JP2019171024A - Joint supporter and clothing - Google Patents

Abstract

To provide a joint supporter capable of achieving both of comfort in wearing and suppression of deviation.SOLUTION: There is provided a joint supporter comprising: a cylindrical supporter body which is attached to a portion including a joint of a wearer, and which has a joint support part for applying wearing pressure to the joint of the wearer; and an antislip member which is provided on at least a part of an axial end part on a body side of the wearer on an inner peripheral surface of the supporter body, in the antislip member, an integral value of adhesion force measured by a probe tack test using a probe having a diameter of 5 mm is 0.1 gf sec or greater and 50.0 gf sec or smaller, in which average wearing pressure on the axial end part on the body side of the wearer is lower than average wearing pressure on the joint support part.SELECTED DRAWING: Figure 1

Description

  The present invention relates to a joint supporter mounted on a knee, an elbow, or the like and a garment provided with the joint supporter.

Currently, various joint supporters such as knee supporters are known.
For example, in Patent Document 1, as a supporter that enables both the ease of movement of the wearer and the reduction of the burden on the inside of the knee joint in operation, the main body part covering the knee part is formed of a stretchable material. The body part is provided from the outside of the knee to the upper side of the knee via the front side above the knee, and the upper part of the tightening part having a higher tightening force than the body part, and the knee part from the outside of the knee to the front side of the knee. A supporter has been proposed that includes a lower tightening portion that is provided inward and downward and has a tightening force stronger than that of the upper tightening portion.

  Further, Patent Document 2 is a supporter having a displacement preventing function worn on an elbow, a knee joint part, or the like, and is formed by folding a belt-like supporter connected in a circular shape back and forth from the center of a half circumference. There has been proposed an anti-displacement supporter characterized in that the fastening direction of the fastening portion is different from that of the fastening portion by fixing the overlapping portion.

Furthermore, as a technique for preventing the deviation of the brace including the supporter, Patent Document 3 discloses a non-slip tape that is inserted between the brace to be worn and the body surface to prevent the brace from slipping. An anti-slip tape is proposed, which has a base material with a high coefficient of friction against the inner surface material on the surface facing the inner surface material, and is coated with a sticky viscoelastic material on the opposite surface of the base material. ing.
Further, Patent Document 4 proposes a work sock characterized in that a non-slip member is provided in a region excluding the toe portion region from the ball girth portion on the bottom surface for the purpose of obtaining a non-slip effect on the floor surface. Yes.

JP 2016-179140 A JP 2011-126519 A JP-A-5-146466 JP 2001-98401 A

  As a joint supporter, from the viewpoint of comfort at the time of wearing, an appropriate wearing pressure (that is, a tightening pressure by a joint supporter) is applied to a desired part (for example, a joint part such as a knee), while in other parts What has a relatively low pressure is desired. In particular, the end of the supporter on the wearer's torso will tighten the part away from the joint, from the viewpoint of reducing the discomfort such as pain caused by tightening and improving comfort during wearing, It is desirable to reduce the contact pressure at the end. However, if the pressure applied at the end is too low, the supporter may be easily displaced due to bending or stretching of the joint at the time of wearing.

Moreover, the method of suppressing the shift | offset | difference of the said supporter is provided by providing a non-slip | skid member in the internal peripheral surface of a supporter.
However, if an attempt is made to suppress slippage by providing a non-slip member, the unevenness on the inner peripheral surface of the supporter body formed by the anti-slip member directly contacts the wearer's skin, causing the wearer to feel uncomfortable or uncomfortable. May have.
Further, when the anti-slip member is provided on the inner peripheral surface of the supporter, especially when the anti-slip member contains a resin, the air permeability decreases, and the wearer may have a feeling of discomfort due to stuffiness. On the other hand, if the non-slip member has a plurality of convex dots in order to suppress a decrease in air permeability, the unevenness on the inner peripheral surface of the supporter body may impair the fit, and the wearer may feel uncomfortable. is there.

An object of the first and second aspects of the present invention is to provide a joint supporter that achieves both comfort during wear and suppression of displacement.
Moreover, the 3rd aspect of this invention aims at providing the supporter for joints which suppressed the uncomfortable feeling at the time of wear by a non-slip | skid member.
Moreover, the 4th aspect of this invention aims at providing the joint supporter which improved the feeling of fitting at the time of wear, suppressing a dampness.

  In order to achieve the above object, specific embodiments of the joint supporter and the garment of the present invention are as follows.

<1> A cylindrical supporter body that has a joint support portion that is attached to a site including a wearer's joint and applies pressure to the wearer's joint, and the inner surface of the supporter's body. The integrated value of the adhesive force measured by the probe tack test method using a probe having a diameter of 5 mm provided at at least a part of the axial end on the body side is 0.1 gf · sec or more and 50.0 gf · sec or less. An anti-slip member, and an average support pressure at an axial end on the wearer's torso side is lower than an average support pressure of the joint support portion.

<2> The joint supporter according to <1>, wherein a maximum value of the adhesive force of the anti-slip member measured by a probe tack test method using a probe having a diameter of 5 mm is 5 gf or more and 200 gf or less.
<3> The joint supporter according to <1> or <2>, wherein an average contact pressure at an end portion in the axial direction on the body side of the wearer is 0.5 kPa or more and 3.5 kPa or less.
<4> A cylindrical supporter body that has a joint support portion that is attached to a site including a wearer's joint and applies pressure to the wearer's joint, and of the inner circumference of the supporter body, the wearer's joint An anti-slip member having an Asker C hardness of 80 degrees or less provided on at least a part of the axial end portion on the trunk side, and the average pressure at the axial end portion on the trunk side of the wearer is Joint supporter lower than the average contact pressure of the joint support.
<5> The joint supporter according to <4>, wherein the anti-slip member has an Asker F hardness of 10 degrees or more.
<6> The integrated value of the adhesive force in the anti-slip member measured by a probe tack test method using a probe having a diameter of 5 mm is 0.1 gf · sec or more and 50.0 gf · sec or less <4> or <5> The joint supporter described in 1.
<7> The maximum value of the adhesive force in the anti-slip member measured by a probe tack test method using a probe having a diameter of 5 mm is 5 gf or more and 200 gf or less. <4> to <6> Joint supporter.
<8> Any one of <1> to <7>, wherein an average contact pressure at an end portion in the axial direction on the body side of the wearer is 0.16 times or more and 0.95 times or less than an average contact pressure of the joint support portion. The joint supporter according to claim 1.
<9> The total area of the anti-slip member with respect to the entire area of the anti-slip region provided with the anti-slip member on the inner peripheral surface of the supporter body is 5% or more and 95% or less <1> to <8>. The joint supporter according to any one of the above.

<10> The supporter body is provided closer to the wearer's torso than the joint support, and supports the body side of the joint relative to the joint, and the wearer than the joint support. A second support portion that is provided on the opposite side of the body and supports a portion on the opposite side of the body from the joint; and a first support portion that is provided at an axial end of the supporter body on the wearer's body side. And a second rubber part provided at an end portion in the axial direction on the side of the supporter body opposite to the body of the wearer, and the inner part of the first rubber part The joint supporter according to any one of <1> to <9>, wherein the anti-slip member is provided on at least a part of the peripheral surface.
<11> The joint supporter according to <10>, wherein an average contact pressure in the first support portion and the second support portion is lower than an average contact pressure in the joint support portion.
<12> The joint supporter according to <10> or <11>, wherein an average pressure of the first mouth rubber portion is lower than an average pressure of the first support portion.
<13> The joint supporter according to any one of <10> to <12>, wherein the average pressure of the second mouth rubber portion is lower than the average pressure of the second support portion.
<14> The total area of the non-slip member provided on the inner peripheral surface of the first rubber part relative to the area of the entire inner peripheral surface of the first rubber part is 15% or more and 80% or less < The joint supporter according to any one of 10> to <13>.

<15> The innermost end of the anti-slip member is in a position of +0.40 mm or less when the radial inner side of the supporter body is a positive value with respect to the innermost end of the supporter body. The supporter for joints as described in any one of 8>.
<16> The anti-slip member is provided at least in a portion other than the joint support portion on the inner peripheral surface of the supporter body, and an average in a region where the anti-slip member is provided in a portion other than the joint support portion. The joint supporter according to <15>, wherein the contact pressure is lower than the average contact pressure in the joint support portion.
<17> The joint supporter according to <15> or <16>, wherein an average pressure in the region where the anti-slip member is provided is 0.5 kPa to 3.5 kPa.
<18> The joint supporter according to any one of <15> to <17>, wherein the anti-slip member is provided in the supporter body via an adhesive layer.
<19> The joint supporter according to <18>, wherein an average thickness of the adhesive layer is equal to or greater than an average thickness of the anti-slip member.
<20> The joint supporter according to <18> or <19>, in which an average thickness of the adhesive layer is 0.05 mm or more and 1 mm or less.
<21> The anti-slip member according to any one of <15> to <20>, wherein the anti-slip member has contact cooling sensitivity.

<22> The surface along the inner peripheral surface of the supporter main body of the anti-slip member is a continuous handle having an opening, and includes a resin, for joints according to any one of <1> to <8> Supporter.
<23> The joint supporter according to <22>, wherein an opening ratio of the anti-slip member on a surface along the inner peripheral surface of the supporter body is 1% or more and 70% or less.
<24> The joint supporter according to <22> or <23>, in which the opening includes two or more kinds of openings having different shapes and sizes.
<25> The joint supporter according to any one of <22> to <24>, wherein an average thickness of the anti-slip member is 0.05 mm to 20 mm.
<26> The joint supporter according to any one of <22> to <25>, wherein the anti-slip member has a duro A hardness of 70 or less.
<27> The joint supporter according to any one of <22> to <26>, wherein the anti-slip member is a laminate.
<28> The joint supporter according to <27>, wherein the laminate is a laminate in which layers of different materials are laminated in a thickness direction.
<29> The joint supporter according to <27> or <28>, wherein the laminate is a laminate in which layers having at least one of a shape and a position of the opening are laminated in a thickness direction.
<30> The joint supporter according to any one of <22> to <29>, wherein the anti-slip member is a gravure print.

<31> The supporter body is provided closer to the wearer's torso than the joint support part, and supports the part on the torso side of the joint, and the wearer than the joint support part. A second support portion that is provided on the opposite side of the body and supports a portion of the supporter opposite to the body from the joint; Any one of <15> to <30>, further including a second rubber part provided at an end portion in the axial direction on the side of the supporter body opposite to the body of the wearer. Joint supporter described in 1.
<32> The joint supporter according to <31>, wherein an average contact pressure in the first support portion and the second support portion is lower than an average contact pressure in the joint support portion.
<33> Clothing provided with the joint supporter according to any one of <15> to <32>.

According to the joint supporter of the first aspect and the second aspect of the present invention, there is an effect that both comfort at the time of wearing and suppression of deviation can be achieved.
According to the joint supporter of the third aspect of the present invention, there is an effect that an uncomfortable feeling at the time of wearing by the anti-slip member is suppressed.
According to the joint supporter of the fourth aspect of the present invention, there is an effect that the fit feeling at the time of wearing is improved while suppressing stuffiness.

It is the schematic which shows the state with which the knee supporter which concerns on the 1st aspect and the 2nd aspect was worn. It is a figure which shows an example of arrangement | positioning of the anti-slip | skid member in the anti-slip | skid area | region of the knee supporter which concerns on a 1st aspect and a 2nd aspect. It is a figure which shows another example of arrangement | positioning of the anti-slip | skid member in the anti-slip | skid area | region of the knee supporter which concerns on a 1st aspect and a 2nd aspect. It is a figure which shows another example of arrangement | positioning of the anti-slip | skid member in the anti-slip | skid area | region of the knee supporter which concerns on a 1st aspect and a 2nd aspect. It is a figure which shows another example of arrangement | positioning of the anti-slip | skid member in the anti-slip | skid area | region of the knee supporter which concerns on a 1st aspect and a 2nd aspect. It is the schematic which shows the state with which it worn in an example of the knee supporter which concerns on a 3rd aspect. It is a figure which shows typically an example of 7-7 cross section in the knee supporter of FIG. It is a figure which shows typically another example of the 7-7 cross section in the knee supporter of FIG. It is the schematic which shows the state with which it wears in an example of the knee supporter which concerns on a 4th aspect. It is a figure which shows typically the planar view shape of the anti-slip | skid member of the knee supporter of FIG. It is a figure which shows typically the planar view shape of the non-slip | skid member in another example of the knee supporter which concerns on a 4th aspect. It is a figure which shows typically an example of the 13-13 end surface in the knee supporter of FIG. It is a figure which shows typically the end surface of the surface containing the axis | shaft of a supporter main body in an example of the supporter for knees concerning a 4th aspect. It is a figure which shows typically the end surface of the surface containing the axis | shaft of a supporter main body in an example of the supporter for knees concerning a 4th aspect. It is a figure which shows typically the end surface of the surface containing the axis | shaft of a supporter main body in an example of the supporter for knees concerning a 4th aspect. It is a figure which shows typically the end surface of the surface containing the axis | shaft of a supporter main body in an example of the supporter for knees concerning a 4th aspect. It is a figure which shows typically the end surface of the surface containing the axis | shaft of a supporter main body in an example of the supporter for knees concerning a 4th aspect.

  Embodiments according to the present invention will be described below.

In the present specification, a numerical range represented using “to” means a range including numerical values described before and after “to” as a lower limit value and an upper limit value.
Further, in the present specification, the “axial direction of the cylindrical supporter main body” refers to the axial direction of the cylindrical shape when the shape of the cylindrical supporter main body is maintained in the cylindrical shape. In the present specification, the “axial direction of the cylindrical supporter body” may be simply referred to as “axial direction”. The “axial direction” in the present specification is a direction sometimes referred to as “vertical direction” in the technical field of knee supporters, and can also be referred to as a direction in which a leg is inserted into a cylindrical supporter body.

Moreover, in this specification, "the circumferential direction of a cylindrical supporter main body" points out the circumferential direction when maintaining the cylindrical shape of the shape of a cylindrical supporter main body. In the present specification, the “circumferential direction of the cylindrical supporter body” may be simply referred to as “circumferential direction”. The “circumferential direction” in the present specification is a direction sometimes referred to as “lateral direction” in the technical field of knee supporters.
Furthermore, in this specification, “the radial direction of the cylindrical supporter body” refers to a direction from the axial center position of the cylindrical supporter body toward the outer peripheral side when the shape of the cylindrical supporter body is maintained in the cylindrical shape. In the present specification, the “radial direction of the cylindrical supporter body” may be simply referred to as “radial direction”. The “radial direction” in the present specification is a direction intersecting (orthogonal) with the axial direction.

In the present specification, the patella side of the leg may be referred to as “front” or “front surface”, and the popliteal portion (so-called knee back) side of the leg may be referred to as “back surface” or “rear surface”. There is.
Further, in this specification, the direction on the hip joint side when viewed from the patella is sometimes referred to as “upper”, and the direction on the heel side when viewed from the patella is sometimes referred to as “lower”.

  Further, in this specification, the value obtained by subtracting the average pressure B from the average pressure A (that is, the value of the average pressure A−the average pressure B) is expressed as “pressure difference [average pressure A−average pressure B”. The value obtained by subtracting the average pressure B1 from the average pressure A (that is, the value of the average pressure A−the average pressure B1) is expressed as “pressure difference [average pressure A−average pressure B1]”. The value obtained by subtracting the average pressure B2 from the average pressure A (that is, the value of the average pressure A−the average pressure B2) is referred to as “pressure difference [average pressure A−average pressure B2]”. There is.

≪First aspect≫
[Joint supporter]
The joint supporter according to the first aspect is a cylindrical supporter body that has a joint support portion that is attached to a part including the joint of the wearer (hereinafter also referred to as “joint part”) and applies pressure to the joint of the wearer. And an anti-slip member provided on at least a part of the axial end portion on the wearer's body side of the inner peripheral surface of the supporter body.
And the average contact pressure of the axial direction edge part in a wearer's trunk | drum side is lower than the average contact pressure of the said joint support part.
Further, the integral value of the adhesive force of the anti-slip member by the probe tack test method using a probe having a diameter of 5 mm is 0.1 gf · sec or more and 50.0 gf · sec or less.

Here, the “joint part” refers to a part that is located outside the joint when the joint is bent and covers a part or the whole of at least one of the tendon and the ligament.
Examples of the “joint” include knee joint, elbow joint, metacarpophalangeal joint, interphalangeal joint, proximal interphalangeal joint, distal interphalangeal joint, radial carpal joint, and hip joint.
Among them, in particular, a higher effect can be obtained by mounting a joint supporter on joints such as a knee joint, an elbow joint, and a radial carpal joint.

In these joint parts, the wearer's torso (i.e., part including the chest and abdomen) side is thicker than the opposite side of the torso and has a part thicker than the joint on the torso side of the joint and the opposite side of the torso, The bending range (bending angle) of the joint is large. Therefore, the supporter body worn at these joint sites is easily bent because the joint is bent and the axial end of the supporter body is pulled toward the axial center.
On the other hand, when the pressure applied to the end of the supporter body in the axial direction is increased, the displacement is suppressed, but the wearer may feel uncomfortable feelings such as pain and numbness by strongly tightening the part away from the joint. In other words, from the viewpoint of comfort at the time of wearing, it is desirable to reduce the pressure applied at the end in the axial direction of the supporter main body. difficult.

Therefore, as a result of the study by the present inventors, the average applied pressure at the axial end on the wearer's body side is made lower than the average applied pressure at the joint support part, and the integrated value of the adhesive force on the inner peripheral surface thereof It has been found that by providing a non-slip member in the above range, both comfort during wear and suppression of displacement can be achieved.
According to the joint supporter according to the first aspect, since the average pressure at the axial end on the wearer's trunk side is lower than the average pressure at the joint support, discomfort due to tightening is suppressed. And since the non-slip | skid member whose integrated value of adhesive force is 0.1 gf * sec or more and 50.0 gf * sec or less is provided in the internal peripheral surface of the said edge part, the axial direction end in a wearer's trunk | drum side is provided. Even if the average wearing pressure of the part is lower than the average wearing pressure of the joint support part, the shift is suppressed while maintaining the feeling of support and fit. From the above, according to the joint supporter according to the first aspect, it is possible to achieve both the comfort during wearing and the suppression of deviation.

  Hereinafter, as a joint supporter according to the first aspect, a knee supporter used for a knee joint will be described as an example with reference to FIG. 1, but is not limited thereto.

<Basic configuration>
A basic configuration of the knee supporter 10 which is an example of the joint supporter according to the first aspect will be described.
FIG. 1 is a schematic view of the knee supporter 10 worn on a portion including the knee 14 of the leg 12 as viewed from the side.

As shown in FIG. 1, the knee supporter 10 includes a substantially cylindrical supporter body 20.
The supporter body 20 is provided on the wearer's trunk side with respect to the knee support portion 22 as a joint support portion for applying a pressure to the wearer's joint (that is, the knee), and on the wearer's torso side than the knee support portion 22. The thigh side support part 24 as a first support part for supporting the body side part, and the knee support part 22 are provided on the side opposite to the wearer's trunk, and the side opposite to the trunk from the wearer's knee. And a shin side support part 26 as a second support part for supporting the part.
Further, the supporter body 20 includes a thigh side rubber band portion 28 as a first mouth rubber portion provided at an end portion in the axial direction on the wearer's trunk side in the supporter body 20, and a wearer's trunk in the supporter body 20. And a shin side mouth rubber part 30 as a second mouth rubber part provided at the axial end of the opposite side.

Each of the knee support part 22, the thigh side support part 24, the shin side support part 26, the thigh side mouth rubber part 28, and the shin side mouth rubber part 30 is substantially cylindrical, and the supporter body 20 is The knee support part 22, the thigh side support part 24, the shin side support part 26, the thigh side mouth rubber part 28, and the shin side mouth rubber part 30 are integrated to form a substantially cylindrical shape.
The knee support portion 22 is a portion that supports the knee 14 as a joint and the knee back 14A as a rear side of the joint. Further, the thigh side support part 24 is a part that supports the thigh side as the trunk side with respect to the knee 14 of the leg 12, and the shin side support part 26 is the trunk with respect to the knee 14 of the leg 12. It is a part that supports the shin side as the opposite side.

The thigh-side mouth rubber part 28 is disposed on the side opposite to the knee support part 22 as viewed from the thigh-side support part 24 (specifically, the thigh-side end part of the supporter body 20). The portion 30 is disposed on the side opposite to the knee support portion 22 as viewed from the shin side support portion 26 (specifically, the end portion on the shin side of the supporter body 20).
In the supporter main body 20, the boundary lines of the respective parts do not necessarily have to be clear in appearance. Even when the boundary line of each part is not clear in appearance, the boundary line of each part can be distinguished by a difference in elongation rate between parts or a difference in knitting structure.

  As shown in FIG. 1, an anti-slip region 90 provided with an anti-slip member 90A is formed on the inner peripheral surface of the thigh side rubber band 28. Therefore, when the knee supporter 10 shown in FIG. 1 is worn on a bare foot, the anti-slip region 90 is applied to the surface (skin) of the thigh of the wearer's leg 12 while receiving pressure from the thigh side rubber band 28. The non-slip member provided in the contact. Thereby, it is suppressed that the thigh side rubber band portion 28 moves in the axial direction along the surface of the thigh.

FIG. 2 shows an example of the arrangement of the anti-slip members in the anti-slip region 90. In FIG. 2, the arrow A indicates the axial direction of the supporter body 20, and the arrow S indicates the circumferential direction of the supporter body 20. As shown in FIG. 2, in the anti-slip region 90, for example, a plurality of convex circular anti-slip members 90 </ b> A are arranged in a staggered pattern toward the axial direction and the circumferential direction of the supporter body 20. . A group of anti-slip members 90A arranged in a staggered pattern form a “rectangular” anti-slip region 90 having the same length in the circumferential direction on the axial center side and end side of the support body 20. Has been.
Thus, by arranging the plurality of anti-slip members 90A at intervals, the wearer's discomfort such as stuffiness is suppressed compared to the case where the anti-slip member is present in the entire anti-slip region, and the deviation is prevented. In addition to a high suppression effect, turning-up of the axial end of the supporter body 20 is also suppressed.

