Abstract: An infant supporting apparatus includes a base frame, a support frame and a resting support. The base frame includes a first and a second leg frame portion pivotally connected with each other about a first pivot axis, wherein the first and second leg frame portions have foot portions. The support frame is assembled with the base frame, and includes a first and a second support frame portion pivotally connected with each other about a second pivot axis spaced apart from the first pivot axis, the first and second pivot axes being vertically aligned with each other. The resting support is suspended from the first and second support frames for receiving the placement of a child.

Abstract: A mount assembly includes a playpen frame, a support frame that can provide support for a bassinet in the playpen frame, and multiple bar segments to provide support for a utility accessory positioned side-by-side relative to the bassinet. The playpen frame includes two first upper side rail assemblies each having a fixed wall, and a second upper side rail assembly connected with the two first upper side rail assemblies. The support frame includes two connectors operable to respectively attach to and detach from the fixed walls. Each connector is formed to include a socket. The two connectors can attach to the fixed walls respectively near a middle of the two first upper side rail assemblies. The bar segments are mountable to the playpen frame, one of the bar segments once mounted to the playpen frame having an end portion resting in contact with the socket of one connector.

Abstract: An infant playpen apparatus includes a playpen frame having two opposite side frame portions, two rail structures respectively affixed with the two side frame portions, a support platform operable to detachably assemble with the rail structures, and two coupling structures connected with the support platform and operable to respectively assemble with the rail structures. At least one of the coupling structures includes a latch that can lock an assembly of the support platform with the rail structure, and unlock the assembly of the support platform with the rail structure for removing the support assembly from the rail structure. The playpen apparatus can further include a m bassinet held with the playpen frame. The support platform can slide along the rail structures between a first position where the support platform substantially uncovers the bassinet, and a second position where the support platform lies above and substantially overlaps with the bassinet.

Abstract: An infant supporting apparatus includes a base frame, a support frame and a resting support. The base frame includes a first and a second leg frame portion pivotally connected with each other about a first pivot axis, wherein the first and second leg frame portions have foot portions. The support frame is assembled with the base frame, and includes a first and a second support frame portion pivotally connected with each other about a second pivot axis spaced apart from the first pivot axis, the first and second pivot axes being vertically aligned with each other. The resting support is suspended from the first and second support frames for receiving the placement of a child.

Abstract: A child motion device includes a frame that provides a structural support relative to a reference surface and that includes an arm pivotably coupled to the structural support. A child supporting device is coupled to the arm and spaced from the reference surface by the frame. A drive system is configured to move the arm such that the child supporting device reciprocates along a motion path at a frequency within a range from about 0.37 Hz to about 0.62 Hz. In some cases, a further drive system is configured to oscillate the child supporting device generally along the axis of rotation at a frequency in a range from about 2.85 Hz to about 3.15 Hz.

Abstract: A child motion device has a frame assembly and a seat supported by the frame assembly and capable of movement with a child occupying the seat. A housing is provided on a part of the frame assembly. A receptacle is provided in the housing and is positioned spaced from and faces away from the seat. A storage tray is located in the compartment and defines a storage space on the tray. The tray is movable between an opened position with the storage space and the tray extending outside the housing away from the seat and a closed position with the tray and storage space within the receptacle in the housing.

Abstract: A child motion device has a frame assembly configured to rest on a floor surface. The device also has a drive system that defines a generally vertical axis of rotation. An arm extends from part of the device and is cantilevered from the axis of rotation. The arm is supported above the floor surface and has a driven end coupled to and movable by the drive system and a distal end opposite the driven end. The drive system is configured to pivotally reciprocate the arm through a partial orbit around the axis of rotation. A child seat is supported on the distal end of the support arm.

Abstract: A method of controlling a child motion device includes the steps of determining data indicative of motion of the child motion device, and controlling an audio output of the child motion device in accordance with the data. In some cases, the controlling step includes the step of modulating the audio output in accordance with the data. For example, the modulating step may involve applying a modulation effect to an audio track available to the child motion device.

Abstract: A child motion device has a frame assembly configured to rest on a floor surface. A support arm assembly is coupled to and cantilevered from part of the frame assembly above the floor surface. A child supporting device is supported by the support arm assembly. A bounce mechanism of the device is employed to reciprocally bounce the child supporting device above the floor surface.

Abstract: A child motion device has a frame assembly configured to rest on a floor surface, a drive system defining a generally vertical axis of rotation, and a support arm supported above the floor surface by the frame assembly. The support arm is cantilevered from near the axis of rotation and has a driven end coupled to the drive system, which pivotally reciprocates the support arm through a partial orbit around the axis of rotation. A seat holder is carried by the support arm spaced from the driven end and a seat is supported by the seat holder. The seat and seat holder are constructed to permit the seat to be removed from the seat holder. The seat is usable as a seat when removed from the seat holder and can be positioned on the seat holder in more than one optional seat facing orientation.

