corresponding to side supports 256a, 256b than in the area corresponding to lower portion <NUM>. Even further, in some embodiments, portions of insert body <NUM> may not comprise padding <NUM>. For example, instead of incorporating padding <NUM>, back support <NUM> may instead comprise flexibility to provide comfort to the infant. By way of non-limiting example, back support <NUM> may comprise a mesh-like material, providing breathability, flexibility, and movement of back support <NUM>, and to flex in response to receiving an infant.

In some embodiments, insert body <NUM> may further comprise a head receiving portion <NUM>, which may be adapted and configured for receiving at least a portion of the head of the infant and on which the infant will rest their head. As described above, certain embodiments of insert <NUM> may be rated or intended for infants of a young age. Accordingly, certain aspects of head receiving portion <NUM> may vary depending on the embodiment of head receiving portion <NUM> and/or insert <NUM> and on factors including but not limited to the age of the infant, the height of the infant, the weight of the infant, among other factors. For example, for toddler aged infants, head receiving portion <NUM> may comprise padding <NUM> to provide additional comfort to an infant that is seated in insert <NUM>. In further embodiments, including for example embodiments intended for young infants or infants at a predetermined weight, height, or age threshold, head receiving portion <NUM> may comprise an indented, recessed, or head hollow <NUM> portion, adapted and configured for receiving the head of an infant.

In embodiments, the head receiving portion <NUM> of the insert <NUM> includes the head hollow <NUM>. Head hollow <NUM> may be advantageous for maintaining the head and/or neck of the infant in a neutral position thereby protecting the neck of the infant. Young infants have little to no control over their neck, and caregivers must adequately support the head of the infant to prevent injury. The head hollow <NUM> assists in preventing the infant's head from rocking side-to-side. Accordingly, in some embodiments, head receiving portion <NUM> may simulate or replicate this action through head hollow <NUM>, such that the infant's head may rest within head hollow <NUM> and maintain a desired and safe neck and head position.

The head hollow <NUM> is, in embodiments, a depressed area of the head receiving portion <NUM> relative to a plane or surface of the head receiving portion <NUM>. As such, the head hollow <NUM> presents a hollowed, depressed, or otherwise shallowed area in which a rear of the infant's head may rest. In embodiments, the depressed area of head hollow <NUM> is configured to accommodate the curve of an infant's head. For example, head hollow <NUM> may be an area of head receiving portion <NUM> comprising less padding <NUM> than the remaining portion of head receiving portion <NUM>. In some embodiments, head hollow <NUM> may comprise no padding, while a remaining portion of head receiving portion <NUM> does comprise padding <NUM>. Through the interchangeable and customizable design of inserts <NUM>, the degree of padding <NUM> corresponding to head receiving portion <NUM> may vary and caregivers may select a degree of padding <NUM> that is suited for a particular infant. For example, as the infant ages and gains control over the neck, a head receiving portion <NUM> comprising head hollow <NUM> may be swapped out for another head receiving portion <NUM> comprising more cushioned padding <NUM>, or a padded layer (not shown) dimensioned to fit within the head hollow may be removably secured to the head hollow (e.g., via hook and loop fasteners) to provide extra padding. Accordingly, in some embodiments, head receiving portion <NUM> may be selectively removable. In further embodiments, as the infant ages, the caregiver may select a new insert <NUM> that comprises a head receiving portion comprising more cushioned padding <NUM>.

In yet further embodiments, head hollow <NUM> may be formed by a structural depression sewn or manufactured into the insert <NUM> to thereby create the depressed, hollowed area relative to the plane of the head receiving portion <NUM>. In embodiments, the head hollow <NUM> may present an interior rear wall <NUM>, a sidewall <NUM> surrounding the interior rear wall <NUM>, and an edgewall <NUM> adjacent the surface of the head receiving portion <NUM>. The interior rear wall <NUM> may present the most depressed area of the head hollow <NUM>, i.e., the area of the head hollow <NUM> farthest away from the plane of the head receiving portion <NUM>. In embodiments, the sidewall <NUM> is angled away from the interior rear wall <NUM> and towards the plane of the head receiving portion <NUM>. The sidewall <NUM> may gradually blend or otherwise merge with the interior rear wall <NUM>, such that there is not a distinct line of demarcation between the interior rear wall <NUM> and the sidewall <NUM>. In embodiments, the sidewall <NUM> surrounds a perimeter of the interior rear wall <NUM>. The edgewall <NUM> surrounds a perimeter of the sidewall <NUM> and presents a line of demarcation between the plane of the head receiving portion <NUM> and the head hollow <NUM>. In embodiments, the transition of materials between the head receiving portion <NUM>, to the edgewall <NUM>, and to the sidewall <NUM> is relatively smooth so as to provide comfort for the infant. In embodiments, the hollow or depression formed by the head hollow <NUM> is approximately <NUM> deep relative to the plane of the head receiving portion <NUM>, or approximately <NUM> deep relative to the plane of the head receiving portion <NUM>, or approximately <NUM> deep relative to the plane of the head receiving portion <NUM>, or approximately <NUM> deep relative to the plane of the head receiving portion <NUM>.

Attachment or securement of insert <NUM> to bouncer seat is discussed below and is effectuated via harness and harness attachment assembly.

Referring to <FIG>, in some embodiments, the bouncer seat <NUM> may further include a harness <NUM> adapted and configured to (<NUM>) securely fasten the infant within receiving region <NUM> of bouncer seat <NUM> and/or insert; and/or (<NUM>) secure the insert <NUM> to the bouncer seat. Accordingly, baby bouncer <NUM> may be adapted and configured to utilize a harness <NUM> for securing an infant no matter the embodiment.

As illustrated in <FIG>, harness <NUM> comprises a lower attachment portion 208a and left and right-side attachment arms 208b, 208c. Each of attachment portion 208a and left and right-side attachment arms 208b, 208c is attached or otherwise secured to the bouncer seat <NUM> or the insert <NUM>, as discussed in detail below. When the harness <NUM> is fastened, the infant's legs fit through the openings formed adjacent to the lower attachment portion 208a of the harness <NUM>, and the side attachment arms 208b, 208c would be anchored near the infant's waist, as best illustrated in <FIG>.

An exemplary embodiment of harness <NUM> having a curved T-bar configuration is depicted in the Figures, but it should be understood that harness <NUM> is not limited to a T-bar configuration. For example, one or more shoulder straps, a waist strap, a seatbelt, a chest strap, a double seatbelt, or other harness types may be used in conjunction with, or in replacement of harness <NUM>. It will also be noted that such harnesses may be configured to be readily attached or removed (i.e., detachable) from baby bouncer <NUM> via a variety of mechanisms. For example, the harness <NUM> may be attached to bouncer seat <NUM> or insert <NUM> via tying, zippers, snaps, buckles, straps, chemical adhesive, sewing together, or any other attachment system. Accordingly, it should be understood that the design, configuration, and/or placement of harness <NUM> may vary, and is not limited to a "T-bar" configuration or design. For example, in some embodiments, harness <NUM> may be a three-point, "Y-shaped" safety strap, like a seat belt for a motor vehicles. In further embodiments, harness <NUM> may comprise a harness configuration, including for example a five-point harness that may be found in racing motor vehicle. However, it will be appreciated that harness <NUM> may comprise any <NUM>-, <NUM>-, <NUM>-, <NUM>-, and/or <NUM>-point securement device for securing an infant in position.

The attachment of the harness <NUM> to the bouncer seat <NUM> and/or insert <NUM> will now be described. As shown in <FIG>, the harness <NUM> is fully separable from the bouncer seat <NUM> and the insert <NUM>. Because the insert <NUM> may be selectively used with the bouncer seat <NUM>, the bouncer seat <NUM> is designed for the harness to be secured directly to the bouncer seat <NUM> when the insert <NUM> is not used, or, when the insert is used, to the bouncer seat and the insert <NUM>. The separable harness <NUM> is distinct from prior art bouncers that do not use an insert <NUM>, where the harness <NUM> is fixedly secured to the bouncer seat <NUM>, such as the harness <NUM> being fixedly sewn to the bouncer seat <NUM> or otherwise integral with the bouncer seat <NUM>. To allow for the harness <NUM> to be removably secured to the bouncer seat <NUM> only or to the bouncer seat <NUM> and the insert <NUM>, embodiments of the present disclosure provide the harness attachment assembly <NUM>. In some embodiments, the harness attachment assembly <NUM> comprises at least a lower attachment point <NUM>, a left attachment point <NUM>, and a right attachment point <NUM>, a lower harness receiving member 210a configured to be removably secured to the lower portion 208a of harness <NUM>; left and right side hardness attachment members 210b, 210c configured to be removably secured to the left and right side attachment arms 208b, 208c of harness <NUM>; and a retaining member <NUM>. Broadly, lower attachment portion 208a (see <FIG>) of harness <NUM> is removably secured with lower harness receiving member 210a, which at least partially removably couples harness with bouncer seat <NUM> and/or insert <NUM>. Left and right side attachment arms 208b, 208c of harness <NUM> are respectively coupled with left and right side harness attachment members 210b, 210c, to thereby completely couple harness <NUM> to bouncer seat <NUM> and/or insert <NUM>.

