Abstract: Helmet padding systems are disclosed. One helmet padding system includes a baseball cap and a spacing pad. The baseball cap has a body portion and a brim portion. The cap includes a pair of side portions extending downward from the cap body below a point at which the brim portion meets the body portion. The spacing pad is positioned within the baseball cap, and includes a layer of elastomeric material.

Abstract: An impact dissipating fabric system includes a first non-woven fabric layer, and a second non-woven fabric layer disposed on one another and coupled together using a lamination film or a resin. In an alternative embodiment, a woven fabric layer may be disposed on either one or both non-woven fabric layers. In yet a further alternative embodiment, and elastomer coating disposed on at least one of the exposed major surfaces of the fabric layer after the fabric layers are coupled to one another.

Abstract: Helmet padding systems and apparatuses are disclosed. A helmet padding system includes a rigid frame and a spacing pad. The rigid frame is configured to be positioned on the head of a user. The spacing pad includes a layer of elastomeric material. The spacing pad includes a central portion and a plurality of extending portions projecting outward from the central portion. The plurality of extending portions are fixed to the frame.

Abstract: Protective headgear systems are disclosed. One protective headgear system includes an impact-resistant pad and a helmet. The impact-resistant pad comprises a top portion configured to be positioned covering a top of a user's head, and first and second side portions extending downward from the top portion. The helmet is unconnected to the impact-resistant pad. The helmet is configured to be positioned overtop of the impact-resistant pad when the impact-resistant pad is positioned on the user's head.

Abstract: Helmet padding systems and apparatuses are disclosed. A helmet padding system includes a helmet shell, a spacing pad, and a plurality of absorption pads. The helmet shell is configured to be positioned on a user's head. The spacing pad is coupled to an interior of the helmet shell. The spacing pad includes a layer of elastomeric material. The spacing pad comprises a central portion coupled to a central region of the helmet shell and a plurality of extending portions projecting outward from the central portion. The absorption pads are coupled to the spacing pad. The absorption pads comprise a first absorption pad coupled to the central portion of the spacing pad and remaining absorption pads coupled to ends of the extending portions of the spacing pad. The padding apparatus includes a spacing pad and a plurality of absorption pads configured to be coupled to an interior of a helmet.

Abstract: A vibration reducing assembly including a flexible headgear and at least one panel of vibration reducing material secured to the flexible headgear. The at least one panel of vibration reducing material includes at least a first elastomer layer and a reinforcement layer comprising a high tensile strength fibrous material.

Abstract: A vibration reducing assembly including a flexible headgear and at least one panel of vibration reducing material secured to the flexible headgear. The at least one panel of vibration reducing material includes at least a first elastomer layer and a reinforcement layer comprising a high tensile strength fibrous material.

Abstract: The present invention is directed to a material adapted to reduce vibration and, more specifically, to a material adapted to dissipate and evenly distribute transmitted vibrations. The material is particularly suited for impact and/or heavy load vibration resistance.

Abstract: A vibration reducing assembly including a flexible headgear and at least one panel of vibration reducing material secured to the flexible headgear. The at least one panel of vibration reducing material includes at least a first elastomer layer and a reinforcement layer comprising a high tensile strength fibrous material.

Abstract: The present invention is directed to a material adapted to reduce vibration and, more specifically, to a material adapted to dissipate and evenly distribute transmitted vibrations. The material is particularly suited for impact and/or heavy load vibration resistance.

Abstract: A first impact dissipating fabric system includes a first fabric layer formed using a first weave pattern, and a second fabric layer formed using a second weave pattern different from the first wave pattern. A second impact dissipating fabric system includes a first fabric layer formed with fibers having a first denier, and a second fabric layer formed with fibers having a second denier different from the first denier. A third impact dissipating fabric includes a first fabric layer formed using a first weave pattern from fibers having a first denier, and a second fabric layer formed using a second weave from fibers having a second denier. The first weave and the second weave are different types of weaves and/or the first denier and the second denier are different from one another. In each system, the first and second fabric layers are disposed on one another and coupled together.

Abstract: A composite formed by a reinforced elastomer material that dissipates, isolates, and absorbs sound and vibrational energy waves.

Abstract: The present invention is directed to a material adapted to reduce vibration and, more specifically, to a material adapted to dissipate and evenly distribute transmitted vibrations. The material is particularly suited for impact and/or heavy load vibration resistance.