A helmet comprising first and second parts and a connector connecting the first and second parts of the helmet, the connector comprising: a first plate; a first anchor point on one side of the first plate, configured to be connected to the first part; a second plate located on an opposite side of the first plate from the first anchor point; a second anchor point on an opposite side of the second plate from the first plate, configured to be connected to the second part; a low friction interface provided between opposing surfaces of the first and second plates; and a cuff of deformable material provided around the first and second plates, and configured to at least partially cover the side of the first plate on which the first anchor point is located and to at least partially cover the side of the second plate on which the second anchor point is located.

The present technology relates to a helmet of a layered and segmented design including impact attenuation structures. The helmet can include a series of layers that individually, or in combination, provide the necessary functions of the helmet. The helmet may feature a layer with a low coefficient of friction to act as a slip layer and slide due to rotational force. The present technology includes impact attenuation structures of predetermined geometries, layers, and materials to allow for an appropriate impact response with a certain degree of control over the buckling process and an adaptive impact response. The present technology of impact attenuation structures may be applicable where impact absorption and controlled buckling is desired, such as bike helmets.

A helmet for protecting a head of a wearer, such as a hockey, lacrosse, football or other sports player. The helmet may have various features to protect the wearer's head against impacts, such as linear impacts and rotational impacts. For example, pads of the helmet may be movable relative to one another in response to an impact on the helmet. The helmet may comprise a frame comprising a plurality of frame members carrying respective ones of the pads and configured to move relative to one another in response to the impact to allow relative movement of the pads.

A helmet that includes a subliner shell comprised of a hard impact resistant material. The shell has inner and outer surfaces. A subliner element having a first foam pad having a top surface and a bottom surface. The top surface is attached to the inner surface of the shell. A second foam pad is constructed of an energy absorbing viscoelastic foam material that is radially partitioned into individual segments. The segments are nested with respect to each other such that the nested segments have side surfaces in slidable direct contacting engagement with side surfaces of adjacent nested segments. The second foam pad has a top surface attached to the bottom surface of the first foam pad. A third foam pad has a top surface and a bottom surface, with the top surface of the third foam pad being attached to the bottom surface of the second foam pad.

An impact attenuating helmet including an outer liner having an inner mating surface, an inner liner positioned under the outer liner and having an outer mating surface configured to be received by the inner mating surface of the outer liner, the inner liner and the outer liner being configured to move relative to each other along a slip plane between outer mating surface of the inner liner and the inner mating surface of the outer liner, and one or more securing attachments, each securing attachment being coupled to the outer liner and being configured to secure the outer liner to the inner liner, each securing attachment comprising a slack element configured to permit a range of movement between the outer liner and the inner liner.

A protective helmet includes an upper section and a lower section; each having inner and outer facing surfaces; a gap formed between the upper and lower sections; at least one connection member connecting the upper section to the lower section and maintaining the gap; the upper section being movable with respect to the lower section when an impact force is applied to the outside surface of the upper section; an inner shell securable to the inner facing surface of the lower section; the inner shell being adapted to receive a portion of the helmet user's head, whereby the head of the user will be spaced from the inner facing surface of the upper section when the portion of the user's head is received in the inner shell; and the inner shell substantially preventing the user's head from making contact with the inner facing surface of the upper section.

In one embodiment, a zero impact head gear is provided including an outer helmet and an inner helmet. The outer helmet has forward and rear retaining stops protruding from the interior of the outer helmet. The inner helmet has a forward and rear retaining stops protruding from the inner helmet to allow movement of the inner helmet within the outer helmet, but capable of limiting a forward displacement the inner helmet with respect to the outer helmet.

A football helmet with shell, faceguard, padding and comfort liner system, has replaceable nose bumpers for connecting a top center of the faceguard to the shell, button and keyhole connectors connecting the liner to an inner surface of the padding and T-nut connectors for connecting the padding to an inner surface of the shell. Front portions of the comfort liner have harder foam cushions than other portions of the liner to improve impact absorption. Selected areas of the padding system contain pads with inner and outer molded thermoplastic urethane parts of different durometer, each including a sheet with plural alternating hollow protrusions. The faceguard has an upper bar with raised ends above a lower edge of the front portion of the shell that form a face opening and on either side of the nose bumper.

The protective sports helmet disclosed herein including a crown energy attenuation assembly positioned within a crown region of the helmet shell and includes: a first energy attenuation element with a plurality of sidewalls arranged to form a hexagonal housing, wherein a first sidewall has a substantially planar configuration; a second energy attenuation element with a plurality of sidewalls arranged to form a hexagonal housing, wherein a first sidewall has a substantially planar configuration; and, a third energy attenuation element with a plurality of sidewalls that are arranged to form a hexagonal housing. A first crown gap is formed between the first and second energy attenuation elements. A second crown gap is formed between the second and third energy attenuation elements. A third crown gap is formed between an extent of the third and first energy attenuation elements. The crown energy attenuation assembly further includes a layer positioned adjacent to the plurality of sidewalls of the energy attenuation elements.

A helmet which includes an impact absorbing liner and a comfort liner. The comfort liner in turn includes at least one adjustable device which during the normal use of the helmet is positioned on the top of the head of the user. The adjustable device is suitable for being fastened to the impact absorbing liner of the helmet by coupling suitable for being removably engaged on the impact absorbing liner of the helmet via a plurality of anchor points. By changing the anchor point where the adjustable device is engaged, the user is allowed to adjust the conformation and slope of the adjustable device of the helmet according to his own needs.