In some embodiments, lower attachment point <NUM> of harness attachment assembly comprises the lower harness attachment member 210a and a bouncer receiving member <NUM> disposed on the bouncer seat <NUM>. Lower harness attachment member 210a may be a fastener disposed on lower attachment portion 208a of harness <NUM>. For example, lower harness attachment member 210a may be a hook and loop, commonly sold under the trademark VELCRO™. However, it should be understood that lower harness attachment member 210a may be any mechanical fastener. Bouncer receiving member <NUM> may be disposed on the bouncer seat <NUM> and may comprise a harness fastener <NUM> for coupling a portion of harness <NUM> to bouncer seat <NUM>. Harness fastener <NUM> may be any fastener for mating with harness attachment member 210a. For example, in embodiments in which lower harness attachment member 210a is a hook and loop fastener, harness fastener <NUM> may comprise a corresponding hook and loop fastener. In another non-limiting example, lower harness attachment member 210a may be the male end of a buckle fastener, and harness fastener <NUM> may be a female end of a buckle fastener.

Referring to <FIG>, in some embodiments, bouncer receiving member <NUM> comprises an attachment pocket <NUM> which may be adapted and configured as a slit, hole, or pocket formed in the bouncer seat <NUM>. <FIG> depicts an enlarged view of the phantom portion identified in <FIG>. Attachment pocket <NUM> may be adapted and configured for receiving a portion of lower attachment portion 208a of harness <NUM> and for securing harness <NUM> in position on bouncer seat <NUM>.

As described below, bouncer seat <NUM> may comprise more than one layer of material, and attachment pocket <NUM> may be defined between two layers of material of bouncer seat <NUM>. In further embodiments, such as embodiments in which bouncer seat <NUM> comprises only a single layer of material, attachment pocket <NUM> may be adapted for placement on an exterior surface of bouncer seat <NUM>. The dimensions of attachment pocket <NUM> may vary, but generally comprise dimensions for receiving and accepting lower attachment portion 208a of harness <NUM>. For example, if lower attachment portion 208a comprises a width of <NUM> (<NUM> in), then attachment pocket <NUM> may comprise a width of at least <NUM> (<NUM> in). Additionally, the depth of attachment pocket <NUM> may vary, but generally comprises a depth to accept and retain a portion of lower attachment portion 208a.

In some embodiments, lower attachment portion 208a may be adapted and configured to adjust in length to accommodate infants of varying sizes. Accordingly, attachment pocket <NUM> may be sized to accommodate an excess amount of lower attachment portion 208a. As described in greater detail below, the design of harness <NUM> may vary depending on the embodiment, and the location and number of attachment pockets <NUM> may vary to correspond to the design of harness <NUM>. For example, in embodiments in which harness <NUM> is a <NUM>-point harness, bouncer seat <NUM> may comprise a plurality of attachment pockets <NUM> located in positions for receiving the straps or limbs of the <NUM>-point harness.

In some embodiments, attachment pocket <NUM> may be selectively opened, allowing a caregiver to access an interior of attachment pocket <NUM>, to insert lower attachment portion 208a into attachment pocket <NUM>, to secure lower attachment portion 208a in place, to remove lower attachment portion 208a, to clean attachment pocket <NUM>, among other reasons. Attachment pocket <NUM> may further comprise the harness fastener <NUM>, which may operatively couple to lower attachment portion 208a of harness <NUM>. The fastener may comprise various mechanisms for securing the harness within the attachment pocket <NUM> or to the bouncer seat <NUM>, such as a zipper, hook and loop fasteners, buttons, snaps, or D-rings. In embodiments, the harness fastener <NUM> may also serve to retain the pocket in a closed configuration. In the embodiment shown in <FIG>, the harness fastener <NUM> is hook and loop that the attachment pocket <NUM> includes mating hook and loop and the lower portion 208a of harness <NUM> includes one or both of hook and loop (either on one or both sides of the harness <NUM>).

In some embodiments, harness fastener <NUM> may be located entirely within the dimensions of attachment pocket <NUM>. In further embodiments, at least a portion of harness fastener <NUM> may be at least partially located outside of the dimensions of attachment pocket <NUM>. Harness fastener <NUM> may be a compatible fastener or coupling device and may correspond to lower harness receiving member 210a. In further embodiments, attachment pocket <NUM> may comprise a plurality of harness fasteners <NUM>. For example, multiple harness fasteners <NUM> may be selectively placed in attachment pocket <NUM> at predetermined intervals, such as at <NUM> (<NUM> in) intervals. A plurality of harness fasteners <NUM> provides a caregiver with additional options on the location to connect lower portion 208a of harness <NUM> to the bouncer seat <NUM>. For example, to shorten the overall length of harness <NUM>, a caregiver may choose to secure the harness fastener <NUM> at a distal end of attachment pocket <NUM>, and similarly, to increase the overall length of harness <NUM>, the caregiver may choose to secure the harness fastener <NUM> at a more proximal end of attachment pocket <NUM>.

Multiple harness fasteners <NUM> located at a variety of locations provides caregivers with options to find a desired fit for the infant. Further, the multiple harness fasteners <NUM> may aid in increasing the lifespan of baby bouncer <NUM>, allowing the caregiver to continually use the same baby bouncer <NUM> as the infant ages. In even further embodiments, harness <NUM> may be removed entirely from attachment pocket <NUM> and attachment pocket <NUM> may be closed or sealed without a harness <NUM>. For example, in some embodiments, baby bouncer <NUM> may be used with a toddler or an infant that does not require a harness <NUM>. Accordingly, attachment pocket <NUM> may be closed or sealed and an infant may be placed in receiving region <NUM> or in insert <NUM> as described herein without securing the infant via harness <NUM>. In further embodiments, removing harness <NUM> from attachment pocket <NUM> may aid in storing baby bouncer <NUM>. In some embodiments, attachment pocket <NUM> may be closed in a similar manner as when securing a harness <NUM>. For example, attachment pocket <NUM> may comprise complementary harness fastener <NUM> that may operably couple together. For example, attachment pocket <NUM> may comprise complementary hook and loop fasteners that may be used to sandwich the lower portion 208a of harness <NUM> within attachment pocket <NUM> and be used to close attachment pocket <NUM> when harness <NUM> is removed.

Harness attachment assembly <NUM> further comprises a left attachment point <NUM> and a right attachment point <NUM> for coupling side attachment arms 208b, 208c to bouncer seat <NUM>. In some embodiments, left attachment point <NUM> and right attachment point <NUM> may be substantially identical in design and configuration. Left attachment point <NUM> may generally comprise a left side harness attachment member 210b and a left side bouncer seat attachment member 270a. Right attachment point <NUM> may generally comprise a right side harness attachment member 210c and a right side bouncer seat attachment member 270b.

Left side harness attachment member 210b may be a fastener located or disposed on side attachment arm 208b of harness <NUM>. Likewise, right side harness attachment member 210c may be a fastener located or disposed on side attachment arm 208c of harness <NUM>. As depicted in <FIG>, each of left side harness attachment member 210b and right side harness attachment member 210c may be a female end fastener of a buckle fastener. However, it will be appreciated that any mechanical fastener is contemplated.

Each of bouncer seat attachment members 270a, 270b may operatively couple to harness attachment members 210b, 210c for coupling of harness <NUM> to bouncer seat. Accordingly, bouncer seat attachment members 270a, 270b may comprise a corresponding fastener to harness attachment members 210b, 210c. For example, continuing with the depicted embodiment, each of bouncer seat attachment members 270a, 270b may be male end fastener of a buck fastener. However, as stated above, it will be appreciated that any mechanical fastener is contemplated.

In some embodiments, bouncer seat attachment members 270a, 270b may be disposed at one end of webbing or straps 272a, 272b with a second end coupled to bouncer seat <NUM>. For example, the second end of straps 272a, 272b may couple to the outer edgewall <NUM> of bouncer seat <NUM>. For example, strap 272a may couple at the left edgewall <NUM> of bouncer seat <NUM> and strap 272b may couple at the right edgewall <NUM> of bouncer seat <NUM>. In some embodiments, straps 272a, 272b may be sewn, adhered, molded, mechanically fastened, or coupled to bouncer seat <NUM> using any known methods of attachment.

