Abstract: An intelligent automated chair that is configured to have uploaded various operating models to run a sequence of patterns that cause the intelligent automated chair to alternate between various positions. An intelligent automated chair system configured to receive data from various inputs including user input, sensors, biosensors, historical usage, profile, and others to generate a recommended operating model for the intelligent automated chair. An intelligent automated chair system running an operating model that is interruptible manually by a user or as a result of sensed date, which can alter the pattern or parameters of the operating model.

Abstract: A locking mechanism for a smart automated chair is provided. The chair is operable to move a seat between a horizontal seating position and a vertical downward standing position. When moving to the horizontal seating position, in some instances a user may sit on the seat before it has reached a locked horizontal position, this can increase a risk of the seat slipping or otherwise releasing to a downward vertical position, causing risk of inconvenience to a user, the locking mechanism herein addresses this issue.

Abstract: An intelligent automated chair that is configured to have uploaded various operating models to run a sequence of patterns that cause the intelligent automated chair to alternate between various positions. An intelligent automated chair system configured to receive data from various inputs including user input, sensors, biosensors, historical usage, profile, and others to generate a recommended operating model for the intelligent automated chair. An intelligent automated chair system running an operating model that is interruptible manually by a user or as a result of sensed date, which can alter the pattern or parameters of the operating model.

Abstract: A fitness tool is described. The tool includes a grip component and a handle component. The handle component includes sensors and the grip component includes an electronics unit. The electronics unit includes a fitness application. The fitness application receives a signal from a button located on the grip component to signal that the user is performing an exercise. The fitness application also receives a measurement of force applied to the handle component from the sensors. The fitness application processes the signal and the measurement of force and then transmits the signal, the measurement of force, and other exercise metrics to a computing device. The user interacts with another application on the computing device to view, track, and modify these exercise metrics.

Abstract: A fitness tool is described. The tool includes a grip component and a handle component. The handle component includes sensors and the grip component includes an electronics unit. The electronics unit includes a fitness application. The fitness application receives a signal from a button located on the grip component to signal that the user is performing an exercise. The fitness application also receives a measurement of force applied to the handle component from the sensors. The fitness application processes the signal and the measurement of force and then transmits the signal, the measurement of force, and other exercise metrics to a computing device. The user interacts with another application on the computing device to view, track, and modify these exercise metrics.

Abstract: Provided is an exoskeleton assembly configured to be coupled to a wearer, including a plurality of members corresponding to body segments of the wearer. An adjustable first member includes a first component and a second component. The assembly further includes a first locking mechanism and a second locking mechanism, each configured to alternate between a locked position and unlocked position. When the first locking mechanism and the second locking mechanism are in the respective unlocked positions, the first component and the second component are free to slide relative to each other thereby adjusting the length of the first member. When either the first locking mechanism or the second locking mechanism is in the respective locked position, the first component and the second component are not free to slide relative to each other. The first member may be a spine assembly, a hip assembly, or a leg assembly.

Abstract: According to various embodiments, an exoskeleton assembly is configured to be coupled to a wearer, and includes a plurality of members moving in unison with corresponding body segments of the wearer. A first member is adjustable in length and comprises: a first component, a second component. The assembly further comprises a first locking mechanism and a second locking mechanism, each configured to alternate between a locked position and unlocked position. When the first locking mechanism and the second locking mechanism are in the respective unlocked positions, the first component and the second component are free to slide relative to each other thereby adjusting the length of the first member. When either the first locking mechanism or the second locking mechanism are in the respective locked positions, the first component and the second component are not free to slide relative to each other. The first member may be a spine assembly, a hip assembly, or a leg assembly.