Abstract: Safety head wear for use for example in high risk activities such as sports and industrial purposes where protection from head injuries is required. Components are provided inserted between the liner and outer shell and consists of two parts; a chamber or bladder and a fluid or gel like material. The fluid or gel material is contained in the chamber or bladder and is positioned in such a way to create low friction between the surface of the shell and liner or liner and head. It can also be used on the outer surface of the shell or placed within two layers of the liner. The device provides a method of independently managing both compression and shear force characteristics of the helmet around the head designed to decrease brain trauma resulting from high linear and angular acceleration during impacts to the helmet.

Abstract: The present invention provides a helmet, comprising first and second components having a sliding interface between them, wherein the sliding interface is provided between respective sliding surfaces of the first and second components, and the first component comprises a polyketone.

Abstract: 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.

Abstract: A helmet, comprising: an outer shell; a head mount, configured to conform to the head of a wearer; and a plurality of connectors, each provided between the outer shell and the head mount and each connected to the outer shell and head mount; wherein the connectors are configured to suspend the head mount within the outer shell such that, in use, an air gap is provided between head mount and the outer shell; wherein the connectors each have a first connection point connected to the outer shell and a second connection point connected to the head mount; and at least one connector is configured such that, under tensile loading between the first and the second connection points, the connector extends with a first modulus of elasticity up to a threshold extension and extends with a second modulus of elasticity beyond the threshold extension.

Abstract: Headgear for rugby and/or soccer, comprising: an inner layer (1) configured to accommodate a wearer's head; an outer layer (2) covering at least a part of the inner layer; a padding layer (3) between the inner and outer layers, configured to absorb and/or redirect energy of an impact between the headgear and an object; and a sliding interface (4) between the inner layer and the outer layer at which the inner layer and the outer layer are configured to slide relative to each other in response to an impact between the headgear and an object.

Abstract: There is disclosed a connector for connecting first and second parts of an apparatus, the connector comprising: a deformable retainer having first and second sides around an inner space; and a first plate positioned within the inner space to provide a low friction interface between the first and second sides of the retainer; wherein the first side of the retainer has a first anchor point that is configured to connect the connector to the first part of the apparatus; and the second side of the retainer has a second anchor point that is configured to connect the connector to the second part of the apparatus.

Abstract: A pad for mounting to a helmet, the pad comprising a support member, a first layer of material arranged to cover a first side of the support member and a second layer of material arranged to cover the first layer of material, wherein a low friction interface is arranged between the first layer of material and the second layer of material to enable sliding of the first layer of material relative to the second layer of material, wherein each layer of material is formed from at least one of a textile, a cloth, a fabric and a felt.

Abstract: A cheek pad for a helmet, the cheek pad comprising: an outer layer; an inner layer; and a sliding interface between the outer layer and the inner layer; wherein the outer layer and the inner layer are configured to slide relative to each other at the sliding interface, in response to an impact to the helmet, and the inner layer is configured to contact a side of the wearer's face, when the cheek pads are arranged in the helmet and the helmet is worn.

Abstract: A helmet comprising: an inner shell; an outer shell; a sliding interface between the inner shell and the outer shell; and a switch configured to be selectively switchable between first and second discrete modes, the first mode allowing relative sliding between the inner shell and the outer shell at the sliding interface in response to an impact to the helmet, the second mode preventing relative sliding between the inner shell and the outer shell at the sliding interface.

Abstract: The present invention provides a helmet, comprising first and second components having a sliding interface between them, wherein the sliding interface is provided between respective sliding surfaces of the first and second components, and the first component comprises (a) a mixture of (i) an olefin polymer, (ii) a lubricant, and optionally one or more further agents; or (b) an ultra high molecular weight (UHMW) polymer having a density of ?960 kg/m3, which UHMW polymer is preferably an olefin polymer.

