TWI692409B - Manufacture method of a buffer pad and the buffer pad - Google Patents

Abstract

The present invention relates to the manufacture method of a buffer pad and the buffer pad. The buffer pad is used to connect with a clothes, comprising a buffer member which is composed of a plurality of buffer block. The manufacture method comprises: a preparing step, a cutting step, a first combination step and a second combination step; preparing a knife mold in the preparing step; using the knife mold to press a buffer material, so the buffer material forms the buffer block which is located in the knife mold; connecting a first layer to the buffer blocks and separating the buffer blocks from the knife mold in the first combination step; connecting a second layer to another side of the buffer blocks in the second combination step, so the first layer and the second layer will be connected with the opposite sides of the buffer blocks for forming the buffer pad. A process area is formed at the periphery of the buffer pad for designing a fitting shape by a user, so that the buffer pad can be convenience to combine with other kinds of protector.

Description

Buffer sheet manufacturing method and buffer sheet

The invention is a buffer sheet and a manufacturing method thereof, in particular to a buffer sheet installed in a sports protective gear and a manufacturing method thereof.

Shoulder guards, chest protectors, leg guards or elbow guards are used to protect users from collisions, bruises, cuts, scrapes and other injuries during sports or activities. In addition to the design, hard shells and other components can be used to protect the human body Besides, there is another way to protect the human body by providing soft cushions on the protective gear to absorb energy.

Among them, the production method of such protective equipment using buffer sheets to protect the human body is mostly the case where the cushion body as a cushion material is first combined with a layer body of similar size to the cushion body, and then the two are combined The cushion body and the layer body are cut down to form a cushion body with a specially arranged shape of cushion blocks to form a cushion sheet, and then the cushion sheet is joined to the protective gear; but this production method makes the overall shape and contour of the cushion sheet It must be decided when cutting out the pad body, because the layer body and the pad body attached to the layer body are cut at the same time to make a buffer sheet, so there is no way to reserve an appropriate installation area on the layer body in order to be able to It is a connection protector to help the pad body be stable, and the cutting depth needs to be accurately positioned when cutting the pad body to prevent the layer body from being injured during cutting.

In addition, the method of making a buffer sheet by combining the complete cushion body and the layer body before cutting the cushion body to the shape of the desired cushion block, if you want to change the design of the cushion block in the cushion sheet to change the protective gear For the protection performance of different positions, you must first make the bureaus at the stage of the cushion body. The parts change (such as different materials or thickness), and then cut into different buffer blocks after being combined on the pad body. Or, it is to first make multiple buffer sheets with different properties but smaller volume, and then assemble them at different positions of the protective gear after precise positioning between each other, to form a complete shape and partial area on the protective gear Cushions with different protective properties.

The main object of the present invention includes providing a method for manufacturing a buffer sheet, which separates the step of forming the buffer material portion in the buffer sheet from the step of forming the overall shape of the buffer sheet when producing the buffer sheet, and can be reserved on the finished buffer sheet The buffer sheet is installed in the installation area of the protective gear, and there is no need to accurately position the cutting depth of the buffer material when manufacturing the buffer material.

The secondary object of the present invention includes providing a method for manufacturing a cushion sheet, which can be used to produce parts of different parts of the cushion first when producing cushions with different materials or thickness variations in local areas, and then combine the parts Into a complete buffer sheet.

The secondary object of the present invention includes providing a method for manufacturing a buffer sheet, which can accurately locate the position between each buffer block when a plurality of different types of complex buffer blocks constituting different regions of the buffer sheet are combined into a complete buffer sheet .

The secondary object of the present invention also includes providing a buffer sheet, which is reserved for the user to install a suitable shape of the mounting area when the buffer sheet is installed on the protective gear, and passes through the thickness of the buffer material in part of the area Or the material changes, so that the buffer sheet has different buffering capacity in different parts.

In order to achieve the above object, the present invention provides a method for manufacturing a buffer sheet, the buffer sheet includes a buffer member composed of a plurality of buffer blocks, including: a preliminary step, a cutting step, a first combining step and a first Two combined steps.

