Thorley Industries, LLC

Monahan Products, LLC

Neopod LLC

Robert D Daley

Henry F Thorne

Frederick Karl Hopke

Elijah M Wiegmann

Mary J Koes

John Walker

Jared A Rosenthal

Robert Stutler

Jordan Zito

David Szakelyhidi

Parker Trow

Justine Rembisz

Jessica A Bailey

Richard L Lane

John J Walker

Richard Juchniewicz

Suraj Joseph

Daniel Kanitz

Dave Szakelyhidi

Justin Adleff

Kevin Dowling

Mara McFadden

Justin Cole

Erica Sandbothe

Arjit Arora

Chad Johnathan Staller

Rochak Chadha

Robert Pike

Aaron S Pavkov

Sun Jan Huang

An infant care apparatus includes a base; a drive mechanism disposed on the base; a controller electronically coupled to the drive mechanism; and a support device coupled to the drive mechanism. The support device is configured to be moved in both a horizontal and vertical direction relative to the base by the drive mechanism. The drive mechanism is controlled by the controller to move the support device in a plurality of motion profiles relative to the base.

Infant care apparatus

Systems and methods to configure and control a smart lighting system via a hub are disclosed herein. In one aspect, a hub can assign a smart light device to a group of smart light devices based on a physical location of the smart light device. The group of smart light devices can correspond to a control profile including default and/or custom parameters to control the smart light device. The hub can automatically assign the smart light device to a group upon connection to the hub or can prompt assignment via a mobile device. In another aspect, the hub can track the usage of lights in a group and adjust the parameters based at least in part on the tracked usage.

Smart lighting control system

Systems and methods define a stimulation pattern for a juvenile product utilizing a mobile device that executes a mobile application that is linked to the juvenile product. The method comprises the step of recognizing, by the mobile device when executing the mobile app, the user-defined stimulation pattern for the juvenile product. The stimulation pattern can be a vibration pattern or a motion pattern, and can be detected in a number of different ways by the mobile device. The method further comprises the step of determining control signals for the actuator(s) of the juvenile product based on the user-defined stimulation pattern that is recognized by the mobile device. The method further comprises the step of, in response to receiving a command to execute the user-defined stimulation pattern, controlling the actuator(s) of the juvenile product based on the stored control signals for the user-defined stimulation pattern.

User-defined stimulation patterns for juvenile products

A child seat or child restraining system for securing a child to a vehicle seat, and method of installing the car seat are provided. The child seat, which is configured to be secured to a seat of a vehicle, includes: a seat base secured to the seat of the vehicle; a child receiving portion supported by the seat base; and a belt tensioning system incorporated into the seat base. The belt tensioning system is configured to receive a belt that couples the seat base to the seat of the vehicle. The child seat also includes a controller operatively connected to the belt tensioning system and configured to automatically actuate the belt tensioning system. The belt tensioning system may be configured to drive the at least one belt in a pay-in direction to apply tension to the at least one belt.

Child restraint system with user interface

A stroller includes: a first stroller component and a second stroller component. At least one of the first and second stroller components is movable from a first position to a second position. The stroller also includes: a drive mechanism operatively engaged with the at least one of the first and second stroller components to move the at least one of the first and second stroller components from its first position to its second position; and a disengaging mechanism for disengaging the operative engagement between the drive mechanism and the at least one of the first and second stroller components to facilitate manual movement of the at least one of the first and second stroller components.

Power folding stroller having multiple motors

Provided is a child restraint system (CRS) with automated installation that provides automated feedback and control of seat installation angle, belt latching and tightening, and confirmation of correct install. The CRS utilizes sensors to monitor CRS base angle relative to level, confirm correct latching of the CRS to its base and then to the vehicle seat, and confirm tightening of the belts to the required tension to be crashworthy. The stepwise operation and confirmation of the installation procedure may be operated via button(s) or other tactical input, and relayed to the user via electronic visual display and/or audible means. All operations will be overseen and processed by an integrated control system, affording minimal user decision or interface. An intelligent latching device which can be adapted for use with an existing CRS is also provided.

Child restraint system with automated installation

Bouncer seat

High chair

A stroller is provided, which includes a frame and a drive mechanism coupled to the frame and configured to transition the frame between an open position and a closed position. The drive mechanism includes: a cable drive; at least one spool rotated by the cable drive; at least one cable received by the at least one spool and connected to the frame; and at least one biasing member connected to the at least one cable for removing slack from the at least one cable. The stroller is configured such that rotation of the at least one spool by the cable drive causes the cable to exert a force against the frame to transition the frame between the open position and the closed position or between the closed position and the open position.

Lightweight collapsible stroller

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Pittsburgh, PA, United States of America

Robert D Daley