Each of straps 272a, 272b may comprise a tunnel cover <NUM> at the location that straps 272a, 272b couple to the bouncer seat <NUM> for protecting the coupling point. Tunnel cover <NUM> may be fabric or other material for protecting the coupling point. For example, in embodiments in which straps 272a, 272b are sewn into bouncer seat <NUM>, tunnel cover <NUM> may protect the connection point from abrasions or prevent the infant from playing with the connection point. In some embodiments, straps 272a, 272b may extend out from tunnel cover <NUM> at a tunnel facing <NUM>, which may be an opening at tunnel cover <NUM>. Additionally, each of straps 272a, 272b may further comprise an adjustment member for adjusting the length of straps 272a, 272b. For example, a caregiver may loosen straps 272a, 272b when initially placing the infant in the baby bouncer <NUM>, and tighten the straps 272a, 272b after the infant is in position.

Accordingly, harness <NUM> may be configured to secure a child to insert <NUM> and/or bouncer seat <NUM>. For example, the lower attachment portion 208a of the harness <NUM> may be received between an infant's legs while the top two outwardly protruding side attachment arms 208b, 208c of harness <NUM> may go over the top of the infant's legs. For example, <FIG> illustrates an embodiment of baby bouncer <NUM> in a closed configuration in which the two side attachment arms 208b, 208c of harness <NUM> are secured to bouncer seat <NUM>. The two side attachment arms 208b, 208c of harness <NUM> may be fastened to straps 272a, 272b protruding through bouncer seat attachment members 270a, 270b.

In some embodiments, bouncer seat <NUM> and/or insert <NUM> may optionally and/or additionally comprise at least one retaining member <NUM> for coupling insert <NUM> to the harness attachment assembly <NUM>. In some embodiments, retaining member <NUM> may be a loop disposed on insert <NUM> for receiving a portion of harness attachment assembly <NUM> and/or harness <NUM>. For example, attachment retaining member <NUM> may be a piece of fabric or material fixedly connected at two points on insert <NUM>, with a void space disposed between the two connection points. Retaining member <NUM> may be constructed from the same material as insert <NUM> or may be constructed from a different material, including for example the materials provided herein. Depending on the material used to construct retaining member <NUM>, retaining member <NUM> may be coupled to insert <NUM> through a variety of attachment methods, including for example, sewing, adhesives, molding, or other attachment methods. Further, the dimensions of retaining member <NUM> may vary and may be dependent on factors including but not limited to the dimensions of harness <NUM>. For example, as described in greater detail below, one or more portions of harness <NUM> may be inserted into retaining member <NUM>. Accordingly, retaining member <NUM> may comprise dimensions large enough to accommodate insertion of a portion of harness <NUM>.

As depicted in <FIG>, retaining member <NUM> may be forward positioned and disposed near lower portion <NUM> of insert <NUM>. To secure insert <NUM> to bouncer seat <NUM>, lower attachment portion 208a of harness <NUM> may be inserted through retaining member <NUM> and coupled to bouncer seat <NUM>. After insertion through retaining member <NUM>, lower attachment portion 208a of harness <NUM> may be inserted into attachment pocket <NUM> and coupled within. Accordingly, through the insertion of lower attachment portion 208a into retaining member <NUM>, insert <NUM> may be coupled to bouncer seat <NUM>.

In some embodiments, coupling through retaining member <NUM> may provide a floating or sliding effect, wherein insert <NUM> is secured to bouncer seat <NUM>, but play or movement may still occur, allowing the infant a degree of movement when secured to insert <NUM>. Coupling the insert <NUM> to bouncer seat <NUM> using harness <NUM> and retaining member <NUM> may provide certain advantages. For example, utilizing a retaining member <NUM> and harness <NUM> may eliminate the need for additional attachment points, which may increase the number of potential fail locations as well as add to manufacturing costs. Further, retaining member <NUM> and harness <NUM> may also decrease the number of straps or other components that an infant may reach, which could lead to damage to baby bouncer <NUM> or injury to the infant. As described in greater detail below, the number and/or location of retaining member <NUM> may vary and may be dependent on the design of harness <NUM>.

In some embodiments, each of bouncer seat <NUM>, insert <NUM>, and harness <NUM>, or any combination thereof, may be constructed or manufactured from a flexible material adapted to contour and adapt to different sizes, shapes, and configurations of frame <NUM>. For example, in some embodiments, bouncer seat <NUM>, insert <NUM>, and/or harness <NUM> may be constructed from fabric such as polyester, cotton, wool, nylon, denim, velvet, fleece, chiffon, flannel, leather, synthetic, etc., providing for a flexible material to contour to the shape and size of frame <NUM>. Optionally or additionally, the material for bouncer seat <NUM>, insert <NUM>, and/or harness may be a hypoallergenic, breathable, soft, felted, or any other suitable material for placing an infant for an extended time period. Even further, each of bouncer seat <NUM>, insert <NUM>, and harness <NUM> may be constructed from a plurality of layers of material. The plurality of layers of material may be advantageous for the insertion of padding <NUM> and/or for manufacturing attachment pocket <NUM>.

As described in greater detail below, in some embodiments, frame <NUM> may comprise one or more telescopic limbs, allowing for parts of frame <NUM> to become shorter or longer. In some embodiments, it may be advantageous for a single bouncer seat <NUM> to be used with any frame <NUM>, providing caregivers a means to increase the size of baby bouncer <NUM> as the infant ages and grows. Accordingly, in some embodiments, bouncer seat <NUM> may be adjustable in size, adjusting to dimension changes in frame <NUM>. In further embodiments, bouncer seat <NUM> may not be adjustable in size and instead, may comprise a set or otherwise permanent height, width, length, or other dimensions.

Additionally, the bouncer seat <NUM>, the insert <NUM>, and/or the harness <NUM> may be manufactured or constructed from a variety of materials including a combination of materials that are selectively positioned. In some embodiments, the material(s) used to construct the bouncer seat <NUM> and/or the insert <NUM> may comprise varying patterns, inserts, or other designs to provide additional comfort to the infant, to aid in clean up, among other purposes. For example, the material corresponding to the head receiving portion <NUM> and/or lower portion <NUM> may comprise a quilting or otherwise cross-stitched design having a plurality of connected geometric shapes. The quilting design may aid in engaging the bouncer seat <NUM> and/or the insert <NUM> with the infant. It should be understood that bouncer seat <NUM> and/or insert <NUM> may comprise patterning or designs at multiple locations, in addition to or instead of at head receiving portion <NUM> and lower portion <NUM>. It should be further understood that the design of the patterning may vary depending on location, and bouncer seat <NUM> and/or insert <NUM> may comprise a plurality of patterns corresponding to a plurality of locations.

As described above, harness <NUM> may comprise a variety of shapes, configurations, and/or designs depending on the embodiment, including but not limited to <NUM>-point straps, <NUM>-point harnesses, and/or <NUM>-point harnesses. As further described above, insert <NUM> may comprise retaining member (i.e., retaining member <NUM>, retaining member <NUM>, retaining member 366a, retaining member 366b) for the insertion of a portion of harness <NUM> or straps 272a, 272b which may aid in securing insert <NUM> into position within the receiving region <NUM> of bouncer seat <NUM>. In some embodiments, insert <NUM> may comprise a plurality of attachment retaining members <NUM>, which may aid in coupling insert <NUM> to bouncer seat <NUM>. Accordingly, in some embodiments, the number and placement of retaining members on insert <NUM> may be based at least in part on the design, shape, and/or configuration of harness <NUM>. For example, in embodiments in which harness <NUM> is a <NUM>-point harness, insert <NUM> may comprise five retaining member disposed or located on insert <NUM> at locations approximate to each strap of the <NUM>-point harness. As described above, each strap or portion of the <NUM>-point harness may be inserted into each of the five retaining members, thereby securely coupling insert <NUM> in position. It should be understood that in some embodiments, the number of retaining members may not correspond directly to the number of straps of a multiple point harness. For example, continuing with the <NUM>-point harness example, insert <NUM> may comprise fewer than five retaining members, and only a portion of the straps of the <NUM>-point harness may be inserted into a retaining member.

In some embodiments, bouncer seat <NUM> may be adapted and configured for receiving one size of insert <NUM>. In further embodiments, a single bouncer seat <NUM> may couple to a plurality of inserts <NUM> having a variety of different sizes. For example, one bouncer seat <NUM> may be configured to mechanically attach to two, three, four, five, or more separate interchangeable inserts <NUM>. Continuing with this example, the separate and interchangeable inserts <NUM> may comprise varying sizes, padding, weight ratings, or other features. For example, the separate and interchangeable inserts <NUM> may be adapted and configured for use with infants having a range of predetermined weights and heights, which may correspond to governmental standards or regulations, or other safety requirements or standards. Accordingly, as an infant ages and increases in weight and height, the infant may size out of certain embodiments, sizes, or designs of inserts <NUM>. In response, a caregiver may exchange one insert <NUM> with another separate and interchangeable insert <NUM> when the infant sizes out of the first insert <NUM>.

