A head safety device is provided which has a hole in the inner shell that serves as a perfect protective headgear for the sikh hair bun style or any other hair bun style, the hole/gap accommodate different hair buns on different positions providing protection to the users head and also stability and comfort.

An integrated helmet includes: a helmet body, defining a wearing space, a flip cover coupled pivotally to the helmet body; a pair of glasses, configured on the helmet body and positioned relatively inside the flip cover, and generating a virtual reality image; and a first filter device, configured inside the helmet body. The integrated helmet 1 is provided with the flip cover to protect the smart glasses inside the flip cover, and can generate interactive VR images; the helmet body is provided with the first filter device to filter suspended particles in the air, such as viruses, dust, impurities, etc., achieving the improved epidemic prevention.

A chin cup that has a hard outer cup and a soft inner cup that may be removable from the outer cup. The inner cup has a peripheral edge extending beyond the edges of the outer cup. Three strap guides, allow a strap to slide through. A one size fits all design includes a central indentation that extends upward toward a top central portion of the cups as well as a central narrowing longitudinally of the cups. Aligned vent holes in the inner and outer cups let the user's chin breathe. The cups have an arcuate longitudinal arch shape. Various embodiments include a boss and hole design that has buttons or mushroom caps that prevent the separation of the cups when not in use and an overmold one piece chin cup embodiment with the soft inner cup imbedded in the hard outer cup.

A helmet for protecting the head of a user may include at least one liner comprising an inner surface and a lower edge surrounding the inner surface at a helmet opening configured to receive a head of a helmet wearer. At least two coupling points may be located on the inner surface proximal to the lower edge. At least one flexible forehead strap may follow the lower edge of the energy management layer and may be inwardly offset from the inner surface. At least two prongs may be coupled to, and slidably extend between, the flexible forehead strap and the at least two coupling points, respectively. A continuous gap between the inner surface and the flexible forehead strap may be provided by an offset created by the at least two prongs, the at least two prongs flexibly maintaining the offset.

A helmet (10) is provided including an outer shell (12) defining a first plurality of vents (23); energy dissipating padding (16) located in an interior of the outer shell, the padding defining a plurality of openings (27); the energy dissipating padding assembly and the outer shell defining a space therebetween, a first slider (28) actuatable by the wearer to slide along a first direction that extends substantially parallel to the surface of the outer shell, the first slider defining first cooperating members (60); and a second slider (26) comprising a plurality of panels (40, 42, 44) configured to cover the first plurality of vents and second cooperating surfaces (54, 56), such that movement of the first slider along the first direction generates movement of the second slider along a second direction substantially normal to the surface of the helmet shell, thereby selectively moving the panels to cover and uncover the first plurality of vents.

A helmet is disclosed for protection during an impact. An inner liner may slidably couple to the outer liner through at least one return spring. The outer liner includes an interior surface with a shelf extending inward. The shelf includes an arresting surface. The inner liner has an exterior surface, an interior surface and an edge connecting the exterior surface to the interior surface. The edge faces the arresting surface of the shelf. The inner liner is slidably movable relative to the outer liner between a first position in which the edge of the inner liner is separated from the arresting surface of the shelf by a first gap, and an arrested position in which a portion of the edge of the inner liner is in contact with a portion of the arresting surface of the shelf.

A helmet airflow control member includes a plate-like main body arranged on a shell and including a main body rear surface that covers part of a shell outer surface, and at least one passage formation portion arranged on the main body rear surface. A periphery of the main body rear surface includes a first peripheral portion, which is shaped in correspondence with the shell outer surface and closes a space between the main body rear surface and the shell outer surface, and a second peripheral portion, which is spaced apart from the shell outer surface and defines an opening of the space between the main body rear surface and the shell outer surface in cooperation with the shell outer surface. The passage formation portion defines a passage in the space, with the passage extending from the opening into the space and returning from the space to the opening.

The present invention provides an apparatus to dissipate and attenuate mechanical waves which travel through a human brain upon blunt trauma. The apparatus comprises a pressurizable and ventable outer balloon shell encasing an inner hard shell. The pressurizable and ventable outer balloon shell is configured to release a pressurized gas to the atmosphere upon an impact to said pressurizable and ventable outer balloon shell. The apparatus is configured to enhance efficiency in reduction of an amplitude of the mechanical waves of the blunt trauma delivered to the human brain and to disrupt doubling-up of mechanical waves in a pressure zone inside the pressurizable and ventable outer balloon shell. The apparatus is configured to ventilate the pressurizable and ventable outer balloon shell and the inner hard shell.

A helmet can include an energy absorbing shell including an outer surface and an inner surface opposite the outer surface. A fit system member can be coupled to a rear of the energy absorbing shell to adjust a fit of the helmet for a user. A sliding layer can include an outer sliding layer surface oriented towards the inner surface of the energy absorbing shell and an inner sliding layer surface opposite the outer surface. The sliding layer can include at least one attachment member and at least one integrated fit system arm. The at least one integrated fit system arm can be coupled to the fit system member. An elastomeric member can include a first end coupled to the energy absorbing shell and a second end coupled to the attachment member of the sliding layer. Comfort padding can be coupled to the inner surface of the Sliding layer.

A helmet can include an upper body comprising an interior surface comprising a locking flange, and a lower body positioned at least partially inside the upper body. The lower body can comprise an edge in contact with the locking flange of the upper body. At least one joining pin can be located within, and bridge, the lower body and the upper body. An at least one basket pair can comprise an upper basket comprising a pin receiver, the upper basket being at least partially embedded within the upper body. A lower basket can comprise a pin aperture, the lower basket being at least partially embedded within the lower body and positioned such that the pin aperture is aligned with the pin receiver of the basket pair. The at least one joining pin can be positioned inside both the pin aperture and the pin receiver of the basket pair.