In this preparatory step; prepare a knife mold, the knife mold has a plurality of cutters, the cutters surround a first area for determining the shape and arrangement of the buffer blocks, and decide to be located in the first area Outside the second area, the first area and the second area have different depths.

In the cutting step: a base material is punched with the knife mold, and a plurality of buffer blocks positioned on the knife mold are formed in the first area, and a residue is formed in the second area, and the buffers The horizontal position of the block positioned on the die is higher than the horizontal position of the remnant.

In the first combining step: a first layer body is connected to a first connecting portion of the buffer blocks positioned on the cutter die, so that the first layer body and the cutter die are respectively connected to the buffers Opposite sides of the block, separating the buffer blocks and the die, and forming a semi-finished product formed by the buffer blocks and the first layer body.

Wherein, the residue can be separated from the buffer blocks after one of the cutting step or the first combining step.

In the second combining step: a second layer body is connected to a second connection portion of the buffer blocks, so that the first layer body and the second layer body are respectively connected to opposite sides of the buffer blocks And a buffer sheet is formed.

In a preferred implementation, in order to prevent regions with poor protection due to the arrangement of the buffer blocks when the cushion pad is deformed, the first area includes a regular area for forming a plurality of buffer blocks of the same shape. The buffer blocks produced in the regular area are separated from each other by a gap, and the gaps are respectively arranged along a first direction, a second direction, and a third direction, so that the The buffer block presents a hexagonal shape; however, in other embodiments, the buffer blocks in the regular area may be geometric patterns of other arbitrary shapes.

In order to reserve the buffer sheet for the user to install the buffer sheet on the clothing as a protective gear, he can process the installation area of a suitable shape by himself. In a preferred implementation, the first layer body and the second layer body The area of is larger than the area of the buffer element, so that the first layer body has a first bonding area for connecting the buffer element and a first outer edge area located at the periphery of the first bonding area; and the second layer body has A second bonding area for connecting the buffer element and a second outer edge area located at the periphery of the second bonding area.

In a preferred embodiment, the manufacturing method of the buffer sheet further includes a pre-step for changing the thickness of the local position of the buffer, in the pre-step, one of the first ways is through cutting or heat treatment The thickness of the local position of the substrate is changed before the cutting step.

In a preferred embodiment, the manufacturing method of the buffer sheet further includes a combining step after the first combining step, in which at least a second die is formed on a second die A second buffer block, the semi-finished product is arranged on the second die, so that the buffer blocks, the first layer body and the second buffer blocks are positioned relative to each other, the first layer body and the second buffer block Connection; wherein, one of the thickness or material of the second buffer block is different from the buffer block, so that the buffer sheet includes two different buffer blocks.

It can be seen from the above description that the manufacturing method of the buffer sheet of the present invention is characterized in that the buffer blocks in the buffer sheet are cut out before manufacturing, and then only by combining the buffer block with the first layer body and the second layer body , So that the cutting depth can not be accurately considered when cutting the buffer block, and because the first layer body and the second layer body are combined with the buffer block after cutting the buffer block, the first layer body on the product and There is no limit to the shape of the second layer, and a large area can be reserved on the product to facilitate the future secure connection of the product to the fixed area of the protective gear.

The buffer sheet provided by the present invention through the above-mentioned manufacturing method for mounting on a garment includes: a buffer member including a plurality of buffer blocks, and the buffer blocks are spaced apart from each other Forming a plurality of slits, and the buffer blocks together constitute a first connection portion and a second connection portion on opposite sides; a first layer body, a part of the region is adjacent to the first connection portion to form a first bonding area, The remaining area extends out of the first junction to form a first outer edge area; and a second layer body, a part of the area is adjacent to the second connection portion to form a second junction area, and the remaining area extends out of the second connection portion To form a second outer edge region.

Wherein, the plurality of buffer blocks have different heights, so that the first connecting portion of the buffer member forms a first height surface and a second height surface.

Regarding how to construct the first height surface and the second height surface, in different embodiments, the buffer block of the buffer member is made of a first elastic material and a second elastic material different from the first elastic material Stacked; or the buffer blocks with the first height surface are composed of a first elastic material, and the buffer blocks with the second height surface are composed of a height different from the first elastic material The second elastic material.

