Bra with soft support

Abstract

The utility model relates to a bra with a soft support, and belongs to the technical field of clothing manufacturing. The bra comprises a bra body and a soft support arranged at the lower edge of a bra cup, and the soft support comprises a strip-shaped elastic inner core and a coating piece coating the elastic inner core; and the elastomer inner core comprises a plurality of sections with different mechanical properties. The mechanical property of the soft support provided by the utility model is set to be segmental anisotropy or directional anisotropy, so that the mechanical properties of the soft support at different positions and in different directions are adaptively adjusted, and the soft support can adapt to stretching or rebounding requirements at different positions or supporting requirements at different positions and in different directions; therefore, the effects of shaping, supporting, crease resistance, attractiveness, resilience, prolonging of the service life and the like of the bra in different directions and at different positions are achieved.

Description

Technical Field

[0001] The utility model relates to a bra with soft support, belonging to the technical field of clothing manufacturing. Background Art

[0002] The soft support for clothing was first seen in the application on bras and later widely used in various types of clothing to achieve effects such as support, shaping, preventing deformation, increasing the service life and aesthetics of clothing. The conventional soft support structure is a double-layer structure including a core and a covering member. The conventional manufacturing method of such a structure is by mold injection, which results in the conventional soft support structure generally being a homogeneous structure with the same mechanical properties in all directions and at all positions. With the popularization and use of soft support, the technical field hopes that the soft support can provide different mechanical properties at different positions and in different directions. For example, for a bra with soft support, on the one hand, it is hoped that the shape of the lower edge of the cup can be easily adjusted to fit the shape of the chest during wearing, and after wearing, it is hoped that the soft support can provide shaping support from both sides of the cup; on the other hand, after wearing the bra, it is hoped that the bra can fit the body contour in the horizontal direction and can provide effective support for the chest in the vertical direction. However, the existing homogeneous soft support cannot meet the requirement of providing different support forces or different elastic forces at different positions and in different directions in clothing to achieve the mechanical properties of support, shaping, and preventing deformation. Summary of the Utility Model

[0003] The technical problem to be solved by the utility model is to solve the technical problem that the existing homogeneous soft support cannot meet the requirement of providing different support forces or different elastic forces at different positions and in different directions in clothing to achieve the mechanical properties of support, shaping, and preventing deformation.

[0004] To solve the above problems, the technical solution adopted by the utility model is to provide a bra with soft support. The bra includes a bra body and a soft support placed at the lower edge of the bra cup. The soft support includes an elastic support body. The elastic support body includes at least 2 segments with different mechanical properties. The mechanical properties include the flexural rigidity that resists bending with direction anisotropy and / or the tensile rigidity that resists stretching with segment anisotropy.

[0005] The elastic support body has the flexural rigidity that resists bending with direction anisotropy, and / or the elastic support body has the flexural rigidity that resists bending with segment anisotropy, and / or the elastic support body has the tensile rigidity that resists stretching with segment anisotropy.

[0006] The direction anisotropy of the flexural rigidity means that the elastic support body has different flexural rigidities that resist bending in different radial directions along any cross-section of the elastic support body;

[0007] The sectional anisotropy of the flexural stiffness means that the elastic support has different flexural stiffnesses against bending in different segments along the axial direction of the elastic support; or the elastic support has different flexural stiffnesses against bending at different positions along the axial direction of the elastic support.

[0008] The sectional anisotropy of the tensile stiffness means that the elastic support has different tensile stiffnesses against stretching in different segments along the axial direction of the elastic support; or the elastic support has different tensile stiffnesses against stretching at different positions along the axial direction of the elastic support.

[0009] Preferably, the elastic support includes: a strip-shaped elastic inner core, and a covering member covering the elastic inner core; the flexural stiffness of the elastic inner core against bending is set to be directionally anisotropic, and / or the flexural stiffness of the elastic inner core against bending is set to be sectionally anisotropic, and / or the tensile stiffness of the elastic inner core against stretching is set to be sectionally anisotropic.