The shape of each of the anti-slip members 90A in plan view is not limited to the circular shape as shown in FIG. 2, but a double circular shape having a depressed central portion, a polygonal shape (for example, a triangle, a quadrangle, a pentagon, etc.) Various shapes such as star shape and wavy shape can be applied. From the viewpoint of workability of the non-slip member 90A and reduction of the wearer's discomfort, it is preferable that the shape of each anti-slip member 90A in plan view is circular.
The size of each anti-slip member 90A is not particularly limited, but is preferably 0.5 mm to 5.0 mm. The size of each anti-slip member 90A means the maximum length of each anti-slip member 90A. For example, in the case of a circle, it means the diameter. Area of each slip stopper 90A is not particularly ^limited, but is preferably a 0.02cm ² ~0.5cm 2.

In the case where the non-slip region 90 is formed by an array having a plurality of anti-slip members 90A, a region surrounded by a tangent line on the outer periphery of the group of anti-slip members 90A arranged with the above regularity. Let it be an “anti-slip area”.
In addition, the arrangement with regularity is a regular arrangement such as a staggered lattice arrangement and a regular arrangement as shown in FIG. Examples include sequences.
Moreover, the anti-slip | skid area | region 90 shown in FIG. 2 has the space | interval 90B where the anti-slip | skid member 90A is not formed over the whole circumferential direction. By having the interval 90B, for example, even when turning of the end portion starts to occur, the progress of the turning is inhibited by the interval 90B. The width d of the interval 90B is not particularly limited, but is preferably 0.1 mm to 10 mm from the viewpoint of turning-up progress inhibition and shift suppression.
Further, the anti-slip region 90 shown in FIG. 2 may have a predetermined interval (not shown) from the axial end of the supporter body 20. By having a predetermined interval from the axial end portion of the supporter body 20, it is possible to prevent the end portion from being turned up. In this case, the distance from the axial end of the supporter body 20 is not particularly limited, but is preferably 0.1 mm to 20 mm, more preferably 1 mm to 15 mm, from the viewpoint of inhibition of turning over and suppression of deviation. More preferably, it is 3 mm to 10 mm.

The total area of the anti-slip member 90A provided in the anti-slip region 90 is preferably 5% to 95%, more preferably 5% to 80%, with respect to the entire area of the anti-slip region 90. Preferably, it is 10 to 60%. The ratio of the total area of the anti-slip member to the entire area of the anti-slip region is in the above range, so that the effect of suppressing misalignment is higher than in the case where it is smaller than the above range, and stuffiness is suppressed as compared with the case where it is larger than the above range. The
When a plurality of anti-slip regions are formed in the thigh side rubber band 28, the “area of the entire anti-slip region 90” means the total area of the plurality of anti-slip regions, and the “anti-slip member 90A”. "Total area of" means the total area of the anti-slip member in the plurality of anti-slip regions.

Further, the total area of the anti-slip member 90A provided in the anti-slip region 90 is preferably 15% to 80% with respect to the entire area of the inner peripheral surface of the thigh side rubber band 28, 20% It is more preferably ˜70%, and further preferably 25% to 65%. The ratio of the total area of the anti-slip member to the area of the entire inner peripheral surface of the thigh-side mouth rubber portion 28 is in the above range, so that the effect of suppressing the deviation is higher than that in the case of being smaller than the above range, and is larger than the above range. Steaming is suppressed compared to the case.
The total area of the anti-slip member 90A is not particularly ^limited, but is preferably 5 cm 2 100 cm ^2, more preferably from 10cm ² ~80cm ^2, further preferably 20cm ² ~60cm 2.
The size and area of the anti-slip member 90A, the area of the anti-slip region 90, and the area of the entire inner peripheral surface of the thigh side mouth rubber part 28 are as follows. Is the value of

As described above, the anti-slip region 90 shown in FIGS. 1 and 2 has a “rectangular shape” in which the lengths in the axial direction center side and the end side of the support body 20 are equal. The shape of the anti-slip region is not limited to a rectangle, and for example, as in the anti-slip region 92 shown in FIG. 3, the length in the circumferential direction is short from the axial center to the end of the supporter body 20. It may be a “trapezoid”, may be another polygonal shape, and may have a curved shape such as a circle. Since the non-slip region 92 shown in FIG. 3 has a relatively shorter circumferential length from the center side in the axial direction of the supporter body 20 toward the end portion side, the end portion tends to be curled.
Further, for example, as shown in FIG. 4, a polygonal non-slip region 94 and a non-slip region 96 whose length in the circumferential direction increases or decreases from the axial center side to the end side of the supporter main body 20 in the circumferential direction. You may be parallel. Further, for example, as shown in FIG. 5, it may be a non-slip region 98 having a shape having a recess 98 </ b> C on the end side of the supporter body 20.

  In the knee supporter 10 shown in FIG. 1, the anti-slip region 90 is formed on the front surface side of the leg 12 in the inner peripheral surface of the thigh-side rubber part 28, but is not limited thereto. The non-slip region 90 may be formed, for example, on one or both of the front surface side and the rear surface side of the leg 12, or may be formed on one or both of the left side surface and the right side surface of the leg 12. May be formed intermittently at predetermined intervals, or may be formed continuously over the entire circumferential direction.

The length in the circumferential direction of the non-slip region 90 is preferably 15% or more, more preferably 20% or more, and more preferably 30% or more of the average circumference of the thigh-side mouth rubber portion 28 from the viewpoint of suppressing displacement. Further preferred. Further, the length of the anti-slip region 90 in the circumferential direction is preferably 85% or less, more preferably 70% or less of the average circumference of the thigh-side mouth rubber portion 28 from the viewpoint of maintaining the stretchability of the knee support 10. preferable.
Here, “perimeter” means the length of the supporter body 20 in the circumferential direction, and “average circumference of the thigh side rubber band 28” means the maximum circumference of the thigh side rubber band 28 and the thickness of the thigh side rubber band 28. It means an average value with the minimum circumference of the thigh side rubber part 28.
When a plurality of non-slip regions are formed in the circumferential direction of the thigh side rubber band 28, the “length in the circumferential direction of the anti-slip region 90” refers to the plurality of non-slip regions formed in the circumferential direction. Means the total length of
Further, when the length in the circumferential direction of the non-slip region 90 changes from the axial center side to the end side of the supporter body 20, the “length in the circumferential direction of the anti-slip region 90” is the longest value. Adopted.

  In addition, the anti-slip | skid area | region should just be formed in at least one part of the internal peripheral surface in the thigh side mouth rubber part 28 which comprises the axial direction edge part of the supporter main body 20. FIG. The anti-slip region may be formed on the entire inner peripheral surface of the thigh side rubber band 28. Further, the anti-slip region includes at least one inner peripheral surface of the knee support part 22, the thigh side support part 24, the shin side support part 26, and the shin side mouth rubber part 30 in addition to the thigh side rubber part 28. It may be formed at least partially. Specifically, for example, a non-slip region may be formed on the inner peripheral surface on the front side of the thigh side rubber part 28 and the front side of the thigh side support part 24. An anti-slip region may be formed on the inner peripheral surface of the front side and the front side of the shin side mouth rubber part 30. There may be one or a plurality of non-slip regions formed on the inner peripheral surface other than the thigh-side mouth rubber part 28.

<Anti-slip member>
The non-slip member is not particularly limited as long as the integral value of the adhesive force measured by the probe tack test method using a probe having a diameter of 5 mm is 0.1 gf · sec or more and 50.0 gf · sec or less. Absent. The integrated value of the adhesive strength is preferably 0.2 gf · sec to 40.0 gf · sec, more preferably 0.3 gf · sec to 30.0 gf · sec, and 0.5 gf · sec to 20 More preferably, it is 0.0 gf · sec.
When the maximum value of the adhesive strength is in the above range, the shift of the joint supporter is suppressed compared to the case where the maximum value is lower than the above range, and the sticker and stuffiness on the wearer's skin compared to the case where the maximum value is higher than the above range. The uncomfortable feeling accompanying such is suppressed and the comfort at the time of wearing improves.

The non-slip member preferably has a maximum adhesive strength of 5 gf to 200 gf, more preferably 10 gf to 150 gf, and still more preferably 20 gf to 100 gf.
When the integrated value of the adhesive strength is within the above range, the shift of the joint supporter is suppressed as compared with the case where the integrated value is lower than the above range, and the wearer's skin is less sticky or sultry than when the integrated value is higher than the above range. The uncomfortable feeling accompanying such is suppressed and the comfort at the time of wearing improves.

The maximum value and integral value of the adhesive force are measured under the following measurement conditions using a tacking tester (TAC-II, manufactured by Resuka Co., Ltd.). Specifically, while maintaining a stainless steel cylindrical probe having a diameter of 5 mm at 35 ° C., the anti-slip member is brought into contact with the contact surface with the wearer at a speed of 120 mm / min, and 30 gf (that is, 900 N / cm ² ). After applying the load of 60 seconds, the probe is peeled off at a speed of 600 mm / min in the vertical direction, and the maximum value and integral value of the resistance value (load value) that the probe receives due to the adhesive force at this time are measured. This measurement is performed for five anti-slip members, and the averaged values are taken as the maximum value and the integrated value of the adhesive force, respectively.

Examples of the material of the non-slip member include a resin, and specifically, for example, a silicone resin, an olefin resin, an acrylic resin, a urethane resin, a styrene resin, an amide resin, a carbonate resin, and the like. Can be mentioned.
Among these, a silicone-based resin is preferable as the material of the anti-slip member. The silicone resin is a resin having a siloxane structure. Examples of the silicone resin include silicone resins having a crosslinked structure.

The formation method of a non-slip | skid member is not specifically limited, It manufactures with the method suitable for the material of a non-slip | skid member.
Specifically, for example, when a non-slip member made of a silicone-based resin having a crosslinked structure is manufactured, a composition that becomes a silicone-based resin by heating is applied to the inner peripheral surface of the thigh-side mouth rubber portion 28. The method of heating later is mentioned. Examples of the composition include a composition containing a siloxane compound and a crosslinking agent. Moreover, as heating temperature, although it changes also with compositions of a composition, 80 to 150 degreeC is mentioned, for example.

In addition, when forming a non-slip member using the composition containing the siloxane compound and the cross-linking agent, for example, the adhesive force of the anti-slip member may be controlled by adjusting the amount of the cross-linking agent, the heating temperature, or the like. Good. As a quantity of the said crosslinking agent, 0.5 to 15 mass parts is mentioned with respect to 100 mass parts of siloxane compounds, for example.
Moreover, you may control the hardness and adhesive force of a non-slip | skid member by further mixing a filler with the composition containing a siloxane compound and a crosslinking agent.
The filler is not particularly limited, and examples thereof include calcium carbonate, talc, silica, clay, aramid fiber, carbon fiber (carbon fiber), graphite, ferrite, titanium oxide, magnesium oxide, zeolite, and activated clay.
When a composition contains a filler, as content of a filler, 1 mass% or more and 30 mass% or less are mentioned with respect to the whole composition, for example.

Further, the anti-slip member may be provided directly on the inner peripheral surface of the thigh side rubber band portion 28 or may be provided via another layer such as an adhesive layer. Examples of the adhesive layer include a layer obtained by curing a known adhesive.
It is desirable that the anti-slip member is fixed to the inner peripheral surface of the thigh side rubber band 28 so that it does not detach from the inner peripheral surface of the thigh side rubber band 28 in normal use.

<Supporter body>
In the knee supporter 10, the shape in plan view when the cylindrical supporter body 20 is flattened to have a substantially planar shape may be symmetric with respect to the axial direction or asymmetrical with respect to the circumferential direction. Or asymmetrical. The shape of the supporter body 20 in the above-described plan view may be a substantially rectangular shape or a partially curved shape.
Furthermore, the boundary line of the thigh side support part 24, the knee support part 22, and the shin side support part 26 included in the cylindrical supporter body 20 may be linear, curved, or wavy. There may be.

In the supporter body 20, for example, at least the thigh side support part 24, the knee support part 22, and the shin side support part 26 are continuously manufactured by circular knitting, and the whole structure is a seamless structure. . Thereby, the supporter 10 for knees produces the effect that the feeling of fitting at the time of wear improves more, without producing the sense of incongruity by the projection part formed of the seam. Furthermore, when the thigh side support part 24, the knee support part 22, and the shin side support part 26 are continuously manufactured by circular knitting, an effect that it is easy to ensure the elongation rate is also achieved.
The supporter body 20 may be manufactured by sewing the thigh-side mouth rubber part 28 to the thigh-side support part 24 and sewing the shin-side mouth rubber part 30 to the shin-side support part 26. Moreover, the knitting structure of the thigh side support part 24, the knee support part 22, and the shin side support part 26 may be knitted integrally or may not be knitted integrally. That is, the supporter main body 20 may be manufactured by separately manufacturing each part as a single member and then sewing each part.

Here, the seamless structure means an integrated structure having neither an axial seam (for example, a seam for forming a tubular shape by stitching) nor a circumferential seam (for example, a seam for sewing parts together). .
The whole seamless structure (the whole thigh side support part 24, the knee support part 22, and the shin side support part 26) can be formed, for example, by continuously manufacturing by circular knitting.

The material of the support body 20 includes polyester, polypropylene, polyurethane, polyolefin, polyolefin elastomer, polyamide, rayon, acrylic, cupra, acetate, promix, aramid, silicone, and other synthetic fibers; cotton, wool, silk, hemp, rayon, etc. Natural fiber; natural rubber; polyvinyl chloride; and the like.
Among them, polyester, polyurethane, polyamide, polyolefin, polyolefin elastomer, silicone, or natural rubber is preferable, and polyester, polyurethane, polyamide, polyolefin, or polyolefin elastomer is more preferable from the viewpoint of long-term durability.
Examples of the spinning of the support body 20 include monofilaments; multifilaments; SCY (Single Covering Yarn) coated with urethane or rubber; DCY (Double Covering Yarn) coated with urethane or rubber;

The knitting structure of the support body 20 includes a spiral tuck knitting structure, a mesh knitting structure, a three-dimensional knitting structure, a tricot knitting structure, a flat knitting structure, a rubber knitting structure, a lace knitting structure, an inlay knitting structure, a cut boss knitting structure, a deer knitting structure, Examples thereof include a rib knitted structure, a double-sided knitted structure, a float knitted structure, a non-run knitted structure, and a knitted structure formed by combining two or more knitting methods for forming these knitted structures.
As the knitting structure of the knee support part 22 having a high average pressure, the spiral tuck knitting structure, the mesh knitting structure, the tricot knitting structure, the flat knitting structure, the rubber knitting structure, the inlay knitting structure, the cut boss knitting structure, the deer knitting structure, and the rib knitting structure. A structure, a double-sided knitted structure, or a knitted structure formed by combining two or more knitting methods for forming these knitted structures is preferable.
Examples of the knitting structure of the thigh side support part 24 and the shin side support part 26 having a low average pressure are spiral tuck knitting structure, mesh knitting structure, three-dimensional knitting structure, honeycomb wave knitting structure, flat knitting structure, rubber knitting structure, and non-running structure. A knitted structure, a lace knitted structure, or a knitted structure formed by combining two or more knitting methods for forming these knitted structures is preferable.
As a knitting structure of the thigh side mouth rubber part 28 and the shin side mouth rubber part 30, a rubber knitting structure or a non-run knitting structure is preferable.

The cylindrical supporter body 20 (preferably, at least one of the thigh side support part 24 and the shin side support part 26) may include an uneven tissue region. The knee supporter 10 includes a concavo-convex tissue region composed of a concavo-convex tissue, thereby reducing skin stress.
Moreover, resin may be attached to the surface of the knitted structure of the supporter body 20. Examples of the method for applying the resin include spraying, transfer (for example, thermal transfer), resin impregnation, gravure printing, screen printing, rotary printing, thermocompression bonding, and adhesion. As the resin, an elastic resin is preferable.
Moreover, the supporter main body 20 may include other structures other than the knitted structure.
Examples of other structures include a structure containing neoprene rubber and a structure containing a neoprene rubber laminate.
Regarding the material, spinning, and knitting structure of the supporter main body 20, for example, JP2011-130784A, JP2007-9362A, JP2010-13765A, JP2000-1116697A, JP You may refer to well-known materials, spinning, and knitting structures described in Japanese Patent Application Publication No. 2007-54126.

Hereinafter, an example of the placement dimension of the supporter body 20 (that is, the dimension before extension) will be described.
Here, when measuring the placement dimension, the knee supporter 10 has a position corresponding to the center of the patella in the knee support portion 22 and a position corresponding to the center of the popliteal portion in the knee support portion 22. Lay it flat on a horizontal desk so that it is placed at both ends. Next, a 350 mm × 350 mm × 5 mm acrylic plate (for example, EX-001 manufactured by Mitsubishi Acrylite) is placed on the knee supporter 10, and each dimension is measured in this state.

Although the axial direction length of the knee support part 22 can be set suitably, 60 mm-200 mm are preferable from a viewpoint of a feeling of a support, a feeling of fit, and operation | movement followability.
The axial length of the thigh-side support portion 24 can be set as appropriate, but is preferably 30 mm to 200 mm from the viewpoints of a feeling of support, a feeling of fit, and motion followability.
Although the axial direction length of the shin side support part 26 can be set suitably, 30 mm-200 mm are preferable from a viewpoint of a feeling of support, a feeling of fit, and operation | movement followability.
Although the axial length of the thigh side rubber part 28 can be set as appropriate, it is preferably 10 mm to 80 mm, more preferably 20 mm to 70 mm, from the viewpoint of preventing the supporter body 20 from slipping.
Although the axial direction length of the shin side mouth rubber part 30 can be set as appropriate, it is preferably 10 mm to 80 mm and more preferably 10 mm to 60 mm from the viewpoint of preventing the support body 20 from being turned up.

The axial length of the entire supporter body 20 can be set as appropriate, but is preferably 140 mm to 760 mm, and more preferably 180 mm to 620 mm.
In addition, the axial length of the entire supporter body 20 is preferably, for example, a length such that, when worn, the upper end is below the hip joint and the lower end is above the heel. Can vary depending on the overall axial length of the supporter body 20.

The average circumference of the knee support portion 22 is preferably 100 mm to 300 mm, and more preferably 150 mm to 280 mm.
The average circumference of the thigh side support part 24 is preferably 100 mm to 400 mm, and more preferably 150 mm to 350 mm.
The average circumference of the shin side support portion 26 is preferably 100 mm to 350 mm, and more preferably 100 mm to 300 mm.
The average circumference of the thigh side rubber band 28 is preferably 180 mm to 350 mm, and more preferably 200 mm to 320 mm.
The average circumference of the shin side mouth rubber portion 30 is preferably 100 mm to 350 mm, and more preferably 120 mm to 300 mm.
Here, the axial length and the average circumferential length are values represented by the following formulas.
Axial length = (Maximum axial length + Minimum axial length) / 2
Average circumference = (maximum circumference + minimum circumference) / 2

<Pressure>
The average wearing pressure C1 of the thigh side mouth rubber part 28 is not particularly limited as long as it is lower than the average wearing pressure A of the knee support part 22, but for example, 0.5 kPa to 3.5 kPa can be mentioned, and 1.0 kPa to 3.0 kPa is preferable, and 1.0 kPa to 2.0 kPa is more preferable. When the average wearing pressure C1 is in the above range, the discomfort such as pain due to tightening is alleviated as compared to the case where the average pressure C1 is higher than the above range while maintaining a feeling of support and fit, and comfort when worn. Will improve. Further, in the knee supporter 10, for example, when a non-slip member having a maximum adhesive force in the above range is provided in the thigh-side mouth rubber part 28, even if the average wearing pressure C1 is in the above range, the shift is not caused. It is suppressed, and both the comfort at the time of wearing and the suppression of deviation are realized.

The average pressure C1 is preferably not less than 0.16 times and not more than 0.95 times the average pressure A of the knee support portion 22 from the viewpoint of achieving both comfort at the time of wearing and suppression of deviation. It is more preferable that it is not less than 2 times and not more than 0.80 times, and it is more preferable that it is not less than 0.35 times and not more than 0.60 times.
The average pressure C1 is preferably lower than the average pressure B1 of the thigh side support part 24 from the viewpoint of comfort during wearing. In addition, the average wearing pressure C1 is preferably 0.30 times or more and 0.98 times or less of the average wearing pressure B1, and 0.50 times or more and 0 or more, from the viewpoint of both comfort at wearing and suppression of deviation. The ratio is more preferably .95 times or less, and further preferably 0.60 times or more and 0.90 times or less.

-Measurement of pressure-
Here, measurement of the wearing pressure, clothing pressure measuring instrument (AMI Techno Co., Inc., AMI3037-10) worn by the mannequin a joint for supporters to ((Ltd.) Nanasai, product name "MD-20 _A") This is done by inserting a sensor at the location to be measured.
Specifically, when measuring the contact pressure in the knee supporter 10, the knee supporter 10 is worn on the portion of the mannequin including the knee. At this time, the knee support portion 22 covers the center and center of the knee (patella) of the mannequin and the positions of 30 mm from the thigh side and the shin side, and the thigh side support portion 24 is positioned from the center of the patella 100 mm from the thigh side. The tibial support portion 26 covers a position 100 mm from the center of the patella. Further, the thigh side rubber band 28 covers a position 150 mm from the center of the patella, and the shin side rubber band 30 covers a position 140 mm from the center of the patella.

