KR20080025312A - Shock absorbing member and clothes with shock absorbing member - Google Patents

Abstract

A shock absorbing member which is comfortable in wearing and cloths including the same are provided to protect the femur from damage in falling and to facilitate a user's movement during wearing it. A shock absorbing member comprises: a foam body sheet layer including more than 3 laminates of foam body(11,12,13), among which the middle one(12) is smaller than the others; a fabric cover(16) which covers at least a part of the middle laminate(12) inserted into the foam body sheet layer; and a fabric receiving cover(15) with a size smaller than a size able to cover the whole surface of the foam body sheet layer.

Description

SHOCK ABSORBING MEMBER AND CLOTHES WITH SHOCK ABSORBING MEMBER}

The present invention relates to a shock absorbing member and a garment to which the shock absorbing member is attached.

Elderly fractures are often caused by fall accidents. In particular, when the elderly are turned over, the frequency of fracture of the femur neck is high, which is a factor of prolonging hospitalization and preserving seats. The fracture of the femoral neck is mostly due to the fall from the line height or the fall in the house. In recent years, in order to reduce such an impact of the whole city, the various clothes provided with the shock absorbing member have been developed. For example, Patent Literature 1 and Patent Literature 2 below disclose garments provided with shock absorbing members for protecting recesses, thighs, and the like from impact caused by conduction, collision, and the like.

[Patent Document 1] Japanese Patent Application Laid-Open No. 10-237708

[Patent Document 2] Japanese Utility Model Registration No. 3017128

However, in the conventional clothes with the shock absorbing member, the shock absorbing member is too large or too hard, which is a factor that inhibits the wearer's movement and causes discomfort to the wearer.

Therefore, an object of the present invention is to provide a garment having a shock absorbing member and a shock absorbing member to which the wearer is alleviated, and which is comfortable and mobile.

The shock absorbing member of the present invention includes a foam sheet layer in which three or more foam sheets are laminated, and a cloth cover covering at least a part of the foam sheet sandwiched inside the foam sheet layer, wherein the planar shape of the foam sheet layer is quadrilateral. It is a shape which removed each part of, It is a shape which can cover the part corresponding to the part of the femur which is connected with at least the great trochanter on the side of a human body, and its charger.

According to the present invention, since at least a part of the foam sheet sandwiched inside the foam sheet layer is covered with a cloth cover, it is possible to prevent the foam sheets contained in the foam sheet layer from sticking together and to be stuck. Can be further increased. In addition, the present invention is made by forming the planar shape of the foam sheet layer so as to cover each part of the quadrilateral, and at least a portion corresponding to a part of the femur connected to the large electron on the side of the human body and the charger thereof. In the case where the shock absorbing member according to the present invention is provided at a position covering, for example, a portion corresponding to the counter-battery of the garment, a part of the shock absorbing member protrudes outward from the line of the body even when the wearer of the garment stands or sits. It can prevent the situation. Therefore, it is possible to prevent the position of the shock absorbing member from greatly shifting and to impede the wearer's movement, thereby reducing the discomfort of the wearer. Therefore, the remarkable effect of being comfortable and mobile can be exhibited.

In addition, in the shock absorbing member of the present invention, the size of the foam sheet sandwiched in the inner side is smaller than the size of two foam sheets positioned on the outer side of the foam sheet layer, and a part of the two foam sheets positioned on the outer side is By making the width narrower than the width of a part of the foam sheet sandwiched inside, it is preferable to fix the movement of the foam sheet sandwiched inside.

Thus, by forming the part which has a width larger than the width | variety of the part of the foam sheet located on the outer side in a part of foam sheet fitted inward, this wide width part cannot pass a narrow width part (stopper mechanism) . This makes it possible to fix the foam sheet in place without using an adhesive or the like. By employing such a stopper mechanism, it is possible to prevent the situation where the small-sized foam sheet sandwiched between two foam sheets moves.

Moreover, in the shock absorbing member of this invention, it is preferable that the said foam sheet layer is accommodated in the cloth receiving cover sewed to the size smaller than the size which covers the whole foam sheet layer.

In this case, since the pressure can be applied in the shrinking direction of the foam sheet layer, the foam sheet layer can be expanded, and the shock absorbing force can be further increased.

Moreover, in the shock absorbing member of this invention, it is preferable to form the size of the two foam sheets located in the said outer side in a different size, respectively.