[0010] Preferably, the elastic inner core includes at least one elastic memory segment.

[0011] Preferably, the elastic inner core is set as a continuous body, or the elastic inner core is set as a discontinuous body.

[0012] Preferably, the elastic inner core is provided with a total of j segments N1, N2,... Nj along the core axis direction, j≥2; the tensile stiffness of the j segments varies with the position where the segments are located.

[0013] Preferably, the continuous soft support sequentially includes: the lower left edge segment of the left cup, the lower middle edge segment of the left cup, the lower right edge segment of the left cup, the middle segment, the lower left edge segment of the right cup, the lower middle edge segment of the right cup, and the lower right edge segment of the right cup; the lower left edge segment of the left cup, the lower middle edge segment of the left cup, the lower right edge segment of the left cup, the middle segment, the lower left edge segment of the right cup, the lower middle edge segment of the right cup, and the lower right edge segment of the right cup are all arc-shaped structures conforming to the curve of the human chest; the elastic inner core is set as a discontinuous body, discontinuously distributed in the lower left edge segment of the left cup, the lower right edge segment of the left cup, the middle segment, the lower left edge segment of the right cup, the lower right edge segment of the right cup, and the elastic inner core is in a missing discontinuous state in the lower middle edge segment of the left cup and the lower middle edge segment of the right cup.

[0014] Preferably, the soft support includes separate left cup soft supports and right cup soft supports; the left cup soft supports and the right cup soft supports are symmetrically identical; the left cup soft support includes a left lower edge section of the left cup, a middle lower edge section of the left cup, and a right lower edge section of the left cup, and the right cup soft support includes a left lower edge section of the right cup, a middle lower edge section of the right cup, and a right lower edge section of the right cup; the elastic inner core of the left cup soft support is set as a discontinuous body, discontinuously distributed in the left lower edge section of the left cup and the right lower edge section of the left cup, and the elastic inner core of the left cup soft support is set as a missing discontinuous shape in the middle lower edge section of the left cup; the elastic inner core of the right cup soft support is set as a discontinuous body, discontinuously distributed in the left lower edge section of the right cup and the right lower edge section of the right cup, and the elastic inner core of the right cup soft support is set as a missing discontinuous shape in the middle lower edge section of the right cup.

[0015] Preferably, the covering member includes a first covering layer and a second covering layer, and the elastic inner core is disposed between the first covering layer and the second covering layer;

[0016] Preferably, the first covering layer is set as a film layer, and the second covering layer is set as a silica gel layer; there is an adhesive between the film layer and the silica gel layer, and the adhesive is set as a silica gel bridging agent; there is also a flocking layer outside the silica gel layer.

[0017] Preferably, the cross-section of the elastic inner core is set as an anisotropic cross-section with the long side dimension larger than the short side dimension.

[0018] Preferably, the shape of the cross-section includes a dumbbell shape, a rectangle, or an I-shape.

[0019] The present utility model provides a soft support for clothing, and at least one soft support for local support is provided on the clothing, and the soft support includes an elastic support body;

[0020] The flexural rigidity of the elastic support body against bending is set as directionally anisotropic,

[0021] and / or the flexural rigidity of the elastic support body against bending is set as piecewise anisotropic,

[0022] and / or the tensile rigidity of the elastic support body against stretching is set as piecewise anisotropic.

[0023] Preferably, the elastic support body includes:

[0024] a strip-shaped elastic inner core,

[0025] a covering member covering the elastic inner core;

[0026] The flexural rigidity of the elastic inner core against bending is set as directionally anisotropic,

[0027] and / or the flexural rigidity of the elastic inner core against bending is set as piecewise anisotropic,

[0028] and / or the tensile stiffness of the elastomeric inner core against tension is set to be piecewise anisotropic.

[0029] The directional anisotropy of the flexural stiffness means that the elastomeric inner core has different flexural stiffnesses against bending in different radial directions along any cross-section of the elastomeric inner core;

[0030] The piecewise anisotropy of the flexural stiffness means that the elastomeric inner core has different flexural stiffnesses against bending in different segments along the axial direction of the elastomeric inner core; or the elastomeric inner core has different flexural stiffnesses against bending at different positions along the axial direction of the elastomeric inner core;

[0031] The piecewise anisotropy of the tensile stiffness means that the elastomeric inner core has different tensile stiffnesses against tension in different segments along the axial direction of the elastomeric inner core; or the elastomeric inner core has different tensile stiffnesses against tension at different positions along the axial direction of the elastomeric inner core;

[0032] Preferably, the elastomeric inner core is provided with a resilience memory property, and the resilience memory property is set to be piecewise anisotropic

[0033] Preferably, the elastomeric inner core is set as a continuous body, or the elastomeric inner core is set as a discontinuous body.

[0034] Preferably, the elastomeric inner core is provided with a total of j segments N1, N2,... Nj along the core axis direction, where j≥2; the flexural stiffnesses of the j segments in a first direction change with the position of the segments, and the first direction is used to characterize the direction in which the elastomeric inner core bends and deforms to fit the body contour of the wearer. Further, the flexural stiffnesses of the j segments in another direction change with the position of the segments to provide different mechanical support effects at the positions of the segments; the first direction and the another direction are directions in different radial directions along any cross-section of the elastomeric inner core in the axial direction of the elastomeric inner core;

[0035] Preferably, the flexural stiffness of the elastomeric inner core in the first direction is less than the flexural stiffness of the elastomeric inner core in the second direction. The first direction and the second direction are directions in different radial directions along any cross-section of the elastomeric inner core in the axial direction of the elastomeric inner core;

[0036] The first direction is used to characterize the direction in which the elastomeric inner core bends and deforms to fit the body contour of the wearer, such that: in the direction of fitting the body contour of the wearer, the elastomeric inner core is more easily bent to fit the body contour of the wearer, and in the second direction, the elastomeric inner core is not easily bent to provide a support effect.

[0037] Preferably, the elastomeric inner core is provided with at least one directionally anisotropic segment, and the flexural stiffness of the directionally anisotropic segment in the first direction is less than the flexural stiffness of the directionally anisotropic segment in the second direction.

[0038] The first direction is used to characterize the direction in which the directionally anisotropic segments bend and deform to conform to the body contour of the wearer, such that: in the direction of conforming to the body contour of the wearer, the directionally anisotropic segments are more easily bent to conform to the body contour of the wearer, and in the second direction, the directionally anisotropic segments are not easily bent to provide a supporting effect.

[0039] Preferably, along the core axis direction from one end to the other end of the elastic inner core, the flexural rigidity in the first direction varies with the position, and the first direction is used to characterize the direction in which the elastic inner core bends and deforms to conform to the body contour of the wearer.

[0040] Preferably, the elastic inner core is provided with a total of j segments N1, N2,...Nj along the core axis direction, where j≥2; the tensile rigidity of the j segments varies with the position where the segments are located.

[0041] Preferably, the elastic inner core is configured as an elastic memory body.

[0042] Preferably, the elastic inner core is provided with at least one elastic memory segment, and the elastic memory segment is configured as an elastic memory body.

[0043] Preferably, the elastic memory body includes elastic memory nylon or elastic memory metal.

[0044] Preferably, the covering member includes a first covering layer and a second covering layer, and the elastic inner core is disposed between the first covering layer and the second covering layer.

[0045] Preferably, the first covering layer is configured as a film layer, and the second covering layer is configured as a silicone layer.

[0046] Preferably, the first covering layer, the elastic inner core, and the second covering layer are manufactured by a 3D printing process.

[0047] Preferably, a binder is provided between the film layer and the silicone layer, and the binder is configured as a silicone bridging agent.

[0048] Preferably, a flocking layer is further provided outside the silicone layer.