In further embodiments, inserts <NUM> may be adapted and configured with different levels of padding or different configurations, to provide caregivers with options of selecting an insert <NUM> that is compatible with the infant. Accordingly, in addition to selecting an insert <NUM> based on size, a caregiver may also select an insert based on the preference of the infant. Such adjustability may allow for one bouncer seat <NUM> to accommodate differently sized infants by simply changing out the insert <NUM>. Additionally, multiple inserts <NUM> may be provided such that an insert <NUM> may be replaced when another insert <NUM> needs to be cleaned or to provide different patterns for aesthetic features. It should be further understood that insert <NUM> may be used with other baby seats or other similar structures, including but not limited to highchairs, strollers, sleepers, or other devices or structures for use with infants, toddlers, or children. For example, insert <NUM> may be adapted for use with a stroller, providing ergonomic support and/or comfort to an infant during a stroller ride.

In even further embodiments, insert <NUM> may optionally and/or additionally comprise one or more void spaces (not shown) or other openings. In some embodiments, portions of harness <NUM> or straps 272a, 272b may enter through the one or more void spaces before coupling, thereby securing insert <NUM> to bouncer seat <NUM>. For example, retaining member <NUM> may be replaced with a void space or other opening in insert <NUM>, wherein lower attachment portion 208a may enter the void space prior to insertion into attachment pocket <NUM>. By way of another non-limiting example, in embodiments in which harness <NUM> is a <NUM>-point harness, insert <NUM> may comprise void spaces defined in back support <NUM> that the straps of the <NUM>-point harness may be inserted through for securing insert <NUM> in position on bouncer seat <NUM>.

As described above, and in some embodiments, an infant may be placed within receiving region <NUM> of bouncer seat <NUM> without the use of insert <NUM>. For example, as the infant ages, the infant may grow too large for placement in insert <NUM>. Accordingly, receiving region <NUM> may comprise padding <NUM> arranged and configured in the manner described above with respect to insert <NUM> and/or insert <NUM>. For example, in some embodiments, bouncer seat <NUM> may comprise padding <NUM> arranged in a corresponding manner to insert <NUM> and/or <NUM> as described above, and comprise a seat portion, side supports, a back support, a head receiving portion, or any combination thereof. Accordingly, in some embodiments, a single baby bouncer <NUM> may be used with an infant as the infant ages and grows.

<FIG> illustrates a second exemplary embodiment of infant insert <NUM>. In some embodiments, infant insert <NUM> may generally correspond to the overall design of infant insert <NUM>, with some modifications. For example, infant insert <NUM> may comprise an insert body <NUM> having an ergonomic substantially rounded triangular shape. Insert body <NUM> may comprise a seat portion <NUM>, a back support <NUM>, side supports 358a, 358b, and head receiving portion <NUM>. Like head receiving portion <NUM>, head receiving portion <NUM> may include padding <NUM> with a head hollow <NUM> for receiving the head of the infant. Side supports 358a, 358b may include extra padding <NUM> for cushioning the infant and for securely holding the infant therein. Additionally, in some embodiments, the insert <NUM> may include ridges or indentations for providing breathability. For example, back support <NUM> may comprise padding <NUM> configured with ridges or indentations. Seat portion <NUM> may include padding <NUM> for providing cushion to the infant and for positioning the infant in an ergonomic position.

In some embodiments, insert body <NUM> may further include a retaining member <NUM> for receiving the harness <NUM> therethrough. In some embodiments, retaining member <NUM> may be disposed adjacent to seat portion <NUM>. As described above with respect to insert <NUM>, retaining member <NUM> may aid in maintaining or keeping alignment of harness <NUM>. In further embodiments, retaining member <NUM> may aid in maintaining a tighter hold against the infant placed in insert <NUM>. In some embodiments, each side supports 358a, 358b may further comprise retaining members 366a, 366b. In some embodiments, straps 272a, 272b and/or side attachment arms 208b, 208c may be inserted through retaining members 366a, 366b of side supports 358a, 358b prior to attaching to bouncer seat attachment members 270a, 270b. Accordingly, retaining members 366a, 366b may aid in alignment of harness <NUM> and/or for providing a tighter fit against the infant. Additionally, retaining members 366a, 366b may aid in keeping straps 272a, 272b or portions of harness <NUM> away from the infant, preventing the infant from grabbing or playing with straps 272a, 272b or harness <NUM>.

As described above, the frame <NUM> of baby bouncer <NUM> may be considered the "hard goods" portion, providing the structure to baby bouncer <NUM> and for receiving the soft goods. <FIG> illustrate different views and aspects of the frame <NUM> and are best viewed together for the following description. Generally, the frame <NUM> comprises a telescopic base, an upper support <NUM>, and an actuation mechanism <NUM>.

As best illustrated in <FIG> and in some embodiments, frame <NUM> includes an extendable telescopic base <NUM>. The telescopic base <NUM> may be the portion of the baby bouncer <NUM> that engages with the ground, floor, or other substrate. The shape and design of telescopic base <NUM> may vary, and in some embodiments, comprise a telescopic shelled design. In some embodiments, telescopic base <NUM> may comprise a generally elongated design, providing for surface area for contact with the floor and/or for providing stability in maintaining upper support <NUM> and/or bouncer seat <NUM> in an upright and desired position. Generally, the telescopic base <NUM> comprises a distal end <NUM>, a proximal end <NUM>, and an extendable member <NUM> disposed therebetween.

The overall length of telescopic base <NUM> may vary, depending on the embodiments, and may be dependent on factors including but not limited to the length of upper support <NUM>, the width of telescopic base <NUM>, the weight of the infant intended for use with baby bouncer <NUM>, among other factors. By way of non-limiting example, telescopic base <NUM> may comprise a length of about <NUM> (<NUM> in) to about <NUM> (<NUM> in). Additionally, the width of telescopic base <NUM> may likewise vary and may be dependent on factors including but not limited to the length of upper support <NUM>, the length of telescopic base <NUM>, the weight of the infant intended for use with baby bouncer <NUM>, among other factors. As described in greater detail below, at least a portion of telescopic base <NUM> may comprise a telescopic design adapted and configured for selectively telescoping of a portion of telescopic base. Accordingly, the geometric shape of telescopic base <NUM> should generally comprise a shape adapted for telescopic movement, including but not limited to a rectangular or circular tube design.

As best depicted in <FIG>, telescopic base <NUM> may comprise a distal end <NUM>, a proximal end <NUM>, and an extendable member <NUM> disposed therebetween. Turning to <FIG>, distal end <NUM> may be configured or comprise an anchor portion <NUM>, which may aid in providing stability to baby bouncer <NUM>, particularly when an infant has been placed in the bouncer. As depicted, anchor portion <NUM> may comprise a bulbous, bell-end, or curved shape, which may comprise a greater width than the width of extendable member <NUM>. However, it will be appreciated that anchor portion <NUM> may comprise any geometric shape that may provide stability to frame telescopic base <NUM> and/or frame <NUM>. As further depicted, in some embodiments, anchor portion <NUM> may comprise an open portion or void space <NUM> (see <FIG>). As described in greater detail below, telescopic base <NUM> be operatively coupled to the actuation pedal <NUM> of the actuation mechanism <NUM> for actuating the extendable member <NUM>. In some embodiments, void space <NUM> aids in providing a caregiver with access to the actuation pedal <NUM>. Void space <NUM> may be located entirely within the dimensions of anchor portion <NUM>, such that an outer perimeter of anchor portion <NUM> is solid and devoid of any gaps or space. Accordingly, the structural integrity of anchor portion <NUM> may remain intact, while also providing a caregiver the advantage of accessing actuation pedal <NUM>.

Moving proximally from distal end <NUM>, telescopic base <NUM> further comprises the extendable member <NUM>. In some embodiments, extendable member <NUM> may comprise an outer shell portion <NUM> and an inner extending portion <NUM> (see <FIG>) providing for the telescoping of telescopic base <NUM>, in which outer shell portion <NUM> may at least partially surround and house inner extending portion <NUM>. Upon actuation, inner extending portion <NUM> may selectively telescope into or away from outer shell portion <NUM>. In some embodiments, inner extending portion <NUM> may be guided though a rail structure (such as connecting members 300a, 300b as described below), guiding shelves, or other structure providing for a cooperative fit between outer shell portion <NUM> and inner extending portion <NUM>, providing for both coupling and transversal movement of inner extending portion <NUM>. Accordingly, inner extending portion <NUM> may selectively extend or withdraw in position from outer shell portion <NUM>.

As further depicted in <FIG>, and in some embodiments, inner extending portion <NUM> may comprise one or more visual indicators <NUM>. Visual indicators <NUM> may be markings, etchings, symbols, or other visual indicators for providing a visual indication to the caregiver during actuation when a pre-determined position of upper support <NUM> and/or inner extending portion <NUM> has been reached or may about to be reached. For example, visual indicators <NUM> may be recessed etchings defined on inner extending portion <NUM>. In further embodiments, visual indicators <NUM> may be colored lines or symbols. However, it will be appreciated that the design of visual indicators <NUM> may comprise any design that conveys to a caregiver that an actuation position is about to be reached or has been reached.

