JP2013162912A - Snowboard boot - Google Patents

Abstract

PROBLEM TO BE SOLVED: To obtain a snowboard boot in which even when a wire (string) is tightened by the same fastening power, an angle (hardness) in which a leg at slide can be inclined forward can be adjusted by the change of a hanged position in the snowboard boot that composes such that the position of a wire (string) hanger to an upper can be changed.SOLUTION: At least one hanger of two or more hangers disposed in a vertical direction includes a fixing position changing means that can move back and forth of the fixing position, and further the fixing position changing unit includes a bending controller of an upper body in the fixing position of the hanger at least.

Description

In particular, the present invention relates to a snowboard boot configured to fasten a cylindrical portion of the upper with a wire or a string, and to a snowboard boot having a structure capable of changing a position of the wire or the string in the cylindrical portion of the upper. It is.

Japanese Patent Application Laid-Open No. 2004-121284 is known as a conventional snowboard boot 1, and in the first to fourth embodiments of the known literature, for example, as shown in FIGS. 16 to 18 (first embodiment) A plurality of first string hooks 24 and 26 are arranged in front of the wing 23 of the soft type shell 22 from the back to the ankle, and the string 3 spanned between the first string hooks 24 and 26 is tightened. Thus, in the soft snowboard boot 1 for fixing the foot in the shell 22, the substantially belt-shaped press sheet 30 is provided at the approximate center and presses the ankle and forwards from both ends of the press portion 31. Left and right flap portions 32 extending toward the left side, and at least the pressing portion 31 extends from the side wall of the wing portion 23 on the left side of the shell 22 so as to surround the ankle. Is secured to the shell 22 in a curved state toward the side wall parts 22 (carapace body), the right and left flap portion 32, respectively, at least one second string hooking portion 40 is provided.

Note that the shell 22 is made of a flexible material such as main skin, synthetic leather, nylon fiber, etc., and in order to give rigidity, a core material is generally attached to the shell, and the pressing sheet 30 is flexible. Various materials such as cloth can be used, but a thin plastic sheet or the like having an appropriate rigidity that gives the shell the rigidity desired by the user is preferable, and the pressing sheet 30 has an appropriate rigidity. When the string 3 is stretched over the first or second string hooking portions 40 and 42 and the string 3 is tightened, moderate rigidity can be given to the shell.

According to the above configuration, when the string 3 is stretched over the first string hooks 24 and 26 and the string 3 is tightened, the left and right wing parts 23 of the shell 22 are pulled forward, so that the ankle The press part 31 which presses an ankle surrounding, ie, an ankle press area, becomes large. Therefore, since the pressing force 31 against the ankle when pulled by a certain amount of force is reduced, a weak fit is obtained.

On the other hand, when the string 3 is fastened over the second string hooks 40 and 42 provided on the left and right flaps 32 of the pressing sheet 30 and the string 3 is tightened, the pressing part fixed to the shell 22 Since 31 and the left and right wings 23 around it are locally pulled forward, the substantial ankle pressing area is reduced. As a result, since the pressing force against the ankle when pulled with a certain amount of force is increased, a stronger fit can be obtained.

Therefore, according to the above configuration, in the soft type snowboard boot 1, an extra boot is prepared or a separate reinforcing member is used by a very simple operation of changing the position where the string 3 is passed. The boot characteristics (fitness and rigidity) can be easily and freely adjusted.

Further, in the fifth and sixth embodiments of the known example, as shown in FIG. 19 (sixth embodiment), for example, in the boot 1, a position slightly behind the first tie portion 26, that is, the foot At the position on the calf side, a side upper hook 42a, a side middle hook 42b, and a side lower hook 42c (side hook 42 in the fifth embodiment) are arranged. The side upper hooks 42a, the side middle hooks 42b, and the side lower hooks 42c are fixed to the shell 22 by a method such as clamping or bonding. The string 3 is hooked to the first string hooking portion 26, the side upper hook 42a, the side middle hook 42b, and the side lower hook 42c.

