Sole structure of footwear

The sole structure with a fluid-filled chamber and layered design addresses the challenges of cushioning and stability in footwear by attenuating ground repulsion and absorbing vibrations, enhancing performance through strategic layering and material selection.

JP7624041B2Active Publication Date: 2025-01-29NIKE INNOVATE CV
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Patent Information

Application Number
JP2023146000
Authority / Receiving Office
JP · JP
Patent Type
Patents
Current Assignee / Owner
Priority Date
2017-03-15
Filing Date
2023-09-08
Publication Date
2025-01-29
Estimated Expiration
2037-03-15

AI Technical Summary

Technical Problem

Existing footwear sole structures with fluid-filled chambers face challenges in providing adequate cushioning and stability while maintaining durability, as they often fail to effectively attenuate ground repulsion and absorb vibrations, leading to potential damage and reduced performance.

Method used

A sole structure incorporating a layered design with a fluid-filled chamber, comprising multiple fluid filling segments and an overmold part, which includes a midsole and outsole, enhances cushioning and stability by attenuating ground repulsion and absorbing vibrations, while maintaining durability through polymer materials and strategic layering.

Benefits of technology

The solution provides enhanced cushioning, stability, and durability by effectively attenuating ground repulsion and absorbing vibrations, improving the overall performance of footwear during various movements such as walking and running.

✦ Generated by Eureka AI based on patent content.

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Abstract

To provide a midsole using a fluid-filled chamber capable of properly damping vibration by a foot.SOLUTION: A sole structure 200 for an article of footwear 10 having an upper 100 includes: a heel region 14, 16; a forefoot region 12; and a midfoot region disposed between the heel region 14, 16 and the forefoot region 12. The sole structure also includes a fluid-filled chamber 300 including a first barrier layer 301 cooperating with a second barrier layer 302 to define: a first fluid-filled segment extending along a medial side 20 of the sole structure within the heel region; a second fluid-filled segment extending along a lateral side 18 of the sole structure within the heel region; and a web area disposed between and connecting the first fluid-filled segment and the second fluid-filled segment. The first barrier layer 301 is attached to the second barrier layer 302 within the web area.SELECTED DRAWING: Figure 1
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Description

[Technical field]

[0001] [CROSS-REFERENCE TO RELATED APPLICATIONS] This application is a continuation of U.S. Provisional Application No. 2016-002162 filed on March 15, 2016. No. 62 / 308,810, and U.S. patent application Ser. No. 15, filed March 15, 2017. No. 4,459,131, the disclosure of which is incorporated herein by reference in its entirety. Be absorbed.

[0002] This application relates generally to sole structures for footwear, and more particularly to a sole structure having multiple fluid-filled segments. The present invention relates to a sole structure incorporating a fluid-filled chamber having a liner. [Background technology]

[0003] This section provides background information related to the present application that is not necessarily prior art.

[0004] Footwear traditionally includes an upper and a sole structure. The upper is a foot support that fits over the sole structure. The upper may be formed from any suitable material for receiving, securing, and supporting the Working with laces, straps, or other fasteners to fit the upper around the foot The bottom of the upper, closest to the bottom of the foot, is attached to the sole structure. can be done. Summary of the Invention

[0005] The sole structure generally includes a layered structure that extends between the ground and the upper. One layer of the outsole provides abrasion resistance and traction with the ground. The rails may be made from rubber or other materials that provide durability and abrasion resistance. It also improves traction with the ground. Another layer of the sole structure is the outsole and the upper. The midsole is placed between the shoe and the ground. The midsole provides cushioning to the foot. This reduces the impact of the foot by damping ground-reaction forces. A section made from a polymer foam material that compresses elastically under an applied load to absorb The midsole may additionally or alternatively be formed to improve the durability of the sole structure. and compresses elastically under an applied load to dampen ground rebound forces. The sole may incorporate a fluid-filled chamber that provides cushioning to the foot by compressing the sole. The construction also includes a comfort enhancing insole or sole liner, the sole liner being Located in the gap near the bottom of the par, the stroble is attached to the upper The foam is placed between the midsole and the insole or sockliner.

[0006] Midsoles that use fluid-filled chambers are generally sealed or bonded and contain air or other The chamber is formed from two barrier layers of polymeric material that are pressurized with a fluid. , which changes the shape of the chamber when it compresses elastically under load, e.g., during exercise. A tension member may be incorporated within the chamber to hold the fluid in place. Generally, the fluid-filled chamber is Related to the balance of the ports and their response as the fluid-filled chamber compresses elastically under load However, the fluid-filled chamber is designed to provide cushioning properties that are consistent with the overall The fluid-filled chamber compresses to dampen ground-rebound forces but not to dampen foot-induced vibrations. Therefore, it is necessary to dampen the vibrations caused by the feet and ground reflections. Fluid-filled chambers provide acceptable cushioning for the foot while attenuating force. The sole is difficult to form. [Brief description of the drawings]

[0007] The drawings described herein are for illustrative purposes only and are not intended to limit the scope of the present invention. It is not intended to limit the scope of the application.

[0008] [Figure 1] 1 is a side perspective view of an article of footwear in accordance with the principles of the present application; [Diagram 2] FIG. 2 is an exploded view of the article of footwear of FIG. 1, showing a sole structure having a midsole, a fluid-filled chamber, and an outsole arranged in a layered configuration. [Diagram 3] A cross-sectional view taken along line 3-3 in FIG. 1 illustrates a fluid-filled segment in a forefoot region of the sole structure, extending continuously between a lateral side of the sole structure and a medial side of the sole structure. [Figure 4] 4 is a cross-sectional view taken along line 4-4 of FIG. 1 showing an overmolded portion attached to a fluid-filled segment in a heel region of a sole structure. [Diagram 5] FIG. 2 is a schematic bottom view of the article of footwear illustrating the geometry and configuration of a number of fluid-filled segments associated with a fluid-filled chamber in the sole structure. [Figure 6] A cross-sectional view taken along line 6-6 in FIG. 5 illustrates a fluid-filled segment disposed within a forefoot region of the sole structure and extending continuously from the medial side of the sole structure to the lateral side of the sole structure. [Figure 7] A cross-sectional view taken along line 7-7 of FIG. 5 illustrates fluid-filled segments disposed within a mid-foot region of the sole structure and separated from one another by web regions. [Figure 8] A cross-sectional view taken along line 8-8 of FIG. 5 illustrates a first fluid-filled segment extending along an outer side of the sole structure fluidly connected to a second fluid-filled segment extending along an inner side of the sole structure. [Figure 9] A cross-sectional view taken along line 9-9 in FIG. 5 illustrates a fluid-filled segment extending through the forefoot, midfoot and heel regions of the sole structure between a lateral side of the sole structure and a medial side of the sole structure. [Figure 10] FIG. 2 is a perspective view of a fluid-filled segment with an outsole segment attached. [Figure 11] FIG. 2 is a schematic bottom view of the article of footwear of FIG. 1, illustrating the cushioning and vectors defined by the fluid-filled chambers of the sole structure;

[0009] Corresponding reference numbers indicate corresponding parts throughout the drawings. DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

[0010] Exemplary configurations are described more fully below with reference to the accompanying drawings, in which: Throughout the application, detailed descriptions are provided to fully convey the scope of the present application to those skilled in the art. Examples of specific components, devices, and methods are provided to provide a thorough understanding of the application. It is not necessary to adopt a detailed specification, and the configuration example may be various. The detailed specification and configuration examples are not intended to limit the scope of the present invention. It will be clear to one skilled in the art that this is not the case.

[0011] The terminology used herein is for the purpose of describing specific example configurations only. As used herein, the singular article "a" is used interchangeably with "a" to refer to any number of elements. "an" and "the" are intended to include the plurals as well, unless the context clearly indicates otherwise. The terms "comprise," "comprise," "include," and "have" are used interchangeably. , inclusive, and therefore the presence of features, steps, operations, elements and / or components Identify steps, actions, elements, components, and / or groups thereof. The steps, processes, and actions of the methods described herein may include at least one of the following: The operations do not necessarily correspond to the particular sequences described or illustrated unless specifically identified as sequences of performance. The method should not be construed as requiring performance in any particular order. Additional or alternative steps may be taken. may be used.

[0012] An element or layer is "on," "engaged," or "connected" to another element or layer. When references are made to "attached" or "coupled" or other It may be attached to an element or layer, or intervening elements or layers may be present. In other words, an element is "directly," "directly involved," or "directly connected" to another element or layer. "directly connected," "directly contiguous," or "directly coupled" When mentioned, there are no intervening elements or layers. Used to describe the relationship between elements. Other words used in a similar manner (e.g., between vs. directly between, adjacent vs. directly adjacent As used herein, "and / or" should be interpreted as meaning "and / or" in any sense. A term includes any and all combinations of one or more of the associated listed items. Includes.

[0013] The terms first, second, third, etc. are used herein to refer to various elements, components, regions, layers, and These elements, components, and / or sections may be used to describe The regions, layers and / or sections should not be limited by these terms. These terms refer to an element, component, region, layer, or section that is separate from another region, May only be used to distinguish between layers or sections. Terms such as "first" and "second" and other numerical terms do not imply sequence or ordering unless clearly indicated by context. Therefore, a first element, component, region, layer, or section described below may be , a second element, component, region, layer or section may be added without departing from the teachings of the exemplary configurations. This can be called a "shon."

[0014] One aspect of the present application provides a sole structure for an article of footwear having an upper. The sole structure includes a heel region, a forefoot region, a midfoot region disposed between the heel region and the forefoot region, and a fluid-filled chamber. The fluid-filled chamber is disposed on an inner side of the sole structure in the heel region. a first barrier layer that cooperates with the second barrier layer to define a first fluid-filled segment extending along the The second fluid-filled segment includes a barrier layer on an outer side of the sole structure in the heel region. The web region extends along the first fluid-filled segment and the second fluid-filled segment. The first barrier layer is disposed between and connects the second barrier layer in the web region. Can be attached to.

[0015] Embodiments of the present application may include any one or more of the following features. In one embodiment, the first fluid-filled segment and the second fluid-filled segment are each connected to ground. The first fluid-filled segment includes a surface. The web region may be recessed from the ground surface. The first fluid-filled segment includes: The fluid-filled chamber may be in fluid communication with the second fluid-filled segment. a second fluid-filled segment extending from the first fluid-filled segment and fluidly coupled to the second fluid-filled segment; The fluid-filled chamber may further include a first fluid-filled segment. a fourth fluid-filled segment extending between and connected to the second fluid-filled segment; wherein the fourth fluid-filled segment has an inner side and an outer side. The portion may extend between the first portion and the second portion.