As described in greater detail below, actuation of actuation pedal <NUM> selectively changes the angle of upper support <NUM> and or the length of extendable member <NUM>. Rather than relying solely on a tactile response, visual indicators <NUM> may provide a caregiver with a visual indication when a locking position is reached or may be about to be reached. The number of visual indicators <NUM> may vary and the number of visual indicators may be dependent on the number of angles that upper support <NUM> may be locked in at, and/or the length that extendable member <NUM> may be locked at. For example, in embodiments in which upper support <NUM> may be adjustable and locked at four different angles, inner extending portion <NUM> may comprise four visual indicators <NUM>. However, it will be appreciated that the number of visual indicators <NUM> may vary and may not necessarily correspond to the number of angles of upper support <NUM>. For example, at a closed position, a visual indicator <NUM> may not be necessary to alert a caregiver that upper support <NUM> is in a closed position.

Continuing in a proximal direction and as best depicted in <FIG>, telescopic base <NUM> may further comprise a proximal end <NUM>. In some embodiments, proximal end <NUM> may comprise a cover plate <NUM> and a base plate <NUM>. Cover plate <NUM> may enclose certain aspects of the frame <NUM>, such as connecting structures located on base plate <NUM> for coupling telescopic base <NUM> to upper support <NUM>. For example, base plate <NUM> may comprise rotatable connectors 172a, 172b and stabilizing connectors <NUM> for, among other purposes, providing a pivotable attachment location for upper support <NUM>.

Additionally, cover plate <NUM> may provide frame <NUM>, telescopic base <NUM>, and/or baby bouncer <NUM> with an aesthetic look. In some embodiments, cover plate <NUM> may be domed or otherwise comprise a complementary shape to cover one or more inner parts or components of telescopic base <NUM>. Base plate <NUM> may provide surface area for engaging with the ground or floor. Accordingly, base plate <NUM> may work in conjunction with anchor portion <NUM> to provide stability and rigidity to telescopic base <NUM>. The design and shape of base plate <NUM> may vary but may generally comprise a planar design to aid in maintaining frame <NUM> in a level position.

Proximal end <NUM> and outer shell portion <NUM> may be separated by a gap <NUM> having a predetermined distance. In some embodiments, gap <NUM> may be the space or area for inner extending portion <NUM> to enter when telescoping out of outer shell portion <NUM>. Accordingly, gap <NUM> may be large enough for inner extending portion <NUM> to transverse. For example, gap <NUM> may be about <NUM> (<NUM> in) in length to about <NUM> (<NUM> in) in length.

In some embodiments, proximal end <NUM> may be coupled or otherwise connected to extendable member <NUM> through one or more base connection supports. As depicted in the <FIG>, proximal end <NUM> and extendable member <NUM> may be connected through two base connection supports 300a, 300b. In some embodiments, base connection supports may be tubing or rigid rods along which inner extending portion <NUM> may slide. Connection supports 300a, 300b may be at least partially located within the interior of outer shell portion <NUM> and extend out from outer shell portion <NUM> and connect to proximal end <NUM>. As described herein and in some embodiments, inner extending portion <NUM> may telescope into and out of outer shell portion <NUM> during adjustment of the height of upper support <NUM>. Accordingly, inner extending portion <NUM> may comprise a channel or opening defined through the length of inner extending portion <NUM>, which connection supports 300a, 300b may be inserted into. Through such a design, inner extending portion <NUM> may transverse across a gap or space between proximal end <NUM> and outer shell portion <NUM>.

Each of connection supports 300a, 300b may be coupled to proximal end <NUM> and extendable member <NUM> through known means of attachment, including but not limited to mechanical fasteners such as screws, molding, adhesives, among other fasteners. For example, in some embodiments, connection supports 300a, 300b may be attached to rotatable connectors 172a, 172b through an adhesive and may further be attached to outer shell portion <NUM> through a plurality of screw fasteners. Further, the length of connection supports 300a, 300b may vary, but generally comprise a length sufficient to cross gap <NUM> and couple to each of proximal end <NUM> and outer shell portion <NUM>. In some embodiments, connection supports 300a, 300b may extend a distance into outer shell portion <NUM>. For example, connection supports 300a, 300b may extend approximately the length of outer shell portion <NUM> until reaching anchor portion <NUM>. In some embodiments, connection supports 300a, 300b may extend into anchor portion <NUM> and may be coupled to anchor portion <NUM>.

As depicted in the bottom perspective view of <FIG>, frame <NUM> may also include feet <NUM>, which may include a lower friction-inducing surface, such as a rubberized coating to prevent the bouncer from moving on the floor. The feet <NUM> may be located at any position on the bottom surface of frame <NUM>, including at each of proximal end <NUM> and distal end <NUM> of telescopic base <NUM>, or any position disposed therebetween.

As described above and as best illustrated in <FIG>, frame <NUM> may comprise an upper support <NUM>. Upper support <NUM> may be an extending portion of frame <NUM>, extending upwards and away from telescopic base <NUM>, providing for an attachment structure for coupling bouncer seat <NUM> to frame <NUM>. In some embodiments, upper support <NUM> may comprise at least one wire limb (or other similar design), which may comprise a bulbous design to provide upper support <NUM> with a generally oval or egg shape. Such oval shape of upper support <NUM> may correspond to the generally oval shaping of bouncer seat <NUM>. However, it will be appreciated that the design and shape of upper support <NUM> may vary, and, depending on the embodiment, may comprise any geometric shape or design.

In some embodiments, upper support <NUM> may further comprise a base limb <NUM> (see <FIG>). Base limb <NUM> may be a portion of upper support <NUM> that is adjacent to or in contact with base plate <NUM> and may comprise a generally planar or straight design or shape, providing a pivotable aspect to upper support <NUM>. As depicted, upper support <NUM> may couple to telescopic base <NUM> at proximal end <NUM>. As described above, proximal end may comprise one or more parts or components for rotatably coupling to upper support <NUM>. For example, the proximal end <NUM> may comprise rotatable connectors 172a and 172b disposed on base plate <NUM>. Rotatable connectors 172a and 172b may be configured to operatively attach upper support <NUM> to telescopic base <NUM>. For example, rotatable connectors 172a, 172b may comprise a notch or other design for receiving and rotatably holding base limb <NUM> of upper support <NUM>. Accordingly, rotatable connectors 172a, 172b may both couple upper support <NUM> to telescopic base <NUM> and allow the angle of upper support <NUM> to change through rotation of upper support <NUM>. Additionally, in some embodiments, rotatable connectors 172a, 172b may include bolt-on stanchions for connecting the base plate <NUM> to the upper support <NUM> and telescopic base <NUM>. In some embodiments, the attachment of upper support <NUM> to telescopic base <NUM> may be adjustable, such that the angle of upper support <NUM> may be changed in relation to telescopic base <NUM> (see <FIG>).

In some embodiments, upper support <NUM> may further be rotatably coupled to base plate <NUM> through one or more stabilizing connectors <NUM>, configured to couple to base limb <NUM> and to allow base limb <NUM>, and upper support <NUM>, to rotate when coupled. Like the rotatable connectors 172a, 172b as described above, stabilizing connectors <NUM> may comprise a notch or other similar design for accepting and securing base limb <NUM>, such as through an interference fit. The design of stabilizing connectors <NUM> may also comprise a rotatable design, aiding in the rotation of base limb <NUM> during the adjustment of the angle of upper support <NUM>. As depicted, base plate <NUM> may comprise two stabilizing connectors <NUM>. In some embodiments, the one or more stabilizing connectors <NUM> may couple to base limb <NUM>, thereby providing an additional connection point between upper support <NUM> and telescopic base <NUM>. Accordingly, stabilizing connectors <NUM> may aid in maintaining the structure of frame <NUM>. Additionally, stabilizing connectors <NUM> may further aid in maintaining alignment of upper support <NUM>. Even further, stabilizing connectors <NUM> may also aid in maintaining the position of upper support <NUM>. As further depicted and in some embodiments, base limb <NUM> may further comprise a bend <NUM> disposed at roughly the center of base limb <NUM>. As described in greater detail below, bend <NUM> may engage with a connection limb <NUM>, which may provide a connection point between upper support <NUM> and extendable member <NUM>.

Upper support <NUM> may be in contact with and operatively couple to bouncer seat <NUM>, thereby connecting bouncer seat <NUM> with frame <NUM>. In some embodiments, bouncer seat <NUM> may wrap around upper support <NUM> and may remain in place through an interference fit. In further embodiments, bouncer seat <NUM> may be coupled to upper support <NUM> through one or more fasteners, including but not limited to any known mechanical fasteners. In even further embodiments, bouncer seat <NUM> may be coupled to upper support through a combination of fasteners and an interference fit. In even further embodiments, upper support <NUM> may comprise one or more grooves or locking tabs and bouncer seat <NUM> may be locked in position through insertion into the one or more grooves or locking tabs. It will be appreciated that any known attachment method may be utilized in connecting bouncer seat <NUM> to upper support <NUM>.