Abstract: The present invention relates to a helmet comprising a shell; and a force redirection member disposed between the shell and a head when the helmet is worn, the member configured to redirect a force impacting on the shell to a direction different from the original direction of the impact on the shell. The present invention also relates to a method to decrease the risk of injury to a person wearing a helmet, caused by rotational forces when the helmet is impacted by a force characterized by a specific direction having a first vector, the method comprising redirecting the force into a different direction having a second vector, wherein the direction of the second vector is selected to reduce the risk of a specified injury associated with acceleration of the head in the direction of the first vector.

Abstract: A connector (20) for connecting first (14) and second (15) parts of an apparatus (1), comprising: a sliding plate (21); an anchor point (22) on one side of the plate, configured to be connected to the first part; and a deformable material, configured to at least partially cover the side of the plate on which the anchor point is located; wherein a peripheral region (23) of the deformable material is configured to be connected to the second part and an inner region of the deformable material is connected to at least one of the plate and the anchor point; the connector further comprising a layer of material (25, 30) that is located on the opposite side of the plate from the anchor point; wherein a low friction interface is provided between the opposing surfaces of the plate and the layer of material.

Abstract: A hat, headband or helmet formed from a material (10) comprising first and second layers (11, 12) of material and a low friction interface (13) arranged between the layers to enable sliding of the first layer of material (11) relative to the second layer of material (12).

Abstract: A helmet with two layers configured to slide with respect to each other is provided. The surface of one or both layers contains a sliding facilitator to improve slidability between the two layers. The sliding facilitator may be any one or a combination of (i) an organic polymer, a polysiloxane and a surfactant; (ii) an organic polymer and a copolymer based on a polysiloxane and an organic polymer; or (iii) a non-elastomeric cross-linked polymer obtained or obtainable by subjecting a polysiloxane and an organic polymer to a cross-linking reaction.

Abstract: A helmet having two layers that slide with respect to each other is provided. The surface of one or both layers includes a sliding facilitator to improve slidability between the two layers. The sliding facilitator includes at least one of (i) an organic polymer, a polysiloxane and surfactant; (ii) an organic polymer and a copolymer based on a polysiloxane and an organic polymer; or (iii) a non-elastomeric cross-linked polymer obtained or obtainable by subjecting a polysiloxane and an organic polymer to a cross-linking reaction.

Abstract: The invention relates to a connection arrangement (6) adapted to connect a first (2) and a second part (3) slidably arranged in relation to each other. The connection arrangement (6) is characterized in that said connection arrangement (6) is adapted to allow the sliding movement between the first (2) and the second part (3) in all directions. The arrangement (6) comprises a connection member (7) directly or indirectly connected to at least one of the first part and the second part (2, 3) and a device creating a spring force and/or a damping force (8) during sliding movement between the first and second part (2, 3) adapted to be connected with or to cooperate with said connection member (7).

Abstract: A helmet having an energy absorbing layer and a sliding facilitator is provided. The sliding facilitator is provided inside of the energy absorbing layer. A method of manufacturing a helmet having a sliding facilitator is further provided. The method comprising the steps of providing an energy absorbing layer in the mold, and providing a sliding facilitator contacting the energy absorbing layer.

Abstract: A helmet having an energy absorbing layer and a sliding facilitator is provided. The sliding facilitator is provided inside of the energy absorbing layer. A method of manufacturing a helmet having a sliding facilitator is further provided. The method includes providing an energy absorbing layer in the mold, and providing a sliding facilitator that contacts the energy absorbing layer.

Abstract: A helmet with an energy absorbing layer (2) and a sliding facilitator (5) is provided. The sliding facilitator is provided inside of the energy absorbing layer (2). A method of manufacturing a helmet with a sliding facilitator is further provided. The method has the steps of providing an energy absorbing layer in the mold, and providing a sliding facilitator contacting the energy absorbing layer.

Abstract: A helmet comprising an energy absorbing layer (2) and a sliding facilitator (5) is provided. The sliding facilitator is provided inside of the energy absorbing layer (2). A method of manufacturing a helmet comprising a sliding facilitator is further provided. The method comprising the steps of: providing an energy absorbing layer in the mould, and providing a sliding facilitator contacting the energy absorbing layer.