  The average pressure C1 of the thigh side rubber band 28 is the clothing pressure on the front side, the rear side, the left side, and the right side of the leg 12 in the region corresponding to the thigh side rubber band 28. Is an averaged value. Specifically, for example, clothing pressure is measured at four locations on the front side, the rear side, the left side, and the right side in the circumferential direction at a position 150 mm from the center of the mannequin knee (patella). The average contact pressure C1 is obtained by averaging. The circumferential length (peripheral length) at a position 150 mm from the center of the mannequin knee (patella) to the thigh is 465 mm.

  The average wearing pressure A is a value obtained by measuring and averaging the clothing pressures on the front side, the rear side, the left side, and the right side of the leg 12 in the region corresponding to the knee support portion 22. Specifically, for example, the front side, the back side, the left side, and the right side in the circumferential direction at the center of the patella of the mannequin, and the thigh side 30 mm and the shin side 30 mm from the center of the patella on the front side of the leg The average pressure A is obtained by measuring and averaging the clothing pressure at a total of six locations. The peripheral length of the mannequin at the center of the patella is 360 mm, the peripheral length at a position 30 mm from the center of the patella is 370 mm, and the peripheral length at a position 30 mm from the center of the patella is 346 mm.

The average wearing pressure B1 is a value obtained by measuring and averaging the clothing pressures on the front side, the rear side, the left side, and the right side of the leg 12 in the region corresponding to the thigh side support portion 24. . Specifically, for example, measure and average the clothing pressure at four locations on the front side, the rear side, the left side, and the right side in the circumferential direction at a position of 100 mm from the center of the patella of the mannequin. Thus, an average pressure B1 is obtained. The circumference of the mannequin at the position of 100 mm from the center of the patella is 405 mm.
Similarly, the average pressure B2 of the shin side support part 26 described later is the clothing pressure on the front side, the rear side, the left side, and the right side of the leg 12 in the region corresponding to the shin side support part 26. It is the value measured and averaged. Specifically, for example, by measuring and averaging the clothing pressure at four locations on the front side, the rear side, the left side, and the right side in the circumferential direction at a position 100 mm from the center of the patella of the mannequin. Then, an average pressure B2 is obtained. The peripheral length of the mannequin at the position of 100 mm from the center of the patella is 367 mm.
The “average pressure B applied to the thigh side support portion 24 and the shin side support portion 26”, which will be described later, is the difference between the average pressure B1 applied to the thigh side support portion 24 and the average pressure B2 applied to the shin side support portion 26. Average.

  Moreover, the average pressure C2 of the shin side rubber part 30 described later is the clothing pressure on the front side, the rear side, the left side, and the right side of the leg 12 in the region corresponding to the shin side rubber part 30. Is an averaged value. Specifically, for example, by measuring and averaging clothing pressure at four locations on the front side, the rear side, the left side, and the right side in the circumferential direction at a position 140 mm from the center of the patella of the mannequin. Then, an average contact pressure C2 is obtained. The circumference of the mannequin at the position 140 mm from the center of the patella is 370 mm.

  In the knee supporter 10, the average pressure A of the knee support portion 22 and the average pressure B of the thigh side support portion 24 and the shin side support portion 26 satisfy the relationship of average pressure A> average pressure B. Is desirable. By satisfying the relationship of average pressure A> average pressure B (that is, the average pressure A of the knee support portion 22 is higher than the average pressure B of the thigh side support portion 24 and the shin side support portion 26), As a wearer's body sensation, a sense of support and a feeling of fitting to the legs 12 are increased. The reason for this is not clear, but by satisfying the relationship of the average pressure A> the average pressure B, the wearer wearing the knee supporter 10 is actually using the knee 14 supported by the knee support portion 22. This is considered to have a sense (ie, illusion) that is supported by a higher pressure than the average pressure A.

The pressure difference [average pressure A-average pressure B] is preferably 0.8 kPa or more, more preferably 1.0 kPa or more, and particularly preferably 1.2 kPa or more from the viewpoint of further improving the feeling of support and fit. .
On the other hand, the pressure difference [average pressure A-average pressure B] is preferably 3.5 kPa or less, more preferably 3.3 kPa or less, from the viewpoint of further improving comfort by suppressing excessive compression. 3.0 kPa or less is more preferable, 2.8 kPa or less is more preferable, and 2.5 kPa or less is particularly preferable.

The average pressure B is not particularly limited as long as it is 0 kPa or higher, but is preferably 0.1 kPa or higher, more preferably 0.5 kPa or higher, from the viewpoint of further improving the feeling of support and comfort. The above is more preferable.
The average pressure A is not particularly limited, but is preferably 1.5 kPa or more, more preferably 2.0 kPa or more, and 2.6 kPa or more from the viewpoint of further improving the feeling of support and comfort. More preferably it is.
The upper limit of the average pressure A is not particularly limited, but from the viewpoint of further improving comfort by suppressing excessive pressure, the average pressure A is preferably 10.0 kPa or less, and 8.0 kPa. The following is more preferable.

Further, in the knee supporter 10, from the viewpoint of further improving the feeling of support and fit to the leg 12, the average pressure A of the knee support portion 22 and the average pressure B1 of the thigh side support portion 24 are the average pressure. It is preferable to satisfy the relationship of A> average contact pressure B1, more preferably satisfy the relationship of average contact pressure A−average contact pressure B1 ≧ 0.8 kPa, and average contact pressure A−average contact pressure B1 ≧ 1.0 kPa. It is particularly preferable to satisfy the relationship.
Further, in the knee supporter 10, from the viewpoint of further improving the feeling of support and fit to the leg 12, the average pressure A of the knee support 22 and the average pressure B2 of the shin side support 26 are the average pressure A. > It is preferable to satisfy the relationship of average contact pressure B2, more preferably satisfy the relationship of average contact pressure A−average contact pressure B2 ≧ 0.8 kPa, and relationship of average contact pressure A−average contact pressure B2 ≧ 1.0 kPa. It is particularly preferable to satisfy

  The knee supporter 10 satisfies the relationship of average pressure A> average pressure B1 and satisfies the relationship of average pressure A> average pressure B2 from the viewpoint of particularly improving the feeling of support and fit to the legs 12. It is more preferable that the relationship of average pressure A−average pressure B1 ≧ 0.8 kPa is satisfied, and more preferable that the relationship of average pressure A−average pressure B2 ≧ 0.8 kPa is satisfied. It is particularly preferable that the relationship of the average contact pressure B1 ≧ 1.0 kPa is satisfied and the relationship of the average contact pressure A−average contact pressure B2 ≧ 1.0 kPa is satisfied.

The average pressure B1 is not particularly limited as long as it is 0 kPa or higher, but is preferably 0.1 kPa or higher, more preferably 0.5 kPa or higher, and 1.0 kPa from the viewpoint of further improving the feeling of support and comfort. The above is more preferable.
The average pressure B2 is not particularly limited as long as it is 0 kPa or more, but is preferably 0.1 kPa or more, more preferably 0.5 kPa or more, from the viewpoint of further improving the feeling of support and comfort. The above is more preferable.
The average pressure C2 is not particularly limited as long as it is 0 kPa or more, but is preferably 0.1 kPa to 5.0 kPa, more preferably 0.5 kPa to 4.0 kPa, from the viewpoint of further improving comfort and suppressing deviation. Is more preferable, and 0.8 kPa to 3.5 kPa is still more preferable.
In addition, it is preferable that average wearing pressure C2 is lower than average wearing pressure B2 from a viewpoint of the comfort at the time of wear. In addition, the average wearing pressure C2 is preferably 0.30 times or more and 0.98 times or less of the average wearing pressure B2, and preferably 0.50 times or more and 0 from the viewpoint of compatibility between comfort at wearing and suppression of deviation. The ratio is more preferably .95 times or less, and further preferably 0.60 times or more and 0.90 times or less.

<Others>
The knee supporter 10 may include other members other than the supporter main body 20 and the anti-slip member 90A as necessary.
As other members, for example, a rod-shaped support member (stay) provided at a position corresponding to the side of the knee 14 and protecting the knee 14 by appropriately controlling the movement of the knee 14; Fixing belts for fixing or improving the feeling of support; pockets, tags, and the like. These may be arranged separately from the supporter main body 20, or may be arranged integrally by being sewn to the supporter main body 20. The arrangement of the other members in the supporter body 20 is not particularly limited.

  As described above, the knee supporter 10 has been described as an example of the joint supporter according to the first aspect. However, as described above, the supporter for the joint according to the first aspect includes a supporter used for joints other than the knee. . In supporters used for joints other than knees, the preferred range such as the axial length of the joint supporter, the peripheral length, the area of the anti-slip region, the total area of the anti-slip member, etc. is the length and thickness of the wearing part. It becomes a corresponding value.

  The joint supporter according to the first aspect described above may correspond to the joint supporter according to the second aspect described later, or may correspond to the joint supporter according to the third aspect. It may be applicable to the joint supporter according to the fourth aspect.

The joint supporter according to the first aspect includes joint supporters having the following forms.
<A1> A cylindrical supporter body that has a joint support part that is attached to a site including a joint of the wearer and applies pressure to the wearer's joint, and the inner surface of the supporter's inner surface. The integrated value of the adhesive force measured by the probe tack test method using a probe having a diameter of 5 mm provided at at least a part of the axial end on the body side is 0.1 gf · sec or more and 50.0 gf · sec or less. An anti-slip member, and an average support pressure at an end portion in an axial direction on the wearer's body side is lower than an average application pressure of the joint support portion.
<A2> The joint supporter according to <A1>, wherein the maximum value of the adhesive force of the anti-slip member measured by a probe tack test method using a probe having a diameter of 5 mm is 5 gf to 200 gf.
<A3> The average pressure of the axial end on the wearer's torso side is 0.16 times or more and 0.95 times or less of the average pressure of the joint support portion, according to <A1> or <A2>. Supporter for joints.
<A4> The total area of the anti-slip member with respect to the entire area of the anti-slip region provided with the anti-slip member on the inner peripheral surface of the supporter body is 5% to 95% <A1> to <A3> The joint supporter according to any one of the above.
<A5> The supporter body is provided on the body side of the wearer with respect to the joint support portion, and a first support portion for supporting a portion on the body side of the joint, and the wearer rather than the joint support portion. A second support portion that is provided on the opposite side of the body and supports a portion on the opposite side of the body from the joint; and a first support portion that is provided on an axial end of the supporter body on the wearer's body side. And a second rubber part provided at an end portion in the axial direction on the side of the supporter body opposite to the body of the wearer, and the inner part of the first rubber part The joint supporter according to any one of <A1> to <A4>, wherein the anti-slip member is provided on at least a part of a peripheral surface.
<A6> The joint supporter according to <A5>, wherein an average pressure on the first support portion and the second support portion is lower than an average pressure on the joint support portion.
<A7> The joint supporter according to <A5> or <A6>, wherein an average pressure of the first mouth rubber portion is lower than an average pressure of the first support portion.
<A8> The joint supporter according to any one of <A5> to <A7>, wherein an average pressure of the second mouth rubber portion is lower than an average pressure of the second support portion.
<A9> The total area of the anti-slip member provided on the inner peripheral surface of the first rubber part relative to the area of the entire inner peripheral surface of the first rubber part is 15% or more and 80% or less < The joint supporter according to any one of A5> to <A8>.
<A10> The joint supporter according to any one of <A1> to <A9>, in which an average contact pressure at an end portion in the axial direction on the body side of the wearer is 0.5 kPa to 3.5 kPa.

≪Second aspect≫
[Joint supporter]
The joint supporter according to the second aspect is a cylindrical supporter body that has a joint support portion that is attached to a part including the wearer's joint (hereinafter also referred to as “joint part”) and applies pressure to the joint of the wearer. And an anti-slip member provided on at least a part of the axial end portion on the wearer's body side of the inner peripheral surface of the supporter body.
And the average contact pressure of the axial direction edge part in a wearer's trunk | drum side is lower than the average contact pressure of the said joint support part. The anti-slip member has an Asker C hardness of 80 degrees or less.

Here, the “joint part” refers to a part that is located outside the joint when the joint is bent and covers a part or the whole of at least one of the tendon and the ligament.
Examples of the “joint” include knee joint, elbow joint, metacarpophalangeal joint, interphalangeal joint, proximal interphalangeal joint, distal interphalangeal joint, radial carpal joint, and hip joint.
Among them, in particular, a higher effect can be obtained by mounting a joint supporter on joints such as a knee joint, an elbow joint, and a radial carpal joint.

In these joint parts, the wearer's torso (i.e., part including the chest and abdomen) side is thicker than the opposite side of the torso and has a part thicker than the joint on the torso side of the joint and the opposite side of the torso, The bending range (bending angle) of the joint is large. Therefore, the supporter body worn at these joint sites is easily bent because the joint is bent and the axial end of the supporter body is pulled toward the axial center.
On the other hand, when the pressure applied to the end of the supporter body in the axial direction is increased, the displacement is suppressed, but the wearer may feel uncomfortable feelings such as pain and numbness by strongly tightening the part away from the joint. In other words, from the viewpoint of comfort at the time of wearing, it is desirable to reduce the pressure applied at the end in the axial direction of the supporter main body. difficult.

Therefore, as a result of the study by the present inventors, the average pressure at the axial end on the wearer's body side is made lower than the average pressure at the joint support portion, and the Asker C hardness is on the inner peripheral surface thereof. It has been found that by providing an anti-slip member that is within the range, both comfort in wearing and suppression of misalignment can be achieved.
According to the joint supporter according to the second aspect, since the average pressure at the axial end on the wearer's body side is lower than the average pressure at the joint support, discomfort due to tightening is suppressed. And since the anti-slip | skid member whose Asker C hardness is 80 degrees or less is provided in the internal peripheral surface of the said edge part, the average pressure of the axial direction edge part in a wearer's trunk | drum side is the average of a joint support part. Even if the pressure is lower than the landing pressure, the deviation is suppressed. Specifically, although it is an estimated action, the non-slip member has an Asker C hardness within the above range, thereby suppressing discomfort associated with biting the skin into the wearer compared to a case where the non-slip member is higher than the above range. In addition, it is presumed that the deviation is suppressed by the adsorptivity to the skin to the wearer.
As described above, according to the joint supporter according to the second aspect, both the comfort at the time of wearing and the suppression of the shift are realized.

Hereinafter, as the joint supporter according to the second aspect, the knee supporter used for the knee joint will be described as an example with reference to FIG. 1 similarly to the first aspect, but the joint supporter is not limited thereto. Absent.
In the description of the knee supporter that is an example of the joint supporter according to the second aspect, the same members and the like as those of the knee supporter 10 that is an example of the joint supporter according to the first aspect described above have the same reference numerals. In some cases, explanations are given and duplicate explanations are omitted.

<Basic configuration>
The basic configuration of the knee supporter 10 that is an example of the joint supporter according to the second aspect is the same as the basic configuration of the knee supporter 10 that is an example of the joint supporter according to the first aspect described above. Therefore, the description is omitted.

<Anti-slip member>
The anti-slip member is not particularly limited as long as the Asker C hardness is 80 degrees or less.
The Asker C hardness is preferably 80 degrees or less, more preferably 75 degrees or less, further preferably 70 degrees or less, particularly preferably 63 degrees or less, extremely preferably 55 degrees or less, and most preferably 40 degrees or less. 30 degrees or less is even more preferable.
When the Asker C hardness is in the above range, as compared with a case where the Asker C hardness is higher than the above range, displacement of the joint supporter is suppressed, and discomfort associated with biting into the wearer's skin is suppressed. Comfort is improved.
In addition, if Asker C hardness is the above-mentioned range, a desired effect can be acquired, but Asker F hardness is good also as 10 degree | times or more, for example. The Asker F hardness is preferably 15 degrees or more, more preferably 20 degrees or more, and further preferably 25 degrees or more.
Moreover, when the Asker F hardness is in the above range, the shift of the joint supporter is suppressed as compared with the case where the Asker F hardness is lower than the above range. Specifically, although it is an estimated action, it is presumed that when the Asker F hardness of the anti-slip member is in the above range, the anchor effect is easily obtained compared to the case where the non-slip member is lower than the above range, and the deviation is suppressed. Is done.

Here, the above Asker C hardness is measured by using an Asker C type hardness meter (trade name: Asker rubber hardness meter C1L type, manufactured by Kobunshi Keiki Co., Ltd.) on a resin piece obtained by processing the anti-slip member 90A into a thickness of 3 mm. ) Is pressed and a load of 1000 g is applied. In addition, the said measurement is performed with respect to ten resin pieces, and let the average value be Asker C hardness.
The Asker F hardness is measured by using an Asker F-type hardness meter (trade name: Asker rubber hardness meter F type, high molecular instrument rubber) on a resin piece obtained by processing the anti-slip member 90A to a thickness of 25 mm or more. ) And measure the weight of the instrument as it is. In addition, the said measurement is performed with respect to ten resin pieces, and let the average value be Asker F hardness.

The anti-slip member preferably has an Asker C hardness in the above range, and a maximum adhesive strength measured by a probe tack test using a probe having a diameter of 5 mm is 5 gf to 200 gf. Moreover, it is preferable that the maximum value of the said adhesive force is 10gf-150gf, It is more preferable that it is 20gf-100gf, It is further more preferable that it is 30gf-80gf.
When the maximum value of the adhesive strength is in the above range, the shift of the joint supporter is suppressed compared to the case where the maximum value is lower than the above range, and the sticker and stuffiness on the wearer's skin compared to the case where the maximum value is higher than the above range. The uncomfortable feeling accompanying such is suppressed and the comfort at the time of wearing improves.
That is, the average pressure at the axial end on the wearer's body side is made lower than the average pressure at the joint support portion, and the Asker C hardness is in the above range on the inner peripheral surface. By providing a non-slip member having a maximum value in the above range, it becomes easier to realize both the comfort at wearing and the suppression of the shift.

The anti-slip member preferably has an integrated value of the above adhesive strength of 0.1 gf · sec to 50 gf · sec, more preferably 0.2 gf · sec to 30 gf · sec, and more preferably 0.3 gf · sec to More preferred is 15 gf · sec.
When the integrated value of the adhesive strength is within the above range, the shift of the joint supporter is suppressed as compared with the case where the integrated value is lower than the above range, and the wearer's skin is less sticky or sultry than when the integrated value is higher than the above range. The uncomfortable feeling accompanying such is suppressed and the comfort at the time of wearing improves.

  Since the method for measuring the maximum value and the integral value of the adhesive force is the same as the maximum value and the integral value of the adhesive force in the first aspect described above, the description thereof is omitted.

Examples of the material of the non-slip member include a resin, and specifically, for example, a silicone resin, an olefin resin, an acrylic resin, a urethane resin, a styrene resin, an amide resin, a carbonate resin, and the like. Can be mentioned.
Among these, a silicone-based resin is preferable as the material of the anti-slip member. The silicone resin is a resin having a siloxane structure. Examples of the silicone resin include silicone resins having a crosslinked structure.

The formation method of a non-slip | skid member is not specifically limited, It manufactures with the method suitable for the material of a non-slip | skid member.
Specifically, for example, when a non-slip member made of a silicone-based resin having a crosslinked structure is manufactured, a composition that becomes a silicone-based resin by heating is applied to the inner peripheral surface of the thigh-side mouth rubber portion 28. The method of heating later is mentioned. Examples of the composition include a composition containing a siloxane compound and a crosslinking agent. Moreover, as heating temperature, although it changes also with compositions of a composition, 80 to 150 degreeC is mentioned, for example.

When forming a non-slip member using a composition containing the above siloxane compound and a crosslinking agent, for example, the hardness and adhesive force of the anti-slip member are controlled by adjusting the amount of the crosslinking agent, the heating temperature, and the like. May be. As a quantity of the said crosslinking agent, 0.5 to 15 mass parts is mentioned with respect to 100 mass parts of siloxane compounds, for example.
Moreover, you may control the hardness and adhesive force of a non-slip | skid member by further mixing a filler with the composition containing a siloxane compound and a crosslinking agent.
The filler is not particularly limited, and examples thereof include calcium carbonate, talc, silica, clay, aramid fiber, carbon fiber (carbon fiber), graphite, ferrite, titanium oxide, magnesium oxide, zeolite, and activated clay.
When a composition contains a filler, as content of a filler, 1 mass% or more and 30 mass% or less are mentioned with respect to the whole composition, for example.

Further, the anti-slip member may be provided directly on the inner peripheral surface of the thigh side rubber band portion 28 or may be provided via another layer such as an adhesive layer. Examples of the adhesive layer include a layer obtained by curing a known adhesive.
It is desirable that the anti-slip member is fixed to the inner peripheral surface of the thigh side rubber band 28 so that it does not detach from the inner peripheral surface of the thigh side rubber band 28 in normal use.

<Supporter body>
Since the supporter main body 20 in the second aspect is the same as the supporter main body 20 in the first aspect described above, description thereof is omitted.

<Pressure>
Since the pressure applied to the knee supporter 10 in the second mode is the same as the pressure applied to the knee support 10 in the first mode described above, the description thereof is omitted.

<Others>
The other members that may be included in the knee supporter 10 in the second aspect are the same as the other members that may be included in the knee supporter 10 in the first aspect described above, and thus the description thereof is omitted. .

  As described above, the knee supporter 10 has been described as an example of the joint supporter according to the second aspect. However, as described above, the supporter for the joint according to the second aspect includes a supporter used for joints other than the knee. . In supporters used for joints other than knees, the preferred range such as the axial length of the joint supporter, the peripheral length, the area of the anti-slip region, the total area of the anti-slip member, etc. is the length and thickness of the wearing part. It becomes a corresponding value.

  The joint supporter according to the second aspect described above may correspond to the joint supporter according to the first aspect described above, and corresponds to the joint supporter according to the third aspect described later. May correspond to the joint supporter according to the fourth aspect.