In another embodiment, the buffer element has a central area and an edge area surrounding the central area, and the edges of the plurality of buffer blocks in the edge area respectively form an arc curved surface.

As can be seen from the above description, the characteristic of the buffer sheet of the present invention is that the buffer sheet is reserved for the design user to process a suitable shape of the installation area, so that the subsequent installation of the buffer sheet on the protective gear, and by changing the local part of the buffer sheet The thickness of part of the cushioning material makes the cushioning sheet have different cushioning capacity in different parts.

10: buffer sheet

20: Cushion

20a: First connection

20b: Second connection

201: buffer block

201a: horizontal position

201c: width

202: second buffer block

21: Gap

21a: width

211: First direction

212: Second direction

213: Third direction

22: Hexagon

220: Set shape

23: Arc surface

24: overlapping area

30: first layer

301: The first junction

302: The first outer edge area

31: Second layer

311: Second junction

312: Second outer rim area

40: Installation area

50: clothing

61: first height plane

62: Second height surface

71: The first elastic material

72: Second elastic material

80: Central area

81: fringe area

82: Regular area

90: preliminary steps

901: knife mold

901a: Cutter

901b: first area

901c: depth

901d: Second area

901e: depth

901a: second die

901g: third area

901h: fourth area

901j: filler

91: Cutting steps

911: substrate

912: Remnants

912a: horizontal position

913: Preparation materials

92: The first step

922: Heater

925: Semi-finished products

926: Second semi-finished product

93: Second combination step

94: pre-step

941: Rounded corners

95: Combined steps

951: positioning mold

952: pit

1A is a perspective schematic view of an embodiment of the buffer sheet of the present invention; 1B is a schematic cross-sectional view of the buffer sheet of FIG. 1A when it is installed on a garment; FIG. 1C is a schematic cross-sectional view of the buffer sheet of the invention when it is installed on a garment; FIG. 2 is a further implementation of the buffer sheet of the invention 3A is a schematic diagram of the buffer sheet in the central region of FIG. 2; FIG. 3B is a schematic diagram of the AA section in FIG. 3A; FIG. 4 is a schematic diagram of steps of an embodiment of the method for manufacturing the buffer sheet of the present invention; FIG. 5A FIG. 5B is a schematic cross-sectional view of the knife mold; FIG. 5C to FIG. 5D are cross-sectional schematic views of the cutting step in FIG. 4; FIG. 5E is a schematic view of the first combining step in FIG. 4; 5F is a schematic diagram of the second combining step in FIG. 4; FIG. 5G is a schematic diagram of the buffer sheet manufactured by the manufacturing method in FIG. 4; FIG. 6 is a schematic diagram of another embodiment of the manufacturing method of the buffer sheet of the present invention; FIG. 7 is FIG. 8A to FIG. 8F are schematic diagrams of the combined steps in FIG. 7.

In order to facilitate a deeper and clearer understanding and understanding of the structure, use and characteristics of the present invention, the preferred embodiment is given, which is explained in detail in conjunction with the drawings as follows: About the buffer sheet 10 provided by the present invention For the structure part, please refer to FIG. 1A to FIG. 3B. First, please refer to FIG. 1A to FIG. 1C. The buffer sheet 10 provided by the present invention is used to be mounted on a garment 50. The structure includes: a buffer member 20 、A first layer body 30 and a second layer body 31.

The buffer member 20 includes a plurality of buffer blocks 201 and a plurality of second buffer blocks 202, and the buffer blocks 201 and the second buffer blocks 202 are spaced apart from each other (and completely separated from each other) to form a plurality The slit 21, and the buffer blocks 201 and the second buffer blocks 202 together constitute a first connecting portion 20a and a second connecting portion 20b on opposite sides.

In terms of shape, in this embodiment, the slits 21 are arranged along a first direction 211, a second direction 212, and a third direction 213, respectively, so that the buffer block 201 presents a hexagonal shape 22; In other embodiments, the buffer blocks 201 may be geometric patterns of other arbitrary shapes; in terms of materials, the present invention does not limit the materials of the buffer block 201, and the existing common buffer materials can be used to make the buffer block 201.

In the first layer body 30, a part of the area is adjacent to the first connection portion 20a of the buffer block 201 to form a first bonding area 301, and the remaining area extends out of the first bonding area 301 to form a first outer edge area 302 The second layer 31, a part of the area adjacent to the second connection portion 20b forms a second bonding area 311, the remaining area extends out of the second connection portion 20b to form a second outer edge area 312; the first The outer edge area 302 and the second outer edge area 312 are used to form an installation area 40 when connected to the clothes 50, so that the user can change the shape of the installation area 40 by cutting or other methods according to their needs; In this embodiment, the layers 30 and 31 are only connected to the first connection portion 20a and the second connection portion 20b of the buffer blocks 201 and 202, respectively, but not directly to the side surfaces of the buffer blocks 201 and 202. For the reason, please refer to the description of the subsequent manufacturing method; in other embodiments, it can also be connected to the side of the buffer blocks 201, 202.

In addition, in different embodiments, portions of the first outer edge region 302 and the second outer edge region 312 of the buffer sheet 10 may be connected to each other when the buffer sheet 10 is sold; or in another In the embodiment, the first outer edge area 302 and the second outer edge area 312 may not be directly connected to each other when the buffer sheet 10 is sold, but are connected to each other only when they are to be connected to the clothing 50, so as to view the clothing 50 uses or sizes The contour or tension of the outer edge regions 302, 312 can be changed according to the needs, so as to make personalized adjustments according to the needs of the user of the clothes 50.

The connection method of the portion where the first layer body 30 and the second layer body 31 are in direct contact with each other is not limited, and the first layer body 30 and the second layer body 31 may be connected by using hot pressing or adhesive in advance. Then connect the buffer sheet 10 to the clothing 50; or one of the layers may be first, for example, the first layer 30 is first connected to the clothing 50, and then another layer is connected to the first layer 30; by this, the tightness of different layers can be adjusted individually to affect the properties of the buffer sheet 10; in different embodiments, the first layer 30 and the second layer 31 can be the same or different Made of elastic material.

Please refer to FIG. 1A and FIG. 1B, in order to strengthen the protection of specific parts, in this embodiment, the buffer member 20 includes two different height buffer blocks (buffer block 201 and second buffer block 202), The first connecting portion 20a formed by the plurality of buffer blocks 201 and 202 is formed with a first height surface 61 and a second height surface 62 having different heights.

Wherein, in the manner of forming the first height surface 61 and the second height surface 62, in the embodiment of FIG. 1B, the buffer blocks 201 and the second buffer blocks 202 of different heights form the The first height surface 61 and the second height surface 62 are composed; but in another embodiment, as shown in FIG. 1C, the second buffer block 202 composed of a first elastic material 71 and a second The second buffer block 202 formed by the elastic material 72 is stacked on each other to form the first height surface 61 and the second height surface 62.

As shown in FIG. 2, (for convenience of explanation, the second layer body 31 is not drawn in FIG. 2, and the height of the buffer block 201 and the second buffer block 202 are the same), in order to strengthen the buffer sheet 10 at a specific location (FIG. Is the protection capacity of the central part of the buffer sheet 10), the buffer member 20 has a central region 80 (size and shape can be changed according to requirements) composed of a buffer block 201 of the same shape as a special region and a surrounding The edge region 81 of the central region 80, the buffer blocks 201 of the central region 80 have a set shape 220 (in In this embodiment, the hexagon 22) can be arranged regularly and closely to form a regular area 82, and the second buffer blocks 202 of the edge area 81 can have different shapes, even at the edge The edges of the second buffer blocks 202 in the area 81 respectively form an arc curved surface 23.

For the description of the regular area 82, please refer to FIG. 1, FIG. 3A and FIG. 3B, because the buffer block 201 presents the hexagonal shape 22, and the width 21a of the gap 21 between them is smaller than the width of the buffer block 201 201c, from the cross-sectional view, an overlapping area 24 will be generated between the buffer blocks 201, by which, when the buffer sheet 10 is deformed, there will be no occurrence due to the arrangement of the buffer blocks 201. If the straight line crease can be produced along the direction of the gap 21 directly.

Please refer to FIG. 4 to FIG. 8F for the manufacturing method of the aforementioned buffer sheet 10. The following will be explained step by step: As shown in FIG. 4, the manufacturing method of the buffer sheet 10 provided by the present invention includes: 1 Preparing step 90, a cutting step 91, a first combining step 92 and a second combining step 93.

Please refer to FIG. 5A to FIG. 5B, in the preparatory step 90; prepare a knife mold 901, the knife mold 901 has a plurality of cutting blades 901a, the cutting blades 901a have the same height and surround a common to determine the The shape of the buffer block 201 (such as the hexagon 22 in FIG. 1A) and the arrangement of the first area 901b, and determines a second area 901d outside the first area 901b; and wherein, in the first area 901b is also provided with a filler 901j to make the depth 901c of the first region 901b different from the depth 901e of the second region 901d; for convenience of installation, the filler 901j may be composed of an elastic material.

Then, referring to FIGS. 5C to 5D, in the cutting step 91, the substrate 911 is stamped with the cutter die 901 so that the substrate 911 generates the buffer blocks 201 positioned in the first area 901b And a residue 912 positioned in the second area 901d, and the horizontal position 201a of the buffer blocks 201 positioned on the knife mold 901 is higher than the horizontal position 912a of the residue 912.

Wherein, the depths (901c, 901e) of the first area 901b and the second area 901d are different, so that the substrate 911 is formed on the first area 901b after being pressed and cut by the die 901 during the process A plurality of the buffer blocks 201 that are independent and positioned on the die 901, and make the remaining part 912 of the other part of the substrate 911, that is, the part located in the second region 901d.

Please refer to FIG. 5E. In the first bonding step 92, the first layer body 30 is heated through a heater 922 and pressure is applied to partially melt and paste the buffer block 201 near the heater 922 side. The first layer body 30 connects the first bonding area 301 of the first layer body 30 to a first connecting portion 20a connected to the buffer block 201, and connects the first layer body 30 and the knife mold 901 respectively On the opposite sides of the buffer block 201, and then separate the buffer block 201 from the knife mold 901 and the residue 912 on the knife mold 901 to produce a semi-finished product 925 as shown in FIG. 5F; wherein, the first The area of the layer body 30 is larger than the area of the buffer member 20 so that the first layer body 30 has the first outer edge region 302 located outside the first bonding region 301.

The present invention does not limit the coupling method between the first layer body 30 and the buffer blocks 201. In other embodiments, an adhesive may be used to connect the first layer body 30 and the buffer block 201.

The present invention also does not limit the timing of separating the residue 912 and the buffer block 201. As shown in FIG. 5E, when the residue 912 is held in the knife mold 901, the difference in horizontal position is used to make the The buffer block 201 is connected to the first layer body 30 first, and then the buffer block 201 is separated from the knife mold 901 and the remaining material 912 at the same time; or in other embodiments, the remaining material 912 can be removed first After the knife mold 901, the first layer body 30 is combined with the buffer blocks 201.

Please refer to FIG. 5F to FIG. 5G. In the second combining step 93, a second bonding area 311 of the second layer body 31 with an area larger than that of the buffer 20 is also connected to the buffer blocks A second connection portion 20b of 201 (the second layer body 31 also has a first outer edge region 312 at the periphery of the second bonding region 311), so that the first layer body 30 and the second layer body 31 are respectively The phases connected to the buffer blocks 201 A buffer sheet 10 is formed on the opposite sides; for how to connect the second layer body 31 and the buffer block 201, refer to the aforementioned connection description between the first layer body 30 and the buffer block 201.

In this way, since the thickness of the buffer block 201 in the buffer sheet 10 is determined by the base material 911, and the shape and arrangement thereof are determined by the knife mold 901, the manufacturer can change the buffer by changing the design of the knife mold 901 The shape of the buffer member 20 in the sheet 10; in addition, after cutting the buffer block 201 first, the buffer block 201 is positioned on the knife mold 901 and combined with the first layer body 30 to make the cutting The buffer block 201 does not need to accurately consider the cutting depth and still maintain the arrangement between the buffer blocks 201; in addition, since the first layer body 30 and the second layer body 31 are only after cutting the buffer block 201 The combination with the buffer block 201 has nothing to do with the cutting process of the buffer block 201, so that the shapes and shapes of the first outer edge region 302 and the second outer edge region 312 on the first layer body 30, the second layer body 31 The connection mode can be set freely, so that the buffer sheet 10 can be firmly connected to the protective gear in the future.

Please refer to FIG. 2 and FIG. 6, in order to produce the buffer member 20 whose shape at the local position is slightly changed as shown in FIG. 2, the manufacturing method of the buffer sheet 10 may further include a pre-step 94; in the pre-step 94, Processing the base material 911 (for example, hot pressing and cutting) to form a preliminary material 913 having a rounded corner 941 at the edge and a size large enough to correspond to the size of the buffer 20 to be finally generated, and using the preliminary material 913 as a subsequent The substrate 911 cut by the cutting step 901 causes the buffer member 20 produced to be affected by the pre-step 94 to produce the buffer member 20 having the inclination angle 23 as shown in FIG. 2.

Please refer to FIGS. 7 to 8F. In order to manufacture the buffer sheet 10 with two different elastic materials (71, 72) in FIGS. 1A to 1C, the first bonding step 92 and the second bonding step A combination step 95 is added between 93, and the partial thickness of the buffer member 20 disposed between the first layer body 30 and the second layer body 31 in the buffer sheet 10 is changed by combining the components produced in different times .

Please refer to FIG. 7, FIG. 8A and FIG. 8B first. After using the knife mold 901 in FIG. 8B in the cutting step 91 and subsequent steps, a buffer block 201 composed of the elastic material 61 as shown in FIG. 8A is generated. After the semi-finished product 925, in the combining step 95, first prepare a second die 901f as shown in FIG. 8C, wherein the second die 901f is provided with a third area 901g for the second die 901f After stamping a second base material (not shown) composed of the second elastic material 72, at least one second buffer block 202 formed on the third area 901g and composed of the second elastic material 72 is formed; In addition to the third area 901g, a second area 901h corresponding to the position of the first area 901b of the blade 901 is also provided on the second blade 901f.

As shown in FIG. 8D, after the second buffer block 202 is generated using the second die 901f, the buffer blocks 201 of the semi-finished product 925 are arranged in the fourth area 901h so that the buffer blocks 201 and the The second buffer block 202 is mutually positioned on the second cutter die 901f, and enables the first layer body 30 of the semi-finished product 925 and the second buffer block 202 to be positioned relative to each other, so that the second buffer block 202 and the After the first layer body 30 is connected, a second semi-finished product 926 having the buffer block 201 and the second buffer block 202 as shown in FIG. 8E is generated, so that the subsequent second bonding step 93 is performed.

Wherein, since the second semi-finished product 926 in FIG. 8E has two types of buffer blocks (201, 202) with different heights, in order to perform the second combining step 93, the second connecting portion 20b of the buffer block 201 and the first The two buffer blocks 202 have the same height on the side away from the first layer body 30. Please refer to FIG. 8F. Before performing the second combining step 93, the buffer block 201 of the second semi-finished product 926 and the first The layer body 30 is disposed in a cavity 952 on a positioning mold 951; the depth of the cavity corresponds to the height difference between the buffer block 201 and the second buffer block 202, so that the buffer block 201 is disposed in the cavity At 952, the surface energy of the buffer block 201 and the height of the surface of the second buffer block 202 can be approximately the same; wherein, the shape and size of the recess 252 are not limited, as long as the position of the buffer block 201 corresponds to the semi-finished product The buffer blocks 201 of 925 can be placed, but the second buffer blocks 202 cannot be placed in the cavity 252.

It can be seen that by adding the combination step 95, buffer blocks (201, 202) of different thicknesses or different materials can be cut out in stages, and by combining these buffer blocks, local thickness changes or material changes can be generated Buffer 20.

