Abstract: Various embodiments of the present invention are directed to a children's bouncer apparatus. In various embodiments, the apparatus includes a support frame, seat assembly configured to support a child, and bouncer control device. The support frame includes one or more semi-rigid support arms that extend above a base portion and suspend the seat assembly above the base portion. The bouncer control device is configured to impart a driving force on the seat assembly via a magnetic drive assembly, thereby causing the seat assembly to continuously oscillate at the natural frequency of the children's bouncer.

Abstract: Various embodiments of the present invention are directed to a powered children's swing. In various embodiments, the swing includes a seat, swing frame, one or more swing arms, a first magnetic component, second magnetic component, swing motion sensor, and swing control circuit. The magnetic components are configured to generate a magnetic force that drives the seat along a swing path. The swing control circuit is configured to control the magnetic components based at least on input from the swing motion sensor and generate control signals causing the seat to swing with substantially constant amplitude as specified by a user.

Abstract: Various embodiments of the present invention are directed to a children's bouncer apparatus. In various embodiments, the apparatus includes a support frame, seat assembly configured to support a child, and bouncer control device. The support frame includes one or more semi-rigid support arms that extend above a base portion and suspend the seat assembly above the base portion. The bouncer control device is configured to impart a driving force on the seat assembly via a magnetic drive assembly, thereby causing the seat assembly to continuously oscillate at the natural frequency of the children's bouncer.

Abstract: Various embodiments of the present invention are directed to a children's bouncer apparatus. In various embodiments, the apparatus includes a support frame, seat assembly configured to support a child, and bouncer control device. The support frame includes one or more semi-rigid support arms that extend above a base portion and suspend the seat assembly above the base portion. The bouncer control device is configured to impart a driving force on the seat assembly, thereby causing the seat assembly to continuously oscillate at the natural frequency of the children's bouncer.

Abstract: Various embodiments of the present invention are directed to a powered children's swing. In various embodiments, the swing includes a seat, swing frame, one or more swing arms, a first magnetic component, second magnetic component, swing motion sensor, and swing control circuit. The magnetic components are configured to generate a magnetic force that drives the seat along a swing path. The swing control circuit is configured to control the magnetic components based at least on input from the swing motion sensor and generate control signals causing the seat to swing with substantially constant amplitude as specified by a user.

Abstract: Various embodiments of the present invention are directed to a powered children's swing. In various embodiments, the swing includes a seat, swing frame, one or more swing arms, a first magnetic component, second magnetic component, swing motion sensor, and swing control circuit. The magnetic components are configured to generate a magnetic force that drives the seat along a swing path. The swing control circuit is configured to control the magnetic components based at least on input from the swing motion sensor and generate control signals causing the seat to swing with substantially constant amplitude as specified by a user.

Abstract: Various embodiments of the present invention are directed to a children's bouncer apparatus. In various embodiments, the apparatus includes a support frame, seat assembly configured to support a child, and bouncer control device. The support frame includes one or more semi-rigid support arms that extend above a base portion and suspend the seat assembly above the base portion. The bouncer control device is configured to impart a driving force on the seat assembly, thereby causing the seat assembly to continuously oscillate at the natural frequency of the children's bouncer.

Abstract: Various embodiments of the present invention are directed to a powered children's swing. In various embodiments, the swing includes a seat, swing frame, one or more swing arms, a first magnetic component, second magnetic component, swing motion sensor, and swing control circuit. The magnetic components are configured to generate a magnetic force that drives the seat along a swing path. The swing control circuit is configured to control the magnetic components based at least on input from the swing motion sensor and generate control signals causing the seat to swing with substantially constant amplitude as specified by a user.

Abstract: Various embodiments of the present invention are directed to a children's bouncer apparatus. In various embodiments, the apparatus includes a support frame, seat assembly configured to support a child, and bouncer control device. The support frame includes one or more semi-rigid support arms that extend above a base portion and suspend the seat assembly above the base portion. The bouncer control device is configured to impart a driving force on the seat assembly via a magnetic drive assembly, thereby causing the seat assembly to continuously oscillate at the natural frequency of the children's bouncer.

Abstract: Various embodiments of the present invention are directed to a powered children's swing. In various embodiments, the swing includes a seat, swing frame, one or more swing arms, a first magnetic component, second magnetic component, swing motion sensor, and swing control circuit. The magnetic components are configured to generate a magnetic force that drives the seat along a swing path. The swing control circuit is configured to control the magnetic components based at least on input from the swing motion sensor and generate control signals causing the seat to swing with a substantially constant amplitude as specified by a user.

Abstract: Various embodiments of the present invention are directed to a children's bouncer apparatus. In various embodiments, the apparatus includes a support frame, seat assembly configured to support a child, and bouncer control device. The support frame includes one or more semi-rigid support arms that extend above a base portion and suspend the seat assembly above the base portion. The bouncer control device is configured to impart a driving force on the seat assembly via a magnetic drive assembly, thereby causing the seat assembly to continuously oscillate at the natural frequency of the children's bouncer.