The joint supporter according to the second aspect includes joint supporters having the following forms.
<B1> A cylindrical supporter body that is attached to a site including a wearer's joint and has a joint support portion that applies pressure to the wearer's joint;
An anti-slip member provided on at least a part of an axial end on the wearer's torso side of the inner peripheral surface of the supporter body, and having an Asker C hardness of 80 degrees or less,
A joint supporter in which an average contact pressure at an end portion in an axial direction on the body side of the wearer is lower than an average contact pressure of the joint support portion.
<B2> The joint supporter according to <B1>, wherein the anti-slip member has an Asker F hardness of 10 degrees or more.
<B3> The average contact pressure at the end portion in the axial direction on the wearer's torso is 0.16 times or more and 0.95 times or less than the average contact pressure of the joint support portion, as described in <B1> or <B2>. Supporter for joints.
<B4> The integrated value of the adhesive force in the anti-slip member measured by a probe tack test method using a probe having a diameter of 5 mm is 0.1 gf · sec or more and 50.0 gf · sec or less <B1> to <B3> The joint supporter according to any one of the above.
<B5> The maximum value of the adhesive force in the non-slip member measured by a probe tack test method using a probe having a diameter of 5 mm is 5 gf or more and 200 gf or less. <B1> to <B4> Joint supporter.
<B6> The total area of the anti-slip member is 5% to 95% with respect to the entire area of the anti-slip region provided with the anti-slip member on the inner peripheral surface of the supporter body. <B1> to <B5> The joint supporter according to any one of the above.
<B7> The supporter body is provided on the body side of the wearer with respect to the wearer's body relative to the joint support part, and the wearer rather than the joint support part. A second support portion that is provided on the opposite side of the body and supports a portion on the opposite side of the body from the joint; and a first support portion that is provided at an axial end of the supporter body on the wearer's body side. And a second rubber part provided at an end portion in the axial direction on the side of the supporter body opposite to the body of the wearer, and the inner part of the first rubber part The joint supporter according to any one of <B1> to <B6>, wherein the anti-slip member is provided on at least a part of the peripheral surface.
<B8> The joint supporter according to <B7>, wherein an average pressure applied to the first support portion and the second support portion is lower than an average pressure applied to the joint support portion.
<B9> The joint supporter according to <B7> or <B8>, wherein an average pressure of the first mouth rubber portion is lower than an average pressure of the first support portion.
<B10> The joint supporter according to any one of <B7> to <B9>, wherein an average pressure of the second mouth rubber portion is lower than an average pressure of the second support portion.
<B11> The total area of the anti-slip member provided on the inner peripheral surface of the first rubber part relative to the area of the entire inner peripheral surface of the first rubber part is 15% or more and 80% or less < The joint supporter according to any one of B7> to <B10>.

≪Third aspect≫
[Joint supporter]
The joint supporter according to the third aspect includes a cylindrical supporter body mounted on a part including the joint of the wearer (hereinafter also referred to as “joint part”), and an anti-slip provided on the inner peripheral surface of the supporter body A member.
The innermost end of the anti-slip member is at a position of +0.40 mm or less when the radial inner side of the supporter body is a positive value with respect to the innermost end of the supporter body.
Hereinafter, the value of the position of the innermost end of the non-slip member with respect to the innermost end of the supporter body when the radial inner side of the supporter body is a positive value is simply referred to as “the value of the innermost end position of the anti-slip member”. Sometimes called.

  Further, the value of the innermost end position of the anti-slip member may be +0.40 mm or less, and a negative value (that is, the innermost end of the anti-slip member is larger than the innermost end of the supporter member). It may be a form on the outside in the direction). For example, when the supporter body in the anti-slip member installation part is compressed, the innermost end of the supporter body in the non-slip member non-installation part is radially inward from the innermost end of the anti-slip member. The value of the innermost end position of the stop member is a negative value.

Here, the “joint part” refers to a part that is located outside the joint when the joint is bent and covers a part or the whole of at least one of the tendon and the ligament.
Examples of the “joint” include knee joint, elbow joint, metacarpophalangeal joint, interphalangeal joint, proximal interphalangeal joint, distal interphalangeal joint, radial carpal joint, and hip joint.
Among them, in particular, a higher effect can be obtained by mounting a joint supporter on joints such as a knee joint, an elbow joint, and a radial carpal joint.

  In these joint parts, the wearer's torso (i.e., part including the chest and abdomen) side is thicker than the opposite side of the torso and has a part thicker than the joint on the torso side of the joint and the opposite side of the torso, The bending range (bending angle) of the joint is large. Therefore, the supporter body worn at these joint parts is easily bent because the joint is bent and the axial end of the supporter body is pulled toward the axial center.

On the other hand, when trying to suppress slippage by providing a non-slip member on the inner peripheral surface of the supporter body, the irregularities on the inner peripheral surface of the supporter body formed by the anti-slip member are in direct contact with the wearer's skin, The wearer may feel uncomfortable or uncomfortable.
Specifically, for example, when a large number of dot-shaped convex anti-slip members are provided on the inner peripheral surface of the supporter body, the slip is suppressed by biting the anti-slip member into the wearer's skin, The wearer may feel the load due to the point pressure as uncomfortable. In addition, even when a non-slip member having a large area is provided so as to make one turn in the circumferential direction of the supporter body, the wearer may feel uncomfortable or uncomfortable because the anti-slip member bites into the wearer's skin.
Thus, it is difficult to achieve both suppression of displacement and suppression of discomfort when worn by the anti-slip member.

  On the other hand, in the joint supporter according to the third aspect, the anti-slip member is provided on the inner peripheral surface of the support body, and the value of the innermost end position of the anti-slip member is +0.40 mm or less. Therefore, the unevenness | corrugation in the internal peripheral surface of a supporter main body becomes loose, and the biting into a wearer's skin is suppressed. Thereby, both suppression of the shift | offset | difference by a non-slip | skid member and suppression of the uncomfortable feeling at the time of wear are implement | achieved.

Hereinafter, a knee supporter used for a knee joint will be described as an example of the joint supporter according to the third aspect, but the present invention is not limited to this.
In the description of the knee supporter that is an example of the joint supporter according to the third aspect, the same members and the like as those of the knee supporter 10 that is an example of the joint supporter according to the first aspect described above have the same reference numerals. In some cases, explanations are given and duplicate explanations are omitted.

<Basic configuration>
The basic structure of the joint supporter according to the present embodiment will be described using the knee supporter 110 as an example.
FIG. 6 is a schematic view of the knee supporter 110 worn on a portion including the knee 14 of the leg 12 as viewed from the side.

As shown in FIG. 6, the knee supporter 110 includes a substantially cylindrical supporter body 20.
The supporter body 20 is provided on the wearer's trunk side with respect to the knee support portion 22 as a joint support portion for applying a pressure to the wearer's joint (that is, the knee), and on the wearer's torso side than the knee support portion 22. The thigh side support part 24 as a first support part for supporting the body side part, and the knee support part 22 are provided on the side opposite to the wearer's trunk, and the side opposite to the trunk from the wearer's knee. And a shin side support part 26 as a second support part for supporting the part.
Further, the supporter body 20 includes a thigh side rubber band portion 28 as a first mouth rubber portion provided at an end portion in the axial direction on the wearer's trunk side in the supporter body 20, and a wearer's trunk in the supporter body 20. And a shin side mouth rubber part 30 as a second mouth rubber part provided at the axial end of the opposite side.

Each of the knee support part 22, the thigh side support part 24, the shin side support part 26, the thigh side mouth rubber part 28, and the shin side mouth rubber part 30 is substantially cylindrical, and the supporter body 20 is The knee support part 22, the thigh side support part 24, the shin side support part 26, the thigh side mouth rubber part 28, and the shin side mouth rubber part 30 are integrated to form a substantially cylindrical shape.
The knee support portion 22 is a portion that supports the knee 14 as a joint and the knee back 14A as a rear side of the joint. Further, the thigh side support part 24 is a part that supports the thigh side as the trunk side with respect to the knee 14 of the leg 12, and the shin side support part 26 is the trunk with respect to the knee 14 of the leg 12. It is a part that supports the shin side as the opposite side.

The thigh-side mouth rubber part 28 is disposed on the side opposite to the knee support part 22 as viewed from the thigh-side support part 24 (specifically, the thigh-side end part of the supporter body 20). The portion 30 is disposed on the side opposite to the knee support portion 22 as viewed from the shin side support portion 26 (specifically, the end portion on the shin side of the supporter body 20).
In the supporter main body 20, the boundary lines of the respective parts do not necessarily have to be clear in appearance. Even when the boundary line of each part is not clear in appearance, the boundary line of each part can be distinguished by a difference in elongation rate between parts or a difference in knitting structure.

  As shown in FIG. 6, an anti-slip member 190 </ b> A is provided on the inner peripheral surface of the thigh side rubber part 28. Therefore, when the knee supporter 110 shown in FIG. 6 is worn on a bare foot, the anti-slip member 190A is applied to the surface (skin) of the thigh of the wearer's leg 12 while receiving pressure from the thigh-side rubber part 28. Touch. Thereby, it is suppressed that the thigh side rubber band portion 28 moves in the axial direction along the surface of the thigh.

  In the knee supporter 110 shown in FIG. 6, a plurality of rectangular anti-slip members 190 </ b> A having long sides in the axial direction of the supporter body 20 and short sides in the circumferential direction of the supporter body 20 are arranged in the circumferential direction of the supporter body 20. Is arranged in.

  Note that the shape of each of the anti-slip members 190A in plan view is not limited to a rectangle as shown in FIG. 6, but a circle, a double circle with a depressed central portion, a polygon (for example, a triangle, a quadrangle, a pentagon, etc.), L Various shapes such as a letter shape, a star shape, a wavy shape, and a continuous pattern can be applied. Also, the size, area, etc. of each anti-slip member 190A are not particularly limited. Specifically, for example, a form in which small circular (that is, dot-shaped) anti-slip members are arranged in a staggered pattern can be used.

  In the knee supporter 110 shown in FIG. 6, the anti-slip member 190 </ b> A is provided on the front side of the leg 12 in the inner peripheral surface of the thigh side rubber part 28, but is not limited thereto. For example, the anti-slip member 190A may be provided on one or both of the front surface side and the rear surface side of the leg 12, or may be provided on one or both of the left side surface side and the right side surface side of the leg 12. May be provided intermittently at predetermined intervals, or may be provided continuously over the entire circumferential direction.

In the knee supporter 110 shown in FIG. 6, the anti-slip member 190 </ b> A is provided on a part of the inner peripheral surface of the thigh side rubber band 28 that constitutes the axial end of the supporter body 20. It is not restricted to this, You may provide in the whole inner peripheral surface in the thigh side rubber band part 28. FIG.
The anti-slip member 190 </ b> A is not limited to the thigh-side mouth rubber part 28, and the inner circumference of at least one of the knee support part 22, the thigh-side support part 24, the shin-side support part 26, and the shin-side mouth rubber part 30. It may be provided on the surface. However, from the viewpoint of suppressing displacement, it is preferable that the anti-slip member 190 </ b> A is provided at least on the inner peripheral surface of the thigh side rubber band 28, and the inner peripheral surface on the front side of the thigh side rubber band 28. It is more preferable that at least be provided.

FIG. 7 is a cross-sectional view taken along the line 7-7 in FIG. FIG. 7 is a schematic cross-sectional view obtained by cutting the thigh-side mouth rubber portion 28 of the knee supporter 110 shown in FIG. FIG.
As shown in FIG. 7, a film-like anti-slip member 190 </ b> A is provided in a concave portion formed by compression on the inner peripheral surface of the supporter body 20 via an adhesive layer 190 </ b> B. Therefore, a region where the anti-slip member 190A is not formed on the inner peripheral surface of the supporter main body is the innermost end 20P of the supporter main body. Further, since the anti-slip member 190A is film-like, the inner peripheral surface is flat, and the entire inner peripheral surface of the anti-slip member 190A is the innermost end 190P of the anti-slip member.

In FIG. 7, the innermost end 190P of the anti-slip member protrudes inward in the radial direction of the supporter body as compared to the innermost end 20P of the supporter body. That is, the radial distance from the outermost end of the supporter body 20 to the innermost end 190P of the anti-slip member is larger than the radial distance from the outermost end of the supporter body 20 to the innermost end 20P of the supporter body. Is longer. Therefore, the distance d ₁ from which the anti-slip member 190A protrudes (that is, the radial distance from the outermost end of the supporter body 20 to the innermost end 20P of the supporter body 20 and the outermost end of the supporter body 20 from the outermost end of the anti-slip member). The difference from the radial distance to the inner end 190P) is the “value of the innermost end position of the anti-slip member”. That is, the value of the innermost position of the slip stopper in the knee supporter 110 shown in FIG. 7 is a + d _1.

In the knee supporter 110 shown in FIG. 7, as described above, the innermost end 190P of the anti-slip member protrudes inward in the radial direction of the supporter body as compared with the innermost end 20P of the supporter body. However, the present invention is not limited to this.
Specifically, the innermost end 190P of the anti-slip member may be at the same height as the innermost end 20P of the supporter body without protruding, and as shown in FIG. 8, the innermost end of the anti-slip member 190P may be on the radially outer side of the supporter body as compared to the innermost end 20P of the supporter body. That is, the distance from the outermost end of the supporter body 20 to the innermost end 20P of the supporter body and the distance from the outermost end of the supporter body 20 to the innermost end 190P of the anti-slip member are the same length. Also good. Further, the distance from the outermost end of the supporter body 20 to the innermost end 190P of the anti-slip member may be shorter than the distance from the outermost end of the supporter body 20 to the innermost end 20P of the supporter body. .

Then, as shown in FIG. 8, if the innermost 190P slip member is radially outward relative to the innermost end 20P of supporter body distance d ₂ (i.e., from the outermost edge of the supporter body 20 When the difference between the radial distance to the innermost end 20P of the supporter body and the radial distance from the outermost end of the supporter body 20 to the innermost end 190P of the anti-slip member is d ₂ ), The value of the innermost end position of the stop member is −d ₂ .

  The value of the innermost end position of the anti-slip member is +0.40 mm or less, preferably +0.30 mm or less, and more preferably +0.20 mm or less from the viewpoint of suppressing a sense of discomfort when worn by the anti-slip member. Moreover, as a minimum of the value of the innermost end position of a non-slip | skid member, it is -2.00. mm or more, and from the viewpoint of suppressing displacement and suppressing discomfort during wearing, −0.50 mm or more is preferable, and −0.30 mm or more is more preferable.

Here, the value of the innermost end position of the anti-slip member is obtained as follows.
Specifically, a digital microscope (Axis Pro manufactured by Micro Support, zoom: 0.9) is used, and observation is performed at a magnification of 240 times. First, the Z-axis is set to the zero point by focusing on the apex of the region where the anti-slip member 190A is provided (that is, the innermost end 190P of the anti-slip member). Next, in the peripheral region, the highest position within the field of view of the fabric region of the supporter main body 20 where the anti-slip member 190A is not provided (that is, the innermost end 20P of the supporter main body in the non-slip member non-installation portion). The focus is adjusted and the moving distance of the focus (unit: μm, rounded down after the decimal point) is obtained.
From the above “focus movement distance”, in each measurement, the innermost end 20P of the supporter body is set to 0, and the inner side in the radial direction of the supporter body 20 is set to a positive value. Find the position value.
This measurement is performed at five points for one joint supporter (that is, five points in the region where the five anti-slip members 190A are provided, and the anti-slip member 190A is provided in the peripheral region). The average value is set as “the value of the innermost end position of the anti-slip member” in the joint supporter.
Hereinafter, each of the anti-slip member 190A, the adhesive layer 190B provided as necessary, and the supporter body 20 will be described in detail, and the reference numerals may be omitted.

<Anti-slip member>
The material of the anti-slip member is not particularly limited as long as it is a material that can provide an anti-slip effect, and examples thereof include a resin. Specific examples of the material of the anti-slip member include, for example, a silicone resin, an olefin resin, an acrylic resin, a urethane resin, a styrene resin, an amide resin, a carbonate resin, a thermoplastic polyurethane elastomer (TPU), and styrene. Based elastomers and the like.
Among these, the material of the non-slip member is preferably a silicone resin or an acrylic resin, and more preferably an acrylic resin.

When the anti-slip member is provided on the supporter body via the adhesive layer, the average thickness of the anti-slip member is 0.01 mm or more and 0.42 mm from the viewpoints of suppressing displacement, suppressing discomfort during wearing, and durability. The following is preferable, 0.02 mm to 0.40 mm is more preferable, and 0.03 mm to 0.40 mm is further preferable.
In addition, when the anti-slip member is provided directly on the supporter main body without an adhesive layer, the average thickness of the anti-slip member is 0.02 mm from the viewpoints of suppression of misalignment, suppression of discomfort during wearing, durability, and the like. It is preferably 1.00 mm or less, more preferably 0.03 mm or more and 0.95 mm or less, and further preferably 0.04 mm or more and 0.90 mm or less.
The average thickness of the anti-slip member is measured by the same method as the measurement of the innermost end position of the anti-slip member. Specifically, a step of focusing on the outermost end of the anti-slip member 190A instead of the step of focusing on the highest position within the field of view of the fabric region of the supporter body 20 where the anti-slip member 190A is not provided. The measurement is performed in the same manner as the measurement of the value of the innermost end position of the anti-slip member except that it passes. Then, the thickness of the observed anti-slip member is measured with respect to the three anti-slip members to obtain an average value. Specifically, for each anti-slip member, the thickness of the central part of the anti-slip member is measured, and the measurement is performed at three locations for one joint supporter (ie, three anti-slip members). The average value is defined as “average thickness of anti-slip member”.
The “outermost end of the anti-slip member 190A” means, for example, the interface between the adhesive layer and the anti-slip member 190A when the anti-slip member 190A is provided via an adhesive layer. When the anti-slip member 190A is provided directly, it means the interface between the supporter body 20 and the anti-slip member 190A.

In addition, when the anti-slip member is provided on the supporter body through the adhesive layer, the total average thickness of the anti-slip member and the adhesive layer is 0 from the viewpoints of suppression of misalignment, suppression of discomfort during wearing, durability, and the like. 0.05 mm or more and 1.00 mm or less is preferable, 0.06 mm or more and 0.95 mm or less is more preferable, and 0.07 mm or more and 0.90 mm or less is more preferable.
The total average thickness of the anti-slip member and the adhesive layer is measured by using a digital microscope to obtain a cross section cut by a razor or a cutter on the surface including the axis of the supporter main body 20 and the region where the anti-slip member 190A is provided. The zoom lens (VH-Z25) is set 50 times with (Keyence Corporation, stereomicroscope model number: VH-7000), and magnified and observed. A 15-inch monitor (Sony, CPD-15ES2) is used for image capture and thickness measurement.

The anti-slip member is preferably in the form of a film from the viewpoint of suppressing a sense of incongruity when worn, and more preferably the thickness is almost uniform throughout the anti-slip member.
Specifically, the difference between the maximum value and the minimum value of the thickness of the anti-slip member is preferably 50% or less, more preferably 40% or less, and more preferably 30% or less of the average thickness of the anti-slip member. More preferably.
The difference between the maximum value and the minimum value of the thickness of the non-slip member is the same as the measurement of the average thickness of the non-slip member. Find the difference from the value. And this measurement is performed with respect to one joint supporter at five locations (that is, five anti-slip members), and the average of the differences is expressed as “the maximum and minimum values of the average thickness of the anti-slip member”. Difference ”.

The method for forming the anti-slip member is not particularly limited, and the anti-slip member is manufactured by a method suitable for the shape and material of the anti-slip member.
Specifically, for example, in the case where a film-like anti-slip member is provided on the inner peripheral surface of the supporter body, after the film-like anti-slip member is formed on the base material in advance, the formed anti-slip member is placed inside the supporter body. There is a method of transferring to the peripheral surface. In transferring, pressure may be applied or heating may be performed.
A base material is not specifically limited, A resin film etc. are mentioned.
Moreover, as a method of forming a non-slip | skid member on a base material, the method of providing the anti-slip | skid composition used as a non-slip | skid member by heating on a base material, and heating is mentioned, for example. It is also possible to use a method of forming the anti-slip member on the substrate by gravure coating in which the anti-slip member is dissolved in a solvent and printed.

  When providing an anti-slip member on the inner peripheral surface of the supporter body via an adhesive layer, as will be described later, for example, an adhesive composition (for example, an adhesive described later) that becomes an adhesive layer by heating or the like is used. In that case, after applying the adhesive composition on the anti-slip member formed on the base material, the anti-slip member and the adhesive composition layer so that the adhesive composition layer contacts the inner peripheral surface of the supporter body. May be transferred to the inner peripheral surface of the supporter body and heated to form an adhesive layer. Further, after applying the adhesive composition to the inner peripheral surface of the supporter body, the adhesive layer may be formed by transferring the non-slip member on the substrate so as to contact the layer of the adhesive composition and heating. .

  The formation method of a non-slip | skid member is not limited to the said method, You may form directly on the internal peripheral surface of a supporter main body. Specifically, for example, the anti-slip member may be formed by applying an anti-slip composition to the inner peripheral surface of the supporter body and heating it. Alternatively, the anti-slip composition may be formed by dissolving the anti-slip composition in a volatile solvent, coating and drying. When an anti-slip member is provided on the inner peripheral surface of the support body through an adhesive layer, the anti-slip composition is applied to the inner peripheral surface of the support body through the adhesive composition, and the layer of the adhesive composition and the anti-slip composition are provided. The adhesive layer and the anti-slip member may be formed by heating in a state where the product layer is laminated.

It is preferable that the non-slip member has contact cooling sensitivity.
Here, “has contact cooling sensitivity” means that q-max measured by the following method is 0.1 W / cm ² or more.
Specifically, thermolab (KES-F7, manufactured by Kato Tech Co., Ltd.) is used as a measuring device, and in an environment where the room temperature is 25 ° C., the non-slip member adjusted to room temperature is placed on a heat insulating material such as polystyrene foam, A measurement member including a 3 cm square copper plate adjusted to be 10 ° C. higher than room temperature is placed on the upper part of the sample (that is, a non-slip member). Since the measuring member including the copper plate is 90 g, the pressure by the measuring member including the copper plate placed on the upper portion is 10 gf / cm ² . The peak apex in the time change of the heat transfer amount obtained by the measurement is defined as q-max. This test is performed three times and the average value is used.
Incidentally, the q-max is preferably 0.10 W / cm ² or more 0.80 W / cm ² or less, 0.15 W / cm ² or more 0.75 W / cm ² and more preferably less, 0.20 W / cm ² or more 0.70 W / cm ² or less is more preferable.