[0016] In some embodiments, the web region comprises a first fluid-filled segment, a second fluid-filled segment, segment, a third fluid-filled segment, and a fourth fluid-filled segment. The web region may further be disposed adjacent the upper. The fluid-filled chamber extends from the first fluid-filled segment toward the outer side of the sole structure. The chamber also includes a fifth fluid-filled segment extending through the second fluid-filled segment. A sixth fluid-filled segment extending from the fifth toward the inside of the sole structure. The fluid-filled segment may be substantially parallel to the sixth fluid-filled segment. The body filling segment may include a distal end that terminates at a location between the inner side and the outer side. The distal end may be tapered in an upward direction. The fifth fluid-filled segment extends continuously from the inside to the outside. The fifth segment may include a distal end that terminates at a location between the medial and lateral sides in the forefoot region. The distal end of the body filling segment may be tapered in an upward direction.

[0017] The sole structure may include an overmolded portion that extends over a portion of the fluid-filled chamber. The overmold portion may extend over the heel region, the midfoot region, and / or the forefoot region. The overmolded portion may be bonded to the second barrier layer and may have a thickness different from that of the second barrier layer. , different hardness, and / or different material.

[0018] Another aspect of the present application provides a sole structure for an article of footwear having an upper. The shoe structure includes a heel region, a forefoot region, and a midfoot region disposed between the heel region and the forefoot region. The fluid-filled chamber is disposed on the inner side of the sole structure in the forefoot region. a first fluid-filled segment extending continuously between the first side and the outer side of the sole structure; The second fluid-filled segment includes a first barrier layer that cooperates with the second barrier layer to define a first gap between the first and second barrier layers. , extending continuously between the medial side of the sole structure in the forefoot region and the lateral side of the sole structure; The web region is disposed between the first fluid-filled segment and the second fluid-filled segment. and joining them together, the first barrier layer being attached to the second barrier layer in the web region.

[0019] This aspect may include one or more of the following optional features. In some embodiments, The first fluid-filled segment and the second fluid-filled segment each include a ground plane. The web region may be recessed from the ground surface. The first fluid-filled segment is configured to fill the second fluid. In some examples, the fluid-filled chamber may be fluidly coupled to the inner side of the filler segment. and extending along one of the outer sides, the first fluid-filled segment and the second fluid-filled segment. a third fluid-filled segment fluidly coupled to the first fluid-filled segment; The first and second fluid-filled segments are inserted from one of the inner and outer sides to the inner The sides and the outer sides may converge towards each other in a direction extending to the other of the sides.

[0020] In some examples, the web region includes a first fluid-filled segment and a second fluid-filled segment. The first fluid-filled segment extends between the inner side and the outer side of the second fluid-filled segment. The second fluid-filled segment may be spaced apart from the other of the inner side and outer side. A web region extends from the third fluid-filled segment to the other of the inner side and the outer side. The web region may include a first fluid-filled segment, a second fluid-filled segment, and a , a third fluid-filled segment, and the other of the inner side and outer side. The web region may be positioned adjacent to the upper.

[0021] In some embodiments, the fluid-filled chamber is inward from the second fluid-filled segment. A fourth fluid-filled segment extending along the other of the side and the outer side. The chamber is fluidly coupled to a fourth fluid-filled segment and has an inner side and an outer side. a fifth fluid-filled segment extending from one of the inner and outer sides toward the other of the inner and outer sides; The fourth fluid-filled segment may be substantially parallel to the fifth fluid-filled segment. The fifth fluid-filled segment may terminate at a location between the inner side and the outer side. The distal end may include a distal end that tapers in an upward direction.

[0022] The sole structure may include an overmolded portion that extends over a portion of the fluid-filled chamber. The overmolded portion may extend over the heel region. The overmolded portion may extend over the midfoot region. The overmold portion may extend into the forefoot region. The overmold portion may extend into the forefoot region. It may be bonded to a second barrier layer and may have a different thickness, a different hardness, and a different thickness from the second barrier layer. The material may include at least one of the following materials:

[0023] In yet another aspect, the present application provides a sole structure for an article of footwear having an upper. The sole structure includes a heel region, a forefoot region, and a portion disposed between the heel region and the forefoot region. The fluid-filled chamber cooperates with the second barrier layer. a first barrier layer defining a first fluid-filled segment; The sole structure is attached to the medial side of the sole structure from the heel area to the forefoot area and to the lateral side of the sole structure. The second fluid-filled segment extends along either the inner side or the outer side. The third fluid-filled segment extends from one of the inner sides to the other. It extends from the other of the outer sides to one of the inner side and the outer side.

[0024] This aspect may include one or more of the following optional features. In some embodiments, The first fluid-filled segment and the second fluid-filled segment each include a ground plane. The ground plane includes a first fluid-filled segment, a second fluid-filled segment, and a third fluid-filled segment. The second padding segment may extend uninterrupted from the heel region to the forefoot region. The fluid-filled segment is inserted from one of the inner side and the outer side to one of the inner side and the outer side. The third fluid-filled segment may extend continuously from the inner side to the other of the outer sides. It may extend continuously from the other of the sides to one of the inner side and the outer side.

[0025] In some examples, the fluid-filled chamber includes a fourth aperture extending along the other of the inner and outer sides. The fourth fluid-filled segment also includes a second fluid-filled segment. The web region may extend between and be fluidly coupled to the fluid-filled segment and the third fluid-filled segment. The second fluid-filled segment and the third fluid-filled segment may be recessed from a ground surface of the fill chamber. The segments are arranged from one of the inner and outer sides to the other of the inner and outer sides. The web regions may converge toward each other in a direction extending toward the inner side and the outer side. The fluid-filled segment may extend between the second and third fluid-filled segments. The second fluid-filled segment is located on one of the inner and outer sides of the third fluid-filled segment. It may be spaced apart from the segment.

[0026] In some embodiments, the web region extends from the fourth fluid-filled segment to the inner side and The web region extends continuously to the other of the outer sides of the second fluid-filled segment. a third fluid-filled segment; a fourth fluid-filled segment; and an inner side and an outer side. The web region may be located adjacent to the upper. It can be done.

[0027] The fluid-filled chamber extends along one of the inner and outer sides from the third fluid-filled segment. The fluid-filled chamber may include a fifth fluid-filled segment extending from the fifth fluid-filled segment. a first fluid port connected to the first fluid port and a second fluid port connected to the second fluid port from the other of the first fluid port and the second fluid port; The fifth fluid-filled segment may further include a sixth fluid-filled segment extending toward one of the first and second portions. The segment may be substantially parallel to a sixth fluid-filled segment. The segment may further include a distal end that terminates at a location between the inner side and the outer side. In some instances, the distal end tapers in a direction toward the upper.

[0028] The sole structure may also include an overmolded portion extending over a portion of the fluid-filled chamber. The overmolded portion may extend over the heel region. The overmolded portion may also include a medial The overmold portion may extend over the foot region. The overmold portion may further extend into the forefoot region. The bar mold section may be bonded to a second barrier layer and may have a different thickness, shape, or thickness than the second barrier layer. The material may include at least one of different hardnesses and different materials.

[0029] As shown in FIG. 1, the footwear 10 includes an upper 100 and a shoe attached to the upper 100. and a sole structure 200. The article of footwear 10 may be divided into one or more regions. The regions may include a forefoot region 12, a midfoot region 14, and a heel region 16. The forefoot region 12 includes: The midfoot region 14 may correspond to the toes and joints that connect the metatarsals to the phalanges of the foot. The footwear 10 may correspond to the ankle region 14 and the heel region 16 may correspond to the rear of the foot including the calcaneus. 0 and extending through each of the regions 12, 14, and 16. Each of the upper and lower portions may include a front portion 18 and an inner side portion 20 .

[0030] The upper 100 is adapted to receive and secure the foot for support to the sole structure 200. The ankle opening 10 in the heel region 16 includes an interior surface that defines an interior cavity 102. 4 may provide access to the interior cavity 102. For example, ankle opening 104 may be provided to receive the foot. 102 to secure the foot within the cavity 102 and to facilitate the movement of the foot in and out of the inner cavity 102. In some examples, one or more fasteners 106 may be provided to close the interior cavity 102 around the foot. The upper 100 includes eyelets and other fasteners that adjust the shoe's fit and allow for entry and removal. Which apertures and / or fabric or mesh loops receive the fasteners 106 The fastener 106 may include other engagement features such as laces, straps, cords, etc. The fasteners may include fasteners such as fasteners for fastening ....

[0031] The upper 100 includes a tongue 110 that extends between the interior cavity 102 and the fastener 106. The upper 100 may be sewn or otherwise secured together to form an interior cavity 102. The upper may be made of one or more materials bonded together by adhesive. Materials include, but are not limited to, fabrics, wovens, foams, leathers, and synthetic leathers. Selected to impart properties of durability, air permeability, abrasion resistance, flexibility and comfort. , can be arranged.

[0032] In some embodiments, the sole structure 200 includes an outsole 2 arranged in a layered configuration. 10, including a fluid-filled chamber 300, a midsole 240, and a strobe 220. (FIGS. 2 to 4). Sole structure 200 (e.g., outsole 210, fluid-filled chamber 3 00, midsole 240, strobe 220) define a longitudinal axis L. For example, The outsole 210 engages the ground during use of the article of footwear 10 and includes a fluid-filled chamber 30. 0 is disposed between the outsole 210 and the midsole 240, and the upper 100 and and / or strobe 220. The fluid-filled chamber 300 is The upper 100 can be attached to the outsole 210 via the outsole 240. The fluid-filled chamber 300 can be attached to the opposite side of the head sole 240. In some examples, the sole structure 200 may be configured to extend over the strobe 220 to fill the internal space of the upper 100 . An inner lining 104 is disposed within the cavity 102 and adapted to receive the sole of the foot and enhance the comfort of the footwear 10. Additional layers such as a sole 216 or sock (FIGS. 3 and 4) may also be incorporated.

[0033] The fluid-filled chamber 300 is formed by the upper barrier layer 301 during the molding or heating process. (hereinafter "upper layer 301") and lower barrier layer 302 ("lower layer 302"). In some examples, the top layer 301 and the bottom layer 302 are made of one or more polymeric materials. The upper layer 301 and the lower layer 302 are bonded together around the periphery of the sole structure 200. 3 and 4. The upper layer 301 and the lower layer 302 are joined together to define a flange 306 (FIGS. 3 and 4). 302 is a portion between the outer side 18 of the sole structure 200 and the inner side 20 of the sole structure 200 They are joined together at various locations therebetween to define web region 308 (FIGS. 3 and 4).

[0034] In some embodiments, the fluid-filled chamber 300 includes a plurality of fluid-filled segments 31 1, 312, 313, 314, 315, 316, 317, 318, 319, 320, 32 1, 322, 323, and 324 (see FIG. 5), each of which is adapted to carry a pressurized fluid (e.g., Fluid-filled footwear 10 contains air (fluid-filled foam) and provides cushioning and stability to the foot while the footwear 10 is in use. The segments 311-324 are all fluidly coupled to each other, and the fluid-filled segments 311- 324 may have a different length than the other fluid-filled segments 311-324. The segments 311-324 are formed in the region of the sole structure 200, and the upper layer 301 and the lower layer 302 are separated from each other and are each for containing a pressurized fluid (e.g., air). Thus, the flange 306 and the web region 308 define the gap between the top layer 3 and the 3 corresponds to the area of ​​the fluid-filled chamber 300 where the bottom layer 302 and bottom layer 303 are bonded together. , cooperate to define the boundaries of each fluid-filled segment and seal the pressurized fluid therein. Thus, the fluid-filled segments 311-324 are located in the respective regions 12 of the sole structure 200. 14, 16 and spaced apart from each other by web regions 308. In other words, more fluid-filled segments 311-324 may be cooperatively The corresponding area of ​​the web region 308 may be bounded.