This makes it possible to increase the expansion of the foam sheet layer since the circumferential end of the large-size foam sheet is bent to approach the circumferential end of the small-size foam sheet and is further deformed.

In addition, in the shock absorbing member of the present invention, the foam sheet layer is composed of three foam sheets, and the thickness of the foam sheet is preferably 3 mm each. In this way, an excellent shock absorption effect can be obtained and the discomfort of the wearer can be reduced.

In the garment with the shock absorbing member of the present invention, the shock absorbing member is disposed at a position covering at least a portion corresponding to a part of the femur that is connected to the large electron on the side of the human body and its charger when the garment is worn. It is preferable to be provided, and it is more preferable to be provided in the position which covers the site | part corresponding to the sciatic body which spreads from the side of the human body to the back side.

Moreover, in the garment with a shock absorbing member of this invention, when the said shock absorbing member wears the said garment, the position which covers the site | part corresponding to from the large trochanter in the side of a human body to the vicinity of the front-end | tip of a sciatic nodule. It is preferable to be provided in. In this way, it is possible to effectively absorb the impact on the recessed part or the buttocks received when the wearer is inclined backwards.

In addition, in the garment with the shock absorbing member of the present invention, the shock absorbing member is preferably provided to be detachable from the garment. In this way, for example, since the shock absorbing member can be separated at the time of washing, it is possible to suppress the occurrence of mold that may occur due to washing the shock absorbing member.

According to the garment with the shock absorbing member and the shock absorbing member according to the present invention, it is possible to alleviate the discomfort of the wearer, and to expect an excellent effect of being comfortable and easy to move.

EMBODIMENT OF THE INVENTION Hereinafter, embodiment of this invention is described based on drawing. In addition, the same code | symbol is attached | subjected to the same element and the overlapping description is abbreviate | omitted.

With reference to FIGS. 1-8, the hip protector which is the garment with a shock absorbing member and an shock absorbing member in embodiment is demonstrated.

1 and 3 are views of the shock absorbing member 1 placed on a plane from above, and FIG. 2 is a view from the II-II cross section of FIG. 1. 4 to 8 show the hip protector 2 with the shock absorbing member 1 in a worn state. Fig. 4 is a view of the hip protector 2 in an upright state, and Fig. 5 is a view of the hip protector 2 in an upright state, seen from the front front direction, and Fig. 6 is a heap protector 2 in an upright state. ) Is a view seen from the rear front direction. FIG. 7: is the figure which looked at the hip protector 2 of a seated state from the left side direction, and FIG. 8 is the figure which looked at the hip protector 2 of a seated state from the back front direction.

When the shock absorbing member 1 shown in FIGS. 4-8 is wearing the hip protector 2, the femur (T) connected from the great trochanter T (the great trochanter T) which is located in the side and obliquely rear side of a human body. Part of it. Hereinafter, the same] and is provided in a position covering the portion corresponding to the sciatic. Thereby, the shock absorbing member 1 can absorb not only the shock received when it is inverted to the side, but also the shock received when it is inclined backwards.

Here, the forward, rearward and transverse directions can be prevented or mitigated by impacts on the lumbar or buttocks by defending with both hands. However, in the fall backwards, in the case of elderly people, especially those whose physical strength has been deteriorated, defense with both hands is late, and the shock of the whole city is often received in front of the back and the buttocks. Therefore, when turned backward at an angle, the femoral neck is easily fractured, and when the femoral neck is fractured, it leads to prolongation of hospitalization and state of seat maintenance. In view of this fact, the shock absorbing member 1 covers not only the recessed portion on the side but also the recessed portion or the buttocks on the rear side at an angle, thereby effectively effecting a large impact that the recessed portion or the buttocks face at an angle by the inclination backward. Since it can be absorbed easily, it becomes possible to avoid the situation where the femur neck fractures.

In addition, the shock absorbing member 1 should just be provided in the position which covers the site | part corresponding to the counter-electrode T at the side of a human body at the time of wearing the hip protector 2, but it is a scia from the counter-electron T. It is more preferable to be provided even in the position which covers the site | part corresponding to the edge part vicinity of a nodule. Thereby, the impact to the recessed part or the buttocks which are received when turned backward at an angle can be absorbed more effectively. Moreover, it is more preferable to be provided even in the position which covers the site | part corresponding to the sciaticum which spreads over the back side from the human body side. Thereby, the shock to the buttocks which are received when it is conducted backward can also be effectively absorbed.