The wing portions 23 of the shell 22 located behind the fixing portions of the side upper hooks 42a, the side middle hooks 42b, and the side lower hooks 42c are substantially ankle pressing regions. Then, the string 3 is hung on any one of the hooks 26 as the first strap hooks or the strap hooks of the side upper hooks 42a, the side middle hooks 42b, and the side lower hooks 42c as the second strap hooks. Thus, the boot characteristics (fit feeling and rigidity) can be increased or decreased, and the boot characteristics (fit feeling and rigidity) can be changed in eight ways. In any case, since only the side hook 42, the side upper hook 42a, the side middle hook 42b, and the side lower hook 42c are fixed to the shell 22, the manufacturing cost of the boot 1 can be reduced. it can.

Further, as another conventional snowboard boot 1, in Japanese Patent Laid-Open No. 09-252802, there is a full upper (upper part) at the front position of the upper main body, an inner boot is disposed inside the snowboard boot, and a string Discloses a snowboard boot configured to secure a foot.

JP 2004-121284 A JP 09-252802

In the technology disclosed in the first to fourth embodiments of the conventional snowboard boot 1, the second string hooks 40 and 42 are provided on the pressing sheet 30 configured separately from the shell 22. There was a rising drawback.

Further, in the first to fourth embodiments of the conventional snowboard boot 1, when the string 3 is stretched over the first string hooks 24 and 26 and the string 3 is tightened, the pressing force on the ankle is reduced and weakened. When the cord 3 is stretched over the second cord hooking portions 40, 42 provided on the left and right flap portions 32 of the pressing sheet 30 and the cord 3 is tightened, the pressing force on the ankle increases and becomes stronger. In the configurations of Example 5 and Example 6, the case where the string 3 is stretched over the first string hanging part and the string 3 is coupled to the second string are described. Although it is not described how the fit changes when it is applied to the part, the definition of the fit itself is unclear, so when the applicant verified the pressing force against the ankle, the same tightening On the ankle when the string 3 is tightened with force It said such differences of the tightening force that was not observed.

The present invention relates to a snowboard boot configured to be capable of changing the fixing position of a wire (string) with respect to a shell (shell), even when the wire (string) is tightened with the same tightening force. It is an object of the present invention to obtain a snowboard boot capable of adjusting an angle (hardness) at which a foot can be tilted forward by sliding.

The present invention includes an upper body that is formed in the shape of the upper part of the foot, a front opening is formed on the upper part thereof, and a rising part having a substantially U-shaped cross section is formed, and the front opening of the upper body is covered. The outer part is composed of the front upper and the grounding part arranged at the lower part of the sole of the foot, and the foot is placed in the space in the snowboard boot surrounded by the upper body, the front upper and the grounding part. An inner part is disposed, and the inner part includes a front part that wraps at least a part of the toe part of the foot and the upper part, and a front part that has a front opening and a rising part having a substantially U-shaped cross section. It has a main body and a front inner part configured to cover the opening of the inner main body from the inside, has a string or wire passage, and is fixed to the surfaces of the left and right portions of the rising part of the upper body. A hanging tool, and through the hanging tool Alternatively, in a soft type snowboard boot having a fastening means for fastening a user's foot with a wire, the fixing position changing means capable of moving the fixing position of the hook relative to the upper body in the front-rear direction, and the fixing position The changing means includes a deflection control means for the upper body in the fixed position of the hanging tool.

Further, when the foot is fixed to the snowboard boot with the same tightening force by the tightening means, the angle at which the front inner can be inclined forward when the hanging tool is fixed to the rear side by the fixing position changing means. However, when the hanging tool is fixed to the front side by the fixing position changing means, it is configured to be larger than an angle at which the front inner can be tilted forward.

