A skate having a skate boot with a non-lasted boot shell, the shell having a first non-lasted three-dimensional sub-shell and a second non-lasted three-dimensional sub-shell, the second sub-shell being interior to and adjoining the first sub-shell, the first sub-shell comprising a first material having a first density and the second sub-shell comprising a second material having a second density, the second density being less than the first density, the shell being shaped so as to have a heel portion, an ankle portion, a lateral portion, a medial portion, and a sole portion; and a ground-engaging assembly disposed on an underside of the skate. Additional sub-shells are possible. Methods of manufacturing the skate boot shell, including molding and build-up, are also disclosed.

Connecting device between a lower shell and a cuff of a ski boot, the ski boot comprising a lower shell, a cuff and a connecting device between the lower shell and the cuff, the connecting device comprising: a connecting ring configured to guide the cuff in rotation relative to the lower shell, a locking element that is movable between a first position and a second position, the locking element being able to prevent the connecting ring from rotating relative to the locking element when it is in its first position, a retaining element configured to retain the locking element in its first position.

A method of method of manufacturing customized inserts for a boot, such as a skate boot, that is at least partially thermoformable includes receiving numerical data corresponding to a tridimensional shape of a wearer’s foot, and manufacturing a medial side insert and a lateral side insert based on the tridimensional shape of the wearer’s foot. The medial side insert and the lateral side insert are shaped to be insertable into the boot with a core that is dimensioned to generally correspond to a foot size of the boot, with a medial internal surface of the medial side insert and a lateral internal surface of the lateral side insert abutting respective outer surfaces of the core.

The waterproof/breathable moisture transfer liner for a running and hiking shoe includes an inner liner selected from technically advanced fabrics which are carefully selected. A series of layers are provided outside the inner liner including foam material layers, breathable membranes, a supportive mesh or a moldable foam, and an outer shell fabric. The applicability of the liner to alpine, snowboard boots, cross country, hiking boots, protective gear and helmets, along with appropriate variations for each application.

A base is provided for a ski boot comprising a sole and an outsole element that is positioned in a predetermined position relative to a longitudinal axis (L). The outsole element is positioned on the sole by using two projections that are carried by one or other of the sole and the outsole element and that locate in holes or cavities defined by the other. Preferably, the projections are carried by the outsole element and locate in holes or cavities defined by the sole. The projections may be integrally formed with the outsole element or the sole. Alternatively, they may be formed by injected pins, rivets, fasteners, t-nuts, or screws.

Apparatus for the customization of footwear, in particular sports footwear, having an element made of thermoplastic material is provided. A method for the customization of footwear using the apparatus is also provided. The apparatus has a heating assembly, for heating the thermoplastic element above a predetermined threshold temperature, and a shaping assembly, for shaping the thermoplastic element while its temperature is above the threshold value, which assemblies are both carried by a common frame. Due to the fact that the heating assembly and the shaping assembly are carried by a single, common frame, it is possible to ensure proper heating and subsequent shaping of the element made of thermoplastic material.

Provided herein are various embodiments for a boot for releasable engagement with a binding having a downwardly facing ledge and a toe strap. The boot preferably contains a sole, a toe portion, and a heel portion. The boot preferably also contains a heel retaining device extending rearwardly from the heel portion of the boot and having an upwardly facing engagement surface at the top of the device which engages with the downwardly facing ledge of the binding to prevent vertical movement of the boot relative to the binding while allowing forward horizontal movement of the boot relative to the binding.

Provided herein are various embodiments for a boot for releasable engagement with a binding having a downwardly facing ledge and a toe strap. The boot preferably contains a sole, a toe portion, and a heel portion. The boot preferably also contains a heel retaining device extending rearwardly from the heel portion of the boot and having an upwardly facing engagement surface at the top of the device which engages with the downwardly facing ledge of the binding to prevent vertical movement of the boot relative to the binding while allowing forward horizontal movement of the boot relative to the binding.

An article of footwear includes a fitting system with an upper member that is supported by the upper and a strand guide that is supported by the sole structure. The strand guide is flexible and flexes in concert with the sole structure. The strand guide has a guide surface. The fitting system further includes a tensioning system with a flexible strand that is configured to bias the upper member toward the strand guide. The flexible strand has a first section coupled to the upper member and a second section extending through the sole structure. The second section abuts the guide surface. The second section is configured to slide across the guide surface as a result of flexure of the strand guide. The first section and the upper member are configured to move relative to the sole structure as a result of sliding of the second section across the guide surface.

An article of footwear includes a fitting system with an upper member that is supported by the upper and a strand guide that is supported by the sole structure. The strand guide is flexible and flexes in concert with the sole structure. The strand guide has a guide surface. The fitting system further includes a tensioning system with a flexible strand that is configured to bias the upper member toward the strand guide. The flexible strand has a first section coupled to the upper member and a second section extending through the sole structure. The second section abuts the guide surface. The second section is configured to slide across the guide surface as a result of flexure of the strand guide. The first section and the upper member are configured to move relative to the sole structure as a result of sliding of the second section across the guide surface.