A protective footwear includes a foot engagement portion, a lower-leg engagement portion, and a cable closure system. The lower-leg engagement portion defines a cable end interface and a buckle interface. The cable closure system is configured to facilitate at least partially securing the protective footwear to a leg of a wearer. The cable closure system includes a buckle assembly configured to releasably couple to the buckle interface and a cable extending between the cable end interface and the buckle assembly. The cable has a first end coupled to the cable end interface and an opposing second end coupled to the buckle assembly.

A functional shoe includes a sole, a functional part to provide a specific function to the functional shoe, a fixing part provided to fix the functional part; and a coupling part provided to be coupled to the fixing part, and directly or indirectly coupled to the sole, at an opposite side to a side coupled to the fixing part. The fixing part includes a fixing body provided to be coupled to the functional part, and a leg member formed to extend from the fixing body in a reference direction which is a direction facing the sole from the fixing body. The coupling part includes an insertion slot provided inside the coupling part to be open in a direction opposite to the reference direction such that the leg member is inserted into the insertion slot.

A ski boot includes a cuff and a lower shell mutually coupled to define a substantially rigid support structure, and a liner defined to receive the foot of a user positioned inside the rigid support structure. The support structure has first and second end portions mutually slidable between a first initial position and a second operative position so as to vary the configuration of the ski boot. The ski boot further includes a plurality of elements for the connection of the end portions, and a single lever that can be maneuvered by the user and is connected with the connection elements, so that the action of the lever allows the displacement of the first and the second end portions from the first to the second position. The single actuation lever can be selectively actuated by the user and is configured to act simultaneously on all connection elements.

A ski boot adjustment system includes an adjustment mechanism which tightens and loosens a portion of a ski boot, a triggering device that selectively actuates the adjustment mechanism, and a controller that monitors pressure in the portion of the ski boot during operation of the adjustment mechanism. A user can use the triggering device and adjustment mechanism to customize the fit of the ski boot in different regions thereof. The adjustment mechanism can include air bladders, automated motorized straps, or other tightening features. The triggering device can be a manually operated trigger on the ski boot or a remote computing device in wireless communication with the controller, such as a smartphone operable by the user, a transmitter within a ski mat onto which the user steps, or another form of transmitting device.

Adjustable and/or dual-suspension boot levers for hardshell boots, having upper parts and lower parts that rotate relative to one another, are disclosed, Adjustable boot levers disclosed herein are adjustable along a continuum or at one of a plurality of preset positions on a lever to provide a forward-lean angle customizable to a user's preferences. Dual-suspension boot levers provide fore-aft dampening and are also customizable by selection of appropriate elastic materials and properties for use in the forward-lean and backward-lean suspension devices. In some embodiments, adjustability and dual-suspension are combined in a boot lever design.

A binding apparatus for a snowboard is provided including a base plate having a pivot portion, an elongate arm member, and a cuff member for receiving a portion of a rider's boot or leg. The base plate may be affixed to the snowboard such that a boot may be coupled to a footbed thereof at an angle relative to the lateral axis of the snowboard. The elongate arm member is pivotably coupled to the pivot portion of the base plate at a first end portion thereof, and the cuff member is coupled to the elongate arm member. The elongate arm member is configured to pivotably rotate about an axis of rotation of the pivot portion such that the elongate arm member and cuff member coupled thereto are capable of moving fore and aft of a lateral axis of a snowboard.

A cross-country skiing kit with a cross-country ski binding and with a cross-country ski boot, wherein the crosscountry ski binding, for articulated connection of a cross-country ski boot to a cross-country ski, is provided with a substantially unyielding binding main body which has a stand surface for a sole of the cross-country ski boot, with a holder device which has a seat for pivotable arrangement of the cross-country ski boot about a pivot axis extending in the transverse direction of the binding main body, with an elastically deformable resetting element for resetting the cross-country ski boot from an upwardly pivoted position in the direction of the stand surface of the binding main body, wherein at least one substantially unyielding elevation is provided on the stand surface of the binding main body, to the rear of the pivot axis in the longitudinal direction of the binding main body, with which elevation the sole of the cross-country ski boot in its unloaded state is arranged at a distance from the stand surface of the binding main body.

A boot form for a hockey skate is made of multiple plastic materials having different hardness properties, or different flexural moduli, and is formed via an injection-molding process or another similar process. One or more of the plastic materials may be reinforced with fibers of glass, carbon, aramid, or another stiffening material to strengthen one or more regions of the boot form. For example, pellets of a first plastic material having a flexural modulus of approximately 190 MPa (e.g., a polyamide elastomer block amide) may be injected into a mold to form a softer upper region of the boot form. And pellets of a second plastic having a flexural modulus of approximately 20,000 MPa (e.g., a Nylon 12 with long glass fibers) may be injected into the mold to form a stiffer lower region of the boot form. Additional skate components may then be attached to the boot form.

A ski boot, including an outer boot (200) and an inner boot (100); the outer boot (100) comprise a sole (110) and a vamp (120), the sole (110) being integral; the vamp (120) includes a right side portion (122) of the vamp and a left side portion (123) of the vamp, the right side portion (122) of the vamp and the left side portion (123) of the vamp being hinged on the sole (110) such that the same may rotate relative to the sole (110) between an open state and a closed state; the outer boot (100) further includes a locking device (130) and a locking wire (140); the locking wire (140) surrounds the vamp (120) at a plurality of locations on the vamp (120), may be buried in the locking device (130) so as to keep the right side portion (122) of the vamp and the left side portion (123) of the vamp in the closed state, and may be released from the locking device (130) to allow the right side portion of the vamp (122) and the left side portion of the vamp (123) rotate to the open state. Therefore, the ski boot may facilitate a skier putting on and taking off the outer boot (100).

A ski boot, including an outer boot (200) and an inner boot (100); the outer boot (100) comprise a sole (110) and a vamp (120), the sole (110) being integral; the vamp (120) includes a right side portion (122) of the vamp and a left side portion (123) of the vamp, the right side portion (122) of the vamp and the left side portion (123) of the vamp being hinged on the sole (110) such that the same may rotate relative to the sole (110) between an open state and a closed state; the outer boot (100) further includes a locking device (130) and a locking wire (140); the locking wire (140) surrounds the vamp (120) at a plurality of locations on the vamp (120), may be buried in the locking device (130) so as to keep the right side portion (122) of the vamp and the left side portion (123) of the vamp in the closed state, and may be released from the locking device (130) to allow the right side portion of the vamp (122) and the left side portion of the vamp (123) rotate to the open state. Therefore, the ski boot may facilitate a skier putting on and taking off the outer boot (100).