Abstract: A container includes one or more hollow shell assemblies, each assembly having a first hollow shell including a first inner surface to cover a portion of a pressure vessel (PV) and a second hollow shell including a second inner surface attachable to the first hollow shell. The first and/or second hollow shells may include a fiber layer that may be at least partially impregnated with resin, and an energy dissipating material that is substantially concentric with the inner surfaces of the respective shells. The first and second hollow shells are attachable to one another to define a volume for at least partially enclosing the PV, and may be overwrapped via filament winding.

Abstract: A container includes one or more hollow shell assemblies, each assembly having a first hollow shell including a first inner surface to cover a portion of a pressure vessel (PV) and a second hollow shell including a second inner surface attachable to the first hollow shell. The first and/or second hollow shells may include a fiber layer that may be at least partially impregnated with resin, and an energy dissipating material that is substantially concentric with the inner surfaces of the respective shells. The first and second hollow shells are attachable to one another to define a volume for at least partially enclosing the PV, and may be overwrapped via filament winding.

Abstract: Described herein are details for designing and manufacturing enhanced shock and impact resistant helicoidal lay-ups by combining nanomaterials, variable pitch and partial spirals, Thin unidirectional fiber plies, hybrid materials, and/or curved fibers within a ply. The helicoidal structures created in the prescribed manners can be tuned and pitched to desired wavelengths to dampen propagating shock waves initiated by ballistics, strike forces or foreign material impacts and can arrest the propagation of fractures including catastrophic fractures. These enhancements open the helicoidal technology up for use in such applications as consumer products, protective armor, sporting equipment, crash protection devices, wind turbine blades, cryogenic tanks, pressure vessels, battery casings, automotive/aerospace components, construction materials, and other composite products.

Abstract: A container includes first and second hollow shells respectively including first and second inner surfaces to receive a portion of a pressure vessel (PV). The first hollow shell includes a fiber layer that is and at least partially impregnated with resin, and an energy dissipating material that is substantially concentric with the first inner surface and disposed between the first inner surface and the fiber layer. The second hollow shell includes a fiber layer that is at least partially impregnated with resin, and an energy dissipating material that is substantially concentric with the second inner surface and disposed between the second inner surface and the second fiber layer. The first and second hollow shells are attachable to one another to define a volume for at least partially enclosing the PV.

Abstract: Described herein are details for designing and manufacturing enhanced shock and impact resistant helicoidal lay-ups by combining nanomaterials, variable pitch and partial spirals, Thin unidirectional fiber plies, hybrid materials, and/or curved fibers within a ply. The helicoidal structures created in the prescribed manners can be tuned and pitched to desired wavelengths to dampen propagating shock waves initiated by ballistics, strike forces or foreign material impacts and can arrest the propagation of fractures including catastrophic fractures. These enhancements open the helicoidal technology up for use in such applications as consumer products, protective armor, sporting equipment, crash protection devices, wind turbine blades, cryogenic tanks, pressure vessels, battery casings, automotive/aerospace components, construction materials, and other composite products.

Abstract: Described herein are details for designing and manufacturing enhanced shock and impact resistant helicoidal lay-ups by combining nanomaterials, variable pitch and partial spirals, Thin unidirectional fiber plies, hybrid materials, and/or curved fibers within a ply. The helicoidal structures created in the prescribed manners can be tuned and pitched to desired wavelengths to dampen propagating shock waves initiated by ballistics, strike forces or foreign material impacts and can arrest the propagation of fractures including catastrophic fractures. These enhancements open the helicoidal technology up for use in such applications as consumer products, protective armor, sporting equipment, crash protection devices, wind turbine blades, cryogenic tanks, pressure vessels, battery casings, automotive/aerospace components, construction materials, and other composite products.

Abstract: This protective helmet comprises a rigid or semi-rigid external shell comprising a plurality of rigid or semi-rigid flaps joined together and a compressively deformable internal liner acting as a shock absorber, the latter also comprising several elements associated with said flaps. At least some of the flaps that constitute the external shell are capable of moving relative to each other at their respective means of connection and the elements that constitute the internal liner associated with the flaps in question are designed so that they retract inside the volume defined by the helmet during relative displacement of the corresponding flaps.

Abstract: “This protective helmet comprises a rigid or semi-rigid external shell comprising a plurality of rigid or semi-rigid flaps joined together and a compressively deformable internal liner acting as a shock absorber, the latter also comprising several elements associated with said flaps. At least some of the flaps that constitute the external shell are capable of moving relative to each other at their respective means of connection and the elements that constitute the internal liner associated with the flaps in question are designed so that they retract inside the volume defined by the helmet during relative displacement of the corresponding flaps.