  The method for imparting contact sensibility to the anti-slip member is not particularly limited. For example, in addition to a method of adding a cooling agent to the anti-slip member, a method of providing a heat transfer layer between the anti-slip member and the supporter body, etc. Is mentioned.

The cooling sensation agent is not particularly limited as long as it has a low effect on the skin, and examples thereof include menthol, mint oil, peppermint, cineol, and menthyl lactate.
Although content of the cooling sensation agent in an anti-slip | skid member changes also with the kind of cooling sensation agent, 0.05 mass%-5 mass% are mentioned, for example.

  As a method of providing a heat transfer layer between the anti-slip member and the supporter main body, for example, an adhesive layer is provided only in a part between the anti-slip member and the supporter main body, and the anti-slip member and the supporter main body The method of providing the other partial cavity in between is mentioned. Accordingly, it is considered that the cooling sensation of the anti-slip member can be obtained by releasing heat together with the air in the cavity while adhering the anti-slip member to the supporter body. The heat transfer layer is not limited to the above-described cavity, and a layer having high thermal conductivity (for example, a metal layer) may be used. The metal layer may not be a single material layer, but may be a resin layer containing metal fibers. Moreover, you may provide contact cooling sensation by including a metal fiber in a non-slip | skid member. Furthermore, it is good also as a structure by which contact cooling sensation is acquired by the heat of vaporization at the time of transpiration | evaporation from skin by making at least one of a non-slip | skid member and an adhesion layer porous.

<Adhesive layer>
The anti-slip member may be provided directly on the supporter body, but from the viewpoint of the durability of the joint supporter (particularly the adhesion of the anti-slip member), it is desirable that the anti-slip member is provided on the supporter body via an adhesive layer. .
Here, the “adhesive layer” refers to a layer formed of a material different from that of the anti-slip member and contributing to adhesion between the anti-slip member and the supporter body. For example, when the anti-slip member itself has an adhesive force to the supporter main body and is provided directly on the supporter main body, it is a form without an adhesive layer.
The adhesive layer may be formed over the entire area between the anti-slip member and the supporter main body, and as long as the anti-slip member adhesion is obtained, as described above, the adhesive layer is interposed between the anti-slip member and the supporter main body. It may be formed in only a part of
In addition, the adhesive layer may be cured in a state where at least a part of the adhesive composition is soaked in the supporter body. That is, a part of the adhesive layer may also serve as a part of the supporter body.

  The adhesive layer is not particularly limited, and examples thereof include a cured layer of an adhesive used for a cloth or the like. Examples of the adhesive include a hot melt adhesive. Specific examples of the hot melt adhesive include resin adhesives such as vinyl acetate and polyvinyl alcohol; styrene-butadiene, styrene-isoprene, and the like. And rubber-based adhesives.

The average thickness of the adhesive layer is preferably 0.05 mm or more and 1.0 mm or less, more preferably 0.06 mm or more and 0.95 mm or less, and 0.07 mm from the viewpoints of suppressing displacement, suppressing discomfort during wearing, and durability. More preferably, it is 0.90 mm or less.
The average thickness of the adhesive layer is preferably 1 or more times the average thickness of the anti-slip member, and preferably 1 to 20 times from the viewpoint of durability (particularly the adhesion of the anti-slip member). More preferably, it is 1.25 times or more and 18 times or less.
The average thickness of the adhesive layer is measured by the same method as the measurement of the average thickness of the anti-slip member.

<Supporter body>
Since the supporter main body 20 in the third aspect is the same as the details of the supporter main body 20 in the first aspect described above, description thereof is omitted.

In the third aspect, the average thickness in the non-slip member non-installation portion of the supporter body is, for example, 0.30 mm or more and 3.00 mm or less, preferably 0.35 mm or more and 2.50 mm or less. 40 mm or more and 2.00 mm or less are more preferable.
On the other hand, the anti-slip member installation portion of the supporter main body may be compressed by pressure when the anti-slip member is installed. The average thickness in the non-slip member installation portion of the supporter body is, for example, 0.05 times or more and 1.00 times or less of the average thickness in the non-slip member installation portion of the supporter body, and is 0.10 times or more and 1.00 times. Is preferably 0.15 times or less and more preferably 0.15 times or more and 1.00 times or less. In addition, the average thickness in the anti-slip | skid member installation part of the said supporter main body is a value also including the area | region which doubled as the adhesive layer, when it has the adhesive layer hardened | cured in the state which the adhesive composition soaked in the supporter main body.
Here, the measurement of “average thickness in the non-slip member non-installation part of the support body” and “average thickness in the non-slip member installation part of the support body” are the same as the measurement of the total average thickness of the anti-slip member and the adhesive layer. This is done by the method and representatively for the part where the dough is not frayed. In addition, when the thickness changes regularly or irregularly due to weaving, etc., the average value of the thickest region and the thinnest region is obtained for three locations, and the average value of the three locations (rounded down after the decimal point) is calculated as “thickness” "
Specifically, the “average thickness in the anti-slip member installation portion of the support body” is a representative part near the center of the cross-section (for example, the anti-slip member in the cross section in which the total average thickness of the anti-slip member and the adhesive layer is measured). The outer fabric) is measured at one point, and the results of the measurement at three different locations are averaged. In addition, the “average thickness at the non-slip member non-installation portion of the supporter body” is the same cross section as the cross-section where the total average thickness of the anti-slip member and the adhesive layer is measured. The average value is obtained, and the average value at three different locations is further averaged.

<Pressure>
The average pressure C1 of the thigh side rubber part 28 is preferably lower than the average pressure A of the knee support part 22 that applies pressure to the wearer's knee, but for example, 0.5 kPa to 3.5 kPa. Is preferable, 0.6 kPa to 3.0 kPa is more preferable, and 0.7 kPa to 3.0 kPa is further preferable. When the average wearing pressure C1 is in the above range, compared to a case where the average wearing pressure C1 is higher than the above range, discomfort such as pain due to tightening and uncomfortable feeling are alleviated, and comfort at the time of wearing is improved. Further, in the knee supporter 110, since the anti-slip member 190A is provided in the thigh-side mouth rubber part 28, the deviation is suppressed even if the average wearing pressure C1 is within the above range, and the comfort and deviation during wearing are suppressed. Coexistence with suppression is realized.

The average pressure C1 is preferably not less than 0.16 times and not more than 0.95 times the average pressure A of the knee support portion 22 from the viewpoint of achieving both comfort at the time of wearing and suppression of deviation. It is more preferable that it is not less than 2 times and not more than 0.80 times, and it is more preferable that it is not less than 0.28 times and not more than 0.50 times.
The average pressure C1 is preferably lower than the average pressure B1 of the thigh side support part 24 from the viewpoint of comfort during wearing. In addition, the average wearing pressure C1 is preferably 0.30 times or more and 0.98 times or less of the average wearing pressure B1, and 0.50 times or more and 0 or more, from the viewpoint of both comfort at wearing and suppression of deviation. The ratio is more preferably .95 times or less, and further preferably 0.53 times or more and 0.85 times or less.

-Measurement of pressure-
The method for measuring the adhesion pressure in the third aspect is the same as the method for measuring the adhesion pressure in the first aspect described above, and thus the description thereof is omitted.

  In the third aspect, the magnitude relationship between the average pressure A and the average pressure B, the pressure difference [average pressure A-average pressure B], the value of the average pressure B, the value of the average pressure A, the average pressure Regarding the magnitude relationship between the pressure A and the average pressure B1, the magnitude relationship between the average pressure A and the average pressure B2, the value of the average pressure B1, and the value of the average pressure B2, respectively, In the embodiment, the relationship between the average pressure A and the average pressure B, the pressure difference [average pressure A-average pressure B], the value of the average pressure B, the value of the average pressure A, the average pressure A Since it is the same as the magnitude relationship with the average pressure B1, the magnitude relationship between the average pressure A and the average pressure B2, the value of the average pressure B1, and the value of the average pressure B2, description thereof will be omitted.

The average pressure C2 is not particularly limited as long as it is 0 kPa or more, but is preferably 0.5 kPa to 3.5 kPa from the viewpoint of further improving comfort and suppressing deviation, and 0.6 kPa to 3.0 kPa. Is more preferable, and 0.7 kPa to 3.0 kPa is still more preferable.
In addition, it is preferable that average wearing pressure C2 is lower than average wearing pressure B2 from a viewpoint of the comfort at the time of wear. Further, the average wearing pressure C2 is preferably 0.30 times or more and 0.98 times or less of the average wearing pressure B2 and 0.50 or more times and 0 or more from the viewpoint of compatibility between comfort at wearing and suppression of deviation. The ratio is more preferably .95 times or less, and further preferably 0.60 times or more and 0.93 times or less.

<Others>
The other members that may be included in the knee supporter 110 in the third aspect are the same as the other members that may be included in the knee supporter 10 in the first aspect described above, and thus the description thereof is omitted. .

  As described above, the knee supporter 110 has been described as an example of the joint supporter according to the third aspect. However, as described above, the supporter for the joint according to the third aspect includes a supporter used for joints other than the knee. . In supporters used for joints other than knees, the preferred range such as the axial length of the joint supporter, the peripheral length, the area of the anti-slip region, the total area of the anti-slip member, etc. is the length and thickness of the wearing part. It becomes a corresponding value.

[clothing]
The garment according to the third aspect is a garment including the joint supporter according to the third aspect described above.
According to the clothing concerning the 3rd mode, the same effect as the joint supporter concerning the 3rd mode mentioned above is produced.
The garment may be a garment including only the joint supporter (that is, a supporter), or may be a garment including the joint supporter as a part of the garment.

  Here, as a garment having a joint supporter as a part of the garment, bottoms such as spats, tights (for example, sports tights, compression tights, medical tights), girdle, pantyhose, leggings, trenka, leg warmers, etc. Bottoms for sports or inner); tops of underwear, shirts, compression shirts, etc .; socks; gloves; finger sack; bandages;

  In the garment, the joint supporter and a portion other than the joint supporter may be stitched or bonded by an adhesive. For example, the garment may be one in which a joint supporter and a portion other than the joint supporter are integrally and continuously manufactured by a round mesh, or a joint supporter may be superimposed on the inner surface or outer surface of the garment body.

  The joint supporter according to the second aspect described above may correspond to the joint supporter according to the first aspect described above, and corresponds to the joint supporter according to the second aspect described above. May be applicable, and may correspond to a joint supporter according to a fourth aspect described later.

The joint supporter according to the third aspect includes a joint supporter having the following form.
<C1> A cylindrical supporter body that is attached to a site including a wearer's joint and has a joint support portion that applies pressure to the wearer's joint;
An anti-slip member provided on the inner peripheral surface of the supporter body,
The joint supporter in which the innermost end of the anti-slip member is located at a position of +0.40 mm or less when the radial inner side of the supporter body is a positive value with respect to the innermost end of the supporter body.
<C2> The anti-slip member is provided at least in a portion other than the joint support portion on the inner peripheral surface of the supporter body,
The joint supporter according to <C1>, wherein an average contact pressure in a region where the anti-slip member is provided in a portion other than the joint support portion is lower than an average contact pressure in the joint support portion.
<C3> The joint supporter according to <C1> or <C2>, in which an average pressure in the region where the anti-slip member is provided is 0.5 kPa to 3.5 kPa.
<C4> The anti-slip member is the joint supporter according to any one of <C1> to <C3>, which is provided on the supporter body via an adhesive layer.
<C5> The joint supporter according to <C4>, wherein an average thickness of the adhesive layer is equal to or greater than an average thickness of the anti-slip member.
<C6> The joint supporter according to <C4> or <C5>, in which an average thickness of the adhesive layer is 0.05 mm to 1 mm.
<C7> The anti-slip member is the joint supporter according to any one of <C1> to <C6>, which has contact cooling.
<C8> The anti-slip member is any one of <C1> to <C7> provided on at least a part of an axial end portion on the wearer's trunk side of the inner peripheral surface of the supporter body. The joint supporter described in 1.
<C9> The supporter body is
A first support portion that is provided closer to the wearer's torso than the joint support and supports the torso side of the joint;
A second support portion that is provided on a side opposite to the wearer's torso from the joint support portion and supports a portion on the opposite side of the torso from the joint;
A first rubber band provided at an axial end on the wearer's torso side of the supporter body;
A second rubber band provided at an end portion in the axial direction on the opposite side of the body of the wearer in the supporter body;
The joint supporter according to any one of <C1> to <C8>, further comprising:
<C10> The joint supporter according to <C9>, wherein an average contact pressure in the first support portion and the second support portion is lower than an average contact pressure in the joint support portion.
<C11> A garment including the joint supporter according to any one of <C1> to <C10>.

<< Fourth aspect >>
[Joint supporter]
The joint supporter according to the fourth aspect is provided on a cylindrical supporter body mounted on a part including the joint of the wearer (hereinafter also referred to as “joint part”), and an inner peripheral surface of the supporter body. The surface along the inner peripheral surface is a continuous handle having an opening, and includes a non-slip member containing resin.

Here, the “joint part” refers to a part that is located outside the joint when the joint is bent and covers a part or the whole of at least one of the tendon and the ligament.
Examples of the “joint” include knee joint, elbow joint, metacarpophalangeal joint, interphalangeal joint, proximal interphalangeal joint, distal interphalangeal joint, radial carpal joint, and hip joint.
Among them, in particular, a higher effect can be obtained by mounting a joint supporter on joints such as a knee joint, an elbow joint, and a radial carpal joint.

  In these joint parts, the wearer's torso (i.e., part including the chest and abdomen) side is thicker than the opposite side of the torso and has a part thicker than the joint on the torso side of the joint and the opposite side of the torso, The bending range (bending angle) of the joint is large. Therefore, the supporter body worn at these joint parts is easily bent because the joint is bent and the axial end of the supporter body is pulled toward the axial center.

  On the other hand, when an attempt is made to suppress slippage by providing a non-slip member on the inner peripheral surface of the supporter body, particularly when the anti-slip member contains a resin, stuffiness occurs due to a decrease in air permeability, and the wearer becomes stuffy. May cause discomfort. In addition, in order to suppress deviation while suppressing a decrease in air permeability, for example, when a lot of dot-shaped convex anti-slip members are provided on the inner peripheral surface of the supporter main body, the convex portion on the inner peripheral surface of the supporter main body Wear pressure may be applied, the fit may be impaired, and the wearer may feel uncomfortable.

On the other hand, in the joint supporter according to the fourth aspect, the anti-slip member provided on the inner peripheral surface of the supporter main body is a continuous handle having an opening on the surface along the inner peripheral surface of the supporter main body. .
As described above, since the anti-slip member has the opening, the air permeability is ensured in the opening, thereby suppressing the stuffiness. And since the anti-slip member is a continuous handle, the pressure is dispersed by applying pressure to the entire surface of the anti-slip member that is a continuous handle, so that the wearer is supported by the entire surface of the anti-slip member. A feeling of fitting improves by feeling.
As described above, both suppression of stuffiness and improvement of fit when worn are realized.

Here, the “continuous pattern” is a region in which the anti-slip member is connected to the support member body along the inner peripheral surface of the supporter body, and the anti-slip member is connected to at least one direction without any break. It means that the entire area is 2.0 cm ² or more.
The area of the whole cut led without area means an area including the opening, preferably 2.0 cm ² or more 500 cm ² or less, 4.0 cm ² or more 450 cm ² or less being more preferred.

Hereinafter, the knee supporter used for the knee joint will be described as an example of the joint supporter according to the fourth aspect, but the present invention is not limited to this.
In the description of the knee supporter that is an example of the joint supporter according to the fourth aspect, the same members and the like as those of the knee supporter 10 that is an example of the joint supporter according to the first aspect described above have the same reference numerals. In some cases, explanations are given and duplicate explanations are omitted.

<Basic configuration>
The basic configuration of the joint supporter according to the present embodiment will be described using the knee supporter 210 as an example.
FIG. 9 shows a schematic view of the knee supporter 210 worn on a portion including the knee 14 of the leg 12 as viewed from the side.

As shown in FIG. 9, the knee supporter 210 includes a substantially cylindrical supporter body 20.
The supporter body 20 is provided on the wearer's trunk side with respect to the knee support portion 22 as a joint support portion for applying a pressure to the wearer's joint (that is, the knee), and on the wearer's torso side than the knee support portion 22. The thigh side support part 24 as a first support part for supporting the body side part, and the knee support part 22 are provided on the side opposite to the wearer's trunk, and the side opposite to the trunk from the wearer's knee. And a shin side support part 26 as a second support part for supporting the part.
Further, the supporter body 20 includes a thigh side rubber band portion 28 as a first mouth rubber portion provided at an end portion in the axial direction on the wearer's trunk side in the supporter body 20, and a wearer's trunk in the supporter body 20. And a shin side mouth rubber part 30 as a second mouth rubber part provided at the axial end of the opposite side.

Each of the knee support part 22, the thigh side support part 24, the shin side support part 26, the thigh side mouth rubber part 28, and the shin side mouth rubber part 30 is substantially cylindrical, and the supporter body 20 is The knee support part 22, the thigh side support part 24, the shin side support part 26, the thigh side mouth rubber part 28, and the shin side mouth rubber part 30 are integrated to form a substantially cylindrical shape.
The knee support portion 22 is a portion that supports the knee 14 as a joint and the knee back 14A as a rear side of the joint. Further, the thigh side support part 24 is a part that supports the thigh side as the trunk side with respect to the knee 14 of the leg 12, and the shin side support part 26 is the trunk with respect to the knee 14 of the leg 12. It is a part that supports the shin side as the opposite side.

The thigh-side mouth rubber part 28 is disposed on the side opposite to the knee support part 22 as viewed from the thigh-side support part 24 (specifically, the thigh-side end part of the supporter body 20). The portion 30 is disposed on the side opposite to the knee support portion 22 as viewed from the shin side support portion 26 (specifically, the end portion on the shin side of the supporter body 20).
In the supporter main body 20, the boundary lines of the respective parts do not necessarily have to be clear in appearance. Even when the boundary line of each part is not clear in appearance, the boundary line of each part can be distinguished by a difference in elongation rate between parts or a difference in knitting structure.

  As shown in FIG. 9, a non-slip member 290 </ b> A is provided on the inner peripheral surface of the thigh side rubber band portion 28. For this reason, when the knee supporter 210 shown in FIG. 9 is worn on the bare feet, the anti-slip member 290A is applied to the surface (skin) of the thigh of the wearer's leg 12 while receiving pressure from the thigh-side rubber part 28. Touch. Thereby, it is suppressed that the thigh side rubber band portion 28 moves in the axial direction along the surface of the thigh.

In the knee supporter 210 shown in FIG. 9, the anti-slip member 290A is provided on a part of the inner peripheral surface of the thigh-side mouth rubber portion 28 that constitutes the axial end portion of the supporter main body 20, It is not restricted to this, You may provide in the whole inner peripheral surface in the thigh side rubber band part 28. FIG.
Further, the anti-slip member 290A is not limited to the thigh-side mouth rubber part 28, but is an inner circumference of at least one of the knee support part 22, the thigh-side support part 24, the shin side support part 26, and the shin side mouth rubber part 30. It may be provided on the surface. However, from the viewpoint of suppressing deviation, it is preferable that the anti-slip member 290A is provided at least on the inner peripheral surface of the thigh side rubber band 28, and the inner peripheral surface on the front side of the thigh side rubber band 28. It is more preferable that at least be provided.

<Anti-slip member>
-Shape of anti-slip member-
FIG. 10 schematically shows a plan view shape of the anti-slip member 290A in the knee supporter 210 of FIG. The “planar shape” of the anti-slip member 290 </ b> A is a shape viewed from the inside in the radial direction of the supporter main body 20, and is a shape along the inner peripheral surface of the supporter main body 20. In FIG. 10, an arrow A indicates the axial direction of the supporter body 20, and an arrow S indicates the circumferential direction of the supporter body 20.
As shown in FIG. 10, in the anti-slip member 290 </ b> A, for example, a plurality of circular openings 290 </ b> B are arranged in a staggered pattern toward the axial direction and the circumferential direction of the supporter body 20.
And the anti-slip | skid member 290A which has the opening part 290B becomes the continuous pattern in which the whole was connected in the surface along the internal peripheral surface of the supporter main body 20 seamlessly.

The shape of each opening 290B is not limited to a circle as shown in FIG. 10, but a geometric shape such as a polygon (for example, a triangle, a quadrangle, or a pentagon), an L shape, a star shape, a wavy shape, or the like. In addition, organic shapes using curves, letters, logos, etc. can be applied. Further, like the anti-slip member 291A shown in FIG. 11, two or more kinds of openings (that is, the openings 291B and 291C) having different shapes may be provided.
Although the magnitude | size of each opening part 290B is not specifically limited, For example, 0.5 mm-15.0 mm are mentioned. The size of each opening 290B means the maximum length of each opening 290B. For example, in the case of a circle, it means a diameter. The area of each opening 290B is not particularly limited, for example, include 0.02cm ² ~2.0cm ^2.
Although not shown, the anti-slip member may have two or more types of openings having different sizes, and may have two or more types of openings having different shapes and sizes. The anti-slip member may have, for example, a square opening having a maximum length of 2.0 mm and a circular opening having a diameter of 15.0 mm, or a circular opening having a diameter of 1.0 mm and a diameter. It may have a 3.0 mm circular opening.

