Riddell, Inc.

A protective sports helmet that includes a chin strap system that allows for rapid, one-handed adjustment of a chin strap assembly by the player while he/she is wearing the helmet is provided. The chin strap assembly includes a protective chin cup and a pair of straps extending from opposed sides of the chin cup and having a plurality of securing elements. The assembly also includes a pair of adjustable connectors affixed to the helmet and that include a central opening that receives an extent of the strap and a lever that engages a portion of the securing elements. The adjustable connector allows movement of the strap in a first direction, and prevents movement of the strap in a second direction when the lever is engaged with at least one of the securing elements. The adjustable connector allows movement of the strap in both the first and second directions when the lever is not engaged with the securing elements.

The present invention is a system and method for creating a customized protective equipment item having improved fit. A measuring device takes measurements of a person. The measurements are sent to a computer, which has software for translating the measurements into a custom selection of standard sized components used to assemble the custom protective equipment item. An assembly process builds the completed protective equipment item which is customized to the wearer's size requirements.

The present disclosure provides systems and methods for providing training opportunities based on data collected from monitoring a physiological parameter of persons engaged in physical activity. The physical activity can be a sporting activity, such as a contact sport (e.g., football, hockey, lacrosse) or a recreational activity or sport (e.g., biking, hiking, skiing, snowboarding, motorsports). The system is configured with select components that perform a method of (i) recording data related to a physiological parameter of a person engaged in a physical activity (e.g., an impact received by a player engaged in a contact sport), (ii) analyzing the recorded data related to the physiological parameter while the person is engaged in a physical activity (e.g., is the received impact greater than a predetermined threshold), and (iii) providing post-physical activity analysis of the recorded data to make suggested changes in how the person engages in the physical activity.

A protective torso assembly to be worn by a player engaged in a contact sport, includes an outer protective member assembly including left and right front chest members having upper recessed segments and left and right arch members having frontal portions coupled to the chest members by flexible couplers such that said frontal portions overlie the upper recessed segments. When the protective torso assembly is in a neutral state, a first reference point of the frontal portion of the left arch member is positioned a first distance from a second reference point of the recessed segment of the left chest member. Additional embodiments of a protective torso assembly are disclosed having components and/or assemblies selected from a plurality of components and/or a plurality of assemblies based upon player data.

The present disclosure provides system and method for monitoring of at least one physiological parameter of a person engaged in a physical activity, for example, an impact received by a player engaged in a contact sport such as football. The system includes a monitoring unit that actively monitors the physiological parameter of the person, wherein the monitoring unit generates an alert event when the monitored physiological parameter exceeds a threshold of the parameter. The monitoring unit determines whether the parameter exceeds an over-exposure threshold, wherein said threshold is based upon both a single incidence or cumulative incidences.

A protective sports helmet including a crown energy attenuation assembly positioned within a crown region of the helmet shell. The crown energy attenuation assembly includes: a first energy attenuation element with a plurality of sidewalls arranged to form a hexagonal housing, wherein a first sidewall has a substantially planar configuration; a second energy attenuation element with a plurality of sidewalls arranged to form a hexagonal housing, wherein a first sidewall has a substantially planar configuration; and, a third energy attenuation element with a plurality of sidewalls that are arranged to form a hexagonal housing. A first crown gap is formed between the first and second energy attenuation elements. A second crown gap is formed between the second and third energy attenuation elements. A third crown gap is formed between an extent of the third and first energy attenuation elements. The crown energy attenuation assembly further includes a layer positioned adjacent to the plurality of sidewalls of the energy attenuation elements.

The present invention pertains to a system and method for creating a customized protective sports equipment, such as a football helmet or shoulder pad assembly, having improved fit for the player wearing the equipment. An electronic measuring device takes a 3D scan to obtain anatomical data and measurements of a person or player's head or torso region. The anatomical data and measurements are sent to a computer, which has software for processing the anatomical data and then evaluating that data against a set of distinct, predetermined dimensions of at least two of the same components. The component that has distinct, predetermined dimensions that best fit the anatomical data is selected for installation in the protective equipment. In this manner, a customized, player-specific selection of pre-manufactured components are used to assemble the protective equipment to be worn by the player. A multi-step process is employed to design and assemble the protective sports equipment which features stock components that have a set of predetermined dimensions, and are identified through a player-specific selection of the components.

An American football helmet including a crown energy attenuation assembly positioned within a crown region of the helmet shell. The crown energy attenuation assembly includes: a first energy attenuation element with a plurality of sidewalls arranged to form a hexagonal housing, wherein a first sidewall has a substantially planar configuration; a second energy attenuation element with a plurality of sidewalls arranged to form a hexagonal housing, wherein a first sidewall has a substantially planar configuration; and, a third energy attenuation element with a plurality of sidewalls that are arranged to form a hexagonal housing. A first crown gap is formed between the first and second energy attenuation elements. A second crown gap is formed between the second and third energy attenuation elements. A third crown gap is formed between an extent of the third and first energy attenuation elements. The crown energy attenuation assembly further includes a layer positioned adjacent to the plurality of sidewalls of the energy attenuation elements.