[0035] The geometry and configuration of the fluid-filled segments 311-324 are similar to that of the footwear 10 shown in FIG. In another embodiment, a pressurized foam is used to provide cushioning for the foot. Polymer foam and / or particulate matter instead of or in addition to pressurized fluid. One or more cushioning materials, such as 4. In these embodiments, the cushioning material is When compressed at 100° C., the foam may provide a soft cushion.

[0036] Each of the fluid-filled segments 311-324 has a substantially tubular cross-sectional shape and a chamber. Between the upper layer 301 and the lower layer 302 of the sole structure 200, In this manner, each fluid-filled segment may define a thickness extending substantially perpendicularly thereto. The thickness of the upper layers 302 is different from that of the upper layer 301. The distance that the fluid-filled segments 311-324 project away from each other is determined by the distance that the fluid-filled segments 311-324 project away from each other. At least two may define different thicknesses. For example, one or more fluid-filled segments 311-324 disposed in the heel region 16 may be associated with a thickness greater than the thickness associated with one or more fluid-filled segments

[0037] 311-324 disposed in the forefoot region 12. In some embodiments, at least two of the fluid-filled segments 311-324 extend along the outer side 18 of the sole structure 200, while at least two other fluid-filled segments 311-324 extend along the inner side 20 of the sole structure 200. Furthermore, some of the fluid-filled segments 311-324 extend between the outer side 18 of the sole structure 200 and the inner side 20 of the sole structure 200. For example, at least one of the fluid-filled segments 311-324 may extend continuously from one of the outer side 18 and the inner side 20 to the other of the outer side 18 and the inner side 20. Additionally or alternatively, one of the fluid-filled segments 311-324 extends from one of the outer side 18 and the inner side 20 to a distal end 5 that terminates at a position between the inner side 20 and the outer side 18. Here, the distal end 5 may taper in a direction toward the upper 100, i.e., toward the upper layer 302 of the fluid-filled chamber 300. In some examples, the fluid-filled chambers 300 are fluidly coupled to each other, penetrate each region 12, 14, 16, and include a serpentine shape defined by fluid-filled

[0038] segments 311-324 that extend between the outer side 18 and the inner side 20 of the While improving the functionality and cushioning provided by the sole, Improved by damping foot induced vibrations in response to ground reaction forces. Provides stability and support during forward motion, such as walking or running. The load on the sole structure 200 is cushioned to the foot by attenuating the ground rebound force. Some of the fluid-filled segments 311-324 are compressed to provide a Meanwhile, the other fluid-filled segments 311-324 retain their shape and are resistant to the ground repulsion. The present invention provides footwear 10 with stability and support characteristics that dampen foot vibrations upon initial impact. Can be given.

[0039] Further, one or more of the fluid filled segments 311-324 may be formed in the sole structure 2. 308 in different regions 12, 14, 16 to form a responsive cushion. For example, a fluid-filled segment in the heel region 16 may result in isolated regions of fluid filling. 311-314 are grounded in segments 311-314 around the periphery of the heel region 16 The initial impact of the rebound force is absorbed by the trampoline effect, 8 to provide responsive cushioning in the heel region 16 and to provide a fluid filled The padding segments 311-314 compress in succession, thereby providing a gradient response to the heel region 16. Provides a shaped cushion.

[0040] Additionally, the geometry of the fluid-filled segments 311-324 (FIG. 5) along the sole structure 200 The geometric shape and arrangement of the outsole 210 is such that the outsole 210 contacts the ground from the heel region 16 to the forefoot region 12. 4. Provides traction between the outsole 210 and the ground during forward rolling motion due to engagement with the In addition, the outsole 210 can be formed on the outer side 18 and the inner side 2. 0 to the outside side 18 and the inside side 20 for ground engagement. The same is true during lateral motion.

[0041] FIG. 2 illustrates an exploded view of the article of footwear 10 of FIG. 1. The stroble 220 includes a bottom surface 222 and a and a foot bed 224, the foot bed 224 being supported by a bottom surface 222 of the strobe 220. The stitching 226 or adhesive may be disposed on the opposite side of the strobe 220. The footbed 224 may be secured to the upper 100. The footbed 224 may conform to the contours of the bottom surface of the foot (e.g., the sole of the foot). In some examples, the insole 216 or sock (FIG. 3) may be shaped to match the 4) is placed under the foot and over the footbed 224 in the interior cavity 100 of the upper 100. The bottom surface 222 of the strobe 220 may be disposed within at least a portion of the midsole 222. 240.

[0042] In some embodiments, the midsole 240 is connected to the bottom surface 222 of the strobe 220. The fluid-filled chamber 300 is disposed between the upper layer 301 and the midsole 302. The midsole 240 includes a bottom surface 242 and a top surface 244. The upper surface 244 of the midsole 240 is disposed on the opposite side to the bottom surface 242 of the midsole 240. 220 and extends around the periphery of the upper 100. The bottom surface 242 of the midsole 240 interfaces with the top surface 301 of the fluid-filled chamber 300. Thus, the midsole 240 acts as an intermediate layer, and the upper surface 2 44 to the bottom surface 222 of the upper 100 and / or the strobe 220. Thus, by further bonding the bottom surface 242 to the top layer 301 of the fluid-filled chamber 300, Thus, the top layer 301 of the fluid-filled chamber 300 is indirectly attached to the upper 100. This allows the sole structure 200 (e.g., the outsole 210, the fluid-filled chamber 3 00, and midsole 240 are fixed to the upper 100. The midsole 240 reduces the extent to which the upper layer 301 extends over the periphery of the upper 100. 3, thereby reducing the likelihood of the top layer 301 becoming detached from the upper 100. This increases the durability of the footwear 10 when used for long periods of time.

[0043] Additionally, the midsole 240 may be configured to support and cushion the foot. In some examples, the midsole may be contoured to match the profile of the bottom of the midsole. The ball 240 provides cushioning to the foot by dampening ground rebound forces. from a slab of one or more polymeric foam materials that compress elastically under an applied load. In some embodiments, the volume of the fluid-filled chamber 300 under an applied load is Compression by multiple fluid-filled segments 311-324 provides responsive cushioning, while The compression by the midsole 240 under an applied load provides soft cushioning. Thus, the fluid-filled segments 311-324 and the midsole 240 cooperate to This allows the footwear article 10 to have gradient cushioning that changes as the load applied to it changes. (i.e., the greater the load, the more the fluid-filled segments 311-324 are compressed and Therefore, the footwear 10 is more responsive.

[0044] The upper layer 301 of the fluid-filled chamber 300 faces the bottom surface 242 of the midsole 240. The top layer 301 is attached (e.g., bonded and joined) by a molding process or a thermal The midsole 240 is formed from one or more polymeric materials in a molding process. The housing includes an outer periphery extending upwardly therefrom.

[0045] The bottom layer 302 of the fluid-filled chamber 300 is spaced apart from the top layer 301 to form a fluid-filled chamber 3 00. Like the upper layer 301, the lower layer 302 is may be formed from one or more polymeric materials, the same or different, in a thermoforming process. The lower layer 302 extends upwardly toward the upper 100 and is joined to the outer periphery of the upper layer 301. In some embodiments, the bottom layer 30 may include a peripheral edge that forms a flange 306. 2 shows a number of fluid-filled segments 311-324 associated with the fluid-filled chamber 300. The lower layer 302 and the upper layer 303 define the geometric shape (e.g., thickness, width, and length). 01 is a plurality of separate tubular members between the outer side 18 and the inner side 20 of the fluid-filled chamber 300. The fluid-filled segments 311-324 are bonded together and joined to each other in the region. 308. Thus, each fluid-filled segment The components 311 to 324 are fluid layers in which the upper layer 301 and the lower layer 302 are not bonded to each other. 300 and thus each fluid-filled segment 311 to 324 are separated to form associated voids, respectively. In an embodiment, an adhesive bond joins the top layer 301 and the bottom layer 302 to form a flange 306. and web region 308. In another embodiment, top layer 301 and bottom layer 302 are joined by thermal bonding to form flange 306 and web region 308 .

[0046] In some embodiments, the top layer 301 and the bottom layer 302 are fluid-filled segments 3 Each of the moldings defines various surfaces that define recesses associated with 11-324. When the flange 306 is bonded to the lower layer 302 and the upper layer 301, the flange 306 is formed. and a pinch surface that defines where the upper layer 30 is to be pinched. 1 and / or bottom layer 302 are heated to a temperature to facilitate molding and bonding. In some examples, the top layer 301 and / or the bottom layer 302 may be In another example, the upper layer 301 and / or the lower layer 302 are heated before being placed therebetween. The mold may be heated to increase the temperature of the flow. In the molding process used to form the body fill chamber 300, the mold section Incorporating vacuum ports into the mold allows the top layer 301 and bottom layer 302 to be molded into their respective molds. In another embodiment, the upper layer 301 and the lower layer 302 are drawn into contact with each other to remove air. A fluid such as air is injected into the area between the top layer 301 and the bottom layer 302 to increase the pressure. and bottom layer 302 engages the surfaces of the respective mold parts.

[0047] The thickness of the fluid-filled chamber 300 is greater in the heel region 16 than in the forefoot region 12. In some examples, the thickness of the fluid-filled chamber 300 may vary from the heel region 16 to the forefoot. It gradually decreases through region 12, first occurring in heel region 16 where outsole 210 makes contact with the ground. Absorbs larger magnitude ground reaction forces that decrease as the ball rolls due to engagement of the ball. This provides a greater degree of cushioning for the

[0048] In some embodiments, the overmolded portion 304 is a part of the fluid-filled chamber 300. 300. The fluid-filled chamber 300 extends over the upper portion of the The overmold portion 304 is attached to the second barrier layer 302. 3, extending over the heel region 16 to enhance durability and The separation distance between the lower layer 302 and the upper layer 301 can be increased by The larger defines a thicker fluid-filled chamber 300 within the cavity region 16. Alternatively, the overmold portion 304 may extend over the midfoot region 14 and into the forefoot region 12. In some examples, the overmold portion 304 may be bonded to the bottom layer 302 and may include a different and a material different from that of the first layer 301. Mold section 304 includes fluid-filled segments in heel region 16 and midfoot region 14. 311-317. 3, so that the overmolded portion 304 is bonded to the flange 306 and the web region 308. The lower layer 302 bonds with the upper layer 301 without adhering to the upper layer. The mold section 304 includes respective fluid-filled segments 311- A plurality of segments may be defined, each defining a shape that generally corresponds to the shape of 317 . The multiple segments of the overmolded portion 304 are contiguous in some configurations. .