  The arrangement of the openings 290B in the anti-slip member 290A shown in FIG. 10 is a staggered lattice shape, but is not limited to this, and is not limited to this. May be a periodic array or the like, or an array having no periodic regularity. From the viewpoint of ease of manufacture of the anti-slip member 290A, it is preferable that the arrangement of the openings 290B has periodic regularity.

The opening ratio of the non-slip member 290A is preferably 1% or more and 70% or less, more preferably 5% or more and 65% or less, and more preferably 10% or more and 60% or less, from the viewpoint of suppression of stuffiness and the durability of the anti-slip member. preferable.
Here, the above “opening ratio” is the ratio of the total area of the opening 290B to the area of the region surrounded by the outer edge of the anti-slip member 290A that is a continuous pattern on the surface along the inner peripheral surface of the supporter body 20. Means.

The anti-slip member 290 </ b> A shown in FIG. 10 is continuously provided over the entire circumferential direction of the thigh-side mouth rubber portion 28 of the supporter body 20, but is not limited thereto, and only a part of the supporter body 20 in the circumferential direction is provided. May be provided. The length of the anti-slip member 290A in the circumferential direction of the supporter body 20 is preferably 10% or more and 100% or less of the average circumference of the thigh-side rubber part 28, and from the viewpoint of suppressing displacement, it is 12% or more and 100% or less. More preferably, it is 14% or more and 100% or less.
When the anti-slip member 290 </ b> A is provided only in a part of the supporter body 20 in the circumferential direction, it may be provided only at one place (for example, the front side of the leg 12) in the circumferential direction of the supporter body 20. For example, the front side and the rear side, the left side, and the right side of the leg 12 may be provided separately.
Here, “perimeter” means the length of the supporter body 20 in the circumferential direction, and “average circumference of the thigh side rubber band 28” means the maximum circumference of the thigh side rubber band 28 and the thickness of the thigh side rubber band 28. It means an average value with the minimum circumference of the thigh side rubber part 28.
Further, when the anti-slip member 290A is provided in a plurality of locations in the circumferential direction of the thigh side rubber part 28, the above-mentioned “length of the anti-slip member 290A in the circumferential direction” is formed in the circumferential direction. It means the total length of the plurality of anti-slip members 290A.

The length of the anti-slip member 290A in the axial direction of the supporter body 20 is, for example, 10% or more and 100% or less, and 12% or more and 100% or less with respect to the axial length of the thigh side mouth rubber portion 28. Preferably, 14% or more and 100% or less is more preferable.
Also in the axial direction of the supporter main body 20, the anti-slip member 290A may be provided only at one place, or may be provided separately at a plurality of places.
When the anti-slip member 290A is provided in a plurality of locations in the axial direction of the thigh-side rubber part 28, the “length of the anti-slip member 290A in the axial direction” is a plurality of It means the total length of the anti-slip member 290A.
The shape of the region surrounded by the outer edge in the plan view of the anti-slip member 290A is not particularly limited, and examples thereof include a rectangle and a trapezoid.

FIG. 12 is an end view taken along line 13-13 in FIG. FIG. 12 is a schematic view of an end face obtained by cutting the thigh-side mouth rubber portion 28 of the knee supporter 210 shown in FIG. 9 along a plane that includes the axis of the supporter main body 20 and includes the region where the anti-slip member 290A is provided. FIG.
As shown in FIG. 12, in the thigh side mouth rubber part 28 of the knee supporter 210, a non-slip member 290 </ b> A is directly provided on the inner peripheral surface of the supporter body 20. And in the opening part 290B of the anti-slip | skid member 290A, the internal peripheral surface of the supporter main body 20 is exposed, and the stuffiness is suppressed by it.
In the knee supporter 210 shown in FIG. 12, the anti-slip member 290A is provided directly on the inner peripheral surface of the supporter body 20. However, the invention is not limited to this, and the anti-slip member is interposed via another layer such as an adhesive layer. 290A may be provided directly on the inner peripheral surface of the supporter body 20. Examples of the adhesive layer include a layer obtained by curing a known adhesive.

  The average thickness of the anti-slip member 290A is preferably 0.05 mm or more and 20 mm or less, more preferably 1 mm or more and 20 mm or less, and further preferably 5 mm or more and 20 mm or less from the viewpoint of cushioning properties. When the average thickness of the anti-slip member 290A is 1 mm or more, the cushioning property of the anti-slip member 290A is easily obtained, and the fit at the time of wearing is easily improved by the cushioning property. In addition, when the average thickness of the anti-slip member 290A is 10 mm or more, for example, a cushioning property can be further provided by using a laminated body described later.

Here, the value of the average thickness of the anti-slip member is obtained as follows.
Specifically, a cross section cut with a razor on the surface including the axis of the supporter body 20 and including the region where the anti-slip member 290A is provided is 115 times larger than the digital microscope (Olympus, model number: SZX-16). Then, the image is taken in and measured in thickness by the FLOVE EL FR-400, and the measurement is performed at three points of both ends and the center of the non-slip member, and the slip in the observed cross section is measured. The average value of the thickness of the stopper member (specifically, the thickness other than the opening) is defined as “average thickness of the anti-slip member”.

-Non-slip member that is a laminate-
The anti-slip member 290A of the knee supporter 210 shown in FIG. 12 is a single-layer body, but is not limited to this, and may be a laminated body in which two or more layers are laminated in the thickness direction.
When the non-slip member is a laminated body, it may be a laminated body in which layers of different materials are laminated in the thickness direction as shown in FIG. 13, and the shape and position of the opening as shown in FIGS. It may be a laminate in which at least one of the different layers is laminated in the thickness direction.

In the knee supporter 2110 shown in FIG. 13, similarly to the knee supporter 210 shown in FIG. 12, a continuous handle anti-slip member 2190 </ b> A having an opening 2190 </ b> B is directly provided on the supporter main body 120. The anti-slip member 2190A includes a first anti-slip layer 2191A and a second anti-slip layer 2192A made of a different material from the first anti-slip layer 2191A in the thickness direction from the supporter main body 120 side. It is a laminated body.
In the anti-slip member 2190A, the physical properties of the first anti-slip layer 2191A and the physical properties of the second anti-slip layer 2192A can be adjusted independently, so that the characteristics of the entire anti-slip member 2190A can be easily controlled. Specifically, for example, by using a material having a lower hardness than that of the second anti-slip layer 2192A as the material of the first anti-slip layer 2191A, the cushioning property of the anti-slip member 2190A can be further provided. it can.
In the anti-slip member 2190A, the first anti-slip layer 2191A and the second anti-slip layer 2192A are each a single layer body, but the present invention is not limited to this, and the first anti-slip layer 2191A and the second anti-slip layer are not limited thereto. At least one of the layers 2192A may be a stacked body in which layers of the same material are stacked. The anti-slip member 2190A may further include other layers made of different materials in addition to the first anti-slip layer 2191A and the second anti-slip layer 2192A.

Also in the knee supporter 2210 shown in FIG. 14, similarly to the knee supporter 210 shown in FIG. 12, a continuous handle anti-slip member 2290 </ b> A having an opening 2290 </ b> B is directly provided on the supporter main body 220.
The anti-slip member 2290A is a laminated body in which layers of the same material are laminated, but layers having different opening positions are laminated in the thickness direction. Specifically, for example, among the layers forming the anti-slip member 2290A, the layer farther from the supporter body 220 has a shape and size of the opening that is closer to the supporter body 220 than the layer closer to the supporter body 220. Although it is the same, the position of the opening is slightly shifted in the axial direction of the supporter body. Therefore, a step is formed on the side surface of the opening 2290B, and a cavity 2230 is formed between the anti-slip member 2290A and the supporter body 220.
In the knee supporter 2210 shown in FIG. 14, the cushioning property of the anti-slip member 2290A can be obtained by forming the cavity 2230.

In the knee supporter 2210 shown in FIG. 14, the anti-slip member 2290A is a laminate in which layers of the same material are laminated, so that a step is formed on the side surface of the opening 2290B. It is not a thing. For example, a step may not be formed on the side surface of the opening 2390B like the anti-slip member 2390A in the knee supporter 2310 shown in FIG.
An anti-slip member 2390A illustrated in FIG. 15 is a stacked body in which layers of the same material are stacked and layers having different opening sizes are stacked in the thickness direction. Specifically, for example, in the layer forming the anti-slip member 2390A, the layer farther from the supporter body 320 has the same shape and position of the opening than the layer closer to the supporter body 320. However, the size of the opening is large enough to prevent a step on the side surface from being formed. That is, in the anti-slip member 2390A, the area of the opening 2390B (that is, the cross-sectional area along the inner peripheral surface of the supporter body 320) increases from the side closer to the supporter body 320 to the side farther.

Further, in the anti-slip member 2490A of the knee supporter 2410 shown in FIG. 16, layers having different opening sizes are laminated in the thickness direction as in the anti-slip member 2390A of FIG. The area of the opening 2490B (that is, the area of the cross section along the inner peripheral surface of the supporter main body 420) is reduced as the distance from the position increases.
Therefore, similarly to the anti-slip member 2290A of FIG. 14, a cavity 2430 is formed between the anti-slip member 2490A and the supporter body 420, and the cushioning property of the anti-slip member 2490A is obtained.

In the anti-slip member 2590A of the knee supporter 2510 shown in FIG. 17, layers having different opening sizes are laminated in the thickness direction. Then, from the inner peripheral surface of the supporter main body 520 to the central portion in the thickness direction of the anti-slip member 2590A, as the distance from the supporter main body 520 increases, the area of the opening 2590B (that is, the cross-sectional area along the inner peripheral surface of the supporter main body 520). From the central portion in the thickness direction of the anti-slip member 2590A to the inner peripheral surface of the anti-slip member 2590A, the area of the opening 2590B (that is, the cross section along the inner peripheral surface of the supporter main body 520 increases as the distance from the supporter main body 520 increases. (Area) is small. The side surface of the opening 2590B of the anti-slip member 2590A is a curved surface.
Therefore, a cavity 2530 is formed on the side surface of the opening 2590B in the anti-slip member 2590A, and the cushioning property of the anti-slip member 2590A is obtained.

  Note that the anti-slip members (that is, the anti-slip member 2290A, the anti-slip member 2390A, the anti-slip member 2490A, and the anti-slip member 2590A) of the knee support shown in FIGS. However, the present invention is not limited to this, and a laminated body in which layers of different materials are laminated may be used.

-Material and characteristics of non-slip members-
Hereinafter, materials used for the anti-slip member will be described. The code may be omitted.
The material used for the anti-slip member is not particularly limited as long as it is a resin material containing a resin.
Examples of the resin include thermoplastic resins. Specifically, for example, polyethylene (for example, high density polyethylene, medium density polyethylene, low density polyethylene, etc.), polypropylene, polyvinyl chloride, polyvinylidene chloride, polystyrene, poly Vinyl acetate, polyurethane, acrylonitrile-butadiene-styrene copolymer, acrylonitrile-styrene copolymer, acrylic resin, polyamide, nylon, polyacetal, polycarbonate, modified polyphenylene ether, polyester, polyethylene terephthalate, polybutylene terephthalate, cyclic polyolefin, styrene series Thermoplastic elastomer, Olefin thermoplastic elastomer, Vinyl chloride thermoplastic elastomer, Urethane thermoplastic elastomer, Amide thermoplastic Elastomer, ethylene - vinyl acetate copolymer, a biodegradable resin, isoprene rubber, their modified products thereof.
Among the resins contained in the anti-slip member, among these, low density polyethylene (LDPE), ethylene-vinyl acetate copolymer (EVA), biodegradable resin, elastomer (that is, styrene thermoplastic elastomer, olefin heat) Plastic elastomer, vinyl chloride thermoplastic elastomer, urethane thermoplastic elastomer, amide thermoplastic elastomer), isoprene rubber, and polyvinyl chloride (PVC) are preferable.

The weight average molecular weight of the resin is not particularly limited, and examples thereof include 70000 to 230,000, preferably 80000 to 220,000, and more preferably 85,000 to 215,000.
The weight average molecular weight is measured by gel permeation chromatography (GPC) method using the following apparatus and conditions, and calculated by polystyrene conversion.
-GPC measuring device-
LC-10AD manufactured by Shimadzu
-Column-
MIXED-B 30cm x 2 -Preparation of sample-
A resin to be measured is dissolved in a solvent (tetrahydrofuran) at room temperature to prepare a sample solution having a concentration of 0.1% (w / v).
-Measurement conditions-
100 μL of the sample solution was added to a mobile phase (for example, tetrahydrofuran), a column temperature of 40 ° C., 1.0 mL / min. Into the column at a flow rate of.
The sample concentration in the sample solution separated by the column is measured with a differential refractometer (RI-101). A universal calibration curve is prepared with a polymethyl methacrylate standard sample, and the weight average molecular weight (Mw), number average molecular weight (Mn), and molecular weight distribution (Mw / Mn) of the polymer component are calculated.
For the analysis, for example, data processing software Empower3 (manufactured by Waters) can be used.

The melting point of the resin is not particularly limited, and examples thereof include 35 ° C. or higher and 220 ° C. or lower, preferably 40 ° C. or higher and 210 ° C. or lower, and more preferably 45 ° C. or higher and 200 ° C. or lower.
Using a differential scanning calorimeter (DSC), the melting point of the resin is kept at −40 ° C. for 5 minutes in a nitrogen atmosphere and then heated at 10 ° C./min. Defined as the peak top of the observed peak.
Specifically, by using a differential scanning calorimeter (DSC-7, manufactured by Perkin Elmer), a sample of 5 mg was held at −40 ° C. for 5 minutes in a nitrogen atmosphere, and then heated at 10 ° C./min. It can be determined as the peak top of the peak observed on the highest temperature side of the obtained melting endotherm curve.

The resin material constituting the anti-slip member may contain an additive in addition to the resin.
Examples of the additive contained in the resin material include an ultraviolet absorber, a plasticizer, a core material, and an antistatic agent.

The duro A hardness of the anti-slip member is preferably 70 or less, more preferably 60 or less, and even more preferably 50 or less, from the viewpoint of comfort during wearing.
Further, the duro F hardness of the anti-slip member is preferably 0 or more, more preferably 2 or more, and further preferably 4 or more, from the viewpoint of durability.
The Duro A hardness and Duro F hardness are values obtained by the following measurements, respectively.
Specifically, the duro A hardness is measured using a hardness meter such as Asker A (manufactured by Kobunshi Keiki Co., Ltd.) in accordance with JIS K 6253-3. As a measurement object, a sample having a flat surface, vertical and horizontal dimensions larger than the pressing surface, and a thickness of 6 mm or more is used. During measurement, press lightly at a constant speed so that the pressure surface and sample surface are in uniform contact. The maximum value at that time is defined as A hardness.
The Duro F hardness is measured using a hardness meter such as Asker F (manufactured by Kobunshi Keiki Co., Ltd.) in accordance with the ASKER F standard. As a measurement target, a sample having a flat surface, vertical and horizontal dimensions larger than the pressing surface, and a thickness of 25 mm or more is used. At the time of measurement, the apparatus is placed on the sample at a constant speed so that the pressure surface and the sample surface are in uniform contact with each other, and the own weight is used as the measurement pressure. The maximum value at that time is defined as F hardness.

The anti-slip member may be a printed matter printed on the supporter body using the anti-slip member forming composition.
Examples of the printed material include a gravure printed material, a screen printed material, an offset printed material, a relief printing material, a flexographic printed material, and the like. Among these, a gravure printed material is preferable.

  The composition for forming a non-slip member is not limited as long as it becomes a non-slip member by printing. Specifically, for example, when the anti-slip member is a gravure print, the anti-slip member forming composition includes a resin material that constitutes the anti-slip member, a solvent, and an additive used as necessary. Etc.

The method for forming the anti-slip member is not particularly limited, and the anti-slip member is manufactured by a method suitable for the shape and material of the anti-slip member.
Specifically, for example, when providing a non-slip member, which is a gravure print, on the inner peripheral surface of the supporter body, by printing on the inner peripheral surface of the supporter body by a gravure printing method using the anti-slip member forming composition, An anti-slip member is formed.
In addition, although the depth of the mold printing plate used for the gravure printing method is set according to the thickness of a non-slip | skid member, the range of 0.05 mm or more and 1 mm or less is mentioned, for example.
Further, when the anti-slip member is a laminate, the anti-slip member may be formed by laminating the anti-slip layer by repeating printing by a gravure printing method.

<Supporter body>
Since the supporter main body 20 in the fourth aspect is the same as the details of the supporter main body 20 in the first aspect described above, description thereof will be omitted.

<Pressure>
The pressure applied by the knee supporter 210 in the fourth aspect is the same as the pressure applied by the knee supporter 110 in the third aspect described above, and a description thereof will be omitted.

<Others>
The other members that may be included in the knee supporter 210 in the fourth aspect are the same as the other members that may be included in the knee supporter 10 in the first aspect described above, and thus the description thereof is omitted. .

  As described above, the knee supporter 210 has been described as an example of the joint supporter according to the fourth aspect, but the joint supporter according to the fourth aspect includes a supporter used for joints other than the knee as described above. . In supporters used for joints other than knees, the preferred range such as the axial length of the joint supporter, the peripheral length, the area of the anti-slip region, the total area of the anti-slip member, etc. is the length and thickness of the wearing part. It becomes a corresponding value.

[clothing]
The garment according to the fourth aspect is a garment including the joint supporter according to the fourth aspect described above.
According to the clothing concerning the 4th mode, the same effect as the joint supporter concerning the 4th mode mentioned above is produced.
The garment may be a garment including only the joint supporter (that is, a supporter), or may be a garment including the joint supporter as a part of the garment.

  The specific example of the garment according to the fourth aspect is the same as the specific example of the garment according to the third aspect described above, and thus the description thereof is omitted.

  In the garment, the joint supporter and a portion other than the joint supporter may be stitched or bonded by an adhesive. For example, the garment may be one in which a joint supporter and a portion other than the joint supporter are integrally and continuously manufactured by a round mesh, or a joint supporter may be superimposed on the inner surface or outer surface of the garment body.

  The joint supporter according to the fourth aspect described above may correspond to the joint supporter according to the first aspect described above, and corresponds to the joint supporter according to the second aspect described above. May be applicable, and may correspond to the joint supporter according to the third aspect described above.

The joint supporter according to the fourth aspect includes joint supporters having the following forms.
<D1> A cylindrical supporter body mounted on a part including the joint of the wearer;
An anti-slip member provided on the inner peripheral surface of the supporter main body, the surface along the inner peripheral surface of the supporter main body is a continuous handle having an opening, and containing resin;
Joint supporter equipped with.
<D2> The joint supporter according to <D1>, wherein the opening ratio of the anti-slip member on the surface along the inner peripheral surface of the supporter body is 1% or more and 70% or less.
<D3> The joint supporter according to <D1> or <D2>, in which the opening includes two or more openings having different shapes and sizes.
<D4> The joint supporter according to any one of <D1> to <D3>, in which an average thickness of the anti-slip member is 0.05 mm to 20 mm.
<D5> The joint supporter according to any one of <D1> to <D4>, wherein the anti-slip member has a duro A hardness of 70 or less.
<D6> The joint supporter according to any one of <D1> to <D5>, wherein the anti-slip member is a laminate.
<D7> The joint supporter according to <D6>, wherein the laminate is a laminate in which layers of different materials are laminated in a thickness direction.
<D8> The joint supporter according to <D6> or <D7>, in which the stacked body is a stacked body in which layers having different shapes and positions of the openings are stacked in the thickness direction.
<D9> The joint supporter according to any one of <D1> to <D8>, wherein the anti-slip member is a gravure print.
<D10> The anti-slip member is any one of <D1> to <D9> provided on at least a part of an axial end on the wearer's trunk side of the inner peripheral surface of the supporter body. The joint supporter described in 1.
<D11> The supporter body is provided on the body side of the wearer with respect to the joint support portion that applies pressure to the joint of the wearer and on the body side of the wearer relative to the joint support portion, and supports the body side of the body from the joint. A first support portion; a second support portion that is provided on a side opposite to the wearer's torso from the joint support portion and supports a portion on the opposite side of the torso from the joint; and the supporter body in the supporter body A first rubber band provided at an axial end on the wearer's trunk side, and a second rubber band provided at an axial end on the opposite side of the wearer's trunk in the supporter body And the joint supporter according to any one of <D1> to <D10>.
<D12> The joint supporter according to <D11>, wherein an average contact pressure in the first support portion and the second support portion is lower than an average contact pressure in the joint support portion.
<D13> A garment including the joint supporter according to any one of <D1> to <D12>.

  EXAMPLES The present invention will be specifically described below with reference to examples, but the present invention is not limited to these examples.

Example A
[Production of supporter body]
A supporter main body X having the same configuration as the supporter main body 20 of the knee supporter 10 in the first aspect described above was produced.
Specifically, the thigh side mouth rubber part 28, the thigh side support part 24, the knee support part 22, the shin side support part 26, and the shin side mouth rubber part 30 are continuously knitted by circular knitting. Manufactured. At this time, the knitting structure of the knee support part 22 is mainly a low-extension mesh knitting structure, and the knitting structures of the thigh-side support part 24 and the shin-side support part 26 are both medium-extensible mesh knitting structures. The subject. The knitting structure of the thigh side rubber band 28 and the shin side rubber band 30 was a non-run knitting structure.
In the supporter main body X, the materials of the knee support part 22, the thigh side support part 24, the shin side support part 26, the thigh side mouth rubber part 28, and the shin side mouth rubber part 30 are all nylon and polyurethane.