90: preliminary steps

91: Cutting steps

92: The first step

93: Second combination step

Claims (10)

A method for manufacturing a buffer sheet, the buffer sheet includes a buffer member composed of a plurality of buffer blocks, including: a preliminary step; preparing a knife mold, the knife mold has a plurality of cutters, the cutters are surrounded by a A first area that determines the shape and arrangement of the buffer blocks, and a second area outside the first area, the first area and the second area have different depths; a cutting step: use the The die presses a substrate, and a plurality of buffer blocks positioned on the die are formed in the first area, and a residue is formed on the second area, and the buffer blocks are positioned horizontally on the die The position is higher than the horizontal position of the remnant; a first combining step: connecting a first layer body to a first connection portion of the buffer blocks positioned on the knife mold, so that the first layer body and The knife mold is respectively connected to the opposite sides of the buffer blocks, and the buffer blocks are separated from the knife mold, and a semi-finished product formed by the buffer blocks and the first layer body is formed; a second combination Step: Connect a second layer body to a second connection portion of the buffer blocks, so that the first layer body and the second layer body are respectively connected to opposite sides of the buffer blocks to form a buffer sheet. The method for manufacturing a buffer sheet according to claim 1, wherein the first area includes a regular area for forming a plurality of buffer blocks of the same shape, and the buffer blocks produced by the regular area are mutually A gap is spaced, and the gaps are arranged along a first direction, a second direction, and a third direction, respectively, so that the buffer blocks produced in the regular area exhibit a hexagonal shape. The method for manufacturing a buffer sheet according to claim 1, wherein the area of the first layer body and the second layer body is larger than the area of the buffer member, so that the first layer body has a connection for the buffer member The first bonding area and a first outer edge area located at the periphery of the first bonding area; and the second layer body has a second bonding area for connecting the buffer element and a second bonding area located at the periphery of the second bonding area Second outer area. The method for manufacturing a buffer sheet according to claim 1, wherein the method for manufacturing the buffer sheet further comprises a pre-step for changing the thickness of the local position of the buffer, in the pre-step, through One of the methods of cutting or hot pressing changes the thickness of the local position of the substrate before performing the cutting step. The method for manufacturing a buffer sheet according to claim 1, wherein the method for manufacturing the buffer sheet further includes a combination step after the first combining step, in which at least one second die is formed on the second combination die The second buffer block must be located in the second knife mold, the semi-finished product is set on the second knife mold, so that the buffer blocks, the first layer body and the second buffer blocks are positioned relative to each other. The layer body is connected with the second buffer block to form a second semi-finished product formed by the buffer blocks, the second buffer blocks and the first layer body. The method for manufacturing a buffer sheet according to claim 5, wherein the thickness or material of the second buffer block is different from that of the buffer block, so that the second semi-finished product includes two different regions. A buffer sheet for mounting on a garment, including: a buffer member including a plurality of buffer blocks, the buffer blocks are spaced apart from each other to form a plurality of gaps, and the buffer blocks together constitute opposite sides A first connecting part and a second connecting part, the buffer blocks are respectively formed with a plurality of sides in the gaps; a first layer body, a part of the area is adjacent to the first connecting part to form a first bonding area, the rest The area extends out of the first bonding area to form a first outer edge area, and the first layer is not connected to the side surfaces; A second layer body, a part of the area is adjacent to the second connection portion to form a second bonding area, and the remaining area extends out of the second connection portion to form a second outer edge area, and the second layer body is not Side connection; wherein, the plurality of buffer blocks have different heights, so that the first connecting portion of the buffer member forms a first height surface and a second height surface; when the buffer piece is installed on the clothing, the first An outer edge area is connected to the second outer edge area. The buffer sheet according to claim 7, wherein the buffer block of the buffer member is formed by stacking a first elastic material and a second elastic material different from the first elastic material. The buffer sheet according to claim 7, wherein the buffer blocks with the first height surface are composed of a first elastic material, and the buffer blocks with the second height surface are composed of a height different from The second elastic material of the first elastic material is configured. The buffer sheet according to claim 7, wherein the buffer member has a central area and an edge area surrounding the central area, and the edges of the plurality of buffer blocks in the edge area respectively form an arc curved surface.

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