In some embodiments, the height (i.e., angle in relation to telescopic base <NUM>) of the upper support <NUM> may be adjustable (as used herein height and angle may be used interchangeably with respect to upper support <NUM>), providing a caregiver with flexibility and options for seating the infant at multiple positions. In some embodiments, frame <NUM> may comprise an actuation mechanism <NUM> for adjusting the height of upper support <NUM>. Actuation mechanism <NUM> may comprise an actuation pedal <NUM>, cables 310a, 310b, and a connection limb <NUM>. Broadly, a caregiver may adjust the angle/height of upper support <NUM> (i.e., along direction <NUM>) by pressing on actuation pedal <NUM>, thereby releasing inner stops within telescopic base allowing for the adjustment of upper support <NUM>, as described in greater detail below.

As best depicted in <FIG>, actuation pedal <NUM> may be a manually operable actuation interface for adjusting the angle and height of upper support <NUM>. As used herein, the height of upper support <NUM> is the height as measured from a horizontal surface, such as the substrate on which the bouncer is resting. As the angle of the upper support <NUM> is changed, the height of the upper support also changes accordingly. The various angles/heights of the upper support allow for the infant to be positioned in various seating positions.

In some embodiments, actuation pedal <NUM> may be a pivotably mounted pedal, lever, or other similar structure. Actuation pedal <NUM> may be disposed on an accessible portion of frame <NUM>, such that a caregiver may apply a force to actuation pedal <NUM>, thereby causing actuation pedal <NUM> to pivot. For example, in the illustrated embodiment, actuation pedal <NUM> may be disposed in the void space <NUM> of anchor portion <NUM>. In some embodiments, actuation pedal <NUM> may optionally and/or additionally comprise a gripping aid to aid a caregiver in engaging with actuation pedal <NUM>. For example, rubber padding or other textured surfaces may be located on a portion of the exterior surface of actuation pedal <NUM>. It will be appreciated that actuation pedal <NUM> may be engaged by a foot, hand, elbow, knee, or other body part of a caregiver to initiate actuation. Accordingly, the force required to engage actuation pedal <NUM> should be set at a threshold such that a caregiver may manually actuate actuation pedal <NUM> without the assistance of a tool or other aid.

In some embodiments, frame <NUM> may further comprise a connection limb <NUM> disposed between telescopic base <NUM> and upper support <NUM>, providing for a connection between telescopic base <NUM> and upper support <NUM>. In some embodiments, connection limb <NUM> may be configured as a generally oval-shaped member comprising a first end <NUM> that may pivotally attach to a portion of upper support <NUM> and a second end <NUM> that may pivotally attach to inner extending portion <NUM>. For example, first end <NUM> of connection limb <NUM> may comprise a hole or opening that may surround a portion of base limb <NUM>, thereby pivotally coupling first end <NUM> to base limb <NUM>. Additionally, second end <NUM> of connection limb <NUM> may also comprise a hole or opening for pivotally attaching to a connection point within the interior of inner extending portion <NUM>. It should be understood that the shape and design of connection limb <NUM> may vary, but any shape or design may be used that provides for pivotable rotation of connection limb <NUM>. Additionally, the length of connection limb <NUM> may vary and may be dependent on factors including but not limited to the dimensions of upper support <NUM>, the dimensions of base <NUM>, the different heights that upper support <NUM> may be adjusted to, among other factors, or any combination thereof. By way of non-limiting example, connection limb <NUM> may comprise a length of about <NUM> (<NUM> in) to about <NUM> (<NUM> in).

In some embodiments, movement of upper support <NUM> and inner extending portion <NUM> may be linked, such that movement or adjustment of upper support <NUM> may cause movement or adjustment of inner extending portion <NUM> and/or vice versa. Described above, upper support <NUM> may be connected to inner extending portion <NUM> through connection limb <NUM>. Through the rotation of connection limb <NUM>, the movement between upper support <NUM> and inner extending portion <NUM> may be linked. For example, when the height/angle of upper support <NUM> is increased, the bend <NUM> of base limb <NUM> may rotate in a corresponding manner. Through the coupling between bend <NUM> and connection limb <NUM>, as bend <NUM> rotates, connection limb <NUM> may rotate as well. Further, because of the solid structure of connection limb <NUM>, as the first end <NUM> moves, second end <NUM> rotates in a corresponding manner. For example, in transitioning upper support <NUM> from a more planar angle to a more upright angle, connection limb <NUM> may also transition from a starting planar angle to a more upright angle. As connection limb <NUM> moves to a more upright angle, the connection between second end <NUM> and inner extending portion <NUM> causes lateral movement of inner extending portion <NUM> out from outer shell portion <NUM> and towards base plate <NUM>. In a corresponding manner, as the height/angle of upper support <NUM> transitions from an upright angle to a more planar angle, connection limb <NUM> likewise transitions to a flatter angle. The flattening of a detention aid (discussed further below) may push inner extending portion <NUM> laterally back into outer shell portion <NUM>. Accordingly, in some embodiments, the adjustment of upper support <NUM> may cause the telescoping of inner extending portion <NUM>. As described in greater detail below, the telescoping of inner extending portion <NUM> may provide for the stopping and locking of upper support <NUM> in predetermined positions.

Turning now to <FIG>, a bottom perspective of frame <NUM> is depicted, illustrating various portions and components for adjusting the angle/height of upper support <NUM>. For example, <FIG> best illustrates the components used for adjusting the angle/height of upper support <NUM> and locking upper support <NUM> in position. As best depicted, frame <NUM> may comprise at least one cable for adjusting the height/angle of upper support <NUM>. For example, frame <NUM> may comprise two cables 310a, 310b. In some embodiments, each of cables 310a, 310b may be located within the interior of the dimensions of outer shell portion <NUM> and may be coupled to each of actuation pedal <NUM> and inner extending portion <NUM>. At least a first portion of each of cables 310a, 310b may be disposed within the dimensions of actuation pedal <NUM> and at least a second portion of cables 310a, 310b may be disposed within the dimensions of inner extending portion <NUM>.

In some embodiments, each end of cable 310a, 310b may engage with a part or component of the actuation pedal <NUM> for adjusting the height/angle of upper support <NUM>. For example, the first portion of cables 310a, 310b are disposed within and coupled to actuation pedal <NUM>. Like that of a bicycle, upon actuation of actuation pedal <NUM>, actuation pedal <NUM> may act as a lever to apply a pressure to cables 310a, 310b to thereby pull cables 310a, 310b in a distal direction. The pulling of cables 310a, 310b may be applied across the entire length of cables 310a, 310b. The second portion of cables 310a, 310b may be disposed within the dimensions of inner extending portion <NUM>. Additionally, each of cables 310a, 310b may be operatively coupled to a push pin (not shown) or other mechanical stopper or actuator which, as described in greater detail below, may be used in adjusting the height/angle of upper support <NUM>. In some embodiments, the push pins may be spring loaded push pin.

In some embodiments, each of the base connection supports 300a, 300b may comprise openings, void spaces, holes, or other similar openings for receiving a portion of a push pin. For example, when upper support <NUM> is in a locked position other than a closed position (i.e., the angle of upper support <NUM> is at approximately zero), the push pins may be at an extended position and be located at least partially within the void space. When in the extended position, the push pins may engage with the void spaces to prevent movement of inner extending portion <NUM>, whin in turn, prevents movement of upper support <NUM>. Upon actuation of actuation pedal <NUM> and pulling of cables 310a, 310b, the push pins may be retracted from the openings and energy may be stored in the springs of the push pins. When the force applied to the actuation pedal <NUM> is relieved and the pulling on cables 310a, 310b subsides, the stored energy in the springs of the push pins may also be released. If the push pins are aligned with an opening in base connection supports 300a, 300b, the push pins may enter into the opening to lock the inner extending portion <NUM> in position. If the push pins are not aligned with an opening in base connection supports 300a, 300b, such as during movement of inner extending portion <NUM> during adjustment of upper support <NUM>, the push pins may engage with a surface of the base connection supports 300a, 300b, sliding across the surface. Upon reaching an opening, the push pins may enter and lock in place, thereby preventing any further movement of inner extending portion <NUM> and by extension, upper support <NUM>.

In some embodiments, each of base connection supports 300a, 300b may comprise a plurality of openings for receiving the push pins. The number of openings may correspond to the number of pre-determined heights/angles that upper support <NUM> may be adjusted to. For example, in some embodiments, if upper support <NUM> may be adjusted to three different angles/heights, each of base connection supports 300a, 300b may comprise three openings. Further, in embodiments comprising a plurality of openings corresponding to a plurality of pre-determined heights/angles that upper support <NUM> may be adjusted to, the plurality of openings may be spaced at predetermined locations corresponding to the predetermined height/angle of upper support <NUM>. By way of non-limiting example, the plurality of openings may be spaced apart by approximately <NUM> (<NUM> in) to approximately <NUM> (<NUM> in) apart.