The dimensions of the supporter body X (size when not extended) are as follows.
・ Knee support part 22: Axial length 140mm, average circumference 220mm
・ Thigh side support part 24: axial direction length 60mm, average circumference 210mm
・ Tibial support part 26 ... Axial length 60mm, average circumference 200mm
・ Thigh side rubber band 28 ... Axial length 55mm, average circumference 190mm
・ Tibial side rubber part 30 ... Axial length 25mm, average circumference 170mm

[Example A1]
<Formation of non-slip member>
A composition PA-1 containing 100 parts by mass of a siloxane compound (manufactured by Negami Kogyo, product name: PRC-A) and 10 parts by mass of a crosslinking agent (manufactured by Negami Kogyo, product name: PRC-B) was prepared.
Silkscreen printing is performed on the inner peripheral surface of the thigh side mouth rubber part 28 of the supporter main body X by a silkscreen printing machine using the composition PA-1 in the arrangement shown in FIG. 2, and then at 100 ° C. for 3 minutes. By heating, 105 anti-slip members 90A made of silicone resin were formed in a staggered pattern, and joint supporter PA-1 was obtained.
Each anti-slip member 90A was substantially circular, had a diameter of 5 mm, the width d of the interval 90B was 1.0 mm, and the total area of the anti-slip member 90A was 20.2 cm ² . Further, the total area of the anti-slip member 90A was 53% with respect to the entire area of the anti-slip region 90 formed by the anti-slip member 90A, and 19% with respect to the area of the entire thigh-side mouth rubber portion 28. . In this embodiment, the anti-slip region 90 is rectangular, and the circumferential length of the anti-slip region 90 is 70% of the peripheral length of the thigh side rubber band 28.

<Measurement>
-Measurement of pressure-
With respect to the obtained joint supporter PA-1, the average pressure A, the average pressure B1, the average pressure B2, the average pressure C1, and the average pressure C2 were measured according to the above-mentioned “measurement of pressure”.
The mannequin was used in their 20s male standard size mannequin ((Ltd.) Nanasai, product name "MD-20 _A"). The size of mannequin MD-20 _A is as described above.
As the clothing pressure measuring device, a contact pressure measuring device “AMI3037-10” manufactured by AIM Techno Co., Ltd., which was equipped with a sensor for measuring the wearing pressure was used.

The sensor is attached to each measurement position of the mannequin by a predetermined handling method ("contact pressure measuring device such as clothing pressure / body pressure / contact pressure / blood flow measurement system AIM Techno", [online], It was conducted in accordance with AIM Techno Co., Ltd., [Search on March 20, 2015], Internet <http://www.ami-tec.co.jp/>).
Specifically, a sensor was attached to each measurement position using a cover tape “SB-PTB” dedicated to “AMI3037-10”. Next, air was inserted using a syringe attached to the apparatus so that the sensor thickness was 0.5 mm.
The sensor is referred to as an “air pack” in “AMI3037-10”.

The joint supporter PA-1 was pulled straight up and worn on the mannequin leg to which a sensor was attached at each measurement position. At this time, the position corresponding to the center of the patella in the knee support portion 22 of the joint supporter PA-1 is overlapped with the center of the patella of the mannequin, and all the attached sensors are hidden by the joint supporter PA-1. I made it. In this wearing state, the contact pressure at each measurement position was measured.
In the joint supporter PA-1, the average pressure A was 3.02 kPa, the average pressure B1 was 1.60 kPa, the average pressure B2 was 2.05 kPa, and the average pressure C2 was 1.90 kPa. Table 1 shows the average pressure C1 in the joint supporter PA-1.

-Measurement of adhesive strength of non-slip member-
The integrated value and the maximum value of the adhesive force in each anti-slip member 90A of the joint supporter PA-1 were determined by the above method. The results are shown in Table 1.

<Evaluation>
-Evaluation of deviation-
The following evaluation was performed on a total of 4 subjects, 2 adult men and 2 adult women.
Specifically, each test subject is allowed to wear the joint supporter PA-1 and habituated by walking for 20 steps after wearing, and then the position of the upper end of the supporter (that is, the body side end of the thigh side rubber band) ( The initial position was marked on the leg.
Thereafter, the position of the upper end of the supporter (post-walk position) after 3 hours of daily life was marked on the leg, and the difference between the initial position and the post-walk position was calculated.
The average value of the four persons in the above calculation results was defined as “deviation amount” and evaluated according to the following criteria. The results are shown in Table 1.
A (◎): Deviation amount is less than 10 mm B (◯): Deviation amount is 10 mm or more and less than 30 mm C (Δ): Deviation amount is 30 mm or more and less than 50 mm D (x): Deviation amount is 50 mm or more

-Evaluation of comfort when worn-
A total of 4 subjects, 2 adult males and 2 adult females, were subjected to a sensory evaluation regarding comfort during wearing.
Specifically, each subject is allowed to wear the joint supporter PA-1 for 3 hours, and after wearing, each subject relates to comfort associated with the presence or absence of discomfort due to tightening or the like other than the loss of comfort due to slippage. A hearing was conducted.
Based on the hearing results, the number of subjects who felt discomfort during wearing (“number of uncomfortable wear” in Table 1) was investigated. The results are shown in Table 1.

-Evaluation of workability-
The workability was evaluated according to the following criteria according to the formability of the anti-slip member (printability of the composition on the supporter body, etc.) and the state of the anti-slip member after formation. The results are shown in Table 1.
A: Both the formability of the anti-slip member and the state of the anti-slip member after formation were good.
B: The composition could be printed on the supporter body, but the anti-slip member after formation was brittle and sticky.
C: The composition was too hard to print on the supporter itself.

[Example A2]
Composition PA-2 was prepared in the same manner as composition PA-1, except that the addition amount of the crosslinking agent (manufactured by Negami Kogyo, product name: PRC-B) was changed to 4 parts by mass.
Joint supporter PA-2 was obtained in the same manner as joint supporter PA-1, except that composition PA-2 was used instead of composition PA-1.
Measurement and evaluation were performed in the same manner as in Example A1, except that joint support PA-2 was used instead of joint support PA-1. The results are shown in Table 1. In the joint supporter PA-2, the average pressure A, the average pressure B1, the average pressure B2, and the average pressure C2 were the same values as the joint supporter PA-1.

[Example A3]
A composition PA-3 was prepared in the same manner as the composition PA-1, except that the addition amount of the crosslinking agent (manufactured by Negami Kogyo, product name: PRC-B) was changed to 1 part by mass.
A joint supporter PA-3 was obtained in the same manner as the joint supporter PA-1, except that the composition PA-3 was used instead of the composition PA-1.
Measurement and evaluation were performed in the same manner as in Example A1, except that joint support PA-3 was used instead of joint support PA-1. The results are shown in Table 1. In the joint supporter PA-3, the average pressure A, the average pressure B1, the average pressure B2, and the average pressure C2 were the same values as the joint supporter PA-1.

[Example A4]
100 parts by mass of a siloxane compound (manufactured by Negami Kogyo, product name: PRC-A), 10 parts by mass of a crosslinking agent (manufactured by Negami Kogyo, product name: PRC-B), and talc (manufactured by Nippon Talc, product name: Microace L-1) A composition PA-4 containing 10 parts by mass was prepared.
Joint supporter PA-4 was obtained in the same manner as joint supporter PA-1, except that composition PA-4 was used instead of composition PA-1.
Measurement and evaluation were performed in the same manner as in Example A1, except that the joint supporter PA-4 was used instead of the joint supporter PA-1. The results are shown in Table 1. In the joint supporter PA-4, the average pressure A, the average pressure B1, the average pressure B2, and the average pressure C2 were the same values as the joint supporter PA-1.

[Comparative Example A1]
The joint supporter CA-1 was obtained in the same manner as the joint supporter PA-1, except that the antislip member was not formed and the supporter body X was used as it was.
Measurement and evaluation were performed in the same manner as in Example A1, except that the joint supporter CA-1 was used instead of the joint supporter PA-1. The results are shown in Table 1. In the joint supporter CA-1, the average pressure A, the average pressure B1, the average pressure B2, and the average pressure C2 were the same values as the joint support PA-1.

[Comparative Example A2]
In the production of the supporter main body X, a supporter main body Y was produced in the same manner as the supporter main body X, except that the area of the thigh side mouth rubber portion was reduced.
The dimensions of the supporter body Y (size when not extended) are as follows.
・ Knee support part 22: Axial length 140mm, average circumference 220mm
・ Thigh side support part 24: axial direction length 60mm, average circumference 210mm
・ Tibial support part 26 ... Axial length 60mm, average circumference 200mm
・ Thigh side rubber band 28 ... Axial length 55mm, average circumference 180mm
・ Tibial side rubber part 30 ... Axial length 25mm, average circumference 170mm

Joint supporter CA-2 was obtained in the same manner as joint supporter PA-1, except that supporter body Y was used instead of supporter body X.
In the joint supporter CA-2, the average pressure A, the average pressure B1, the average pressure B2, and the average pressure C2 were the same values as those of the joint supporter PA-1.
The total area of the anti-slip member 90A is 53% with respect to the entire area of the anti-slip region 90 formed by the anti-slip member 90A and 20% with respect to the entire area of the thigh-side mouth rubber part 28. It was.

[Comparative Example A3]
100 parts by mass of a siloxane compound (manufactured by Negami Kogyo, product name: PRC-A), 10 parts by mass of a crosslinking agent (manufactured by Negami Kogyo, product name: PRC-B), and silica (manufactured by Tosoh Silica Co., Ltd., product name: nip seal SS-95) A composition PA-5 containing 50 parts by mass was prepared.
An attempt was made to perform silk screen printing with a silk screen printing machine using the composition PA-5 on the inner peripheral surface of the thigh side mouth rubber part 28 of the supporter body X, but the composition PA-5 was too hard. Thus, silk screen printing on the supporter body X was difficult.

[Comparative Example A4]
A composition PA-6 was prepared in the same manner as the composition PA-1, except that the addition amount of the crosslinking agent (manufactured by Negami Kogyo, product name: PRC-B) was changed to 0.3 parts by mass.
The composition PA-6 is silk-screen printed on the inner peripheral surface of the thigh-side mouth rubber part 28 of the supporter main body X by a silk-screen printing machine, and then heated at 100 ° C. for 3 minutes, whereby an anti-slip member Attempted to form 90A, but because the formed non-slip member is brittle and sticky, other measurements and evaluations (ie, measurement of pressure applied, evaluation of displacement, and evaluation of comfort during wearing) are performed. It was difficult.

  From the above results, it can be seen that, in this example, both the suppression of deviation and the improvement of comfort at the time of wearing are realized as compared with the comparative example.

Example B
[Production of supporter body]
A supporter main body X having the same configuration as the supporter main body 20 of the knee supporter 10 in the second aspect described above was produced.
Specifically, the same supporter body X in Example A described above was produced.

[Example B1]
<Formation of non-slip member>
A composition PB-1 containing 100 parts by mass of a siloxane compound (manufactured by Negami Kogyo, product name: PRC-A) and 10 parts by mass of a crosslinking agent (manufactured by Negami Kogyo, product name: PRC-B) was prepared.
Silkscreen printing is performed on the inner peripheral surface of the thigh side mouth rubber part 28 of the supporter main body X by a silkscreen printing machine using the composition PB-1 in the arrangement shown in FIG. 2, and then at 100 ° C. for 3 minutes. By heating, 105 anti-slip members 90A made of silicone resin were formed in a staggered pattern to obtain a joint supporter PB-1.
Each anti-slip member 90A was substantially circular, had a diameter of 5 mm, the width d of the interval 90B was 1.0 mm, and the total area of the anti-slip member 90A was 20.2 cm ² . The total area of the anti-slip member 90A is 53% with respect to the entire area of the anti-slip region 90 formed by the anti-slip member 90A and 19% with respect to the entire area of the thigh side rubber band 28. It was. In the present embodiment, the anti-slip region 90 is rectangular, and the length of the anti-slip region 90 in the circumferential direction is 70% of the circumference of the thigh-side mouth rubber portion 28.

<Measurement>
-Measurement of pressure-
About the obtained joint supporter PB-1, the average pressure A, the average pressure B1, the average pressure B2, the average pressure C1, and the average in the same manner as the joint support PA-1 in Example A1 described above. The contact pressure C2 was measured.
In the joint supporter PB-1, the average pressure A was 3.02 kPa, the average pressure B1 was 1.60 kPa, the average pressure B2 was 2.05 kPa, and the average pressure C2 was 1.90 kPa. Table 2 shows the average pressure C1 in the joint supporter PB-1.

-Measurement of adhesive strength of non-slip member-
The Asker C hardness, Asker F hardness, maximum value of adhesive strength, and integrated value of adhesive strength in each anti-slip member 90A of the joint supporter PB-1 were determined by the above method. The results are shown in Table 2.

<Evaluation>
In the same manner as in Example A1 described above, evaluation of displacement, evaluation of comfort during wearing, and evaluation of workability were performed. The results are shown in Table 2.

[Example B2]
A composition PB-2 was prepared in the same manner as the composition PB-1, except that the addition amount of the crosslinking agent (manufactured by Negami Kogyo, product name: PRC-B) was changed to 3 parts by mass.
A joint supporter PB-2 was obtained in the same manner as the joint supporter PB-1, except that the composition PB-2 was used instead of the composition PB-1.
Measurement and evaluation were performed in the same manner as in Example B1, except that the joint supporter PB-2 was used instead of the joint supporter PB-1. The results are shown in Table 2. Also in the joint supporter PB-2, the average pressure A, the average pressure B1, the average pressure B2, and the average pressure C2 were the same values as the joint support PB-1.

[Example B3]
A composition PB-3 was prepared in the same manner as the composition PB-1, except that the addition amount of the crosslinking agent (manufactured by Negami Kogyo, product name: PRC-B) was changed to 1 part by mass.
A joint supporter PB-3 was obtained in the same manner as the joint supporter PB-1, except that the composition PB-3 was used instead of the composition PB-1.
Measurement and evaluation were performed in the same manner as in Example B1, except that the joint supporter PB-3 was used instead of the joint supporter PB-1. The results are shown in Table 2. In the joint supporter PB-3, the average pressure A, the average pressure B1, the average pressure B2, and the average pressure C2 were the same values as the joint supporter PB-1.

[Example B4]
100 parts by mass of a siloxane compound (manufactured by Negami Kogyo, product name: PRC-A), 10 parts by mass of a crosslinking agent (manufactured by Negami Kogyo, product name: PRC-B), and talc (manufactured by Nippon Talc, product name: Microace L-1) A composition PB-4 containing 10 parts by mass was prepared.
A joint supporter PB-4 was obtained in the same manner as the joint supporter PB-1, except that the composition PB-4 was used instead of the composition PB-1.
Measurement and evaluation were performed in the same manner as in Example B1, except that the joint supporter PB-4 was used instead of the joint supporter PB-1. The results are shown in Table 2. In the joint supporter PB-4, the average pressure A, the average pressure B1, the average pressure B2, and the average pressure C2 were the same values as the joint supporter PB-1.

[Comparative Example B1]
A joint supporter CB-1 was obtained in the same manner as the joint supporter PB-1, except that the support member X was used as it was without forming a non-slip member.
Measurement and evaluation were performed in the same manner as in Example B1, except that the joint supporter CB-1 was used instead of the joint supporter PB-1. The results are shown in Table 2. In the joint supporter CB-1, the average pressure A, the average pressure B1, the average pressure B2, and the average pressure C2 were the same values as the joint supporter PB-1.

[Comparative Example B2]
The same supporter body Y as in Example A was prepared.
A joint supporter CB-2 was obtained in the same manner as the joint supporter PB-1, except that the supporter body Y was used instead of the supporter body X.
In the joint supporter CB-2, the average pressure A, the average pressure B1, the average pressure B2, and the average pressure C2 were the same values as the joint support PB-1.
The total area of the anti-slip member 90A is 53% with respect to the entire area of the anti-slip region 90 formed by the anti-slip member 90A and 20% with respect to the entire area of the thigh-side mouth rubber part 28. It was.

[Comparative Example B3]
100 parts by mass of a siloxane compound (manufactured by Negami Kogyo, product name: PRC-A), 10 parts by mass of a crosslinking agent (manufactured by Negami Kogyo, product name: PRC-B), and silica (manufactured by Tosoh Silica Co., Ltd., product name: nip seal SS-95) A composition PB-5 containing 50 parts by mass was prepared.
An attempt was made to perform silk screen printing on the inner peripheral surface of the thigh side mouth rubber part 28 of the supporter main body X using a composition PB-5 with a silk screen printer, but the composition PB-5 was too hard. Thus, silk screen printing on the supporter body X was difficult.

[Comparative Example B4]
A composition PB-6 was prepared in the same manner as the composition PB-1, except that the addition amount of the crosslinking agent (manufactured by Negami Kogyo, product name: PRC-B) was changed to 0.3 parts by mass.
The composition P-6 is silk screen printed on the inner peripheral surface of the thigh side rubber part 28 of the supporter main body X by a silk screen printing machine, and then heated at 100 ° C. for 3 minutes, whereby an anti-slip member Attempted to form 90A, but because the formed non-slip member is brittle and sticky, other measurements and evaluations (ie, measurement of pressure applied, evaluation of displacement, and evaluation of comfort during wearing) are performed. It was difficult.

  From the above results, it can be seen that, in this example, both the suppression of deviation and the improvement of comfort at the time of wearing are realized as compared with the comparative example.

Example C
[Production of supporter body]
A supporter main body X having the same configuration as the supporter main body 20 of the knee supporter 110 in the third aspect described above was produced.
Specifically, the same supporter body X in Example A described above was produced.

[Example C1]
<Formation of non-slip member>
A non-slip member (manufactured by Japan Polymer Co., Ltd.) obtained by laminating an acrylic anti-slip composition and an adhesive composition on a substrate, and the adhesive composition on the inner peripheral surface of the thigh side mouth rubber part 28 of the supporter body X With the layers in contact, a trans jumbo (JP-5040A) was used, and hot pressing was performed at a set pressure of 1,000 kgf and a temperature of 150 ° C. for 10 seconds to peel off only the substrate. In this way, the anti-slip member on the base material was transferred to the supporter body X, and the anti-slip member was installed on the supporter X via the adhesive layer to obtain a joint supporter C-1.

The anti-slip member in the joint supporter C-1 is an aggregate in which eight rectangles having a length of 4 cm in the axial direction and a length of 0.4 cm in the circumferential direction of the supporter body X are arranged at intervals of 1.4 cm in the circumferential direction. There is one set of the aggregates on the front side and the rear side of the inner peripheral surface of the thigh side rubber part 28.
“Value of innermost end position of anti-slip member” and “average thickness of adhesive layer” in joint supporter C-1 are shown in Table 3 (“Innermost end position” and “Adhesive layer thickness” in Table 3 respectively). Shown in
The average thickness of the anti-slip member in the joint supporter C-1 is 0.052 mm, the average thickness in the non-slip member non-installation part of the support body X is 1.025 mm, and the average thickness in the anti-slip member installation part of the support body X. Was 0.588 mm.
In the joint supporter C-1, the average pressure A was 3.02 kPa, the average pressure B1 was 1.60 kPa, the average pressure B2 was 2.05 kPa, and the average pressure C2 was 1.90 kPa. Table 3 shows the average pressure C1 in the joint supporter C-1.

<Evaluation>
-Evaluation of comfort when worn-
Sensory evaluation on the comfort at the time of wearing was performed on a total of 3 subjects, 2 adult men and 1 adult woman.
Specifically, each subject wore a joint supporter C-1 and walked for 5 minutes. Three subjects examined the presence or absence of discomfort of the anti-slip member while wearing the joint supporter C-1 and the presence or absence of indentation of the anti-slip member immediately after the joint supporter C-1 was removed. Table 3 shows the number of people who did not feel discomfort during wearing, the number of people who felt discomfort during wearing, the number of indentations after wearing, and the number of indentations after wearing.

-Evaluation of the amount of slipping out
The following evaluation was performed on a total of three subjects, two adult men and one adult woman.
Specifically, after each test subject wears the joint supporter C-1 and becomes accustomed by walking 20 steps after wearing, the position of the upper end part of the supporter (that is, the trunk side end part of the thigh side rubber band part) ( The initial position was marked on the leg. Thereafter, the position of the upper end of the supporter (post-walk position) after 3 hours of daily life was marked on the leg, and the difference between the initial position and the post-walk position was calculated.
Next, the same test was performed on a joint supporter that is the same supporter body as the joint supporter C-1 and that is not provided with a non-slip member.
The number of persons (including the case where the amount of displacement was 0 mm) in which the amount of displacement was reduced by 20% or more was recorded relative to the amount of displacement of the joint supporter not provided with the anti-slip member. The results are shown in Table 3.

[Example C2]
<Formation of non-slip member>
A silicone-based anti-slip composition (print house light-adjusted product) was directly applied to the supporter main body X by screen printing and thermally cured to install a non-slip member to obtain a joint supporter C-2.

The anti-slip member in the joint supporter C-2 was a circle having a diameter of 3 mm, and was installed in a staggered pattern over the entire inner peripheral surface of the thigh side mouth rubber part 28.
The values of “the innermost end position of the anti-slip member” and the average thickness of the adhesive layer in the joint supporter C-2 are shown in Table 3 (the “innermost end position” and “adhesive layer thickness” in Table 3 respectively). .
Further, the average thickness of the anti-slip member in the joint supporter C-2 is 0.378 mm, the average thickness in the non-slip member non-installation part of the support body X is 1.186 mm, and the average thickness in the anti-slip member installation part of the support body X Was 0.997 mm.
Further, the average pressure A, the average pressure B1, the average pressure B2, and the average pressure C2 of the joint supporter C-2 were the same as those of the joint supporter C-1. Table 3 shows the average pressure C1 in the joint supporter C-2.
Table 3 shows the results of evaluation performed in the same manner as in Example C1.