Abstract: A child motion device has a frame assembly configured to rest on a floor surface, a drive system defining a generally vertical axis of rotation, and a support arm supported above the floor surface by the frame assembly. The support arm is cantilevered from near the axis of rotation and has a driven end coupled to the drive system, which pivotally reciprocates the support arm through a partial orbit around the axis of rotation. A seat holder is carried by the support arm spaced from the driven end and a seat is supported by the seat holder. The seat and seat holder are constructed to permit the seat to be removed from the seat holder. The seat is usable as a seat when removed from the seat holder and can be positioned on the seat holder in more than one optional seat facing orientation.

Abstract: A child motion device has a frame assembly configured to rest on a support surface. The frame assembly includes at least one track configured to slidably receive a child seat assembly. The track can extend in any desired direction and include a geometric profile so that as the seat assembly travels along the track, a desired motion profile is imparted onto the seat assembly and to the child seated therein.

Abstract: A bouncer seat assembly generally has a wire frame structure and a seat suspended from the wire frame structure. The wire frame structure includes a seat section and a base section resiliently and flexibly coupled to and supporting the seat section above the base section. The wire frame structure is configured so that any gap between parts of the bouncer seat assembly is either sized small enough to prohibit a head of a child from fitting between any adjacent parts or sized large enough to prevent a head of a child from being entrapped or pinched between any adjacent parts.

Abstract: A child activity center has a body structure that can be deflated and inflated. The body structure has a bottom end and a top end spaced upward from the bottom end when inflated. An opening is in the top end of the body structure and a child retaining region is accessible through the opening and defined within the body structure when inflated. A sealed air space is in the body structure and an air inlet is in communication with the air space and configured to permit inflation of the body structure. A seat is suspended in the retaining region and configured to support a child in the retaining region above the bottom end.

Abstract: A child motion device has a frame configured to rest on a floor surface. The device also has a drive system that drives an adjustable motion assembly. The adjustable motion assembly can include an adjustable arm that is connected between a seat holder and the frame at one of a plurality of positions. The connection position of the adjustable arm can adjust at least one motion characteristic of the device. The adjustable motion characteristics can include a gliding motion and a swinging motion.

Abstract: A child motion device has a frame assembly configured to rest on a floor surface. The device also has a drive system and a cantilevered arm extending from part of the device. The arm is supported above the floor surface and has a driven end coupled to and movable by the drive system and a distal end opposite the driven end. The drive system is configured to pivotally move the arm through a partial orbit around a generally vertical axis of rotation. A child seat is supported on the distal end of the support arm.

Abstract: A child motion device has a frame assembly configured to rest on a floor surface. The device also has a drive system that defines a generally vertical axis of rotation. An arm extends from part of the device and is cantilevered from the axis of rotation. The arm is supported above the floor surface and has a driven end coupled to and movable by the drive system and a distal end opposite the driven end. The drive system is configured to pivotally reciprocate the arm through a partial orbit around the axis of rotation. A child seat is supported on the distal end of the support arm.

Abstract: A child motion device has a frame assembly configured to rest on a floor surface, a drive system defining a generally vertical axis of rotation, and a support arm supported above the floor surface by the frame assembly. The support arm is cantilevered from near the axis of rotation and has a driven end coupled to the drive system, which pivotally reciprocates the support arm through a partial orbit around the axis of rotation, A seat holder is carried by the support arm spaced from the driven end and a seat is supported by the seat holder. The seat and seat holder are constructed to permit the seat to be removed from the seat holder. The seat is usable as a seat when removed from the seat holder and can be positioned on the seat holder in more than one optional seat facing orientation.

Abstract: A child motion device includes a frame that provides a structural support relative to a reference surface and that includes an arm pivotably coupled to the structural support. A child supporting device is coupled to the arm and spaced from the reference surface by the frame. A drive system is configured to move the arm such that the child supporting device reciprocates along a motion path at a frequency within a range from about 0.37 Hz to about 0.62 Hz. In some cases, a further drive system is configured to oscillate the child supporting device generally along the axis of rotation at a frequency in a range from about 2.85 Hz to about 3.15 Hz.

Abstract: A method of controlling a child motion device includes the steps of determining data indicative of motion of the child motion device, and controlling an audio output of the child motion device in accordance with the data. In some cases, the controlling step includes the step of modulating the audio output in accordance with the data. For example, the modulating step may involve applying a modulation effect to an audio track available to the child motion device.