Prior to actuation of actuation pedal <NUM>, upper support <NUM> may be locked in a position through the inhibition of movement of inner extending portion <NUM>. Upon actuation of actuation pedal <NUM> and the retraction of the push pins, the inner extending portion <NUM> may be released from a locked position for lateral movement along base connection supports 300a, 300b. Accordingly, when the inner extending portion <NUM> is in a locked position, the upper support <NUM> may also be in a locked position or otherwise non-adjustable in height/angle. Because the push pins inhibit telescoping of the inner extending portion <NUM>, connection limb <NUM> is also inhibited in movement, preventing rotation of connection limb <NUM>. By extension, because connection limb <NUM> is locked in position, the rotation of upper support <NUM> is also inhibited. Accordingly, even if a force is applied to upper support <NUM> to adjust the height/angle, upper support <NUM> will not rotate because connection limb <NUM> and inner extending portion <NUM> are locked in position.

Turning to <FIG>, different heights/angles of upper support <NUM> are illustrated. Such adjustments may be made to, for example, adjust the preferred height/angle of upper support <NUM> for the child or to fold the device for transport. In some embodiments, such as that illustrated in <FIG>, the baby bouncer <NUM> may be adjusted along direction <NUM> such that upper support <NUM> and telescopic base <NUM> are substantially close together in a closed configuration. Such a configuration may allow for easy transport of the baby bouncer <NUM> when not supporting a baby.

The number of angles that upper support <NUM> may be stopped at may vary depending on the embodiment. However, it will be appreciated that the number of stops may be customizable and upper support <NUM> may be configured to stop at any number of predetermined angles along direction <NUM>. For example, in the illustrated embodiment, upper support <NUM> may be stopped and locked in position at four different angles along direction <NUM>, including a closed angle at approximately <NUM> degrees or when substantially level to telescopic base <NUM>. However, the actual number of angles may vary depending on the embodiment, and theoretically any number of angles may be selected.

As described herein, baby bouncer <NUM> may be used with infants of varying sizes. For safety reasons, certain angles of upper support <NUM> may be more advantageous for infants of certain ages than other angles. For example, for very young infants, the angle of upper support <NUM> may be relatively flat, mimicking a lying down position for the infant. As the infant ages, the caregiver may transition and increase the angle of upper support <NUM>. By way of non-limiting example, for a toddler-aged infant, upper support <NUM> may be positioned so that the infant is at an upright position. Additionally, even at similar ages, infants may have different angle preferences. For example, a toddler-aged infant may prefer to be at a lying down position rather than at an upright position. Accordingly, baby bouncer <NUM> provides caregivers with flexibility and options for selecting an angle that is preferable for individual infants. Additionally, the angle of upper support <NUM> may be adapted to comply with regulatory guidelines, governmental requirements, or suggestions, and/or healthcare provider suggestions or recommendations. For example, for young infants or for infants under certain weight thresholds, a healthcare provider may recommend that the angle of upper support <NUM> should not exceed <NUM> degrees relative to telescopic base <NUM>. Additionally, government regulations may require the angle of upper support <NUM> shall not exceed <NUM> degrees relative to telescopic base <NUM>. It should be understood that the examples provided herein are intended to be illustrative, rather than limiting, and the angle of upper support <NUM> may be locked or otherwise positioned at any angle relative to telescopic base <NUM>.

In some embodiments, caregiver may actuate actuation pedal <NUM> to adjust the height/angle of upper support <NUM> by one position. For example, a caregiver may apply a force to actuation pedal <NUM> to retract push pins and begin adjusting the height/angle of upper support <NUM>, and by inner extending portion <NUM>. Once the caregiver begins adjusting the upper support <NUM>, the caregiver may relieve the force applied to the actuation pedal <NUM>, thereby relieving the pulling applied to cables 310a, 310b. As inner extending portion <NUM> moves along base connection supports <NUM>, the push pins may slide along the surface of base connection supports 300a, 300b until an opening is reached. Once the opening is reached, the stored energy in push pins causes the push pins to enter the opening, thereby locking inner extending portion <NUM>, and by extension upper support <NUM>, in position. Distinguishing over the prior art, the location of actuation pedal <NUM> provides caregivers greater flexibility when adjusting the height of upper support <NUM>. Through a pedal design, a caregiver may apply a force to actuation pedal <NUM> using a single appendage, such as the caregiver's foot. The caregiver may then use another appendage to grasp or hold upper support <NUM> for adjusting a height. Such a design may be particularly advantageous in allowing a caregiver to adjust the height of upper support <NUM> while an infant is placed in baby bouncer <NUM>.

In further embodiments, a caregiver may actuate actuation pedal <NUM> and adjust the height/angle of upper support <NUM> by multiple positions. For example, if upper support <NUM> may be adjusted to four different heights/angles, a caregiver may wish to transition upper support <NUM> from position four to position two without stopping at position three. In some embodiments, the caregiver may continue to apply the force to actuation pedal <NUM> to skip or move past intermediate stopping positions. For example, to adjust upper support <NUM> from position four to position two, the caregiver may apply a continuous or extended force to actuation pedal <NUM> as upper support <NUM> is transitioned from position four to position two. By continuing to apply the force to actuation pedal <NUM>, the pulling of cables 310a, 310b maintains retraction of push pins as inner extending portion moves past the opening associated with position three, thereby preventing push pins from entering the opening associated with position three and locking upper support <NUM> and inner extending portion <NUM> in position at position three. Upon reaching the opening associated with position two, the caregiver may relieve the force applied to actuation pedal <NUM>, allowing the push pins to enter the opening and lock upper support <NUM> and inner extending portion <NUM> in place at position two.

In some embodiments, the adjustable heights/angles of upper support <NUM> provides caregivers with an improved number of options in usability of baby bouncer <NUM>. For example, a caregiver may actuate actuation pedal <NUM> to position upper support <NUM> in a preferred position to place the infant in either insert <NUM> or the bouncer seat <NUM>. Once the infant is in position and secured through harness <NUM>, the caregiver may place a hand on the upper support <NUM> and actuate the actuation pedal <NUM> to move upper support <NUM> to the infant's preferred angle. Accordingly, in some embodiments, baby bouncer <NUM> is adjustable while the infant is secured. In some embodiments, in addition to the change of angle of upper support <NUM>, actuation of actuation pedal <NUM> may also manipulate the length of extendable member <NUM>. For example, actuation of actuation pedal <NUM> may release a locking of outer shell portion <NUM> and inner extending portion <NUM>, allowing inner extending portion <NUM> to retract or extend. For example, when the angle of upper support <NUM> increases, inner extending portion <NUM> may extend in response, increasing the overall length of extendable member <NUM> to provide stability to baby bouncer <NUM>. When the angle of upper support <NUM> decreases, inner extending portion <NUM> may retract in response, decreasing the overall length of extendable member <NUM>.

In some embodiments, upper support <NUM> and/or telescopic base <NUM> may be constructed from plastic, aluminum, metal, or other rigid material, providing the structure to baby bouncer <NUM>. Additionally, one or more portions of upper support <NUM> and telescopic base <NUM> may be constructed from two or more materials. By way of nonlimiting example, portions of telescopic base <NUM> that are intended to contact a person may be constructed from a plastic material, while portions of base that are not intended to come into contact with a person may be constructed from metal. However, it will be appreciated that this example is not intended to be limiting. In some embodiments, the various sub-assemblies, parts, and/or components of frame <NUM> may be manufactured using a variety of different methods, including but not limited to molding, additive manufacturing, machining, among other methods. Further, in some embodiments, certain parts or components may require materials that are able to withstand certain thresholds of force, torque, or pressure, and may be constructed from metal, steel, aluminum, or other durable materials. Even further, in some embodiments, certain sub-assemblies, parts, and/or components may be manufactured using one method of construction and other sub-assemblies, parts, and/or components may be manufactured using a different method of construction.

In some embodiments, frame <NUM> may further comprise additional safety features to provide additional safety to baby bouncer <NUM>. In some embodiments, outer shell portion <NUM> may further comprise a cushioned padding <NUM> (see <FIG>). In some embodiments, cushioned padding <NUM> may be positioned on a surface location of outer shell portion <NUM> that generally corresponds to the position that an infant may be located on insert <NUM> or receiving region <NUM>. Cushioned padding <NUM> may provide a cushion or soft spot on telescopic base <NUM> in the event that a failure of the locking mechanism of frame <NUM> occurs, and upper support <NUM> unexpectedly falls to a closed position. Cushioned padding <NUM> may be positioned such that the infant encounters cushioned padding <NUM> rather than telescopic base <NUM>. Accordingly, the infant may be protected from the force that may occur with the impact of the hard material of telescopic base <NUM> by contacting cushioned padding <NUM> instead. The material of padding <NUM> may vary but may generally be constructed from a cushioned material that is known in the art.