Further, the fixed position changing means is formed on the upper body of the upper body by arranging a plurality of holes formed in at least one of the left and right sides of the upper body toward the front and rear direction, and a rear surface of the upper body. Having a fixing means for fixing the hanging tool through at least one of the plurality of holes formed, the number of holes formed in the upper body in the front-rear direction, More than the number of holes of the upper body used when fixing the hanging tool at one place.

Further, a plurality of holes formed in the upper and lower directions in the upper body are also formed in the vertical direction, and the fixing position of the hanging tool is selectable in the front and rear and the upper and lower directions with respect to the upper body. It is characterized by being.

Further, the deflection control means of the upper body in the fixing position of the hanging device is configured by the rigidity of the hanging device and the fixing device of the hanging device that can move the upper body in the left-right direction. .

In the snowboard boot of the present invention, the fixing position changing means capable of moving the fixing position of the wire hanging tool at least in the front-rear direction with respect to the upper body has the same tightening force by having the deflection control means of the upper body. Even when the wire is tightened, the change in the position of the hook has the effect that the angle (hardness) at which the foot can tilt forward can be adjusted with certainty, and no more complicated structure is used. Therefore, there is almost no increase in cost.

Furthermore, since the snowboard boot of the present invention has a structure in which the fixing position of the hanging tool with respect to the upper body can be visually confirmed, the user can easily confirm the current setting state of the snowboard boot.

It is a right view of the state which set the hanging tool of 1st Example of this invention to the front side. It is a front view of the state which set the hanging tool of the 1st example of the present invention to the front side. It is a top view of the state which set the hanging tool of the 1st example of the present invention to the front side. It is AA sectional view taken on the line AA of FIG. 2 of 1st Example of this invention. It is a left view of the state which set the hanging tool of 1st Example of this invention to the front side. It is a right view of the state which set the hanging tool of 1st Example of this invention to the back side. FIG. 7 is an enlarged cross-sectional view taken along line BB in FIG. 6 of the first embodiment of the present invention. FIG. 8 is an exploded view of the part of FIG. 7 in the first embodiment of the present invention. It is CC sectional view enlarged view of FIG. 6 of 1st Example of this invention. FIG. 10 is a reference view of the first embodiment of the present invention in a state where the wire knob is removed from the hanging tool from the state of FIG. FIG. 2 is an enlarged sectional view taken along the line DD in FIG. 1 of the first embodiment of the present invention. It is explanatory drawing of the clamp | tightening state of the leg in the EE sectional view of FIG. 6 of 1st Example of this invention. It is explanatory drawing of the state which inclined the leg forward from the state of FIG. 12 of 1st Example of this invention. It is explanatory drawing of the clamp | tightening state of the leg in the FF sectional view of FIG. 1 of 1st Example of this invention. It is explanatory drawing of the state which inclined the leg forward from the state of FIG. 14 of 1st Example of this invention. It is a side view of the conventional snowboard boots It is the figure which looked at the principal part of the conventional snowboard boot of FIG. 16 from the outside. It is the figure which looked at the principal part of the conventional snowboard boot of FIG. 16 from the inside. It is the figure which looked at the principal part of other embodiments of the conventional snowboard boot from the outside.

Hereinafter, embodiments of the present invention will be specifically described with reference to the drawings. In the description of the present invention, the front refers to the toe direction when the user wears the snowboard boot 1, the front refers to the front side of the portion that holds the back and shin of the foot 2, and the left and right portions refer to the snowboard. The left and right side portions when the boot is viewed from the front, the left and right directions mean the left and right directions when the snowboard boot is viewed from the front. Further, the vertical direction means the vertical direction when the shoe sole of the snowboard boot is grounded, and the horizontal direction means the horizontal direction when the shoe sole of the snowboard boot is grounded.

