A sensor system includes an airbag engaged with the sole structure of an article of footwear, the airbag configured to compress and expand during use of the article of footwear, a force sensor engaged with the airbag and configured to detect force on the airbag based on changes in capacitance as the airbag compresses and expands, a port connected to the article of footwear and configured for communication with an electronic module, and one or more conductive leads extending from the force sensor to the port to place the force sensor in communication with the port. The system may be used with an article of footwear including an upper member at least partially defining a foot-receiving chamber and a sole structure engaged with the upper member.

Training equipment includes a hollow shaft having a sidewall defining an internal cavity and at least one polymer material filling at least a portion of the internal cavity. The polymer material may fill the entire internal cavity of the hollow shaft. The polymer material may be a visco-elastic polymer material or polyurethane. A spacer or a filler may fill at least a portion of the internal cavity. A method of making weighted training equipment with a hollow shaft having a sidewall defining an internal cavity may include injecting a curable composition into at least a portion of the internal cavity. The method may further include curing the curable composition into a polymer material.

A target assembly that is configured to withstand high-velocity impact from a projectile. These configurations may comprise elastic members, or “bungee” cords, that generate elastic forces to return the target assembly to its orientation prior to impact. The bungee cords are less likely to undergo inelastic deformation; so these components afford the target assembly with longer life or longevity under heavy duty cycles.

A connected hockey training system that records and generates digital displays of the position and parameters of a smart hockey puck. The system is also configured to providing training programs about which the smart hockey puck is used to track progress of those training tasks and generate a score or other statistical parameters related thereto, such as feedback on stickhandling and shooting performance.

Hockey-goalkeeper pads wearable on body parts (e.g., legs) of a hockey goalkeeper to protect these body parts against impacts from a projectile (i.e., puck or ball) while playing hockey, in which the hockey-goalkeeper pads may be configured to enhance performance, use, and/or other aspects of goalkeeping by the hockey goalkeeper, such as by being more durable (e.g., reducing crushing of padding material), improving rebounding of the projectile (e.g., increasing a rebound speed of the projectile and/or a coefficient of restitution), and/or facilitating their donning and securing by the hockey goalkeeper (e.g., connecting to skates).

Aspects of this disclosure relate to improved ergonomic hockey sticks and hockey goalie sticks having shafts and paddles with variable geometric shapes and facets for enhanced gripping ability, and methods for the production thereof.

A leg pad (e.g., a hockey leg pad) for protecting a leg of a user, in which the leg pad is designed to enhance protection and freedom of movement (e.g., during skating strides), such as by providing flexibility of the leg pad proximate to a knee and optionally an ankle of the user (e.g., for extension and optional retraction of one or more parts of the leg pad) to better follow natural movements of the user's leg (e.g., bending of the knee and optional flexion of the ankle of the user).

A training device and methods for training a person for face-offs in athletic activities and games. The device includes a base connector, a resilient elongated cord or strap, and a stick wrap. The stick wrap is connected to the distal end of the cord. The base connector is connected to the proximal end of the cord. The stick wrap is a foldable member that is configured to be readily connected to the heel of the stick and once so connected be resistant to displacement therefrom. The base connector is configured to be connected to a stationary structure. The resilient member provides a desired level of resistance to a face-off motion of the stick by the user. The training device may be part of a kit of plural devices, each constructed to provide a different level of resistance for the user of the device.

An athletic training system (200) has a data recording system (202) and a data engine (204). The data recording system (202) is configured to record an athletic competition event. The event may have a first team of players competing against a second team of players. The data engine (204) is configured to receive data associated with the recorded athletic competition event. The data engine (204) processes the data and displays the data as a replay of the event in animated form.

A training apparatus is disclosed that comprises an obstacle member defining a pass-under area for a sports player to pass a sport-projectile through when in use. The training apparatus comprises a first sensor that is configured to detect the sport-projectile passing through the pass-under area, and a controller that is configured to determine a pass-through direction of the sport-projectile that passes through the pass-under area based on data received from the first sensor. The training apparatus also comprises a lighting fixture indicating an instructed pass-through direction for the sports player to pass the sport-projectile through the pass-under area. A system for training a sports player is described that comprises a plurality of training apparatuses that are remotely configurable to define a training drill for a sports player and to collect training data from execution of the training drill. A method for training a sports player is also disclosed.