Abstract: Various embodiments of the present invention are directed to a children's bouncer apparatus. In various embodiments, the apparatus includes a support frame, seat assembly configured to support a child, and bouncer control device. The support frame includes one or more semi-rigid support arms that extend above a base portion and suspend the seat assembly above the base portion. The bouncer control device is configured to impart a driving force on the seat assembly via a magnetic drive assembly, thereby causing the seat assembly to continuously oscillate at the natural frequency of the children's bouncer.

Abstract: Various embodiments of the present invention are directed to a powered children's swing. In various embodiments, the swing includes a seat, swing frame, one or more swing arms, a first magnetic component, second magnetic component, swing motion sensor, and swing control circuit. The magnetic components are configured to generate a magnetic force that drives the seat along a swing path. The swing control circuit is configured to control the magnetic components based at least on input from the swing motion sensor and generate control signals causing the seat to swing with a substantially constant amplitude as specified by a user.

Abstract: Various embodiments include a play yard and bassinet assembly combination. The play yard includes upper and lower horizontal frame members vertically spaced apart from each other, vertical frame members disposed between the upper and lower horizontal frame members, first and second redundant support members, and first and second mating redundant support members. The first redundant support member and the second redundant support member are disposed in a spaced apart arrangement adjacent a first vertical frame member a second vertical frame member, respectively. The first and second mating redundant support members are disposed adjacent an outer perimeter of the floor of the bassinet assembly. The first mating redundant support member is configured for engaging the first redundant support member, and the second mating redundant support member is configured for engaging the second redundant support member to provide additional vertical support for the floor of the bassinet assembly.

Abstract: Various embodiments of the present invention are directed to a children's entertainment device having a stepper motor drive system configured to drive a rotatable entertaining element. In certain embodiments, the stepper motor is configured to rotate a drive shaft operatively connected to a damper, which is configured to damp the intermittent rotational motion output by the stepper motor in order to smoothly and continuously rotate an entertaining element, such as in a children's mobile.

Abstract: According to various embodiments, a bassinet assembly includes a floor and one or more side walls that extend upwardly from a perimeter of the floor and surround the floor. Each side wall has an upper perimeter and includes a mesh portion that extends substantially the height of the side wall from the upper perimeter to the floor. Each side wall also includes a substantially solid wall portion that extends from the upper perimeter to an intermediate portion disposed between the upper perimeter and the floor. At least a portion of the side wall between the intermediate portion and the floor of the bassinet assembly is mesh to allow a child lying therein to breathe.

Abstract: Various embodiments of the invention include a motor system for driving a swing and controlling the speed and/or amplitude of the swing. In one embodiment, the motor system includes a DC motor, a swing velocity sensor system, and a swing velocity control circuit. The DC motor drives the swing through at least one fill swing cycle, and then the motor is allowed to free-wheel for at least a half swing cycle. During the free-wheeling half cycle, the swing velocity sensor system measures the velocity of the swing and compares the measured velocity to a goal velocity. The control circuit increases or decreases the velocity depending on this comparison. In other embodiments, the system includes a swing amplitude sensor system that measures the amplitude of the swing and a swing amplitude control circuit that compares the measured amplitude to a goal amplitude.

Abstract: Various embodiments include a bassinet assembly that includes one or more rods and a floor that includes an inclinable flap. Each rod has a static portion and an inclined portion, and the rods are disposed below upper surfaces of the floor and the inclinable flap. A first longitudinal axis of the static portion and a second longitudinal axis of the inclined portion intersect at an angle greater than 0° and less than about 90°. When the inclinable flap is raised above the floor, the rods rotate about the first longitudinal axis such that the first and second longitudinal axes are in a plane substantially perpendicular to the support surface, and when the inclinable flap is allowed to lay substantially flat against the floor, the rods rotate about the first longitudinal axis such that the first and second longitudinal axes are in a plane substantially parallel to the support surface.

Abstract: Various embodiments are directed to a bassinet assembly that includes an inclinable floor that can be supported above a support surface using one or more zippers. For example, the bassinet assembly includes a floor and side walls that extend upwardly from and surround the floor. The floor includes an inclinable flap, and a row of zipper teeth are disposed along at least a portion of a perimeter of the inclinable flap. A mating row of zipper teeth are disposed on at least a portion of the side walls, and when one or more zippers engage the rows of zipper teeth to join them together, the inclinable flap is secured at an angle greater than 0° relative to the floor. In addition, various embodiments are directed to a bassinet assembly that can be secured within a play yard using one or more zippers.

Abstract: Various embodiments of the present invention are directed to a powered children's swing. In various embodiments, the swing includes a seat, swing frame, one or more swing arms, a first magnetic component, second magnetic component, swing motion sensor, and swing control circuit. The magnetic components are configured to generate a magnetic force that drives the seat along a swing path. The swing control circuit is configured to control the magnetic components based at least on input from the swing motion sensor and generate control signals causing the seat to swing with a substantially constant amplitude as specified by a user.