The shock absorbing member 1 has three laminated foam sheets 11, 12, and 13 (hereinafter referred to as foam sheet layer) as main components. The foam sheets 11, 12, 13 are made of NP gel (foaming gel), and are excellent in restoring force and holding force. The thickness of the foam sheets 11, 12, 13 is 3 mm, respectively. Therefore, the thickness of the foam sheet layer is 9 mm. In addition, by configuring the shock absorbing member 1 with a 9 mm foam sheet layer, a shock absorbing member having a lighter, softer and more excellent shock absorbing power can be provided than when the shock absorbing member is composed of one 9 mm foam sheet. It becomes possible.

Here, with reference to Table 1, the result of having measured the impact acceleration of a foam sheet by changing the thickness of a foam sheet and the number of laminated sheets is demonstrated.

The impact acceleration of Table 1 was measured by dropping the spindle of diameter 30mm and the weight of 8.4 kg on the foam sheet at the height of 100 mm.

Here, the inventor of the present invention creates an approximate straight line showing the change in the impact acceleration by the sheet thickness, using the thickness (mm) and the impact acceleration (G) of the standard values shown in Table 1, and the impact acceleration (2100m) As a result of determining the sheet thickness reaching / s ² ), an opinion was obtained that the impact acceleration would reach 2100 m / s ² as the target value when the sheet thickness was 8.6 mm or more. According to this view, since the foam sheet layer is 9㎜ in this embodiment, the acceleration shock is smaller than 2100m / s ² is the target value. Therefore, the foam sheet layer in this embodiment is excellent in impact absorption force.

As a result of the measurement shown in Table 1, it was found that the larger the thickness of the foam sheet is, the smaller the acceleration of the impact is, and when the thickness is the same, the larger the number of laminated sheets, the smaller the acceleration of the acceleration is.

Part of the foam sheet 12 sandwiched inside the foam sheet layer is covered with a cloth cover 16. By covering a part of the foam sheet 12 with the cloth cover 16 in this manner, it is possible to prevent the three foam sheets 11, 12, 13 included in the foam sheet layer from sticking together. In addition, by allowing the three foam sheets 11, 12, and 13 to be deformed independently without sticking, the shock absorbing force can be further increased.

The cloth cover 16 may cover the entire foam sheet 12. However, by forming a portion of the foam sheet 12 that is not covered with the cloth cover 16, a portion of the foam sheets 11 and 13 positioned outside is covered with the cloth cover 16. I can stick with some. Thereby, the situation which the foam seat | seet 12 fitted inside is shift | deviated from a fixed position can be prevented.

The size of the foam sheet 12 sandwiched inside is smaller than the size of the two foam sheets 11 and 13 located on the outside. Thereby, a part of foam sheet layer, especially the peripheral edge part vicinity can be formed only by two foam sheets 11 and 13. That is, the thickness of the vicinity of the peripheral edge part of a foam sheet layer can be made thin. Therefore, the wearer's discomfort can be more alleviated, and a more comfortable and mobile hip protector can be provided. By wearing such a hip protector, for example, the back of the body at the time of bedtime can be easily facilitated, and the contour of the shock absorbing member which appears to the outer wear at the time of wearing can be made inconspicuous.

The sizes of the two foam sheets 11 and 13 located on the outside are formed in different sizes, respectively, and the size of the foam sheet 11 is larger than the size of the foam sheet 13. In the present embodiment, the smaller foam sheet 13 is disposed on the skin side of the human body when the hip protector 2 is worn.

The foam sheet layer is accommodated in the cloth-containing receiving cover 15 sewn to a size smaller than the size covering the entire foam sheet layer. Thereby, pressure can be applied in the direction which shrinks a foam sheet layer. Therefore, as shown in FIG. 2, since the foam sheet 11 having a larger size than the foam sheet 13 is curved and deformed, a space is formed inside the foam sheet layer. By the formation of such a space, the foam sheet layer has expansion, and by having this expansion, the shock absorbing force can be further increased.

In addition, it is preferable that the size of the accommodation cover 15 is smaller than the size that covers the entire foam sheet 13. As a result, the circumferential end portion of the large-sized foam sheet 11 can be brought close to the circumferential end portion of the small-sized foam sheet 13, thereby making it possible to increase the expansion of the foam sheet layer.