[0049] In some examples, the outsole 210 includes a ground contact surface 212 and an overmolded portion 30. 4 and an opposing inner surface 214 attached to the inner surface 214, which defines fluid-filled segments 318-324. and an area of ​​the lower layer 302 that is not overmolded, e.g., in the forefoot region 12. Similar to the overmold portion 304, the outsole 210 is formed of a fluid-filled cell. A plurality of segments each defining a shape that matches the shape of segments 311-324. The outsole 210 is not present in the areas between the fluid-filled segments 311-324. 3, thereby sealing the flange 306 and web region 308 of the fluid-filled chamber 300. The outsole 210 generally provides abrasion resistance and traction with the ground. Made from one or more materials that provide durability, abrasion resistance, and increased traction with the ground. For example, the rubber may form at least a portion of the outsole 210. 212 is a plurality of contact pads that protrude from the ground surface 212 in a direction away from the upper 100. 232, the contact pads 232 defining the fluid filled segments 311, 312, 317-32 4 extend parallel along the length of the midfoot region 14 and forefoot region 12 to provide traction and stability. The contact pad 232 may also raise the bottom of the foot higher off the ground. do.

[0050] FIG. 3 is a cross-sectional view taken along line 3-3 of FIG. 1, showing sole structure 200 in forefoot region 12. The fluid-filled segment 319 of the fluid-filled chamber 300 extends along the outer side 18 of the The stroble 220 is attached to the upper by stitching 226 or other fastening techniques. 100, and the insole 216 or sock is attached to the footbed of the stroble 220 224 is located in the interior cavity 102. The bottom surface 222 of the strobe 220 is The periphery of the midsole 240 is also attached to the upper surface 244 of the midsole 240. 3 shows a bottom surface 242 of the midsole 240. The fluid-filled chamber 300 is formed with a peripheral edge that extends toward the upper 100. 3 shows an upper layer 301 which joins with the periphery of a lower layer 302 to form a flange 306 around the periphery. Here, the lower layer 302 extends toward the upper 100 and joins with the upper layer 301. 3, which forms a web region 308 and cooperates with flange 306 on outer side 18 to form side 1 8. The web region 308 may define and limit a fluid filled segment 319 extending along the , uniform and continuous from the fluid filled segment 319 to the flange 306 on the inner side 20 FIG. 3 also illustrates the fluid-filled segment of the outer side 18 of the sole structure 200. 319 to the fluid-filled segment 321 of the inner side 20 of the sole structure 200. 3 shows a fluid filled segment 320 extending longitudinally.

[0051] The outsole 210 is attached to one or more fluid-filled segments 311-324. In some examples, at least one of the fluid-filled segments 311-324 may be At least one of the at least two grooves is adapted to receive and support each segment of the outsole 210. The fluid-filled chamber defines linear ridges extending along its length. Extending parallel along the length of the fluid-filled segments 319, 320, 321 of the member 300, A contact surface 212 of the outsole 210 including a contact pad 232 for improving traction with the ground. Shows.

[0052] FIG. 4 is a cross-sectional view taken along line 4-4 of FIG. 1, extending toward upper 100 and including upper layer 3. 3. A bottom layer 302 that joins with the bottom layer 301, with a flange 306 on the outer side 18 and a flange 307 on the inner side 2 3 shows a bottom layer 302 forming two regions of a web region 308 between the top and bottom layers 302 and 308 disposed therebetween. The recessed filler segment 313 defines and limits the portion of the fluid filled segment 314 . In some examples, the fluid-filled segment 313 is formed on the outer side 18 and the inner side 20. The upper layer 301 projects outwardly from the upper 100 along the line 302. The upper layer 301 conforms to the shape of the foot while the footwear is in use. The bottom layer 302 has a flange 306 and a web 308 that are recessed and rounded to match the The area 308 is contoured by fluid-filled segments 313 that extend or protrude from the area 308. Therefore, the fluid-filled segment 313 and the other fluid-filled segments 311, 31 2, 314-324 protrude from the upper 100 toward the outsole 210, These form independent support or cushioning elements in the coil structure 200.

[0053] The overmolded portion 304 has a fluid-filled segment 313 extending outward from the upper 100. attached to a portion of the lower layer 302 in the area projecting towards the sole 210, The durability and resilience of the fluid-filled segment 313 can be increased. Mold section 304 is contoured with a rounded surface of fluid-filled segment 313. In some examples, the bottom layer 302 of the fluid-filled chamber 300 may include an overmolded portion 304. The outsole is formed to include a reduced thickness along the portion where it is attached. 10 is attached to the overmold section 304, thereby forming a web region Area 308 is recessed relative to ground contact surface 212 of outsole 210 .

[0054] In some embodiments, the contact pads 232 protrude from the ground plane 212, which 4, an overmolded portion 21 covers the fluid-filled segment 313 at the outer side 18 as shown in FIG. 4. In some embodiments, a fluid-filled A portion of segment 313 and a fluid-filled segment 313 extending along inner side 20 2 and 3, respectively, on the medial and / or lateral sides of the sole structure 200 during lateral movements. In order to facilitate the rolling of the bearing, the bearing includes a semi-tubular cross-sectional shape as shown in FIG. The fluid-filled segment 314 disposed between the inner side 20 and the inner side 18 is The cushion 313 absorbs the initial impact of the ground reaction force, which allows the ground reaction force to flow. The fluid filled segment 314 is compressed before being applied to the fluid filled segment 314. As 13 and 314 continue to compress, a trampoline effect is created in the center of the heel region 16. This provides gradient-responsive cushioning to the calcaneus (e.g., heel bone) of the foot. Fluid-filled segments 313 and 314 each contain a pressurized fluid (e.g., air). and 314 are fluid-filled portions extending along one of the inner and outer sides 20, 18, respectively. The segments 311, 312 may be fluidly coupled. The gap 304 includes a fluid-filled segment 314 (as well as fluid-filled segments 315 and 316). In another configuration, the overmolded portion 304 is attached to the fluid-filled segment 314. , 315, and / or 316.

[0055] FIG. 5 is a schematic bottom view of the article of footwear 10 of FIG. 1 showing a fluid-filled sole structure 200 disposed therein. The shape and arrangement of the filling chamber 300 is shown. The upper layer 301 and the lower layer 302 are fluid-filled. The barrier layers of the filling chamber 300 are included and bonded together at multiple discrete locations. Thus, a flange 306 extends around the periphery of the sole structure 200 and the outer side of the sole structure 200. and a web region 308 extending between the flange 18 and the inner side 20. and the web area 308 is disposed adjacent to the upper 100 and is disposed adjacent to the outsole 210. The flange 306 and the web region 306 cooperate to The segments 311 to 324 are fluid-filled segments that seal fluid (e.g., air) therein. In some examples, the area of ​​the web region 308 may extend confined around the edges of the webs 311-324. is completely surrounded by the fluid-filled segment, while other areas of the web region 308 are , the combination of the fluid filled segment and the flange 306 provides an outer side 18 or an inner In some configurations, the web region 308 is bounded along the side 20 of the side. The regions facilitate flexion of footwear 10 as outsole 210 rolls for engagement with the ground. FIG. 5 illustrates a cross-sectional view of the lateral side 18 and the medial side 20. 1. Not shown is the portion of web region 308 that extends continuously.

[0056] In some embodiments, the grip may be designed to be flexible under an applied load, particularly during forward running motion of footwear 10. By attenuating the round repulsive force, the segments 311 to 324 have cushioning properties. Fluid-filled segments 3 when compressed or expanded to provide stability and support The segments 311-324 are fluidly coupled to each other to direct the fluid through the segments 311-324. 300 to form a unified pressure system for the fluid-filled chamber 300. Segments 311-313 and 317-324 are fluid-filled segments disposed in the forefoot region 12. The distal end 5 of the segment 324 and the fluid-filled segment 317 disposed within the midfoot region 14 and may cooperate to define a uniform serpentine shape for the fluid-filled chamber 300 extending between More specifically, the uniform serpentine shaped fluid-filled chamber 300 is aligned along the length of the sole structure 200. A segment extending along the adaxial line L and extending along the outer side 18 and along the inner side 20. A segment extending along the outer side 18 and the inner side 20, and a segment extending continuously between the outer side 18 and the inner side 20. segment and inwardly to a distal end 5 which terminates at a location between the inner side 20 and the outer side 18. and a segment extending toward side 20 of said base.

[0057] In some configurations, at least two adjacent fluid-filled segments 311-324 , connected to each other at bends 3 or turns, and the segments connected by corresponding bends 3 Each of the bending portions 3 extends in a different direction from the other bending portions 3. In some examples, each The radius of the bends 3 is at least 3 mm. Furthermore, each bend 3 is Filler segments 311-324 are arranged around the sole structure 200 on the opposite side of the flange 306. The curved portion 3 is disposed on the opposite side of the flange 306 in the fluid-filled segment. This allows the fluid-filled segments to move freely during changes in direction between loads applied to the sole structure 200. The collapse of the segments 311 to 324 is prevented. One or more of these are fluidly isolated from the other segments 311-324, and at least one of segments 31 1-324 can be differentially pressurized.

[0058] In some configurations, the fluid-filled segment 311 extends along the inner side 20 within the sole structure 2 00 of the heel region 16, and the fluid-filled segment 312 extends along the outer side 18 of the sole structure 200 within the heel region 16, and the fluid-filled segment 313 extends around the heel region 16 and is fluidly coupled to the fluid-filled segments 311 and 312. Thus the fluid-filled segment 313 generally defines a horseshoe shape that fluidly couples to the fluid-filled segments 311 and 312 provided at one each of the inner side 20 and the outer side 18 respectively. In some examples, the fluid-filled segment 311 is longer than the length of the fluid-filled segment 3 12. For example, the fluid-filled segment 311 can extend longer from the heel region 16 towards the forefoot region 12 compared to the fluid-filled segment 312. In some examples, the fluid-filled segment 311 extends partially into the forefoot region 12. In some embodiments, the fluid-filled segment 314 extends between the fluid-filled segments 311, 3 12 and connects to the fluid-filled segments 311, 312. For example, the fluid-filled segment 31

[0059] 4 can extend in a direction substantially perpendicular from the outer side 18 to the inner side 20. Thus, the fluid-filled segment 314 fluidly connects to the fluid-filled segments 311, 312 and provides a fluid coupling between the fluid-filled segments 311, 312. The web region 30 8, i.e., the web region 308 formed such that the lower layer 302 adheres to the upper layer 301 ​​​​extends between and connects the fluid-filled segments 311-314 in the heel region 16. In this manner, the fluid-filled segments 311-314 may be formed in a web shape within the heel region 16. The web regions 308 cooperate to bind the upper 10 0 and mounted on the fluid-filled segments 311-314. 210. The mounting surface 212 of the mounting hole 210 is recessed relative to the ground surface 212 of the mounting hole 210.