[0049] Preferably, the clothing includes a bra, a T-shirt, a vest, a pullover, a shirt, a windbreaker, a sports vest, a bodysuit, shorts, sweatpants, yoga pants, bodybuilding pants, or socks, etc.

[0050] The soft support provided by the present application sets the mechanical property of the elastic inner core, i.e., the flexural rigidity, to be directionally anisotropic, so as to provide different support effects in different directions; sets the mechanical property of the elastic inner core, i.e., the flexural rigidity, to be segmentally anisotropic, so as to provide different support effects at different positions; and sets the mechanical property of the elastic inner core, i.e., the tensile rigidity, to be segmentally anisotropic, so as to provide different stretching effects at different positions.

[0051] Compared with traditional soft supports, the mechanical properties of the soft support provided in this application are set to be piecewise anisotropic or directionally anisotropic, enabling the soft support to adaptively adjust its mechanical properties at different positions and in different directions, so as to adapt to the stretching or rebound requirements at different positions, or the support requirements at different positions and in different directions. Clothing designers can add soft supports to clothing according to actual needs to achieve effects such as shaping, support, anti-wrinkle, aesthetics, rebound, and extended service life in different directions and at different positions. Brief Description of the Drawings

[0052] Figure 1 Schematic diagram of the elastic inner core provided in Embodiment 1 of this application;

[0053] Figure 2 Schematic diagram of the cross-sectional shape of the elastic inner core provided in Embodiment 1 of this application Figure 1 ;

[0054] Figure 3 Schematic diagram of the cross-sectional shape of the elastic inner core provided in Embodiment 1 of this application Figure 2 ;

[0055] Figure 4 Schematic diagram of the cross-sectional shape of the elastic inner core provided in Embodiment 1 of this application Figure 3 ;

[0056] Figure 5 Schematic diagram of the elastic inner core with a cross-sectional area varying with position provided in Embodiment 1 of this application;

[0057] Figure 6 Schematic diagram of the layered structure of the soft support provided in Embodiment 1 of this application;

[0058] Figure 7 Schematic diagram of the bra structure provided in Embodiment 2 of this application;

[0059] Figure 8 Schematic diagram of the soft support structure provided in Embodiment 2 of this application Figure 1 ;

[0060] Figure 9 Schematic diagram of the soft support structure explosion provided in Embodiment 2 of this application;

[0061] Figure 10 Schematic diagram of the soft support structure provided in Embodiment 2 of this application Figure 2 ;

[0062] Figure 11 Schematic diagram of the layered structure of the soft support provided in Embodiment 2 of this application;

[0063] Figure 12 Schematic diagram of the space-folded soft support provided in Embodiment 2 of this application;

[0064] Reference numerals: elastomeric inner core 110, first coating layer 120, second coating layer 130, soft support 210, bra body 220, lower left edge section 211 of the left cup, lower middle edge section 212 of the left cup, lower right edge section 213 of the left cup, middle section 214, lower left edge section 215 of the right cup, lower middle edge section 216 of the right cup, lower right edge section 217 of the right cup, adhesive film layer 230, silicone layer 240, adhesive 250, flocking layer 260, cup area 271, underband area 272, upper fold 281, lower fold 282. Detailed implementation manners

[0065] To make the present application more clearly understandable, various exemplary embodiments will be introduced below. These examples are non-limiting, and it should be understood that they are used to exemplify the broader application aspects of the methods of the present application. Without departing from the essence and scope of the present application, these embodiments can be varied in many ways and can be replaced by equivalents. In addition, various changes can be made to adapt to special circumstances, materials, material components, treatment types, treatment actions or steps to adapt to the purpose, content or scope of the present application. All such changes will be within the protection scope of the present application.

[0066] Regarding any materials, dimensions, quantities introduced in the overview or detailed description, they are only examples and do not limit the subject matter of the present application. Moreover, the various embodiments of the embodiments described herein will complement each other rather than being purely alternative, unless otherwise stated. In other words, the embodiments from one embodiment can be freely combined with the embodiments from other embodiments, as is easily understood by those of ordinary skill in the art, unless it is stated that these embodiments are only for replacement.

[0067] In the description of the present application, it should be noted that the orientation or positional relationship indicated by terms such as "inner", "outer", etc. is based on the orientation or positional relationship shown in the drawings, or the orientation or positional relationship in which the product of this application is usually placed during use. It is only for the convenience of describing the present application and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of the present application. In addition, terms such as "first", "second", etc. are only used for distinguishing descriptions and cannot be understood as indicating or implying relative importance.

[0068] In the description of the present application, it should also be noted that where the term "layer" is mentioned, it should be understood that the meaning of "layer" includes, but is not limited to, that a layer can be composed of a single sheet, or can be jointly constituted by two or more layer-like objects that are connected or have different characteristics (such as color, material, etc.). For those of ordinary skill in the art, the specific meaning of the above terms in the present application can be understood according to specific circumstances.

[0069] Embodiments of the present application provide a soft support for clothing, clothing with a soft support, and corresponding manufacturing methods. Compared with traditional soft supports, the mechanical properties of the soft support provided by the present application are set to be segmentally anisotropic or directionally anisotropic, so that the mechanical properties of the soft support can be adaptively adjusted at different positions and in different directions, thereby adapting to the stretching or resilience requirements at different positions, or the support requirements at different positions and in different directions.

[0070] The soft support is generally a strip-shaped member. The mechanical property attributes used to measure the strip-shaped member generally include attributes such as flexural stiffness, tensile stiffness, and resilience rate. Taking flexural stiffness as an example, since flexural stiffness has directionality, the soft support can be set to be directionally anisotropic in terms of flexural stiffness or segmentally anisotropic in terms of flexural stiffness; for tensile stiffness, the soft support generally only focuses on the axial tensile stiffness, so the soft support can be set to be segmentally anisotropic in terms of tensile stiffness.

[0071] Example 1

[0072] This embodiment provides a soft support for clothing. One or more soft supports for local support are provided on the clothing, and the soft support is an elastic support body; the flexural stiffness of the elastic support body against bending is set to be directionally anisotropic, and / or the flexural stiffness of the elastic support body against bending is set to be segmentally anisotropic, and / or the tensile stiffness of the elastic support body against stretching is set to be segmentally anisotropic.

[0073] The above-mentioned elastic support body may further include: a strip-shaped elastic inner core, and a covering member covering the elastic inner core; the flexural stiffness of the elastic inner core against bending is set to be directionally anisotropic, and / or the flexural stiffness of the elastic inner core against bending is set to be segmentally anisotropic, and / or the tensile stiffness of the elastic inner core against stretching is set to be segmentally anisotropic;

[0074] The above-mentioned directionality of flexural stiffness means that the elastic inner core has different flexural stiffnesses against bending in different radial directions of any cross-section along the axis of the elastic inner core;

[0075] The above-mentioned segmental anisotropy of flexural stiffness means that the elastic inner core has different flexural stiffnesses against bending in different segments along the axis of the elastic inner core; or the elastic inner core has different flexural stiffnesses against bending at different positions along the axis of the elastic inner core;

[0076] The above-mentioned segmental anisotropy of tensile stiffness means that the elastic inner core has different tensile stiffnesses against stretching in different segments along the axis of the elastic inner core; or the elastic inner core has different tensile stiffnesses against stretching at different positions along the axis of the elastic inner core;

[0077] The elastic inner core serves as the support inner core of the soft support and generally has a stronger support capacity than the covering member. The covering member is conventionally made of soft materials such as rubber, resin, polypropylene, and thermoplastic elastomer. Compared with the covering member, the support inner core is generally harder.

[0078] The soft support for clothing provided in this embodiment sets the mechanical properties of the elastic inner core as follows: the flexural stiffness is directionally anisotropic, so that different support effects can be provided in different directions;

[0079] The soft support for clothing provided in this embodiment sets the mechanical properties of the elastic inner core as follows: the flexural stiffness is piecewise anisotropic, and different support effects can be provided at different positions;

[0080] The soft support for clothing provided in this embodiment sets the mechanical properties of the elastic inner core as follows: the tensile stiffness is piecewise anisotropic, and different tensile effects can be provided at different positions. Further, the soft support for clothing provided in this embodiment sets the mechanical properties of the elastic inner core as follows: the resilience memory characteristic is piecewise anisotropic, and different memory resilience effects can be provided at different positions.

[0081] In an alternative embodiment, the elastic inner core is provided as a continuous body, or the elastic inner core is provided as a discontinuous body. When the elastic inner core is a continuous body, the directional anisotropy of the mechanical properties can be achieved by changing the cross-sectional shape, and the piecewise anisotropy of the mechanical properties can be achieved by changing the material strength, material ratio, or cross-sectional size at different positions. When the elastic inner core is a discontinuous body, the mechanical properties are naturally piecewise anisotropic.

[0082] In another alternative embodiment, refer to Figure 1, the bending stiffness of the elastic inner core is set to be piecewise anisotropic. The elastic inner core 110 is provided with a total of j segments N1, N2,... Nj along the core axis direction, where j ≥ 2; the bending stiffness of the j segments in a first direction varies with the position of the segment, and the first direction is used to characterize the direction in which the elastic inner core bends and deforms to conform to the wearer's body contour. Thus, the bending stiffness of the elastic inner core in the direction of conforming to the wearer's body contour has piecewise anisotropy, so that different bending mechanical properties can be provided at different positions in the direction of conforming to the wearer's body contour to adapt to the human body contour. For example, at positions where the human body contour is flat, the bending stiffness of the segments of the elastic inner core is set to be greater, making it not easy to bend, capable of providing stronger support performance, and preventing the clothing from deforming. At positions where the human body contour is curved, the bending stiffness of the segments of the elastic inner core is set to be smaller, making it easier to bend and enabling the soft support to more easily conform to the human body contour. Similarly, the elastic inner core is provided with a total of j segments N1, N2,... Nj along the core axis direction, where j ≥ 2; the bending stiffness of the j segments in another direction varies with the position of the segment to provide different mechanical support effects at the positions of the segments; the another direction can be set to any direction other than the first direction. For example, the another direction is the direction parallel to the wearer's body contour. The bending stiffness of the elastic inner core in the direction of bending and deforming parallel to the wearer's body contour has piecewise anisotropy, so that different bending mechanical properties can be provided at different positions to provide an adaptive support effect at different positions. When the soft support is applied to a bra, taking the wearer standing vertically as an example, at the segments that need to support the chest, the bending stiffness of the elastic inner core in the vertical direction to resist bending deformation is set to be greater, and the soft support is not easy to bend at this segment and can provide stronger mechanical support performance.

[0083] In yet another alternative embodiment, the bending stiffness of the elastic inner core is set to be directionally anisotropic. The bending stiffness of the elastic inner core in a first direction is set to be less than the bending stiffness of the elastic inner core in a second direction. The first direction is used to characterize the direction in which the elastic inner core bends and deforms to conform to the wearer's body contour, so that: in the direction of conforming to the wearer's body contour, the elastic inner core is more easily bent to conform to the wearer's body contour, and in the second direction, the elastic inner core is not easily bent to provide a support effect. The second direction can be any direction other than the first direction, which varies according to the type of clothing, the different positions where the soft support is located, and the different support directions of the soft support. Exemplarily, referring to Figure 2 , Figure 3 and Figure 4 , the shape of the cross-section of the elastic inner core includes anisotropic cross-sections such as dumbbell-shaped, rectangular, or I-shaped, etc., which have long sides and short sides; the long side direction is parallel to the wearer's body contour, and in this direction, the elastic inner core is not easily bent to provide a support effect; the bending stiffness in the short side direction is set to be less than the bending stiffness of the elastic inner core in the long side direction. In the short side direction, the elastic inner core is more easily bent to conform to the wearer's body contour.

[0084] By adopting an anisotropic cross-section, the bending stiffness of the elastic inner core in the direction of conforming to the wearer's body contour can be made smaller than that in other directions.

[0085] In yet another alternative embodiment, a plurality of segments are provided in the elastic inner core as anisotropic segments and the remaining segments as conventional segments, that is, the elastic inner core is divided into a plurality of segments, and at least one anisotropic segment is included in the plurality of segments. Thus, the elastic inner core has both segmental anisotropy and directional anisotropy. The bending stiffness of the anisotropic segment in direction one is smaller than the bending stiffness of the anisotropic segment in direction two. Direction one is used to represent the direction in which the anisotropic segment bends and deforms to conform to the wearer's body contour, so that: in the direction of conforming to the wearer's body contour, the anisotropic segment is more likely to bend to conform to the wearer's body contour, and in direction two, the anisotropic segment is not likely to bend to provide a supporting effect. In this embodiment, the elastic inner core has both segmental anisotropy and directional anisotropy, that is, different mechanical properties can be provided at different positions and different mechanical properties can also be provided in different directions, making it more widely applicable.

[0086] In yet another alternative embodiment, the way for the elastic inner core to achieve segmental anisotropy is that the mechanical properties change with position. In this embodiment, the elastic inner core is still a continuous body without clear segmentation, and the mechanical properties of the elastic inner core change with position by gradually changing the cross-sectional size or cross-sectional shape. Exemplarily, see Figure 5 , the cross-sectional area of the elastic inner core changes with position (thicker or thinner) along the core axis direction from one end to the other end. This can make the bending stiffness of the elastic inner core in the direction of conforming to the wearer's body contour change with position, or make the bending stiffness in the direction perpendicular to the wearer's body contour change with position, or make the tensile stiffness of the elastic inner core change with position, so that different mechanical properties can be provided at different positions and different mechanical properties can be provided in different directions.

[0087] In yet another alternative embodiment, the tensile stiffness of the elastic inner core is set to be segmentally anisotropic. The elastic inner core is provided with a total of j segments N1, N2,... Nj along the core axis direction, where j≥2; the tensile stiffness of the j segments changes with the position where the segments are located. This enables different tensile mechanical properties to be provided at different positions to adapt to the human body contour. For example, for areas where clothing is prone to tensile deformation during wearing, the segments in this area are set with a smaller tensile stiffness so that they are easily stretched and deformed and can easily recover after deformation; for areas where clothing is not prone to tensile deformation during wearing, the segments in this area are set with a larger tensile stiffness so that they are not easily stretched and deformed to provide a supporting effect.

[0088] In yet another alternative embodiment, the elastic inner core is provided as an elastic memory body, or the elastic inner core includes a plurality of segments that are elastic memory bodies, so that the elastic inner core has segmental anisotropic resilience memory characteristics or full-segment resilience memory characteristics. For example, for areas where the soft support is prone to deformation due to wearing and taking off clothes, the elastic inner core is provided as an elastic memory body, so that the soft support can be restored after deformation, thereby preventing serious deformation caused by long-term wearing and taking off of clothes and improving the wearing life and wearing experience of the clothes. Exemplarily, the elastic memory body is made of elastic memory nylon or elastic memory metal.