FIG. 1 to FIG. 15 show an example of a preferred embodiment of the present invention. The front is formed along the toe of the foot 2 and the upper surface shape of the instep, and has a front opening 53 at the top and a cross section. An upper body 51 formed with a substantially U-shaped rising portion, a front upper 52 formed so as to close the front opening of the upper body 51 from the inside thereof, and disposed below the back of the foot 2 An outer peripheral portion is formed by the shoe sole 53, a lower end portion of the upper case body 51 is integrally bonded to a peripheral portion of the shoe sole portion 53, and a lower end portion of the front upper case 52 is attached to the upper portion of the upper case body 51. It is fixed to the inner surface of the upper body 51 by sewing at a position closer to the toe side (front side) than the front opening.

Further, the space inside the snowboard boot 1 surrounded by the upper body 51, the front upper 52 and the shoe sole 53 is made of a material that is more flexible than the upper main body 51 and the front upper 52. Formed (the surface is made of a nylon fiber or other skin, and a cushioning material such as urethane foam is placed inside, and a raised material is placed on the upper part of the inner surface. An inner boot 10 for holding the foot 2 is arranged, and the inner boot 10 has a front opening portion at the front portion and the upper portion of the toe portion and the upper portion of the foot 2 that wraps at least a part of the friend. The inner body 11 is formed with a rising portion having a substantially U-shaped cross section, and the front inner 12 is configured to cover the opening of the inner body 11 from the inside. The lower end of the toner 12 is fixed by sewing the portion of the toe side than the opening (front) of the inner body 11.

On the left and right parts of the upper body 51, three hanging portions 7 are arranged so that the fixing position can be changed by fixing position changing means, respectively, and the wire 8 (this embodiment) is arranged via the hanging tool 7. In this case, a fastening means for fastening the user's foot 2 with a metal wire is provided.

As shown in FIGS. 7 to 11, the fixing position changing means of the hanging tool 7 has three holes 54 formed in rows in the front and rear direction at equal intervals in the left and right parts of the upper body 51, respectively. Is formed with a wire passage portion 71 on the front surface and two bosses 72 having an outer diameter that can be inserted into the holes 54 and formed on the back surface at a pitch P that is equidistant from the plurality of holes 54. In a state where the boss 72 of the hanger 7 is inserted into the two adjacent holes 54 of the three holes from the surface of the upper body 51, the back surface of the upper body 51 is interposed through the reinforcing plate 73. Are fixed by screws 74. The material of the reinforcing plate 73 is desirably a material having high rigidity such as metal, but may be formed of a material other than metal such as resin as long as it is a cross-sectional shape that uses a material having high rigidity and is difficult to bend.

Since the bending rigidity at the hook fixing position of the upper body 51 is increased by the hook 7 and the reinforcing plate 73, the bending at the hook fixing position is limited. In addition, when a highly rigid material (metal, nylon, polyacetal, polycarbonate, resin containing glass, etc.) is used for the hanging tool 7 or when it is formed with a cross-sectional shape that is difficult to bend, the reinforcing plate 73 is not necessarily used. It is not necessary.

Further, three holes formed in a row in the front-rear direction on the left and right portions of the upper body 51 are also formed in five rows in the vertical direction, so that the hook 7 is fixed to the upper body 51. Is configured to be selectable up and down and left and right. A snowproof sheet 55 for preventing the entry of snow or the like is disposed on the inner surface of the upper body 51 where the hole 54 is formed.

In this embodiment, the fastening means for fastening the user's foot 2 with the wire 8 via the hook 7 is arranged at the upper left and right center of the front upper 52 and is configured to be able to wind the wire 8. The wire winding device 81 is used. The wire winding device 81 includes, for example, a winding drum having a latch mechanism that can rotate only in one direction, and a release mechanism for the latch mechanism. Such a wire winding device may use an existing mechanism. it can.

The wire passing portion 71 of the hook 7 may be formed in a tubular shape through which the wire 8 can be inserted, or a hook-shaped groove that can be detached from the side. In the present embodiment, of the three upper and lower hooks respectively fixed to the left and right upper body 51, the uppermost hook 7 is a hook-shaped hook that can be attached to and detached from the wire passage portion 71 from the side. The wire 7 can be easily removed from the uppermost hanging tool by using the hanging tool 7a in which the groove is formed and the wire knob 82 is inserted and arranged in the wire 8. When the fastening means is released, the forward movement of the front upper case 52 is facilitated, and workability when the foot 2 is attached to and detached from the snowboard boot 1 is improved. Furthermore, the other two hooks 7 can prevent the wire 8 from being inadvertently detached from the hook by using the hook 7b in which the wire passage portion 71 is formed in a tubular shape.