[0060] In some examples, one or more additional fluid-filled segments 315 and / or 316 extends between the fluid-filled segments 311, 312, and the fluid-filled segments 311 , 312 for a fluid-filled chamber 300 within at least a portion of the midfoot region 14. Here, the plurality of fluid-filled segments 314-316 define a ladder configuration. The ribs 201 extend substantially parallel to each other in a direction substantially perpendicular to the longitudinal axis L of the rib structure 200. 3. Relieve torsional forces acting on the fluid-filled segments 311, 312, 313 during use of the This provides stability and support to the foot. In cooperation with the segments 311, 312, the spaced apart regions of the web region 308 may be provided. For example, the fluid filled segments 311-314 cooperate to form a first wall in the heel region 16. The fluid-filled segments 311, 312, 315, and 316 cooperate to constrain the web region 308. to constrain the second web region 308 within the midfoot region 14 and the fluid-filled segments 311, 3 12, 314, and 315 cooperate to define the area 3 between the first web area and the second web area. 3. The third web region 308 is constrained within the sole 308. The structure 200 is segmented between the outer side 18 and the inner side 20 to form a fluid-filled cell. 312, thereby providing torsional support to the outsole 21. As the footwear 10 rolls from the heel region 16 to the forefoot region 12 for engagement with the ground, This can dampen foot vibrations relative to the floor.

[0061] In some embodiments, the fluid-filled segment 311 is For example, the fluid-filled segment 311 along the inner side 20 is The segment 312 may extend further from the heel region 16 toward the forefoot 12 than the segment 312. The body filler segment 311 may extend partially into the forefoot 12. In one embodiment, the fluid-filled segment 318 is oriented toward the outer side 18 of the sole structure 200. At the end opposite to the fluid-filled segment 313, the fluid-filled segment 311 The fluid filled segment 317 extends from the inner side 20 of the sole structure 200. At the end opposite to the fluid-filled segment 313 in this direction, It extends from 12.

[0062] In some examples, the overmolded portion 304 includes fluid-filled segments 311-316. and the fluid-filled segments 317, 318 are attached to the portion of the lower layer 302 that defines Fluid filled segment 311 does not exist. 2, the fluid-filled segment 318 extending therefrom is a fluid-filled segment The fluid filled segment 317 may be located farther from the heel region 14 than the fluid filled segment 317. 7 may include a distal end 5 that terminates at a location between the inner side 20 and the outer side 18, The fluid filled segment 318 may extend continuously from the inner side 20 to the outer side 18. In some configurations, the distal end 5 of the fluid-filled segment 317 is directed toward the upper 100. 2. The distal end 5 tapers toward the distal end of each of the fluid-filled segments. It acts as an anchor point for the 317 and also withstands loads such as shear forces. As an anchor point for the entire fluid-filled chamber 300 to hold its shape when enables it to operate.

[0063] In some examples, the outsole 210 may contact the ground while the footwear 10 is performing a running motion. Fluid filled segments 3 to provide cushioning to the foot when rolling for engagement. 17, 318 are substantially parallel to each other and compress continuously. Fluid-filled segments 311, 317, 318 on the outer side 18 of the structure 200 and As bounded by flange 306, web region 308 defines a fluid-filled segment. In some embodiments, the web regions 308 may be separated from each other. separate fluid-filled segments 317, 318 extending generally parallel to one another to define midfoot region 1 A flexion region is defined between the foot and the forefoot region.

[0064] In some embodiments, the fluid filled segment 320 is disposed in the forefoot region 12; Continuously from the outer side 18 of the sole structure 200 to the inner side 20 of the sole structure 200 Fluid filled segment 319 extends from fluid filled segment 318 to sole structure 200. 2, extending along the outer side 18 of the Fluid-filled segments 318, 320 extending continuously between the inner side 18 and the inner side 20 In some scenarios, the fluid-filled segment 320 may be fluidly coupled to the fluid-filled In these scenarios, the fluid-filled segments 318, 32 0 converge toward each other in a direction extending from the outer side 18 to the inner side 20. Fill segment 319 is joined to fluid-filled segments 318, 32 which converge at outer side 18. 0, but the fluid-filled segments 318, 320 are spaced apart from each other on the inner side 18. More specifically, the web area along the medial side 20 of the sole structure 200 308 and flange 306 connect fluid filled segment 320 to fluid filled segment 318 For example, FIG. 5 illustrates a cross-sectional view of fluid-filled segments 318 and 320. a web region 308 extending between the fluid-filled segment 319 on the outer side 18; The webbing extends continuously to a flange 306 formed on the inner side 20 of the sole structure 200. 3 shows a converging fluid-filled region 308 extending from the outer side 18 to the inner side 20. Filling segments 318, 320 and fluid-filled segments 318, 320 on the inner side 20 The separating web area 308 provides a cushioning effect by dampening ground reaction forces during running movements. The fluid-filled segments 318, 320 compress under load to provide cushioning for the metatarsals. Meanwhile, while the fluid-filled segments 318, 320 are compressed, the vibration caused by the foot is also are simultaneously attenuated.

[0065] Additionally, the fluid-filled segment 321 is disposed on the inner side 20 from the fluid-filled segment 320. 3, the fluid-filled segment 322 extends along a Extending from segment 321 in a direction toward outer side 18 and a fluid-filled segment 323 extends from the fluid filled segment 322 along the outer side 18 toward the heel region 16. In some examples, the fluid-filled segment extending along the outer side 18 may be The fluid-filled segment 323 extends along the inner side 20 in a length that is shorter than the fluid-filled segment 321. In some embodiments, the fluid-filled segment 324 has 23 toward the inner side 20 and between the outer side 18 and the inner side 20 The distal end 5 of the fluid-filled segment 317 in the midfoot region 14 terminates at a position Similarly, the distal end 5 of the fluid-filled segment 324 in the forefoot region 12 is attached to the upper 100. 324. The fluid-filled segment 324 is tapered in the direction toward the center of the groove 326 so that the fluid-filled segment 324 retains its shape when a shear force is applied. The slits can act as anchor points for the slits.

[0066] In some examples, the fluid-filled segment 322 may be approximately parallel to the fluid-filled segment 320. In the row, a fluid-filled segment 324 is disposed between the fluid-filled segments 320, 322. In these examples, the fluid-filled segment 324 extends from the inner side 20 to the outer side 21. 18 and converges with fluid filled segment 322 in a direction extending from outer side 18 to inner side The web region 308 extends from the inner side to the inner surface of the fluid-filled segment 320. 20 along the side 20 of the Similarly, the fluid filled segments 320, 324 are separated along the outer side 18. 3, the web regions 320, 324 separating the fluid-filled segments 320, 324 along the outer side 18. 08, a fluid filled segment 32 extends in a direction from the outer side 18 to the inner side 20. 0, 324, the fluid-filled segments 318, 320 converge under load. Allows compression to provide responsive cushioning to the metatarsal-phalangeal joints away from the toes. Tolerate.

[0067] A fluid-filled segment 320 that converges in a direction extending from the outer side 18 to the inner side 20 , 324 and a web region separating the fluid-filled segments 320, 324 at the inner side 20. 308 is a fluid-filled ball that is designed to dampen ground-repulsive forces during running motion and to reduce the impact of impacts under load. The padding segments 320, 324 are compressed to provide cushioning for the metatarsals. While the filler segments 320, 324 are compressed, foot vibrations are simultaneously dampened. The ground contact surface 212 of the outsole 210 extends from the heel region 16 to the forefoot region 12 and includes a fluid-filled Segments 317, 312, 313, 311, 318, 319, 320, 321, 322 , 323, 324 without interruption.

[0068] FIG. 6 is a cross-sectional view taken along line 6-6 of FIG. 5, showing the layered configuration as described above with reference to FIG. The sole structure 200 in the forefoot region 12 is provided with a stroble 220, an upper 10 0, a midsole 240, and a sole having an upper layer 301 of a fluid-filled chamber 300. 3 shows structure 200. The periphery of the lower layer 302 extends upwardly towards the upper 100 and The flanges 11 along the inner side 20 and the outer side 18 join the periphery of the layer 301. 06. The fluid filled segment 320 is between the outer side 18 and the inner side 20. 300 and 302. The fluid-filled chamber 300 includes a bottom layer 302 extending continuously therethrough and defining a tubular cross-section, in which the bottom layer 302 of the fluid-filled chamber 300 and top layer 301 are separated and configured to contain a pressurized fluid (e.g., air). Here, the tubular cross section is a gap between the two parts when the vehicle moves forward, such as when traveling. During use of footwear 10, contact with the ground occurs due to the rolling engagement between outsole 210 and the ground. Therefore, the bottom layer 301 and the top layer 302 have rounded sides 18 and 6. The inner side 20 remains separated from the outer side 18 and the inner side 20. 6 also illustrates an outer periphery of the fluid-filled segment 320 that extends continuously between the outer periphery of the fluid-filled segment 320 and the outer periphery of the fluid-filled segment 320. A fluid-filled segment 319 extending along the side 18 of the fluid-filled segment 3 Fluid filled segment 319 is shown fluidly connecting 20 to converging fluid filled segment 318 .

[0069] The outsole 210 is attached to each of the fluid-filled segments 320, each of which In some examples, the fluid-filled segment 320 may be 10. The mounting member 10 defines a linear ridge extending along its length for mounting the mounting member 10. In the example, the contact pad 232 is a part of the upper 10 from the ground contact surface 212 of the outer sole 210. 0 along the length of the fluid-filled segment 320 and The contact pads 232 further separate the fluid-filled segments 320 from the ground plane, Responsive cushioning when fluid-filled segments 320 compress to dampen ground-rebound forces. This can improve the level of your application.

[0070] FIG. 7 is a cross-sectional view taken along line 7-7 of FIG. 5, showing the layered configuration as described above with reference to FIG. A sole structure 200 in the midfoot region 14 is provided. 0, a midsole 240, and a sole having an upper layer 301 of a fluid-filled chamber 300. 3 shows structure 200. The periphery of the lower layer 302 extends upwardly towards the upper 100 and The flanges 11 along the inner side 20 and the outer side 18 join the periphery of the layer 301. 06. Fluid-filled chamber 300 may also extend toward upper 100. 301 and extends between and separates fluid-filled segments 317 and 311. For example, the inner side of the sole structure 200 may be provided with a web region 308 that separates the sole structure 200 from the inner side. The fluid-filled segment 311 extending along the inner side 20 is a web region formed on the inner side 20. The filler segment is bounded by the outer side 18, while the filler segment is bounded by the outer side 18 and the flange 6. A fluid-filled segment 317 extends from the inner side 20 toward the outer side 20. The boundary is defined by a web region 308 formed in the portion 18 and the flange 6. The distal end 5 of the filling segment 317 tapers in a direction toward the upper 100 and It terminates in a web region 308 formed at a location between the lateral side 18 and the medial side 20 .

[0071] Outsole 210 is attached to each of fluid filled segments 311 and 317. In some examples, the fluid-filled segments 311, 31 7 has a linear ridge extending along its length for attachment of outsole 210. In some examples, the contact pad 232 defines the ground contact surface 21 of the outer sole 210. 2, in a direction away from the upper 100, each of the fluid-filled segments 311-317 It extends along the length of the wheel and provides increased traction with the ground.

[0072] FIG. 8 is a cross-sectional view taken along line 8-8 of FIG. 5, showing the layered configuration as described above with reference to FIG. A sole structure 200 in the midfoot region 14 is provided. 0, a midsole 240, and a sole having an upper layer 301 of a fluid-filled chamber 300. 3 shows structure 200. The periphery of the lower layer 302 extends upwardly towards the upper 100 and The flanges 11 along the inner side 20 and the outer side 18 join the periphery of the layer 301. As shown in FIG. 8, the lower layer 302 may be formed by attaching the upper 10 0 along one of the outer side 18 and the inner side 20. The fluid-filled segments 312, 311 extend along the Fluid filled segment 31 extends between and is fluidly coupled to fluid filled segments 312, 311. More specifically, the bottom layer 302 defines an outer side 18 and an inner side 24. 300 and extending therebetween. 3, forming fluid-filled segments 312, 311 having a thickness greater than that of segment 314.

[0073] As discussed above with reference to footwear 10 of FIG. 4, overmolded portion 304 is a fluid-filled cell. Segments 311, 312, and 314 protrude from the upper 100 toward the outsole 210. Attached to the portion of the lower layer 302 in the protruding region are the heel region 16 and the midfoot region. This improves the durability and resilience of the fluid-filled segments 311-316 in the region 14. In some examples, the bottom layer 302 of the fluid-filled chamber 300 may include an overmolded portion 304. It is formed to include a reduced thickness along the portion to which it is attached. The inner surface 214 of the mold 210 is attached to the overmolded portion 304. In one embodiment, the fluid-filled segment 312 extends along the outer side 18 and the fluid-filled segment 312 extends along the inner side 20. and the fluid-filled segments 311 extending along the sole structure 310 during lateral movement, respectively. To facilitate the inward and / or outward rolling of 200, a semicircular as shown in FIG. Meanwhile, the tubular cross-sectional shape is disposed between the outer side 18 and the inner side 20. The fluid-filled segment 314 is located at the center of the sole structure 200 adjacent the heel region 16. Before a ground repulsion force is applied to the fluid-filled segment 314 at The damping force allows the cushions 311 and 312 to absorb the initial impact of the ground rebound force and compress. The fluid-filled segments 311, 312, 314 are successively compressed to form a A trampoline effect is created, whereby the outsole 210 moves forward due to engagement with the ground. The gradient responsive cushioning is provided when rolling on the

[0074] The outsole 210 is attached to each of the fluid-filled segments 311, 312, and 314. In some examples, the fluid-filled segments 311, 3 12, 314 are of a length such that they can be attached to and support the outsole 210. In some embodiments, the contact pad 232 defines a linear ridge extending along the The fluid-filled material flows from the ground contact surface 212 of the outer sole 210 in a direction away from the upper 100. Extending along the length of each of the padding segments 311, 312, 314 are pads that provide traction with the ground. is increased.

[0075] FIG. 9 is a cross-sectional view taken along line 9-9 of FIG. 5, showing the heel region 16, the midfoot region 14, and the A sole structure 200 is shown extending through the forefoot region 12. The sole structure 200 is shown in FIG. The stroble 220a, the midsole 220b, and the stroble 220c are arranged in a layered configuration as described above with reference to 40, and the top layer 301 of the fluid-filled chamber. The fluid-filled segment 311 is Extending along the medial side 20 of the sole structure 200 within the foot region 16 and midfoot region 14 As shown in Figures 4 and 8, the overmolded portion 304 is a fluid-filled segment. 311 protrudes from the upper 100 toward the outsole 210. 302 and disposed in the heel region 16 and midfoot region 14. This increases the durability and resilience of the segment 311. Furthermore, the fluid-filled segment 317 , from the outer side 18 to the inner side 20, The web region 308 extends to a distal end 5 terminating at a location between the web region 308 and the distal end 5 as shown in FIG. , may separate and extend between the fluid-filled segments 311, 317. The fluid filled segment 317 extends into the forefoot region 12 and into the heel region 16 and / or midfoot region 18. In these examples, the oversegment is associated with a smaller thickness than the segments in the foot region 14. Mold section 304 is not present in fluid-filled segment 317. The mold section 304 may be attached to a fluid-filled segment 317 .

[0076] FIG. 9 also shows a continuous extension between the outer side 18 and the inner side 20, which may be used in some implementations. In the example, a fluid-filled segment 318 extending substantially parallel to the fluid-filled segment 317 is Fluid filled segment 318 is also continuous from outer side 18 to inner side 20. 3, whereby segments 318, 320 converge with a fluid-filled segment 320 extending 5, the fluid-filled segments 20 and 22 are spaced apart from each other. The members 318, 320 are attached to the inner side 20 by the web region 306 and the flange 6. FIG. 9 also shows the sole 18 and the medial side 20 separated along the sole 18 and the medial side 20. Fluid-filled segments 3 extending in a direction substantially perpendicular to the longitudinal axis L of the structure 200 24, 322. In some examples, the fluid-filled segment 324 is Additionally or alternatively, the fluid-filled segment 322 9 shows a cross-sectional view of sole structure 200 in accordance with the present invention. Fluid-filled chamber that decreases in thickness as it progresses from the heel region 16 towards the forefoot region 12 For example, fluid-filled segments 311, 317, 318, 320, 324 , 326 gradually decreases in thickness in a direction extending from the heel region 16 toward the forefoot region 12. It is gradually getting smaller.

[0077] FIG. 10 illustrates fluid coupling between fluids and disposed within the forefoot region 12 of the sole structure 200. FIG. 13 is a schematic bottom view of the filling segments 322, 323, and 324. Filler segment 324 extends from inner side 20 to the area between outer side 18 and inner side 20. The distal end 5 extends in a direction toward the upper 100. The tapering of the fluid-filled segment 324 at its distal end 5 may occur when a load is applied. 324. In some examples, Outsole 310 includes fluid-filled segments 322-324 (as well as segment 311 ~231) and via adhesive or other attachment techniques. In some configurations, the fluid-filled segments are attached to the segments 322-324. At least one of the components 311 to 324 is a part of the outsole 210 attached thereto. defining linear ridges extending along their respective lengths configured to support the The outsole 210 is configured to extend over the area of ​​the lower layer 302 that protrudes from the upper 100. The inner surface 214 is attached to the outsole 210 facing the inner surface 214. In some examples, the contact pads 232 are spaced apart from the ground plane 212. The fluid-filled segments 322-324 extend along the length of each of the fluid-filled segments 322-324. The outsole 212 and other contact pads 232 are connected to the fluid-filled segments 311-321. It can be attached in a similar manner.

[0078] FIG. 11 is a schematic bottom view of the article of footwear 10 of FIG. 10, showing fluid-filled segments 311- A plurality of cushion support vectors 120, 121, 140 defined by 324; More specifically, a fluid-filled cell extending between the heel region 16 and the midfoot region 14 is shown at 160. The longitudinal axis of each of the segments 311, 312 is aligned with the cushion support vector 160. between the lateral side 18 and the medial side 20 of the sole structure 200. The longitudinal lengths of the fluid-filled segments 317, 318, 320, 322, 324 extend The directional axes define respective ones of the cushion support vectors 120, 121, 140. Loads related in a direction parallel to the cushion support vector are applied to one or more of the so that the corresponding fluid-filled segment substantially retains its shape without collapsing; Provides support and stability to the foot in these areas. Meanwhile, cushioning support A load related in the transverse direction of a vector is applied to one or more corresponding fluid-filled segments. They compress and collapse, damping the load and associated ground reaction forces. Cushioning the foot in the area of ​​the sole structure. 200 extends substantially parallel to the longitudinal axis L, while the cushion support vector 12 0, 121, and 140 extend transversely to the longitudinal axis L of the sole structure 200. For example, the cushioning support vectors 120, 121, 140 are aligned along the longitudinal axis of the sole structure 200. An angle may be defined with respect to the directional axis L within fifteen degrees (15°) of perpendicular.

[0079] In some embodiments, the first set of cushioning support vectors 160 may be 16 and midfoot region 14, and are aligned substantially parallel to longitudinal axis L of sole structure 200. Extend approximately parallel to each other in parallel directions. During forward motion, such as walking or running, the sole structure Loads applied to the structure 200 are associated with a first set of vectors 160 in a direction parallel to the first set of vectors 160. As a result, shear forces are applied to the respective fluid-filled segments 311 and 312. Thus, the outsole is adapted for engagement with the ground via the heel region 16 and midfoot region 14. As the segments roll, the respective fluid-filled segments 311, 312 retain their shape (e.g. Fluid-filled segments 311, 312 and fluidly connecting the fluid-filled segments 311, 312. The segments 314, 315, 316 are connected to the fluid-filled segments 311, 312 under an applied load. 3. The invention provides a method for reducing torsional forces acting on the foot while providing gradient responsive cushioning. Dampens vibrations caused by

[0080] During a lateral movement, such as a moving or cutting motion, the load applied to the sole structure 200 is 160. The fluid-filled segment 311 that defines one of the vectors 160 is When the shoe is oriented toward the medial side 20 of the shoe structure 200, it provides cushioning to the medial side of the foot. While the fluid-filled segment 312 defining the other vector 160 is compressed, When the applied load is in a direction toward the lateral side 18 of the sole structure 200, the lateral side of the foot is contacted. Brings a sense of purpose.

[0081] In some embodiments, the second set of cushioning support vectors 140 are 14 and forefoot region 12, and is aligned substantially parallel to longitudinal axis L of sole structure 200. A third series of cushion support vectors extend generally parallel to each other in a perpendicular direction. The sole structure 200 is disposed in the forefoot region 12 and extends in a direction transverse to the longitudinal axis L of the sole structure 200. 20 and 21 extend parallel to each other in a direction toward the inner side 20. The fourth vector 121 also converges to the forefoot region between the third series of vectors 120. 12 and extending transversely to the longitudinal axis L of the sole structure 200, , and the third set of support vectors 120.

[0082] During forward motion, such as walking or running, loads applied to the sole structure 200 are first, The second and third series of vectors 140, 120, 121 are related in a transverse direction. Thus, each of the fluid filled segments 317, 318, 320, 322, 324 has It continuously compresses and collapses, pushing out from the ground to provide cushioning to the midfoot area. The directions of vectors 140, 120, and 121 relative to the direction of the applied load are The lengths of the segments 317, 318, 320, 322, and 324 are related to the ground repulsion force. Determines how the segment compresses to attenuate the

[0083] As shown in FIGS. 5 and 11, the inner side 20 is divided by a web region 308. Fluid-filled segments 32 spaced apart and converging toward each other in a direction toward the inner side 20 The arrangement of 0, 318 allows the segments 320, 318 to compress and dampen the ground repulsion force. The cushioning is applied to the midfoot area of ​​the foot by providing cushioning during forward motion (e.g., running). It acts to dampen the vibrations of the foot caused by the load during exercise. A fluid-filled segment having a distal end 5 that terminates at a location between an outer side 18 and an inner side 20. The vent 324 is separated from the fluid-filled segment 321 of the inner side 20 by the web region 308. from the fluid-filled segment 320 on the outer side 18 by the web region 308. Along the outer side 18 are separated by web regions 308 and This arrangement of converging fluid-filled segments 324, 320 also serves to dampen foot vibrations. 3, segments 320 and 324 compress to compress the metatarsal-phalangeal bones of the foot toward the toes. Provides cushioning to joints.

[0084] Loads applied to the sole structure 200 during lateral movements such as translation or shearing movements Each of the segments 317, 318, 320, 324, and 322 is subjected to a shear force. As shown in Fig. 1, the direction is approximately parallel to or slightly transverse to the vectors 140, 120, and 141. 324, 326, 328, 329, 330, 331, 332, 333, 334, 335, 336, 337, 338, 339, 340, 341, 342, 343, 344, 345, 346, 347, 348, 349, 350, 3 322 retain their shape (e.g., do not compress or only slightly compress); The footwear 10 is adapted to provide support and stability to the midfoot region of the foot in response to lateral movement of the footwear 10. As shown in FIG. 5, the distal ends 5 of the fluid filled segments 317, 314, respectively, are The fluid-filled chamber 300 as a whole is tapered in a direction toward the upper 100. 10. The footwear 10 is supported by a support member 12. The support member 12 supports the support member 12 during use of the footwear 10, and more particularly, during forward running motion. 3. Provide fluid communication between fluid-filled segment 317 and fluid-filled segment 324 during use. .

[0085] Each of the following sections provides an exemplary configuration of the article of footwear described above.

[0086] Item 1: A sole structure for a footwear article having an upper, the sole structure comprising a heel region, a forefoot region, and the a heel region and a midfoot region disposed between the forefoot region. The sole structure includes a first fluid-filled segment extending along an inner side of the sole structure in the heel region. a second fluid filled portion extending along an outer side of the sole structure in the heel region. a fluid-filled segment between the first fluid-filled segment and the second fluid-filled segment; A first barrier layer that cooperates with the second barrier layer to define a web region that is disposed and connects the first barrier layer and the second barrier layer. a wall layer, the first barrier layer being attached to the second barrier layer in the web region; is.

[0087] Item 2: The first fluid-filled segment and the second fluid-filled segment are ground planes. 2. The sole structure of claim 1,

[0088] Clause 3: The sole structure of clause 2, wherein the web region is recessed from the ground contact surface.

[0089] Item 4: The first fluid-filled segment is fluidly coupled to the second fluid-filled segment. 2. The sole structure according to any one of the preceding paragraphs,

[0090] Clause 5: The fluid-filled chamber extends around the heel region, and the first fluid-filled a third fluid-filled segment fluidly coupled to the second fluid-filled segment; 4. The sole structure of any of the preceding claims, including a ment.

[0091] Clause 6: The fluid-filled chamber includes the first fluid-filled segment and the second fluid-filled segment. a fourth fluid-filled segment extending between and connected to the first fluid-filled segment, A fourth fluid-filled segment extends between the inner side and the outer side. 2. A sole structure as described in any one of the preceding paragraphs.

[0092] Clause 7: The web region includes the first fluid-filled segment, the second fluid-filled segment, a third fluid-filled segment and a fourth fluid-filled segment. 7. The sole structure of claim 6, wherein the sole is bounded.

[0093] Clause 8: Any of the preceding clauses, wherein the web region is disposed adjacent to the upper. The sole construction described.

[0094] Clause 9: The fluid-filled chamber is connected to the first fluid-filled segment of the sole structure. 5. The method of claim 1, further comprising: Sole structure.

[0095] Clause 10: The fluid-filled chamber is connected to the second fluid-filled segment of the sole structure. a sixth fluid-filled segment extending toward an inner side of the structure. Sole structure.

[0096] Item 11: The fifth fluid-filled segment is substantially parallel to the sixth fluid-filled segment. 11. The sole structure according to claim 10.

[0097] Clause 12: A sixth fluid-filled segment is disposed between the inner side and the outer side. 12. The sole structure of any one of claims 9 to 11, including a distal end terminating at a position.

[0098] Clause 13: The distal end of any one of clauses 9 to 12, wherein the distal end tapers in a direction toward the upper. The sole structure according to any one of the preceding claims.

[0099] Item 14: A fifth fluid-filled segment extends from said inner side to said outer side. 11. The sole structure of any of claims 10, wherein the sole structure is elongated.

[0100] Item 15: A fifth fluid-filled segment is disposed in the forefoot region on the medial side and the lateral side. 15. The sole structure according to any one of claims 9 to 14, comprising a distal end terminating at a position between the side portions. .

[0101] Item 16: A distal end of the fifth fluid-filled segment is tapered in a direction toward the upper. 16. The sole structure according to claim 15,

[0102] Clause 17: Further comprising an overmolded portion extending over a portion of the fluid-filled chamber. 2. A sole structure as described in any one of the preceding paragraphs.

[0103] Clause 18. The shoe of clause 17, wherein the overmolded portion extends over the heel region. Sole structure.

[0104] Clause 19. The shoe of clause 18, wherein the overmolded portion extends over the midfoot region. Rule structure.

[0105] Clause 20: The shoe of clause 19, wherein the overmolded portion extends into the forefoot region. Rule structure.

[0106] Item 21: The overmolded portion is bonded to the second barrier layer, and the second barrier layer 17. The method according to claim 1, further comprising at least one of: different thicknesses, different hardnesses, and different materials. A sole structure according to any one of claims 1 to 20.

[0107] Item 22: Footwear incorporating a sole structure as described in any of the preceding items.

[0108] Clause 23: The sole structure of a footwear article having an upper includes a heel region, a forefoot region, and a and a midfoot region disposed between the heel region and the forefoot region. The groove extends continuously between the medial side and the lateral side of the sole structure in the forefoot region. a first fluid-filled segment extending from the inner side and the inner side of the sole structure in the forefoot region; a second fluid-filled segment extending continuously between said first fluid-filled portion and said outer side; a weld disposed between and connecting the first fluid-filled segment and the second fluid-filled segment; a first barrier layer defining, in cooperation with a second barrier layer, a first region and a second region; , attached to the second barrier layer in the web region.

[0109] Item 24: The first fluid-filled segment and the second fluid-filled segment are grounded. 24. The sole structure of claim 23, including a surface.

[0110] Clause 25: The sole structure of clause 24, wherein the web region is recessed from the ground surface. .

[0111] Item 26: The first fluid-filled segment is fluidly coupled to the second fluid-filled segment. 2. The sole structure according to any one of the preceding claims,

[0112] Clause 27: The fluid-filled chamber is disposed on either the inner side or the outer side. The first fluid-filled segment and the second fluid-filled segment extend along one another. The sole structure of any of the preceding claims, further comprising a third fluid-filled segment fluidly coupled to the sole. Construction.

[0113] Item 28: The first fluid-filled segment and the second fluid-filled segment are From one of the inner side and the outer side to the inner side and the outer side The sensor according to any one of the preceding claims, wherein the two portions of the sensor converge toward each other in a direction extending in the other direction of the sensor. Rule structure.

[0114] Clause 29: The web region includes the first fluid-filled segment and the second fluid-filled segment. a second segment extending between the first segment and the second segment on the other of the inner side and the outer side; 4. The sole structure according to any one of the preceding paragraphs.

[0115] Clause 30: The first fluid-filled segment is On the other hand, the second fluid-filled segment is spaced apart from the second fluid-filled segment. le structure.

[0116] Item 31: The web region extends from the third fluid-filled segment to the inner side and front portions. 13. The sole structure according to any one of the preceding claims, wherein the other of the outer side portions extends continuously thereto.

[0117] Item 32: The web region includes the first fluid-filled segment, the second fluid-filled segment, a third fluid-filled segment, and a second fluid-filled segment, 32. The sole structure according to any one of claims 27 to 31, which is bounded by the other.

[0118] Clause 33: Any of the preceding clauses, wherein the web region is disposed adjacent to the upper. The sole structure described in.

[0119] Clause 34: The fluid-filled chamber is extended from the second fluid-filled segment to the inner and and a fourth fluid-filled segment extending along the other of the outer sides. The sole structure described above.

[0120] Item 35: The fluid-filled chamber is fluidly coupled to the fourth fluid-filled segment. a fifth fluid-filled segment extending forward from one of the inner side and the outer side; a fifth fluid-filled segment extending toward the other of the inner side and the outer side; 2. The sole structure according to any one of the preceding paragraphs.

[0121] Item 36: The fourth fluid-filled segment is generally parallel to the fifth fluid-filled segment. 36. The sole structure according to claim 35.

[0122] Item 37: The fifth fluid-filled segment is 37. The sole structure of claim 35 or 36, comprising a distal end terminating at a location between.

[0123] Clause 38: Clauses 35 to 37, wherein the distal end tapers in a direction toward the upper. The sole structure according to any one of claims 1 to 5.

[0124] Clause 39: The method further includes an overmolded portion extending over a portion of the fluid-filled chamber. 2. The sole structure according to any one of the preceding paragraphs.

[0125] Clause 40. The shoe of clause 39, wherein the overmolded portion extends over the heel region. Sole structure.

[0126] Clause 41. The shoe of clause 40, wherein the overmolded portion extends over the midfoot region. Rule structure.

[0127] Clause 42: The shoe of clause 41, wherein the overmolded portion extends into the forefoot region. Rule structure.

[0128] Item 43: The overmolded portion is bonded to the second barrier layer, and the second barrier layer 39. The method according to claim 39, further comprising at least one of: different thicknesses, different hardnesses, and different materials. 43. A sole structure according to any one of claims 1 to 42.

[0129] Section 44: Footwear incorporating a sole structure as described in any of the preceding sections.

[0130] Clause 45: The sole structure of a footwear article having an upper includes a heel region, a forefoot region, and a and a midfoot region disposed between the heel region and the forefoot region. The chamber is disposed along either the inner side of the sole structure or the outer side of the sole structure. a first fluid-filled segment extending from the heel region to the forefoot region; extending from one of the inner side and the outer side to the other of the inner side and the outer side a second fluid-filled segment; and a second fluid-filled segment extending from the other of the inner side and the outer side to the inner a third fluid-filled segment extending to one of the first and second sides of the second barrier; The first barrier layer cooperates with the layer to define the first barrier layer.

[0131] Item 46: The first fluid-filled segment and the second fluid-filled segment are grounded. 46. ​​The sole structure of claim 45, including a surface.

[0132] Item 47: The ground plane is the first fluid-filled segment, the second fluid-filled segment, and along the third fluid-filled segment from the heel region to the forefoot region. 47. The sole structure of claim 46, wherein the sole structure extends uninterruptedly along the entire length of the sole.

[0133] Item 48: The second fluid-filled segment is disposed on the inner side and the outer side. Any of the preceding paragraphs, which extends continuously from one of the inner side and the other of the outer side. The sole structure described in any one of the above.

[0134] Item 49: A third fluid-filled segment is disposed on the other of the inner side and the outer side. any of the preceding paragraphs, which extends continuously from The sole structure described in.

[0135] 50. The fluid-filled chamber is disposed along the other of the inner side and the outer side. 7. The sole structure of any of the preceding claims, including a fourth fluid-filled segment extending along the

[0136] Item 51: The fourth fluid-filled segment is connected to the second fluid-filled segment and the third fluid-filled segment. 51. The sole structure of claim 50, wherein the fluid-filled segment extends between the first and second fluid-filled segments and is fluidly coupled to the first and second fluid-filled segments. .

[0137] Clause 52: A sole structure as described in any preceding clause, wherein the web region is recessed from the ground contact surface.

[0138] Item 53: The second fluid-filled segment and the third fluid-filled segment From the other of the inner side and the outer side to one of the inner side and the outer side 4. The sole structure according to any one of the preceding claims, wherein the first and second members are converging toward each other in a direction extending in the direction of the first and second members. .

[0139] Item 54: The web region is formed by the second fluid-filled segment and the third fluid-filled segment. the inner side portion and the outer side portion extend between the inner side portion and the outer side portion of the The sole structure according to any one of claims 1 to 5.

[0140] Item 55: The second fluid-filled segment is disposed on the inner side and the outer side. On the other hand, the saw according to any of the preceding claims is spaced apart from the third fluid-filled segment. le structure.

[0141] Item 56: A web region extends from the fourth fluid-filled segment to the inner side and the outer side. 13. The sole structure of any of the preceding claims, wherein the one side portion extends continuously to the other side portion.

[0142] Item 57: A web region is formed by forming the second fluid-filled segment, the third fluid-filled segment, a fourth fluid-filled segment, and one of the inner side and the outer side. 4. The sole structure of any of the preceding claims, wherein the sole structure is bounded by

[0143] Item 58: Any of the preceding items, wherein the web area is disposed adjacent to the upper. Sole structure.

[0144] Item 59: The fluid-filled chamber extends from the third fluid-filled segment to the inner and outer periphery of the fluid-filled chamber. and a fifth fluid-filled segment extending along one of the outer sides. Sole structure.

[0145] Item 60: The fluid-filled chamber is fluidly coupled to the fifth fluid-filled segment. a sixth fluid-filled segment extending forward from the other of the inner side and the outer side; a sixth fluid-filled segment extending toward one of the inner side and the outer side; 2. The sole structure according to any one of the preceding paragraphs.

[0146] Item 61: The fifth fluid-filled segment is generally parallel to the sixth fluid-filled segment. 61. The sole structure according to claim 60.

[0147] Item 62: The sixth fluid-filled segment is between the inner side and the outer side. 62. The sole structure of claim 60 or 61, comprising a distal end terminating at a position.

[0148] Item 63: The distal end is tapered in a direction toward the upper, items 60 to 62. The sole structure according to any one of claims 1 to 5.

[0149] Clause 64: The method further includes an overmolded portion extending over a portion of the fluid-filled chamber. 2. The sole structure according to any one of the preceding paragraphs.

[0150] Clause 65. The insole of clause 64, wherein the overmolded portion extends over the heel region. Sole structure.

[0151] Clause 66: The shoe of clause 65, wherein the overmolded portion extends over the midfoot region. Rule structure.

[0152] Item 67. The shoe of item 66, wherein the overmolded portion extends into the forefoot region. Rule structure.

[0153] Item 68: The overmolded portion is bonded to the second barrier layer, and the second barrier layer 64. The method according to claim 64, further comprising at least one of: different thicknesses, different hardnesses, and different materials. A sole structure according to any one of claims 1 to 67.

[0154] Item 69: Footwear incorporating a sole structure as described in any of the preceding items.

[0155] The foregoing description has been presented for purposes of illustration and description. The individual elements or features of a particular configuration are not intended to limit the scope of the disclosure. Generally, the present invention is not limited to its particular configuration and may be interchangeable where applicable, and may be specifically illustrated or may be used in selected configurations even if not described. Such variations should not be considered departures from the disclosure, and such variations All such modifications are intended to be included within the scope of this application. [Explanation of symbols]

[0156] 3 Bend 5 Distal end 6 Flange 10 Footwear 12 Forefoot area 14 Midfoot Area 16 Heel Area 18 Outer Side 20 Inner side 100 Upper 102 Internal cavity 104 Ankle opening 106 Fastener 110 Tongue 120, 121, 140, 141 Cushion support vector 120 Third set of cushion support vectors 140 Second set of cushion support vectors 160 First set of cushion support vectors 200 Sole Construction 210 Outsole 212 Ground plane 214 Inside 216 Insole 220 Stroble 222 Bottom 224 Footbed 226 Stitching 232 Contact Pad 240 Midsole 242 Bottom 244 Top surface 300 Fluid-filled chamber 301 Upper barrier layer, upper layer 302 Lower barrier layer, lower layer 304 Overmolded part 306 Flange 308 Web Area 311~324 Fluid-filled segments

Claims

1. A sole structure for a footwear article, comprising: A heel area; The forefoot area; a midfoot region disposed between the heel region and the forefoot region; a first barrier layer cooperating with a second barrier layer, a first fluid-filled segment extending continuously within the forefoot region from an inner edge of the sole structure to an outer edge of the sole structure; a second fluid-filled segment extending continuously within the forefoot region from the inner edge of the sole structure to the outer edge of the sole structure; a third fluid-filled segment extending between the first fluid-filled segment and the second fluid-filled segment and connected to the first fluid-filled segment and the second fluid-filled segment, the third fluid-filled segment extending along the outer edge; a fourth fluid-filled segment extending from the inner rim in a direction away from the heel region along the inner edge, a fifth fluid-filled segment extending from the fourth fluid-filled segment in a direction toward the outer edge, a sixth fluid-filled segment extending from the fifth fluid-filled segment in a direction along the outer edge toward the heel region, a seventh fluid-filled segment extending from the sixth fluid-filled segment in a direction toward the inner edge and including a distal end terminating at a location between the outer edge and the inner edge, and a web region; the web region (i) being disposed between the first and second fluid-filled segments separating the first and second fluid-filled segments in a direction extending along a longitudinal axis of the sole structure; (ii) being recessed from a ground contact surface of the sole structure, the first fluid-filled segment being spaced from the second fluid-filled segment by a first distance measured in a first direction proximate the lateral edge of the sole structure and spaced from the second fluid-filled segment by a second distance measured in the first direction proximate the medial edge of the sole structure, the second distance being less than the first distance; and (iii) being disposed between the second and seventh fluid-filled segments separating the second and seventh fluid-filled segments in a direction extending along the longitudinal axis of the sole structure. the web region extends between and separates the first and second fluid-filled segments, extends continuously from the third fluid-filled segment to the inner edge, the first and second fluid-filled segments converge toward one another in a direction extending from the outer edge to the inner edge, and the second and seventh fluid-filled segments converge in a direction extending from the outer edge to the inner edge.

2. The sole construction of claim 1 , further comprising an outsole attached to at least one of the first fluid-filled segment and the second fluid-filled segment, the outsole defining the ground contact surface.

3. The sole structure of claim 1 , wherein the first fluid-filled segment is fluidly coupled to the second fluid-filled segment.

4. The sole construction of claim 1 , wherein the first barrier layer is attached to the second barrier layer at the web region.

5. The sole construction of claim 1 , further comprising an overmold portion extending over a portion of the fluid-filled chamber.

6. The sole construction of claim 5 , wherein the overmold portion extends over the heel region, the midfoot region, and a portion of the forefoot region.

7. The sole construction of claim 5 , wherein the overmold portion is bonded to the second barrier layer and comprises at least one of a different thickness, a different hardness, and a different material than the second barrier layer.

8. The sole construction of claim 7 , further comprising an outsole attached to the overmold portion.

9. An article of footwear incorporating the sole structure of claim 1.

10. A sole structure for a footwear article, comprising: A heel area; The forefoot area; a midfoot region disposed between the heel region and the forefoot region; a first barrier layer cooperating with a second barrier layer, a first fluid-filled segment extending continuously in the forefoot region between an inner edge of the sole structure and an outer edge of the sole structure; a second fluid-filled segment extending continuously in the forefoot region between the inner edge of the sole structure and the outer edge of the sole structure; a third fluid-filled segment extending between the first fluid-filled segment and the second fluid-filled segment and connected to the first fluid-filled segment and the second fluid-filled segment, the third fluid-filled segment extending along the outer edge; a fourth fluid-filled segment extending from the second fluid-filled segment along the inner edge in a direction away from the heel region, a fifth fluid-filled segment extending from the fourth fluid-filled segment in a direction toward the outer edge, a sixth fluid-filled segment extending from the fifth fluid-filled segment in a direction toward the heel region along the outer edge, a seventh fluid-filled segment extending from the sixth fluid-filled segment in a direction toward the inner edge including a distal end terminating at a location between the outer edge and the inner edge, and a web region; A region and a a fluid-filled chamber; the web region (i) is disposed between the first and second fluid-filled segments to define a gap separating the first and second fluid-filled segments; (ii) is recessed from a ground contact surface of the sole structure, the gap tapering in a direction extending from one of the inner edge and the outer edge to the other of the inner edge and the outer edge; and (iii) is disposed between the second and seventh fluid-filled segments to separate the second and seventh fluid-filled segments in a direction extending along a longitudinal axis of the sole structure; the web region extends between and separates the first and second fluid-filled segments, extends continuously from the third fluid-filled segment to the inner edge, the first and second fluid-filled segments converge toward one another in a direction extending from the outer edge to the inner edge, and the second and seventh fluid-filled segments converge in a direction extending from the outer edge to the inner edge.

11. The sole construction of claim 10 , further comprising an outsole attached to at least one of the first fluid-filled segment and the second fluid-filled segment, the outsole defining the ground contact surface.

12. The sole structure of claim 10 , wherein the first fluid-filled segment is fluidly coupled to the second fluid-filled segment.

13. 11. The sole structure of claim 10, wherein the first fluid-filled segment and the second fluid-filled segment converge in a direction extending from one of the medial edge and the lateral edge to the other of the medial edge and the lateral edge.

14. 11. The sole structure of claim 10, wherein the first fluid-filled segment is spaced from the second fluid-filled segment at the other of the medial edge and the lateral edge to define an opening between the first and second fluid-filled segments at the other of the medial edge and the lateral edge.

15. The sole construction of claim 10 , further comprising an overmold portion extending over a portion of the fluid-filled chamber.

16. The sole construction of claim 15 , wherein the overmold portion extends over the heel region, the midfoot region, and a portion of the forefoot region.

17. 16. The sole construction of claim 15, wherein the overmold portion is bonded to the second barrier layer and comprises at least one of a different thickness, a different hardness, and a different material than the second barrier layer.

18. The sole construction of claim 17 , further comprising an outsole attached to the overmold portion.

19. An article of footwear incorporating the sole structure of claim 10.

Citation Information

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