[Comparative Example C1]
As a joint supporter C-C1, Tristar Products, Inc. A knee supporter made by the product name “Copper Wear” was used.
The anti-slip member in the joint supporter C-C1 is directly installed on the supporter main body without an adhesive layer, and the cross-sectional shape of the anti-slip member having an axial length of 5 mm in the supporter main body is a half-moon shape. The side mouth rubber portion 28 was installed so as to make one turn in the circumferential direction.
The “value of the innermost end position of the anti-slip member” in the joint supporter C-C1 is shown in Table 3 (“Innermost end position” in Table 3).
Further, the average thickness of the anti-slip member in the joint supporter C-C1 is 0.577 mm, the average thickness in the non-slip member non-installation part of the support body X is 1.155 mm, and the average thickness in the anti-slip member installation part of the support body X Was 0.973 mm.
In the joint supporter C-C1, the average pressure A was 1.00 kPa, the average pressure B1 was 0.57 kPa, the average pressure B2 was 4.05 kPa, and the average pressure C2 was 3.24 kPa. Table 3 shows the average pressure C1 in the joint supporter C-C1. In addition, since the supporter C-C1 for the joint is short in the axial direction of the supporter main body, the average wearing pressure C1 is measured at a position 120 mm from the center of the patella of the mannequin, and the average wearing pressure C2 is measured. The test was performed at a position 100 mm from the center of the patella of the mannequin.
Table 3 shows the results of evaluation performed in the same manner as in Example C1.

[Comparative Example C2]
As the joint supporter C-C2, a knee supporter manufactured by OrthoSleeve, model number KS07 was used.
The anti-slip member in the joint supporter C-C2 is directly installed on the supporter main body without using an adhesive layer, is circular with a diameter of 3 mm, and is installed in a staggered pattern over the entire inner peripheral surface of the thigh side rubber band 28. It had been.
The “value of the innermost end position of the anti-slip member” in the joint supporter C-C2 is shown in Table 3 (“Innermost end position” in Table 3).
The average thickness of the anti-slip member in the joint supporter C-C2 is 0.559 mm, the average thickness in the non-slip member non-installation part of the support body X is 1.376 mm, and the average thickness in the anti-slip member installation part of the support body X Was 1.326 mm.
In the joint supporter C-C2, the average pressure A was 3.68 kPa, the average pressure B1 was 2.66 kPa, the average pressure B2 was 3.71 kPa, and the average pressure C2 was 4.14 kPa. Table 3 shows the average pressure C1 in the joint supporter C-C2. Since the supporter C-C2 for joints has a short length in the axial direction of the supporter body, the average contact pressure C2 was measured at a position 110 mm from the center of the patella of the mannequin.
Table 3 shows the results of evaluation performed in the same manner as in Example C1.

  From the above results, it can be seen that in this example, the uncomfortable feeling when worn by the non-slip member is suppressed as compared with the comparative example.

Example D
[Comparative Example D1]
A supporter main body X having the same configuration as the supporter main body 20 of the knee supporter 210 in the fourth aspect described above was produced.
Specifically, the same supporter body X in Example A described above was produced.

The supporter body X was directly used as the joint supporter D-C1 of Comparative Example D1.
In the joint supporter D-C1, the average pressure A is 3.02 kPa, the average pressure B1 is 1.60 kPa, the average pressure B2 is 2.05 kPa, the average pressure C1 is 1.0 kPa, and the average pressure C2 is 1. It was 90 kPa.

[Example D1]
Compare the supporter body DY which is a part of the supporter body X other than the thigh side rubber part 28 (that is, the thigh side support part 24, the knee support part 22, the shin side support part 26, and the shin side mouth rubber part 30). Prepared similarly to Example D1.

The following components were mixed to obtain a composition A for forming a non-slip member.
-Urethane thermoplastic elastomer (Maywa Gravure, weight average molecular weight: 97,900)

Using the anti-slip member forming composition A, printing on a gravure printing machine on fabric A (Masuda Co., Ltd., model number: NA-4310, product name: Shin Quattro) extending in a uniaxial direction, A continuous handle anti-slip member A having an opening was formed.
The anti-slip member A is a single-layer body formed without any break in the circumferential direction of the fabric A, and the shape of the surface along the inner peripheral surface of the support body is the shape shown in FIG. 10 (specifically, the diameter is 3 mm). The circular opening is a continuous pattern in which the openings are arranged in a staggered pattern, and the end face cut along the surface including the axis of the supporter body has the shape shown in FIG. 12, and the axial length is 30 mm.
Table 4 shows the aperture ratio and average thickness of the non-slip member A.
Regarding the hardness of the anti-slip member A, at least the Duro A hardness is 50 or less and the Duro F hardness is 4 or more.

The fabric A on which the anti-slip member A was formed was joined to the body side end portion of the thigh side support portion 24 of the supporter body DY by sewing to obtain a joint supporter D-1 of Example D1.
The average pressure A, the average pressure B1, the average pressure B2, and the average pressure C2 in the joint supporter D-1 were the same as the joint supporter D-C1. The average pressure C1 in the joint supporter D-1 was 2.90 kPa.

[Example D2]
Compare the supporter body DY which is a part of the supporter body X other than the thigh side rubber part 28 (that is, the thigh side support part 24, the knee support part 22, the shin side support part 26, and the shin side mouth rubber part 30). Prepared similarly to Example D1.

The following components were mixed to obtain a composition B for forming a non-slip member.
-Urethane thermoplastic elastomer (Maywa Gravure, weight average molecular weight: 103,000)

A continuous pattern having openings by printing on a biaxially extending fabric B (model number: AQA2150, product name: ESPAR) using the anti-slip member forming composition B and drying by heating with a gravure printing machine. The anti-slip member B was formed.
The anti-slip member B is a single-layer body formed without a break in the circumferential direction of the fabric B, and the shape of the surface along the inner peripheral surface of the support body is the shape shown in FIG. 10 (specifically, the diameter is 3 mm). The circular opening is a continuous pattern in which the openings are arranged in a staggered pattern, and the end face cut along the surface including the axis of the supporter body has the shape shown in FIG. 12, and the axial length is 30 mm.
Table 4 shows the aperture ratio and average thickness of the non-slip member B.
Regarding the hardness of the anti-slip member B, at least the Duro A hardness is 50 or less and the Duro F hardness is 4 or more.

The fabric B on which the anti-slip member B was formed was joined to the body side end portion of the thigh side support portion 24 of the supporter body DY by sewing to obtain a joint supporter D-2 of Example D2.
The average pressure A, the average pressure B1, the average pressure B2, and the average pressure C2 in the joint supporter D-2 were the same as those in the joint supporter D-C1. The average pressure C1 in the joint supporter D-2 was 2.76 kPa.

[Example D3]
Compare the supporter body DY which is a part of the supporter body X other than the thigh side rubber part 28 (that is, the thigh side support part 24, the knee support part 22, the shin side support part 26, and the shin side mouth rubber part 30). Prepared similarly to Example D1.

The following components were mixed to obtain a non-slip member-forming composition C.
Styrenic thermoplastic elastomer (Maywa Gravure, weight average molecular weight: 146,000)

Using the above-mentioned composition C for forming a non-slip member, printing is performed on a biaxially extending fabric C (trade name: 5200, composition: nylon 84%, polyurethane 16%) with a gravure printing machine, followed by heating and drying. Then, a continuous handle anti-slip member C having an opening was formed.
The anti-slip member C is a single-layer body formed without any break in the circumferential direction of the fabric C, and the shape of the surface along the inner peripheral surface of the support body is the shape shown in FIG. 10 (specifically, the diameter is 3 mm). The circular opening is a continuous pattern in which the openings are arranged in a staggered pattern, and the end face cut along the surface including the axis of the supporter body has the shape shown in FIG. 12, and the axial length is 30 mm.
Table 4 shows the aperture ratio and average thickness of the non-slip member C.
Regarding the hardness of the anti-slip member C, at least the duro A hardness is 50 or less and the duro F hardness is 4 or more.

The fabric C on which the anti-slip member C was formed was joined to the body side end portion of the thigh side support portion 24 of the supporter body DY by sewing to obtain a joint supporter D-3 of Example D3.
The average pressure A, the average pressure B1, the average pressure B2, and the average pressure C2 in the joint supporter D-3 were the same as those in the joint supporter D-C1. The average pressure C1 in the joint supporter D-3 was 1.34 kPa.

[Example D4]
Compare the supporter body DY which is a part of the supporter body X other than the thigh side rubber part 28 (that is, the thigh side support part 24, the knee support part 22, the shin side support part 26, and the shin side mouth rubber part 30). Prepared similarly to Example D1.

The following components were mixed to obtain a composition D for forming a non-slip member.
Styrenic thermoplastic elastomer (Maywa Gravure, weight average molecular weight: 155,000)

By using the anti-slip member forming composition D, printing on a uniaxially extending fabric A (Masuda Co., Ltd., model number: NA-4310, product name: Shin Quattro) with a gravure printing machine, and heating and drying, A continuous handle anti-slip member D having an opening was formed.
The anti-slip member D is a single-layer body formed without a cut in the circumferential direction of the fabric A, and the shape of the surface along the inner peripheral surface of the support body is the shape shown in FIG. 10 (specifically, the diameter is 3 mm). The circular opening is a continuous pattern in which the openings are arranged in a staggered pattern, and the end face cut along the surface including the axis of the supporter body has the shape shown in FIG. 12, and the axial length is 30 mm.
Table 4 shows the aperture ratio and average thickness of the non-slip member D.
Regarding the hardness of the anti-slip member D, at least the Duro A hardness is 50 or less and the Duro F hardness is 4 or more.

The fabric A on which the anti-slip member D was formed was joined to the body side end portion of the thigh side support portion 24 of the supporter body DY by sewing to obtain a joint supporter D-4 of Example D4.
The average pressure A, the average pressure B1, the average pressure B2, and the average pressure C2 in the joint supporter D-4 were the same as those in the joint supporter D-C1. The average pressure C1 in the joint supporter D-4 was 1.00 kPa.

[Comparative Example D2]
Trans jumbo (JP-5040A) with a styrenic elastomer film (FAIT PLAST, product name: WITH ME) in a state where the adhesive composition layer is in contact with the inner peripheral surface of the thigh side rubber part 28 of the support body X ) And hot pressing was performed for 10 seconds at a set pressure of 1,000 kgf and a temperature of 150 ° C. As described above, a joint supporter D-C2 of Comparative Example D2 was obtained.
The anti-slip member D is a single-layer body having a dimension of 45 mm in the circumferential direction of the thigh-side mouth rubber part 28 of the supporter main body X, and one axial front and back, and the axial length is 20 mm.
Table 4 shows the average thickness of the non-slip member D.
Further, the average pressure A, the average pressure B1, the average pressure B2, and the average pressure C2 of the joint supporter D-C2 were the same as those of the joint supporter D-C1. The average contact pressure C1 in the joint supporter D-C2 was 1.78 kPa.

  In addition, the average thickness in the anti-slip | skid member D was measured with the following method. Specifically, first, the cross section of the anti-slip member D was observed with a stereomicroscope (Keyence Corporation, model number: VH-7000) at a magnification of 175 times. Then, using a 15-inch monitor (Sony, CPD-15ES2), an image was captured and the thickness was measured. The measurement method is to measure the thickness of both ends and the central portion of the cross section, measure the thickness of the non-slip member D in the observed cross section at three points, and calculate the average value as “the average thickness of the anti-slip member D”. "

[Comparative Example D3]
Compare the supporter body DY which is a part of the supporter body X other than the thigh side rubber part 28 (that is, the thigh side support part 24, the knee support part 22, the shin side support part 26, and the shin side mouth rubber part 30). Prepared similarly to Example D1.
The following components were mixed to obtain an anti-slip member forming composition E.
・ Silicon (Tanak)

Using the above-mentioned composition E for forming a non-slip member, a fabric A (Masuda Co., Ltd., model number: NA-4310, product name: Shin Quattro, axial length: 600 mm, average circumference: 450 mm) with a screen printing machine By printing and drying by heating, a non-slip member E in which circular anti-slip members are arranged in a staggered pattern is formed.
The anti-slip member E is a circular anti-slip member having a diameter of 3 mm formed in the entire circumferential direction of the thigh-side mouth rubber portion 28 of the supporter body X in a staggered pattern (discontinuous), and the anti-slip member E is formed. The axial length of the formed region was 30 mm.
The fabric A on which the anti-slip member E was formed was joined to the body side end portion of the thigh side support portion 24 of the supporter body Y by sewing to obtain a joint supporter D-C3 of Comparative Example D3.
Table 4 shows the average thickness of the anti-slip member E.
Further, the average pressure A, the average pressure B1, the average pressure B2, and the average pressure C2 of the joint supporter D-C3 were the same as those of the joint supporter D-C1. The average contact pressure C1 in the joint supporter D-C3 was 0.32 kPa.

  In addition, the average thickness in the anti-slip | skid member E was measured with the following method. Specifically, first, the cross section of the anti-slip member E was observed with a stereomicroscope (Keyence Corporation, model number: VH-7000) at a magnification of 50 times. Then, using a 15-inch monitor (Sony, CPD-15ES2), an image was captured and the thickness was measured. The measurement method is to measure the thickness of a representative portion near the center of the cross section, measure the thickness of the anti-slip member E in the observed cross section at three points (that is, for three anti-slip members), and calculate the average value. The obtained value was defined as “average thickness of anti-slip member E”.

<Evaluation>
-Evaluation of deviation-
The following evaluation was performed on a total of three subjects, two adult men and one adult woman.
Specifically, each test subject is allowed to wear a supporter for joints and habituated by walking for 20 steps after wearing, then the position (initial position) of the upper end of the supporter (that is, the body side end of the thigh side rubber band) Marked on the leg.
After that, the position of the upper end of the supporter (post-walking position) after running for 5 minutes under the condition of 0% inclination is marked on the leg with a treadmill (Seno Co., Ltd., Labode XP70), and walking with the above initial position The difference from the rear position was calculated.
The above measurement was performed once for each subject, and the average value of the three persons was defined as the “deviation amount”.
Table 4 shows the relative values of the shift amounts in the respective Examples and Comparative Examples when the shift amount in Comparative Example D1 is 100.

-Evaluation of comfort when worn-
Sensory evaluation on the comfort at the time of wearing was performed on a total of 3 subjects, 2 adult men and 1 adult woman.
Specifically, during the test for evaluating the deviation, each subject was interviewed regarding the presence or absence of discomfort due to stuffiness and fit.
Based on the hearing results, scoring was performed according to the following scoring method.
Next, for each of the presence or absence of discomfort due to stuffiness and the fit, the total score of three subjects was calculated to be “steaming comfort” and “fit”, respectively. The results are shown in Table 4.

--- Scoring method of discomfort due to stuffiness--
5 points: There was no discomfort due to stuffiness.
4 points ... There was not much discomfort due to stuffiness.
3 points… I can't say that there is any discomfort caused by stuffiness.
2 points: There was relatively discomfort due to stuffiness.
1 point: Discomfort due to stuffiness was remarkable.

--Scoring method for fit--
5 points ... The fit was very good.
4 points ... The fit was good.
3 points… I can't say either about the fit.
2 points… The fit was not very good.
1 point ... The fit was bad.

  From the above results, in this example, the displacement is suppressed as compared with Comparative Example D1, and the fit at the time of wearing is improved while suppressing stuffiness as compared with Comparative Example D2 and Comparative Example D3. I understand.

10, 110, 210, 2110, 2210, 2310, 2410, 2510 Knee supporter 20, 120, 220, 320, 420, 520 Supporter body 20P Innermost end 22 of supporter body Knee support part 24 Thigh side support part 26 Tibi Side support part 28 Thigh side rubber part 30 Tibial side rubber part 90, 92, 94, 96, 98 Anti-slip region 90A, 190A, 290A, 291A, 2190A, 2290A, 2390A, 2490A, 2590A Anti-slip member 90B 98C Concave portion 190B Adhesive layer 190P Innermost ends 290B, 291B, 291C, 2190B, 2290B, 2390B, 2490B, 2590B of the anti-slip member 2191A, 2192A Anti-slip layers 2230, 2430, 2530 Hollow A Axial direction S Circumferential direction

Claims (33)

A cylindrical supporter body that has a joint support portion that is attached to a part including the joint of the wearer and applies pressure to the joint of the wearer;
The integral value of the adhesive force measured by the probe tack test method using at least a part of the axial end portion on the wearer's torso side of the inner peripheral surface of the supporter body and measured by a probe tack test method is 0. A non-slip member that is 1 gf · sec or more and 50.0 gf · sec or less,
A joint supporter in which an average contact pressure at an end portion in an axial direction on the body side of the wearer is lower than an average contact pressure of the joint support portion.   The joint supporter according to claim 1, wherein the maximum value of the adhesive force of the anti-slip member measured by a probe tack test method using a probe having a diameter of 5 mm is 5 gf or more and 200 gf or less.   The joint supporter according to claim 1 or 2, wherein an average contact pressure at an end portion in the axial direction on the wearer's trunk side is 0.5 kPa or more and 3.5 kPa or less. A cylindrical supporter body that has a joint support portion that is attached to a part including the joint of the wearer and applies pressure to the joint of the wearer;
An anti-slip member provided on at least a part of an axial end on the wearer's torso side of the inner peripheral surface of the supporter body, and having an Asker C hardness of 80 degrees or less,
A joint supporter in which an average contact pressure at an end portion in an axial direction on the body side of the wearer is lower than an average contact pressure of the joint support portion.   The joint supporter according to claim 4, wherein the anti-slip member has an Asker F hardness of 10 degrees or more.   The integrated value of the adhesive force in the non-slip member measured by a probe tack test method using a probe having a diameter of 5 mm is 0.1 gf · sec or more and 50.0 gf · sec or less. Joint supporter.   The joint supporter according to any one of claims 4 to 6, wherein the maximum value of the adhesive force in the anti-slip member measured by a probe tack test method using a probe having a diameter of 5 mm is 5 gf to 200 gf. .   8. The average pressure applied to the end portion in the axial direction on the wearer's trunk is 0.16 to 0.95 times the average pressure applied to the joint support portion. 8. The joint supporter described in 1.   9. The total area of the anti-slip member with respect to the entire area of the anti-slip region provided with the anti-slip member on the inner peripheral surface of the supporter body is 5% or more and 95% or less. 9. The joint supporter according to item 1. The supporter body is
A first support portion that is provided closer to the wearer's torso than the joint support and supports the torso side of the joint;
A second support portion that is provided on a side opposite to the wearer's torso from the joint support portion and supports a portion on the opposite side of the torso from the joint;
A first rubber band provided at an axial end on the wearer's torso side of the supporter body;
A second rubber band provided at an end portion in the axial direction on the opposite side of the body of the wearer in the supporter body;
Further comprising
The joint supporter according to any one of claims 1 to 9, wherein the anti-slip member is provided on at least a part of an inner peripheral surface of the first mouth rubber part.   The joint supporter according to claim 10, wherein an average contact pressure in the first support portion and the second support portion is lower than an average contact pressure in the joint support portion.   The joint supporter according to claim 10 or 11, wherein an average pressure of the first mouth rubber portion is lower than an average pressure of the first support portion.   The joint supporter according to any one of claims 10 to 12, wherein an average pressure of the second mouth rubber portion is lower than an average pressure of the second support portion.   The total area of the anti-slip member provided on the inner peripheral surface of the first rubber band part with respect to the area of the entire inner peripheral surface of the first rubber band part is 15% or more and 80% or less. The joint supporter according to claim 13.   The innermost end of the anti-slip member is at a position of +0.40 mm or less when the radial inner side of the supporter body is a positive value with respect to the innermost end of the supporter body. The joint supporter according to any one of the above. The anti-slip member is provided at least in a portion other than the joint support portion of the inner peripheral surface of the supporter body,
The joint supporter according to claim 15, wherein an average pressure in a region where the anti-slip member is provided in a portion other than the joint support portion is lower than an average pressure in the joint support portion.   The joint supporter according to claim 15 or 16, wherein an average contact pressure in a region where the anti-slip member is provided is 0.5 kPa or more and 3.5 kPa or less.   The joint supporter according to any one of claims 15 to 17, wherein the anti-slip member is provided on the supporter body through an adhesive layer.   The joint supporter according to claim 18, wherein an average thickness of the adhesive layer is equal to or greater than an average thickness of the anti-slip member.   The joint supporter according to claim 18 or 19, wherein an average thickness of the adhesive layer is 0.05 mm or more and 1 mm or less.   The joint supporter according to any one of claims 15 to 20, wherein the anti-slip member has a contact sensation.   The joint supporter according to any one of claims 1 to 8, wherein a surface along an inner peripheral surface of the supporter body in the anti-slip member is a continuous handle having an opening, and includes resin.   The joint supporter according to claim 22, wherein an opening ratio of the anti-slip member on a surface along the inner peripheral surface of the supporter body is 1% or more and 70% or less.   The joint supporter according to claim 22 or 23, wherein the opening includes two or more kinds of openings having different shapes and sizes.   The joint supporter according to any one of claims 22 to 24, wherein an average thickness of the anti-slip member is 0.05 mm or more and 20 mm or less.   The joint supporter according to any one of claims 22 to 25, wherein the anti-slip member has a duro A hardness of 70 or less.   The joint supporter according to any one of claims 22 to 26, wherein the anti-slip member is a laminated body.   The joint supporter according to claim 27, wherein the laminate is a laminate in which layers of different materials are laminated in a thickness direction.   The joint supporter according to claim 27 or 28, wherein the stacked body is a stacked body in which layers different in at least one of a shape and a position of the opening are stacked in a thickness direction.   The joint supporter according to any one of claims 22 to 29, wherein the anti-slip member is a gravure print. The supporter body is
A first support portion that is provided closer to the wearer's torso than the joint support and supports the torso side of the joint;
A second support portion that is provided on a side opposite to the wearer's torso from the joint support portion and supports a portion on the opposite side of the torso from the joint;
A first rubber band provided at an axial end on the wearer's torso side of the supporter body;
A second rubber band provided at an end portion in the axial direction on the opposite side of the body of the wearer in the supporter body;
The joint supporter according to any one of claims 15 to 30, further comprising:   32. The joint supporter according to claim 31, wherein an average contact pressure in the first support portion and the second support portion is lower than an average contact pressure in the joint support portion.   A garment comprising the joint supporter according to any one of claims 15 to 32.