Other

Protective Sports Equipment International, Inc.

Lytle Design Associates

Frank Lytle

James B Eldon, Iii

Albert E Straus

David Dean McClanahan

David D McClanahan

An automatic disinfection workstation system utilizes a disinfecting workstation-light to disinfect surfaces within the workstation and may also include an airflow disinfecting system that utilizes an airflow disinfecting light to disinfect an airflow through the workstation. The workstation may have three walls forming the workstation enclosure and the disinfecting workstation-light may be configured proximal to the top of the walls and emit ultraviolet light to deactivate or kill germs or viruses within the line of sight of the light. The disinfecting workstation-light is actuated over the workstation to produce light with various lines of sight to more effectively disinfect the workstation. In addition, a light-angle actuator may rotate the light to further increase the various lines-of-sight. This combination of traversing the light at various angles may further enhance the effectiveness of disinfecting the workstation. The airflow disinfecting light may be a separate light or may be the disinfecting workstation-light.

Automatic disinfecting workstation

A head impact test apparatus is configured to enable viewing a head model including a brain component that may be at least partially surrounded by a fluid component and within a skull component. A head model may be a cross-sectional model of a person's head and have a translucent cover extending over the cross-sectional plane to enable viewing and image capture of the components of the head model. A camera may be configured to take a plurality of images during an impact test. These images may be analyzed to determine the acceleration and deformation of the brain component. An impact element is configured to impact the head model and the head model may have any type of helmet thereon. A helmet component may comprise a helmet cover. The test may be used to determine the effectiveness of helmets and helmet covers in reducing brain trauma.

Helmet impact simulator and method

A work-station utilizes sound absorbing, translucent enclosure panels that allows light from outside of the work-station to enter. The translucent enclosure panels have an outside panel, and intermediate panel and an inside panel of a translucent plastic sheet material that form cells for dampening sound transmission through the enclosure panels. The inside panel has a plurality of apertures to allow sound to enter and be dissipated within the internal cells. A sound masking device is configured within the work-station and projects a dampening sound into the work-station, such as along the opening to work-station to produce a masking sound curtain for sound entering the work-station.

Work-station

A helmet cover that has an outer skin, an impact absorbing material and at least one vent comprising an aperture through the helmet cover is described. A helmet cover vent may be aligned with a vent in a helmet, thereby providing for improved ventilation and cooling, and may be attached to a helmet. A helmet cover vent may be configured as a tapered or flared vent, and may be an, air capture vent. The impact absorbing material may be configured over substantially the entire helmet cover surface, or may cover only a portion of the surface. In one embodiment, the impact absorbing material is configured as a discrete pad that is located where impact is most common, such as on the front, sides, or back of the helmet cover. A discrete pad may be interchangeable, allowing for customizing the type and location of impact absorption on the helmet cover.

Helmet

A helmet cover that has an outer skin, an impact absorbing material and at least one vent comprising an aperture tough the helmet cover is described. A helmet cover vent may be aligned with a vent in a helmet, thereby providing for improved ventilation and cooling, and may be attached to a helmet. A helmet cover vent may be configured as a tapered or flared vent, and may be an air capture vent. The impact absorbing material may be configured over substantially the entire helmet cover surface, or may cover only a portion of the surface. In one embodiment, the impact absorbing material is configured as a discrete pad that is located where impact is most common, such as on the front, sides, or back of the helmet cover. A discrete pad may be interchangeable, allowing for customizing the type and location of impact absorption on the helmet cover.

Helmet cover

A helmet cover that has an outer skin, an impact absorbing material and at least one vent comprising an aperture through the helmet cover is described. A helmet cover vent may be aligned with a vent in a helmet, thereby providing for improved ventilation and cooling, and may be attached to a helmet. A helmet cover vent may be configured as a tapered or flared vent, and may be an air capture vent. The impact absorbing material may be configured over substantially the entire helmet cover surface, or may cover only a portion of the surface. In one embodiment, the impact absorbing material is configured as a discrete pad that is located where impact is most common, such as on the front, sides, or back of the helmet cover. A discrete pad may be interchangeable, allowing for customizing the type and location of impact absorption on the helmet cover.

Provided is a multipurpose golf club container that can be used as a golf club travel container, a carrying container, pull along cart, or can be easily mounted onto a powered golf cart. The multipurpose golf club container is comprised of multiple compartments that can be closed to provide a rain proof enclosure. The multipurpose golf club container in some embodiments has a rain cover that can be easily deployed to keep the golf club grips dry during play in foul weather. In addition, in some embodiments the multipurpose golf club container is designed to retain the golf clubs in the head down position, and club restraints allow for quick and easy removal and replacement of the golf clubs from the container in a lateral motion.

Growing community of inventors

West Chester, PA, United States of America

Frank Lytle