As shown in FIG. 3, the width a of a part of two foam sheets 11 and 13 located in the outer side is narrower than the width b of a part of the foam sheet 12 fitted inward. Thus, the part having the width b by forming a part having a width b wider than the width a of the foam sheets 11 and 13 positioned on the outside in a part of the foam sheet 12 fitted inside. It cannot pass through this width a part (stopper mechanism). This makes it possible to fix the foam sheet 12 in place without using an adhesive or the like. By employing such a stopper mechanism, it is possible to prevent the situation where the small-sized foam sheet 12 sandwiched between two foam sheets 11 and 13 moves. In addition, when the three foam sheets 11, 12, 13 are accommodated in the accommodating cover 15, and the peripheral edge of the accommodating cover 15 is sewn, the three foam sheets 11, 12, 13 are overlapped. The end e may be folded together and sewn together with the circumferential edge of the housing cover 15. Thereby, the movement of the foam sheet 12 can be prevented more firmly. Therefore, when the hip protector 2 is washed, for example, the situation where the foam sheet 12 is twisted can be more reliably avoided.

As shown in FIG. 3, the planar shape of a foam sheet layer becomes a shape remove | eliminated each part of quadrilateral (q). By such a shape, the position of the shock absorbing member 1 is greatly shifted when the wearer stands or sits down, and the movement of the wearer can be prevented, and the discomfort of the wearer can be reduced.

Here, when the shock absorbing member is used in a quadrilateral state, the following problem occurs. For example, when the transition from the upright state shown in FIG. 4 to the seated state shown in FIG. 7 occurs, the lines of the body deform in accordance with this movement. On the other hand, the shock absorbing member cannot deform the shape in accordance with the movement of the body. Therefore, in particular, each part of the shock absorbing member protrudes outward from the line of the body. However, since the force which tries to push back so that it is accommodated in the line of a body (for example, the contracting force of the extended garment, the reaction force from the ground received at the time of fall) acts on this protruding corner part, The whole is moved, and the position of the shock absorbing member is greatly shifted. That is, for example, in the case where the wearer is inverted, the corners protruding outward from the line of the body receive reaction force from the ground, and the like, so that the position of the shock absorbing member is shifted from the protective portion (for example, around the trochanter). Discarding is considered. In this case, the shock absorbing member cannot protect the protective portion. Therefore, the purpose of the shock absorbing member which protects a recessed part, a thigh part, etc. from the shock by conduction etc. cannot be achieved.

Therefore, in the present invention, even when the wearer stands or sits down, the plane shape of the foam sheet layer when the wearer stands or sits so that a part of the shock absorbing member 1 does not protrude outward from the line of the body. It was formed into a shape suitable for deformation of lines of the body. Specifically, for example, first, the planar shape of the foam sheet layer is a shape in which each corner portion of the quadrilateral is removed, and the movement is performed while covering the portions corresponding to the large electrons and the scias on the lateral and oblique rear sides of the human body. The part covering a large human part was removed as much as possible. Here, as a human body part with large movement, the base periphery of a thigh part corresponds, for example. Covering a large part of the human body with a shock absorbing member may be a factor that hinders the wearer's movement. In addition, in the case where the large body part is covered with the shock absorbing member, the shape of the human body part covered with the shock absorbing member is greatly changed in accordance with the wearer's movement, so that the shock absorbing member is in close contact with the human body part by the wearer's movement. A part of the body may float away from the human body part, and furthermore, the shock absorbing member may be a cause of misalignment. When the shock absorbing member is lifted up from the human body part, the shock absorbing power is reduced. In order to solve these problems, the shock absorbing member in this embodiment is a shape which removed as much as possible the part which covers a large part of human body after removing each corner part of a quadrilateral.

Next, the result of the conduction test which measured the impact force of the whole city by inverting the dummy which wore the heap protector, and the dummy which does not wear the heap protector, respectively is demonstrated.

