A head lowering and turning reminding device, a control method thereof and a helmet are disclosed. The reminding device is disposed on a vehicle or worn by a user of the vehicle, and includes: a speed sensor configured to detect a ground speed of the vehicle; a head posture monitoring module configured to monitor a head posture of the user and generate a signal relevant to a head rotating action of the user; a recognition module configured to receive the signal and recognize at least one of a head lowering action and a head turning action of the user and a duration time of this action; and an alarm module configured to output an alarm for reminding the user upon the ground speed being greater than a speed threshold and the duration time exceeding a preset time threshold.

A protection device (1) shaped like a helmet, apt to be worn on by a health operator during surgery, comprising: a main body (2) shaped as a helmet shielding the operator's head, which main body (2) is worn on jointly to a lens (200); andmeans (3) for forced circulation of air in an internal environment (20) accommodating the operator's head and defined by said main body (2) and by the associated vision element (200), which forced circulation means (3) comprises air inletting means (31) and air suction means (32), the latter apt to cause an evacuation of exhausted air from the environment (20) accommodating the subject's head.

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 Augmented Reality (AR) wearable display device is described. The device may be a skydiving helmet. The device may include a transceiver configured to receive a real-world environment view and a point of interest (POI) geolocation and POI altitude information. The device may further include a detection unit configured to detect AR wearable display device trajectory information. The device may further include a processor configured to determine a POI location in the real-world environment view based on the POI geolocation and the POI altitude information and the AR wearable display device trajectory information. The processor may further generate an AR image by overlaying a virtual object associated with the POI on the real-world environment view based on the POI location. The processor may further render the AR image on a display screen associated with the AR wearable display device. The display screen may be a helmet visor.

The present invention relates to mounting assemblies for optical devices, including enhanced night vision goggles (ENVG), and more particularly to a multi-adjustable and multi-stowable mount for a single or dual enhanced night vision goggles (ENVG). The mounting assemblies can include a quick release system for detachment of the optical device from the mount.

A protective apparel system for use with a surgical helmet having a headlamp and including a protective apparel apparatus comprising a surgical garment, wherein the garment defines a sterile barrier between the wearer and the environment. The system includes a lens assembly adjacent to the surgical garment on the environment side and configured to cooperate with a coupling member for use with the headlamp. The lens assembly may include a control member and a lens, wherein the control member is be manipulatable by a wearer. The control member may be configured wherein manipulation by the wearer may reposition the lens of the lens assembly to adjust the direction and/or intensity of the light from the headlamp without breaching the sterile barrier.

A protective helmet (200) adapted for the external display of controllably selectable images, comprising: an outer portion (202); and a display module (212) comprising a flexible electronic display screen (214); wherein the outer portion comprises a recess (206) configured to receive the display module; and wherein the display module is positioned within the recess such that an outer surface (213) of the display module continues a profile of the outer portion.

A programming device includes an application for programming vehicle function settings of a vehicle. The programming device has a transmitter that communicates the vehicle function settings through a vehicle receiver to a vehicle controller. The vehicle function settings cause the controller to operate the vehicle when a device identifier is received from a moveable device associated with a vehicle user.

A hard hat with symmetric front and back mounting ridges to support a headlamp is described. The hard hat provides mounting ridges to receive insertion slots of a rigid mounting bracket that fit around the ridges. The rigid mounting bracket includes channels to loop a strap through the channels and support a lamp on the bracket. The strap may include a hook and loop fastener system to enable attachment of a variety of lamps to the rigid support bracket. In this way, the hard hat can support a wide variety of headlamps attached to the rigid mounting bracket without destructive alterations to the hard hat. Clips may be added to the rigid mounting bracket to secure or lock the bracket in place during operation and prevent accidental knocks or jarring of the headlamp.

Helmet-mounted systems (100) that may include lighting systems (102) and solar-powered battery systems (112), automated controls (116), and/or integrated sensors (104) that result in an automated and fully integrated systems that do not require user-initiated recharging of batteries or require a user to manually turn the components of the system on and off.