277 results about "Protective gear" patented technology

The systems and methods are provided for monitoring the forces and impacts to an object. The systems and method disclosed herein can be used to monitor forces and impacts to a human subject. In some implementations, the system can be disposed into conformal electronics that can be coupled directly to an object or disposed of other objects such as clothing and protective gear. The system can include a storage module to allow for data to be reviewed and analyzed. In some implementations, the system can also include an indicator. In some implementations, the indicator can be used to display real time analysis of impacts made by the system.

Protective gear includes an outer shell layer connected to a middle shell layer through an outer energy and impact transformer layer. The middle shell layer is connected to an inner shell layer through an inner energy and impact transformer layer. The outer and inner energy and impact transformer layers flexibly connect the shell layers to absorb impact threes, rotational forces, shear forces, etc., and allow the various shell layers to move and slide relative to the other shell layers. The outer and inner energy and impact transformer layers may be constructed using gels, fluids, electro-rheological elements, magneto-theological elements, etc. The protective gear may be firmed as helmets or body protection for various activities and protect users from not only impact and penetrative forces, but rotational and shear forces as well.

Protective gear such as a helmet includes multiple layers including an outer ball bearing layer and/or one or more energy and impact transformer layers. The ball bearing layer exposes multiple ball bearings on the outer surface of the protective gear to deflect and diminish shear forces and other rotational forces imparted onto the outer surface. In many examples, the ball bearings on the outer surface prevent the transfer of shear and rotational forces from the surface of a helmet onto a skull. The energy and impact transformer layers may also include various structures and materials used to dissipate mechanical energy applied to an outer layer or outer shell layer.

Protective gear such as a helmet includes multiple shell layers connected through energy and impact transformer layers. The energy and impact transformer layers may include conical structures used to dissipate mechanical energy applied to an outer shell layer while allowing an outer shell layer the ability to rotate with respect to a middle or inner shell layer. The conical structures may be three dimensional pyramids, three dimensional parabolic structures, and may be outwardly or inwardly oriented.

Protective gear for a wearer's body such as the joint of a limb, that has an attachment system with few components, and integrated with the protective gear. The attachment system uses straps that can be adjusted by a wearer once during a first use and, after removal, retain their adjustments for a second use by the same wearer. Securing the attachment system in place can be accompanied by an auditory signal.

Protective gear such as a helmet includes an intelligent bracing mechanism such as an intelligent neck bracing mechanism. The intelligent bracing mechanism detects imminent mechanical forces such as impact, shear, and rotational forces and stiffens the bracing mechanism so that forces imparted onto the protective gear can be distributed to one or more other locations. In one example, a sensor detects an imminent mechanical force impact on an outer shell of a helmet and stiffens a neck brace connected to the helmet to distribute some of the energy from the impact onto the shoulders.

Articles including protective gear for a variety of sports and activities provide protection from one or both of linear and angular forces that either directly or indirectly impact the gear when it is donned. The articles include at least two layers of material that provide multimodal energy dissipation to minimize the extent of transmission of impact forces to tissue.

This invention offers a fully protective cowl neck garment with various fasteners designed to attach additional protective gear, such as gloves and shoe coverings. Additionally, a temperature sensor shield is located on the hat and protective mask. This allows the clients or patients the ability to see and to monitor the temperature of their caregivers. The caregiver's temperature is visible on the hat, as well as the face mask. This makes the caregivers accountable to their clients or patients, as well as their colleagues and coworkers. This invention eliminates the worry of contact with infectious diseases or dangerous liquids, by utilizing elastic manual ties and hook-and-loop fasteners to ensure the garment is secured fully on a user's body. Overall, this invention ensures medical professionals, firemen, emergency medical personnel, government workers, and so forth, are protected fully from contagious and infectious diseases, liquids, and so forth.

The invention relates to a self-heating hot compress material composition, a self-heating hot bag, and a preparation method thereof. The hot compress material composition comprises: (a) reduced iron powder, sodium chloride, and active carbon; (b) 5-700 mesh wormwood powder; (c) a sustained-release agent and a water retention agent; and (d) water. According to the invention, wormwood is added into the self-heating hot compress material, such that volatile matters with illness-dispelling effect in wormwood is effectively combined with the self-heating hot compress material. A proper heating temperature and a proper heating time are utilized, such that a wormwood hot-moxibustion health-care function is fully utilized. Also, a specially shaped protective gear shape consistent with a human joint is adopted, such that a position requiring hot compress can be heated, and the traditional Chinese volatile component with a certain treatment effect can penetrate into the position requiring hot compress.

There is disclosed a protective head gear comprising a helmet having a brim positioned above the eyes of the wearer, a face protector covering at least a portion of the face of the wearer, and an adapter comprising an elongate cross member for securing the face protector to the helmet along the brim. There is also disclosed an adapter for attaching a face protector having a pair of strap receiving slots moulded therein to a helmet, comprising a cross member secured to the helmet, and a pair of support arms for insertion into the strap receiving slots. Additionally, there is disclosed face protective gear for use with a helmet having a brim positioned above the eyes of the wearer, comprising a cross member comprising a lip moulded along an upper edge, and a pair of goggles depending from the cross member When the cross member is secured to the helmet, the lip overlaps the brim.

Aspects hereof relate to protective gear that is comfortable and supportive. The protective gear is a knitted or woven sleeve with impact-dampening pads of different shapes and sizes placed in strategic areas of the sleeve to provide protection to a foot and ankle area of an athlete's foot. In particular, the impact-dampening pads are placed on areas of the sleeve corresponding to a lower shin portion, a medial and lateral malleolus, and the Achilles tendon of an athlete wearing the protective gear.

The adapter comprises a clip with a groove, and a rack that engages with the groove. The clip attaches securely to an edge of a fabric, for example, a panel on a baseball cap. The rack includes an angle adjuster, on which a brow guard, welding helmet, or other protective gear can be mounted.

The waterproof/breathable moisture transfer liner for alpine, snowboard and hiking includes an inner liner selected from technically advanced fabrics which are carefully selected. A series of layers are provided outside the inner liner including foam material and insulated nonwoven layers, breathable membranes, a supportive mesh included in a moldable foam, or moldable a spacer material and an outer shell fabric. The applicability of the liner to alpine boots, snowboard boots, cross country boots, hiking boots, protective gear, helmets, bouldering shoes, paddling apparel and gear along with appropriate variations for each application are disclosed.

Protective gear such as a helmet includes multiple shell layers connected using one or more concertinaed structures. The concertinaed structures allow the shell layers greater flexibility to move relative to each other when mechanical forces are imparted onto the outer shell layer. When energy and impact transformer layers are disposed between the shell layers, the concertinaed structures may also allow improvement function of the energy and impact transformer layers.

Silver coated nylon woven and non-woven fibers are disclosed that can be used to make fabrics, bags, and pads that are silver coated on one side of the fabric, bag, and/or pad. Silver coated nylon fabrics, bags, and pads provide an antimicrobial surface which remains on the surface and retains its antimicrobial characteristic until destroyed. The silver coating can be used as a way to eliminate, reduce and/or ameliorate odors emanating from the bacteria. The methods of adherence of the silver to the nylon may be performed in a number of ways. The pads may be further associated with protective gear that can be used by professions and athletes that use protective gear.