In the present invention, the upper body 51 and the front upper body 52 are each composed of a material whose surface is soft, such as a main skin, a synthetic leather, or a nylon fiber, and in order to give rigidity and flexibility, A core material is attached to the material of the surface, and the left and right portions of the outer surface of the front upper 52 are configured to contact the inner surface around the opening of the upper main body 51, and the wire is used in use. When the foot 2 is fixed to the snowboard boot by 8, the upper body 51 is pressed in the left-right direction by the left and right portions of the outer surface of the front upper 52, and at the same time, the foot 2 also passes through the inner boot 10. Since the amount of bending in the left-right center direction is controlled, the left and right portions of the upper body 51 are configured to be supported at four positions.

In use, when the fixing position of the hanging tool 7 is set to the rear side, and the foot 2 is fixed to the snowboard boot 1 by the wire 8 with a tightening force (tension T1), when the vehicle is not slid, FIG. As shown in FIG. 4, the upper body 51 and the front upper body 52 hold the foot 2 around the inner body 11 and the front inner 12 with a substantially uniform pressure, and the right and left according to the thickness of the foot 2. As shown in FIG. 13, when the straight line distance La1 between the deflection control means of the wire 8 and the length Sa1 of the wire between the deflection control means of the left and right wires are determined, and the foot 2 is tilted forward during sliding, When the shin portion of the foot 2 presses the front inner 12 forward toward the front upper 52, the front inner 12 is crushed and the distance between the shin and the front upper 52 approaches. 2 moves. At that time, the distance between the left and right of the front portion of the upper body 51 increases in accordance with the width of the foot 2 in the left-right direction, but the length Sa2 of the wire between the deflection control means of the left and right wires 8 does not change. As the curvature between the deflection control means of the left and right wires 8 decreases (approaches a straight line), the linear distance La2 between the deflection control means of the left and right wires 8 increases. It should be noted that a tension T2 is generated in the wire 8 due to the forward inclination of the foot 2, and the upper body 51 is pulled forward, so that the rear body 51 is rearranged while the entire body 51 is deformed. However, it moves in the direction of filling the inner space of the calf portion formed by the forward movement of the foot 2. At this time, the relationship of T1 <T2, Sa1 = Sa2, and La1 <La2 is established.

Further, when the fixing position of the hanging tool 7 is set to the front side during use and the foot 2 is fixed to the snowboard boot 1 with the tightening force (tension T1) by the wire 8, the state shown in FIG. As shown, the upper body 51 and the front upper body 52 hold the foot 2 around the inner body 11 and the front inner 12 with substantially uniform pressure, When the linear distance Lb1 between the deflection control means of the wire 8 and the length Sb1 of the wire between the deflection control means of the left and right wires are determined, and when the foot 2 is tilted forward during sliding, as shown in FIG. The shin portion of the foot 2 presses the front inner 12 forward toward the front upper 52 so that the front inner 12 is crushed so that the distance between the shin and the front upper 52 approaches the foot 2. Move. At that time, the distance between the left and right of the front portion of the upper body 51 is increased according to the width of the foot 2 in the left-right direction, but the length Sb2 of the wire 8 between the deflection control means of the left and right wires 8 does not change. As the curvature between the deflection control means of the left and right wires 8 decreases (approaches a straight line), the linear distance Lb2 between the deflection control means of the left and right wires 8 increases. In addition, tension T2 is generated in the wire by the forward inclination of the foot 2, and the upper body 51 is pulled forward so that the rear end of the upper body 51 is deformed while the entire body 51 is deformed. 2 moves in the direction of filling the inner space of the part of the calf formed by the forward movement. At this time, the relationship of T1 <T2, Sb1 = Sb2, and Lb1 <Lb2 is established.