Abstract: Outer protective shell is made from a sheet or plate of rigid polymer. It has a plurality of partial incisions suitable for defining substantially jointed motifs, for imparting to the said shell a degree of overall flexibility, and local rigidity, and also breathability.

Abstract: The protective helmet (1) comprises a deformable foam liner (7), a plurality of shell segments (9), and joining means made of flexible material performing joining between the shell segments (9). The shell segments (9) are arranged on the foam liner (7) so as to form at least one crown segment (9a), at least one occipital segment and a plurality of transverse side segments (9c). The shell segments (9) and the joining means made of flexible material are joined to the foam liner (7) in such a way as to allow a slight sliding between the foam liner (7) and at least a part of the shell segments (9). The helmet (1) preferably comprises a headband adjustment means (14) designed to adjust the size of the helmet (1) and to optimize user comfort.

Abstract: An element forming an inclined wedge, intended to be integrated with the front or rear end of the base plate of a snowboard binding, or directly with the upper face (5) of a snowboard, is disclosed. The element includes an upper face (9) intended to receive the bearing forces of the front or rear end of the sole of a boot, and having a mechanism for adjusting the angle of inclination, measured in a longitudinal plane, between the upper face of the element and the base plate of the binding or the upper face of the snowboard. The element may also provide a mechanism (30, 31) for adjusting the longitudinal position of the element in relation to the binding or snowboard.

Abstract: Interface plate (1) intended to be inserted between a snowboard binding and the upper face of a snowboard, and which comprises: an essentially circular central zone (2) through which the screws (38) for attaching the binding to the board can pass; two outer zones (3, 4) of a width smaller than the diameter of the central zone (2), arranged symmetrically with respect to the central zone (2), and of which the ends furthest from the central zone (2) act as supports for diametrically opposed zones of the binding so as to transmit the forces exerted from the binding to the board only at said outer zones (34) which are advantageously located near to the edges (9, 10).

Abstract: An interface element (10) used on a gliding board, said element being inserted between the sole (20) of the user's boot and the top side of the board (8) so as to take the thrust exerted toward the board by the user at least at the front end of the sole, and which comprises at least one zone (11, 12, 15) made of a thermoformable material capable, after exposure to heat, of matching the imprint of at least the front end (21) of the sole (20) of the boot so as to fill the volume between the top side (8) of the board and the sole of the boot (20).

Abstract: A Snowboard binding includes a baseplate intended to be mounted on a snowboard. A rear bow, is mounted on the baseplate (2) at two attachment points and a highback is mounted so that it can pivot with respect to the rear bow. Further included are means for independently modifying the vertical position of each point of attachment of the bow (3) to the baseplate (2).

Abstract: Highback for a snowboard binding intended to come into contact with the rear part of the user's boot in order to withstand the back thrusts thereof, having a median longitudinal plane of symmetry, which has a stiffer region located asymmetrically with regard to the median longitudinal plane of symmetry of the highback.

Abstract: Element forming an inclined wedge, intended to be integrated with the front or rear end of the base plate of a snowboard binding, or directly with the upper face (5) of the snowboard, said element having an upper face (9) intended to receive the bearing forces of the front or rear end of the sole of the boot, and comprising means of adjusting the angle of inclination, measured in a longitudinal plane, between the upper face of the inclined wedge and the upper face of the snowboard, which element also comprises means (30, 31) capable of adjusting the longitudinal position of the upper face (9) of the wedge in relation to the base plate of the binding.

Abstract: Highback for a snowboard binding intended to come into contact with the rear part of the user's boot in order to withstand the back thrusts thereof, having a median longitudinal plane of symmetry, which has a stiffer region located asymmetrically with regard to the median longitudinal plane of symmetry of the highback.

Abstract: An interface element (10) used on a gliding board, said element being inserted between the sole (20) of the user's boot and the top side of the board (8) so as to take the thrust exerted toward the board by the user at least at the front end of the sole, and which comprises at least one zone (11, 12, 15) made of a thermoformable material capable, after exposure to heat, of matching the imprint of at least the front end (21) of the sole (20) of the boot so as to fill the volume between the top side (8) of the board and the sole of the boot (20).

Abstract: Interface plate (1) intended to be inserted between a snowboard binding and the upper face of a snowboard, and which comprises: