A finger guard for use with a goalie hockey stick includes a collar arranged to be frictionally retained about the paddler portion of the goalie hockey stick and a guard body on the collar so as to be supported on the paddle portion of the goalie hockey stick in proximity to the top end of the paddle portion to protrude outwardly from a major front face of the paddle portion. The guard body has a bottom face which is arranged to be oriented substantially perpendicularly to the common plane of the paddle portion. The guard body provides the function of deflecting pucks away from the fingers of the goalie even when pucks are deflected upwardly along the paddle portion of the goalie hockey stick.

A blocker for a hand of a goalie that is designed to be more comfortable and adjustable, including to enhance flexion and extension of fingers of the goalie's hand. The blocker may comprise: a glove configured to receive the goalie's hand and comprising finger portions configured to receive fingers of the goalie's hand; a blocking member disposed over the glove and configured to block a puck or ball; a finger-protecting member disposed between and movable relative to the blocking member and respective ones of the finger portions and configured to protect respective ones of the goalie's fingers that are received in the respective ones of the finger portions; and a connector connecting the finger-protecting member to a given one of the finger portions.

Methods for fabricating a 3D braided material and exemplary 3D braided material for sporting implements are disclosed. The exemplary braids can be incorporated into any sporting implements, such as, baseball bats, lacrosse sticks, hockey sticks, rackets, helmets, and other protective equipment. The example sporting implement can be constructed, partially or entirely, with a braided three dimensional structure. The 3D braided material can be a multi-directional layup having tows oriented in three directions (X, Y and Z) and also at any angle created by the combination of two or three directions. A single woven preform can be formed that can have a near net shape of the formed product, with the fibers oriented in a way that will be optimal for the particular application.

An illuminated hockey puck assembly includes a housing having an outer surface including a top side, a bottom side, and a perimeter edge extending between the top and bottom sides. The illuminated hockey puck assembly has a weight, a shape, and a size comparable to a hockey puck. A lighting system is mounted within the interior and is encapsulated by the outer surface such that the lighting system is immobilized in the housing. The housing is translucent such that the housing is illuminated by the lighting system when the lighting system emits lights.

A hockey puck (1) comprising an accelerometer (101) arranged in a recess (5) of a puck body (3). The accelerometer (101) is configured to measure the acceleration of the hockey puck (1) in at least one direction in x-y-z coordinates. The hockey puck further comprises a power supply (25) and a control unit (109) configured to read sensor input from the accelerometer (101) and to provide a control unit output based on said sensor input.

A hockey stick that is configured with a shaft that facilitates an ability for a user to place substantially the entire length of the shaft flat on an ice surface. The hockey stick of the present invention includes a shaft having a first portion, a second portion and a third portion. The shaft is contiguously formed with a blade portion proximate one end of the first portion. The second portion is intermediate the first portion and the second portion. The second portion is distally located to the blade portion and is angularly oriented with the first portion. The third portion is contiguously formed with the second portion distal to the first portion. The angular orientation of the second portion provides a position of the third portion such that the third portion is in an offset parallel plane with the first portion of the shaft.

The present disclosure discloses a device for efficiently extracting adaptively selected contactless multi-player heart rates includes: an acquisition module that covers a court to obtain videos from a plurality of angles during players training; a valid player obtaining module configured to remove players with low contributions to training and games in the videos; a facial ROI extraction module configured to detect whether the facial ROIs of valid players contain perfect eye region features, and use the facial ROIs containing the eye region features as best facial ROIs for heart rate extraction; and an analysis and estimation module configured to analyze the detected best facial ROIs by using blind source separation, and estimate a RGB signal by a JADE algorithm to obtain the heart rate values of the valid players.

A hockey stick is provided. The hockey stick includes a shaft having a first distal end and a second distal end, a first blade coupled to the first distal end, and a second blade coupled to the second distal end, wherein the first blade and the second blade are curved in the same direction.

A sport training apparatus, such as for hockey or soccer (e.g. football) having an elongated base member and one or more stick members coupled to the elongated base member. One or more support members extend from under the elongated base member to rest on a training surface. A projectile, such as a puck, may pass under the elongated base member. The stick members may have an angle from about 0-degrees to about 180-degrees with respect to the elongated base member.

A hockey puck is formed as two mating subcomponents encapsulating an internal signal transmitter. The hockey puck includes holes extending from an external surface of the hockey puck into an internal void formed between the two mating subcomponents. The internal signal transmitter includes protrusions extending into the holes, each including a surface-mounted diode. The surface-mounted diodes include no lens cap, allowing the diodes to be positioned closer to the external surface of the puck than existing pucks. For improved visibility, the diode is positioned less than 5 mm from the external surface of the puck, but greater than 1 mm from the external surface of the puck, in order to prevent the diodes from being externally visible. Preferably, the diodes are positioned between approximately 2 mm and approximately 3 mm from the external surface of the hockey puck.