And when the case where the fixing position of the hanging tool 7 is set to the rear side and the case where the fixing position of the hanging tool 7 is set to the front side are compared, the case where the fixing position of the hanging tool 7 is set to the rear side The wire length Sa1 between the deflection control means of the left and right wires 8 is larger than the wire length Sb1 between the deflection control means of the left and right wires when the fixing position of the hanging tool 7 is set to the front side. When the pitch 2 of the hole 54 formed in the upper body 51 is twice as long as the pitch P, the deformable region between the left and right wire deflection control means becomes longer, and the foot 2 is tilted forward when sliding. The distance between the left and right in the front portion of the upper body 51 can be easily increased. At this time, La1> Lb1, Sa1> Sb1, La2> Lb2, and Sa1 = Sb1 + 2P are satisfied.

With the above configuration, when the foot 2 is tilted forward under the same conditions, the wire tension T1 when not running and the wire tension T2 when the foot 2 is tilted forward when sliding, the rear position of the hook 7 is fixed. The angle at which the front inner 12 can be tilted forward when selected to the side is larger than the angle at which the front inner 12 can be tilted forward when the fixing position of the hook 7 is selected as the front side. growing.

Then, when the fixed position of the hanging tool 7 is selected as the rear side and the foot 2 is tilted forward, the degree of freedom of the foot 2 increases when the forward tiltable angle (movement amount) is increased. Since it has an effect like a “soft boot” in general, it is suitable for a sliding method in which a trick is performed when a soft snow surface such as powder is slid or the center of gravity is easily moved.

In addition, when the fixing position of the hanging tool 7 is selected as the front side and the angle (movement amount) that can be tilted forward when the foot 2 is tilted forward is reduced, the foot 2 is fixed more generally. Since it has the effect of a “hard boot”, it is suitable for sliding on a hard snow surface such as an ice-burn or when sliding at high speed.

In the present invention, for example, the fixing position of the left hanger 7 on the left side of the left foot 2 is selected as the front side, the fixing position of the right hanger 7 is selected as the rear side, and the left side of the right foot 2 When the fixing position of 7 is selected as the rear side and the fixing position of the right hanging tool 7 is selected as the front side, it has the effect of being hard on the outside and soft on the inside, so it has a certain high speed. It is suitable for a sliding method that performs tricks while sliding.

In the present invention, when the fixing position of the hanging tool 7 is moved downward as a whole, the movement of the foot 2 is not fixed at the upper part of the boot, so that the degree of freedom is increased. Snowboard boots can also be used on a daily basis.

In addition to the above, the fixing position of the hanging tool 7 can be freely changed according to preference. The fixing position changing means for the hanger 7 according to the present invention is not limited to the configuration of the present embodiment, and the number and shape of the holes 54 formed in the upper body 51 and the fixing of the hanger 7 to the upper body 51 are also described. The structure can be freely changed with reference to an existing component fixing structure. For example, when the hook 7 is fixed to the upper body 51, the upper used for fixing one position of the hook 7 is used. The number of the holes 54 formed in the main body 51 may be three or more, and it is used for fixing one place of the hanging tool 7 by using a detent means (such as a square hole) of the hanging tool 7. The number of the holes 54 formed in the upper body 51 may be asymmetrical on the left and right sides of the upper body 51. .

Further, in this embodiment, a metal wire is used for the wire 8, and the wire elongation with respect to the wire tensions T1 and T2 is substantially negligible (very small compared to the elongation and deformation of other snowboard boot constituent members). Although the configuration and principle of the case have been described, the wire 8 in the present invention is not limited to a metal, and a non-metallic wire (such as an aramid fiber wire) that is higher than a metal wire having an elongation rate may be used. In the case where the fixing position of the hanging tool 7 is set to the rear side and the case where the fixing position of the hanging tool 7 is set to the front side, the foot 2 is moved forward than the case where the metal wire is used. An angle (amount of movement) that can be tilted toward the tilted direction increases. (Softens boot characteristics)

The fastening means for fastening the user's foot 2 may be configured to bind the string 3 without using the wire 8 and the wire winding device 81 connected to the wire 8.