In some embodiments, frame <NUM> may further comprise an additional safety lock <NUM>. In some embodiments, additional safety lock <NUM> may be disposed on extendable member <NUM> of telescopic base <NUM> and operatively engage with actuation pedal <NUM>. In some embodiments, additional safety lock <NUM> may be configured and adapted as a secondary locking mechanism or safety mechanism to prevent upper support <NUM> from closing all the way to a closed position. This may be particularly advantageous when an infant is placed in baby bouncer <NUM>, and a sudden drop in angle could cause pain, discomfort, or injury to the infant. To prevent or reduce this chance, additional safety lock <NUM> may lock upper support at a position above the closed configuration, thereby preventing upper support <NUM> from transitioning to the closed position until additional safety lock <NUM> is disengaged.

In some embodiments, additional safety lock <NUM> may be a spring loaded, pivotably engageable pin located on an outer surface of outer shell portion <NUM> that may engage with an opening in one of connecting members 300a, 300b to prevent upper support <NUM> from transitioning the closed position until disengaged. At least one of connecting members 300a, 300b may comprise an opening corresponding in position to the location of additional safety lock <NUM>. Additional safety lock <NUM> may generally comprise a pivot joint <NUM>, a body <NUM> and a pin <NUM> extending away from body <NUM>. The pivot joint <NUM> may be a spring loaded joint, allowing a caregiver to pivot additional safety lock <NUM>. In a starting position, body <NUM> may engage with an outer surface of outer shell portion. Outer shell portion <NUM> may comprise an opening <NUM> or void space approximate to the position of pin <NUM>, thereby allowing pin <NUM> to extend into the interior of outer shell portion <NUM>. Connecting member 300a may further comprise an opening <NUM> approximate to the position of pin <NUM> and opening <NUM>, thereby allowing pin <NUM> to extend into the interior of connecting member 300a. It should be noted that opening <NUM> may be substantially similar in design to the openings described above with respect to the openings that engage with the push pins of the inner extending portion <NUM>.

The location of additional safety lock <NUM> may be positioned on telescopic base <NUM> to prevent the transition of upper support <NUM> to a closed configuration without manipulation of additional safety lock. In this position, if a caregiver attempts to transition upper support <NUM> to a closed configuration, the inner extending portion <NUM> engages with pin <NUM> as inner extending portion <NUM> is moved distally. Through the engagement of inner extending portion <NUM> with pin <NUM>, the upper support <NUM> is unable to fully transition to a closed position. This may be particularly advantageous if an infant is seated in receiving region <NUM> to prevent inadvertent closure of upper support <NUM> which may cause harm to the infant. To transition upper support <NUM> to the closed configuration, the caregiver may pivot additional safety lock <NUM>, thereby retracting pin <NUM> from opening <NUM>. Once retracted, inner extending portion <NUM> may be free to continue distal movement, thereby transitioning upper support <NUM> to a closed configuration.

In some embodiments, actuation pedal <NUM> may comprise an actuation safety lock <NUM> to lock actuation pedal <NUM> for preventing accidental or inadvertent actuation. In some embodiments, actuation safety lock <NUM> may be a toggle, switch, button, or other manipulative engagement tool for the caregiver to manually engage. In some embodiments, toggling or actuation of actuation safety lock <NUM> may cause extension of an actuation lock extending member <NUM> which may engage with a surface of outer shell portion <NUM> or which may otherwise prevent the lever effect of actuation pedal <NUM>. In some embodiments, outer shell portion <NUM> may comprise a shelf <NUM> or protruding structure that actuation lock extending member <NUM> may engage with to inhibit auction of actuation pedal. In some embodiments, actuation safety lock <NUM> may be located on an outer surface of actuation pedal <NUM>, allowing a caregiver to easily access actuation safety lock <NUM>.

In some embodiments, connection limb <NUM> may further act as a detention aid to limit or prevent the inadvertent opening of upper support <NUM> from a closed configuration. As best depicted in <FIG>, second end <NUM> of connection limb <NUM> may also comprise a connection limb extension <NUM>, embossment, protrusion, or other extending member that may engage with a protrusion <NUM>, extension, embodiment, or other extending member of a surface of inner extending portion <NUM> to provide a detention effect. As described herein, upper support <NUM> may comprise a closed configuration, in which the angle of upper support <NUM> is at about <NUM> degrees relative to telescopic base <NUM>. When at the closed configuration, connection limb extension <NUM> may engage with the protrusion <NUM> of inner extending portion <NUM>, providing an interference fit thereby locking upper support <NUM> in the closed configuration. The amount of force required to overcome the interference fit may vary, but generally, may be overcome by a manual force applied by the caregiver. In response to the applied force, the connection limb extension <NUM> may disengage with the protrusion <NUM> of inner extending portion <NUM>, allowing connection limb <NUM> and upper support <NUM> to pivotally rotate. Accordingly, a caregiver is not required to use a tool or apparatus to overcome the detention effect created by connection limb <NUM>. Accordingly, a caregiver may transition upper support <NUM> to a closed configuration for storing baby bouncer <NUM>. Through the detention effect created by connection limb <NUM>, the baby bouncer <NUM> will not inadvertently open, allowing the caregiver to safely store the baby bouncer <NUM> without worrying that upper support <NUM> may inadvertently open from the closed position.

Turning to <FIG>, a side view of frame <NUM> is depicted. In some embodiments, upper support <NUM> may be adjustable in length (i.e., direction <NUM>). For example, upper support <NUM> may include telescopic members <NUM> forming a substantially oval-shaped frame for receiving the bouncer seat <NUM> therein. Upper support <NUM> may include at least one locking mechanism <NUM> for selectively expanding the length of telescopic member <NUM> thereof. For example, in some embodiments, locking mechanism <NUM> may be a lever, threading, pin, or other lock that when released allows a user to move a telescopic members <NUM> outwards or inwards (i.e., along a direction <NUM>). Such customization may allow a user to adjust the size of bouncer seat <NUM> for children of different sizes. For example, a user may be able to increase the length of upper support <NUM> as the infant lengthens. In other embodiments, upper support may not be telescopic and instead be formed of a unitary frame.

As depicted in <FIG>, and in some embodiments, upper support <NUM> may optionally or additionally comprise a support shell <NUM>. In some embodiments, support shell <NUM> may be a generally solid insert, which may provide additional structure or rigidity to baby bouncer <NUM>. Accordingly, support shell <NUM> may be constructed or manufactured from a solid material, including but not limited to plastic, metal, aluminum, among other materials. Support shell <NUM> may be disposed within the boundary of telescopic members <NUM>. Support shell <NUM> may be connected to upper support <NUM> through a variety of attachment means. For example, support shell <NUM> may be snapped on to telescopic members <NUM> and secured through an interference fit. However, any known attachment method, including those described herein may be implemented. Support shell <NUM> may be used to provide additional rigidity or structure to bouncer seat <NUM>. For example, support shell <NUM> may be placed on frame <NUM> prior to attachment of bouncer seat <NUM>. Bouncer seat <NUM> may be placed over and attached to support shell <NUM>. Through support shell <NUM>, additional rigidity and support may be provided to bouncer seat <NUM> for supporting the infant. Accordingly, support shell <NUM> may further comprise a recessed region <NUM> generally corresponding to the shape and location of receiving region <NUM> of bouncer seat <NUM>. In some embodiments, support shell <NUM> may provide additional structure or rigidity to bouncer seat <NUM>, which may aid in supporting older and/or heavier infants.

Claim 1:
A baby bouncer (<NUM>), comprising:
a telescopic base (<NUM>) for positioning the baby bouncer (<NUM>) on a support surface wherein the telescopic base (<NUM>) comprises an outer shell portion (<NUM>) and an inner extending portion (<NUM>) located at least partially within the outer shell portion (<NUM>);
an adjustable upper support (<NUM>) pivotally coupled to the telescopic base (<NUM>);
a connection limb (<NUM>) having a first end (<NUM>) operatively coupled to the adjustable upper support (<NUM>) and a second end (<NUM>) operatively coupled to the inner extending portion (<NUM>);
an actuation pedal (<NUM>) for adjusting an angle of the adjustable upper support (<NUM>) in relation to the telescopic base (<NUM>),
wherein adjustment of the adjustable upper support (<NUM>) causes telescoping of the inner extending portion (<NUM>) via the connection limb (<NUM>);
a bouncer seat (<NUM>) removably coupled to the adjustable upper support (<NUM>) comprising a receiving area and an attachment pocket (<NUM>);
an insert (<NUM>) for placement in the receiving area and for receiving an infant, the insert (<NUM>) comprising at least one retaining member (<NUM>); and
a harness (<NUM>) assembly for fastening an infant into the bouncer seat (<NUM>),
wherein a portion of the harness (<NUM>) assembly is inserted through the at least one retaining member (<NUM>) of the insert (<NUM>).