In this fall test, the following two types of hip protectors were prepared as the heap protectors to be worn on the dummy. The 1st heap protector is a heap protector which employ | adopted the shock absorbing member which laminated | stacked three sheets of foam sheets 11, 12, and 13 of the size shown in the above-mentioned FIG. 1-3, and the 2nd heap protector is 3 of the same size. It is a hip protector which employ | adopted the shock absorbing member which laminated | stacked the long foam sheet. With reference to FIG. 9 and FIG. 10, the difference of two types of heap protectors is demonstrated concretely. FIG. 9 is a sectional view near the circumferential end of the foam sheet layer employed in the first heap protector, and FIG. 10 is a sectional view near the circumferential end of the foam sheet layer employed in the second heap protector. As shown in FIG. 9, the foam sheet layer of a 1st hip protector sequentially has the largest foam sheet 11, the smallest foam sheet 12, and the medium foam sheet 13 from the outer side of a wearer. ) Are stacked. On the other hand, as shown in FIG. 10, three foam sheets 11a, 12a, 13a of the same size are laminated | stacked sequentially from the outer side of a wearer as the foam sheet layer of a 2nd hip protector. That is, the foam sheet layer of the first heap protector is laminated while displacing the circumferential end of each foam sheet so that the thickness does not come out, whereas the foam sheet layer of the second hip protector is laminated along the circumferential end of each foam sheet. They are different in that they are. In addition, the dummy worn by the hip protector is sequentially worn on the skin side of the dummy, and the shorts, hip protector, 5-part long pants and pants are worn by the dummy, and the dummy without the hip protector is sequentially worn by the dummy skin side. , 5-part pants and trousers are worn.

The measurement system employed in this conduction test consists of an electromagnet and a rectifier for holding the conduction dummy and the striking spindle, a three-axis accelerometer mounted on the microswitch and the crotch joint plate, and a recording unit.

The dummy for the fall is a dummy model with a height of 150 cm and a weight of 50 kg. In order to improve the durability, the surface of the entire limb is covered with soft urethane, and the mass and the center of gravity of the body parts become the physical properties of the human limbs. Each body part is produced using polyurethane resin or the like. In addition, a prosthetic component is used for each joint so that the standing posture can be maintained and the limb joint can be adjusted.

The conduction test was conducted by conducting the dummy to the flooring floor (stand set construction) in the machine room of a Rosai rehabilitation optical center with a room temperature of 25 degrees and a humidity of 60%.

As a method of inverting the dummy, a method of hitting the rear of the knee on one side of the dummy in the standing posture with a swinging spindle hanging from the prescribed position is adopted. When the dummy is inverted by this conduction method, the dummy is inverted with torsion, and the impact of the entire city is applied to the large electromagnetic portion. The impact force of all the figures is computed by post-processing so that the synthetic acceleration which is a three-way component of a three-axis accelerometer becomes perpendicular with respect to a floor surface. In addition, the sampling frequency of the acceleration output waveform is 1 KHz.

Next, with reference to FIGS. 11-13, the impact force at the time of each pile conduction is demonstrated. FIG. 11 is a graph showing a synthetic acceleration waveform of a dummy wearing a first heap protector, FIG. 12 is a graph showing a synthetic acceleration waveform of a dummy wearing a second heap protector, and FIG. 13 is a diagram showing no wearing of a heap protector. It is a graph showing the synthetic acceleration waveform of the dummy.

In the dummy wearing the first heap protector, the maximum value of the synthetic acceleration was 227.47 G (2229.21 m / s ² ) (see FIG. 11). In the dummy wearing the second heap protector, the maximum value of the synthetic acceleration was 149.95 G (1469.51). m / s ² ) (see FIG. 12). On the other hand, in the dummy without wearing the hip protector, the maximum value of the synthetic acceleration was 346.08 G (3391.58 m / s ² ) (see FIG. 13).

As a result, it can be seen that the impact absorption rate by the first hip protector is 34.28%, and the impact absorption rate by the first hip protector is 51.68%. Thus, the second heap protector is higher than the first heap protector with respect to the impact absorption rate. However, as in the first hip protector, the size of the foam sheet to be fitted inside can be reduced, and the circumferential end of each foam sheet can be displaced to further reduce the discomfort of the wearer, making it more comfortable and mobile. Loss is effective.

In addition, in embodiment mentioned above, although three foam sheets 11, 12, 13 are laminated | stacked, the number of sheets which foam sheets are laminated | stacked is not limited to this. 4 or more sheets may be laminated, and in this case, what is necessary is just to laminate | stack multiple sheets the foam sheet 12 fitted in the inside described in embodiment mentioned above.

