The binocular bridge system is configured to couple two night vision monoculars together, effectively providing the user with a binocular night vision system. An example binocular bridge system comprising: a bridge; a first hinged arm that includes an objective alignment ring configured to fit around an objective lens locking ring of a night vision monocular secured to the first hinged arm; and a second hinged arm that includes an objective alignment ring configured to fit around an objective lens locking ring of a night vision monocular secured to the second hinged arm. The hinged arms in conjunction with the objective alignment rings are configured to mechanically collimate the night vision monoculars secured to the first hinged arm and the second hinged arm of the binocular bridge system.

An infrared motorcycle helmet device is provided. The infrared motorcycle helmet device includes a helmet. The helmet has an opening on a front portion of the helmet. An external visor is placed on an external surface of the helmets. The external visor can be moved into a position over the opening as desired. An infrared camera is placed on an external surface of the helmet.

A protective helmet including a visor attached to the external sides of the helmet shell. The shell includes substantially flat mount surfaces on each side which correspond with substantially flat portions on the respective ends of the visor. A fastener hole on the shell aligns with an access hole on the visor so that the two elements can be releasably fastened. The access hole provides space for a fastener to protrude out from the surface of the shell, allowing the visor to sit flush against the shell when fastened together. The helmet may include chin straps which are attached to the inner surface of the shell. The helmet may also include a catch strip on the front of the visor which protrudes from the visor such that it can prevent a cloth helmet cover (sometimes used in games such as Roller Derby) from easily sliding off the helmet.

An improved design for a helmet to reduce injuries caused by helmet-to-helmet collisions. Certain embodiments include novel quick release features that permit the detachment of a facemask from a helmet in 30 seconds or less so as to attend to an injured player in a rapid fashion. Other aspects relate to impact energy absorbing constructions employing an inner layer, an outer layer spaced apart from the inner padding layer, at least one layer that includes an array of polygonal structures, and at least one layer having a shock-absorbing elastomer, a visco-elastic polymer, an impact dispersing gel, or shape memory material. Still other embodiments include a wireless device with a sensor module coupled to the football helmet generating sensor data in response to an impact to the football helmet.

A system may include a space suit helmet. The space suit helmet may include a surface structure, an inner surface structure, and a waveguide display. The inner surface structure may be configured to maintain an oxygenated environment within an interior cavity of the space suit helmet, wherein a user is able to see through the inner surface structure and the surface structure. The waveguide display may be implemented at least one of in or on the space suit helmet. The waveguide display may include a waveguide and an optical system configured to project images at least through the waveguide to be displayed to the user.

A concussion resistant smart helmet is disclosed having outer construction to redirect all tangential component force impacts to the helmet edges and away from user, reduce, redistribute and absorb normal component force impact. The absorbing layer is recyclable and contains sensor and logic for recording impact forces transmitted to helmet interior boundary.

The invention concerns an augmented vision system (1) comprising: a displaying device (3) comprising: a fixing element (31) for coupling the displaying device (3) to a head-mountable component (90) configured to be positioned in front of a 5 face (102) of a user (100), and a display body (32) being coupled to said fixing element (31) by means of a pivoting link (321, 322, 323) providing a rotation of the display body with respect to the fixing element around a rotational axis (38); the display body (32) comprising 10 a display (33) configured to display thermal data and/or images provided by a thermal sensing device (2); and a first surface portion (325) configured to enter in contact with a forehead of a user, when said head-mountable component (90) is positioned in front of the face of the user, so as to rotate the display 15 body (32) to a predefined angular positioning (381) around the rotational axis (38).

A helmet comprising a hard shell and a flexible shell extending inside the hard shell, the helmet including an attachment device suitable for attaching to an antitheft system external to the helmet. The attachment device comprises a ring suitable for having a link of said antitheft system external to the helmet pass therethrough, the ring being mechanically connected to the hard shell so as to be movable relative to the hard shell between a stowed position and an extended position; in the stowed position, a major portion of the ring is located inside a cavity that is defined at least in part by said hard shell and, in the extended position, at least a portion of the ring is located outside said cavity to enable said link of the antitheft system to pass through the ring.

A system for controlling a vehicle includes a programming device comprising an application for programming vehicle function settings of a vehicle. The programming device has a transmitter communicating the vehicle function settings of the vehicle. A vehicle receiver is disposed within the vehicle. The vehicle receiver receives the vehicle function settings. A vehicle is controller disposed within the vehicle. A helmet generates a helmet movement signal in response to sensing movement of the helmet. The helmet communicates a helmet identifier to the vehicle controller through the receiver in response to the helmet movement signal. The vehicle controller controls a vehicle function in response to the vehicle function settings.

A personal sterilization system, including a base unit defining an air intake, a fan, and a fluid path from the air intake to the fan; at least one UVC light source positioned to illuminate at least a portion of the fluid path with UVC light; a delivery conduit attached to the base unit in fluid communication with the fan; and a dispersion device configured to be worn in proximity to a person's face, the dispersion device defining a fluid inlet attached to the delivery conduit, and at least one fluid outlet configured to disperse pressurized air.