Furthermore, as another embodiment of the present invention, as the fixing position changing means of the hanging tool, it has lateral slide rails formed of a flexible material in the left and right positions of the upper body, respectively, Or it is good also as a structure which has the lock mechanism which can select arbitrarily the fixation member of the hanging tool with respect to the said slide rail while forming the fixing member of the rigidity with high rigidity.

INDUSTRIAL APPLICABILITY The present invention can be effectively used industrially as a snowboard boot capable of adjusting the angle (hardness) at which the foot 2 can tilt forward during sliding.

 1: Snowboard boot, 2: Foot, 3: String, 7, 7a, 7b: Hook, 8: Wire, 10: Inner boot, 11: Inner body, 12: Front inner, 20: Outer boot, 22: Shell , 23: Wing part, 24, 26: First string hook part, 30: Press sheet, 31: Press part, 32: Flap part, 40, 42: Second string hook part, 42a: Side upper hook, 42b : Side middle hook, 42c: Side lower hook, 51: Upper body, 52: Front upper part, 53: Shoe bottom, 54: Hole, 55: Snowproof sheet, 71: Wire passage part, 72: Boss 73: Reinforcing plate, 74: Screw, 81: Wire winding device, 82: Wire knob

Claims (5)

An upper body that is formed in the shape of the upper part of the foot, has a front opening at the upper part thereof, and has a rising portion having a substantially U-shaped cross section, and a front upper that covers the front opening of the upper body The outer periphery is constituted by the ground and the grounding portion arranged at the lower part of the sole of the foot,
An inner for holding a foot is disposed in a space portion in a snowboard boot surrounded by the upper body, the front upper and a grounding portion, and the inner envelops at least a part of the toe portion and the upper portion of the foot. An inner main body having a front opening at the upper portion thereof and a rising portion having a substantially U-shaped cross section, and a front inner portion configured to cover the opening of the inner main body from the inside,
A hook having a string or a wire passing portion and fixed to the surfaces of the left and right portions of the rising part of the upper body, and a fastening means for tightening a user's foot with the string or the wire via the hook In the soft type snowboard boots equipped,
Furthermore, a fixed position changing means capable of moving the fixed position of the hook relative to the upper body in the front-rear direction;
The snowboard boot characterized in that the fixing position changing means has a deflection control means of the upper body in the fixing position of the hanging tool. When the foot is fixed to the snowboard boot with the same tightening force by the tightening means,
When the hanging tool is fixed to the rear side by the fixing position changing means, the angle at which the front inner can be tilted forward is
When the hanging tool is fixed to the front side by the fixing position changing means, than the angle at which the front inner can be tilted forward,
The snowboard boot according to claim 1, wherein the snowboard boot is configured to be large. The fixing position changing means is formed on the upper body of the upper body and a plurality of holes formed in at least one of the left and right sides of the upper body toward the front-rear direction and the rear surface of the upper body. There is a fixing means for fixing the hanging tool through at least one of the plurality of holes, and the number of holes formed in the upper body in the front-rear direction is the number of the hanging holes. The snowboard boot according to claim 1 or 2, wherein the number of holes of the upper body used when fixing the tool in one place is larger. A plurality of holes formed in the upper and lower directions are formed in the upper and lower directions in the upper body, and the fixing position of the hanging tool is configured to be selectable in the front and rear and upper and lower directions with respect to the upper body. The snowboard boot according to claim 3 The bending control means of the upper body in the fixing position of the hanging device is configured by rigidity of the hanging device and the fixing device of the hanging device that can move the upper body in the left-right direction. Snowboard boot according to claim 3 or claim 4

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