In addition, although the hip protector 2 with which the shock absorbing member 1 is attached is demonstrated in embodiment mentioned above, you may make it possible to isolate | separate the shock absorbing member 1 from the hip protector 2. For example, an outlet may be formed in a part of the skin side of the hip protector 2 to which the shock absorbing member 1 is attached, and the shock absorbing member 1 may be separated from the outlet. In addition, it is better to form this outlet on the skin side than to form the outer side of the hip protector 2. By forming it on the skin side, it is possible to avoid the situation where the line of the outlet port is raised in the outer wear worn on the hip protector 2. In addition, since the impact absorbing member 1 can be detached and washed only by the hip protector 2 by forming the outlet, for example, mold that can be caused by washing the shock absorbing member 1 can be washed. Can be suppressed.

In addition, in the above-mentioned embodiment, although the garment with a shock absorbing member was demonstrated using a hip protector, this invention is applicable to other than a hip protector. For example, it is applicable to outer pants, pajamas, sports clothing and the like.

The present invention is a garment with a shock absorbing member, wherein the shape of the foam sheet layer included in the shock absorbing member is formed in a shape suitable for deformation of the line of the body when the wearer repeats the upright and seated state I make it a constitution. If it is such a structure, it is not limited to said embodiment, Various forms are possible. For example, the planar shape of a foam sheet layer is not limited to the shape in embodiment mentioned above, A different shape may be sufficient.

1 is a view of the shock absorbing member directly from above.

FIG. 2 is a cross-sectional view taken along line II-II of FIG. 1.

3 is a view of the shock absorbing member directly from above.

4 is a view of the hip protector in an upright state seen in the left transverse direction.

5 is a view of the hip protector in an upright state as seen from the front front direction.

It is a figure which looked at the hip protector of an upright state from the back front direction.

It is a figure which looked at the heap protector of a seated state from the left side direction.

Fig. 8 is a view of the hip protector in a seated state as seen from the rear front direction.

9 is a cross sectional view near the perimeter end of the foam sheet layer used in the first heap protector.

10 is a sectional view near the perimeter end of the foam sheet layer used for the second heap protector.

11 is a graph showing a composite acceleration waveform of a dummy wearing the first heap protector.

12 is a graph showing a composite acceleration waveform of a dummy wearing a second heap protector.

Fig. 13 is a graph showing the synthetic acceleration waveform of the dummy without wearing the hip protector.

(Explanation of symbols for the main parts of the drawing)

One … Shock absorbing member 2. Heap protectors

11, 12, 13... Foam sheet 15. Acceptance cover

16. Cloth cover

Claims (9)

Foam sheet layer which laminated | stacked three or more foam sheets, A cloth cover covering at least a portion of the foam sheet sandwiched inside the foam sheet layer; The planar shape of the foam sheet layer is a shape in which each corner of the quadrilateral is removed, and at least the impact that is a shape capable of covering a portion corresponding to a part of the femur connected to the large electron on the side of the human body and its charger. Absorption member. 2. The foam sheet according to claim 1, wherein the size of the foam sheet sandwiched inside is smaller than the size of two foam sheets located on the outside of the foam sheet layer; The shock absorbing member, characterized in that the movement of the foam sheet sandwiched in the inner side is fixed by making the width of the portion of the foam sheet positioned on the outer side two narrower than the width of the portion of the foam sheet sandwiched in the inner side. The shock absorbing member according to claim 1 or 2, wherein the foam sheet layer is accommodated in a cloth receiving cover sewn to a size smaller than a size covering the entire foam sheet layer. 4. The shock absorbing member according to claim 3, wherein the sizes of the two foam sheets located on the outer side are formed in different sizes. The shock absorbing member according to claim 4, wherein the foam sheet layer is composed of three foam sheets, and each of the foam sheets has a thickness of 3 mm. A garment with a shock absorbing member comprising the shock absorbing member according to any one of claims 1 to 5, wherein: The shock absorbing member is provided with a shock absorbing member, wherein the shock absorbing member is provided at a position covering at least a portion corresponding to a part of the femur that is connected to the large electron on the side of the human body and the charger when the clothing is worn. . The garment with a shock absorbing member according to claim 6, wherein the shock absorbing member is further provided at a position covering a portion corresponding to the scia, which extends from the side to the back of the human body when the garment is worn. 7. The shock absorbing member according to claim 6, wherein the shock absorbing member is provided at a position covering a portion corresponding to the front end of the sciatic nodule to the vicinity of the tip of the sciatic nodule when the garment is worn. With clothing attached. The garment with shock absorbing member according to claim 6, wherein the shock absorbing member is detachably provided from the garment.

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