[0089] In a preferred embodiment, referring to Figure 6 , the covering member in the soft support for clothes provided in the present application includes a first covering layer 120 and a second covering layer 130, and the elastic inner core 110 is placed between the first covering layer 120 and the second covering layer 130. Compared with the traditional soft support using an injection molding process, the covering member provided in this embodiment uses an upper and lower two-layer covering method to cover the elastic inner core, and it is easier to be made by 3D printing. The first covering layer, the elastic inner core, and the second covering layer are all made by 3D printing technology. By printing layer by layer in sequence, the first covering layer and the second covering layer cover the elastic inner core from above and below to form a soft support. Exemplarily, the covering layer material can be selected from one or more of rubber, resin, polypropylene, and thermoplastic elastomer. Among them, it is preferred that the first covering layer is a film layer and the second covering layer is a silica gel layer. The first covering layer is set as a film layer for convenient connection with clothes. It can be directly heat-melted on the surface of the clothes, or grooves can be reserved during the processing of the clothes, and the soft support can be buried in the grooves; the second covering layer is set as a silica gel layer. On the one hand, the silica gel has a longer lifespan, and on the other hand, the silica gel layer is softer and can play a protective role. Compared with the silica gel layer, the elastic inner core is generally harder, which can prevent the elastic inner core from directly contacting the wearer.

[0090] Furthermore, in order to improve the structural stability of the soft support, an adhesive can be provided between the film layer and the silica gel layer. The adhesive can be added by means of a gluing process or a 3D printing spraying process, etc.; it is preferred that the adhesive material is a silica gel bridging agent, which is used in combination with the silica gel layer to improve the structural stability of the soft support, prevent separation between layers, and improve the service life. Even further, a flocking layer can be provided outside the silica gel layer to enhance the aesthetic effect or the use experience.

[0091] It can be understood that the clothes described in this embodiment can be either the bras mentioned in the previous text, or other types of clothes that can be added with soft supports, such as T-shirts, vests, pullovers, shirts, windbreakers, sports vests, tight clothes, shorts, sports pants, yoga pants, bodybuilding pants, or socks.

[0092] This embodiment does not limit the position where the soft support is added to the clothing. Clothing designers can add the soft support at any position on the clothing according to actual needs to achieve effects such as shaping, support, anti-wrinkle, aesthetics, resilience, and extended service life.

[0093] Embodiment 2

[0094] This embodiment provides a bra with a soft support. Refer to Figure 7 , the soft support 210 is provided at the lower edge of the cup of the bra body 220. Among them, the soft support includes: a strip-shaped elastic inner core, and a covering member covering the elastic inner core; the bending resistance stiffness of the elastic inner core against bending is set to be directionally anisotropic, and / or the bending resistance stiffness of the elastic inner core against bending is set to be piecewise anisotropic, and / or the tensile stiffness of the elastic inner core against stretching is set to be piecewise anisotropic.

[0095] For the bra with a soft support provided in this embodiment, by setting the mechanical properties of the elastic inner core so that the bending resistance stiffness is directionally anisotropic, different support effects can be provided in different directions at the lower edge of the bra; by setting the mechanical properties of the elastic inner core so that the bending resistance stiffness is piecewise anisotropic, different support effects can be provided at different positions at the lower edge of the bra; by setting the mechanical properties of the elastic inner core so that the tensile stiffness is piecewise anisotropic, different stretching effects can be provided at different positions at the lower edge of the bra. Further, for the bra with a soft support provided in this embodiment, by setting the mechanical properties of the elastic inner core so that the resilience memory characteristic is piecewise anisotropic, different memory resilience effects can be provided at different positions at the lower edge of the bra.

[0096] In an alternative embodiment, the elastic inner core is set as a continuous body, or the elastic inner core is set as a discontinuous body. When the elastic inner core is a continuous body, directional anisotropy of mechanical properties can be achieved by changing the cross-sectional shape, and piecewise anisotropy of mechanical properties can be achieved by changing the material strength, material ratio, or cross-sectional size at different positions. When the elastic inner core is a discontinuous body, the mechanical properties naturally have piecewise anisotropy.

[0097] In another alternative embodiment, the tensile stiffness of the elastic inner core is set to be piecewise anisotropic. The elastic inner core is provided with a total of j segments N1, N2,...Nj along the core axis direction, j≥2; the tensile stiffness of the j segments changes with the position where the segment is located. Thus, different tensile mechanical properties can be provided at different positions to adapt to the human body contour. For example, for a bra, the middle area at the lower edge of the cup is an area where tensile deformation is likely to occur. The segments in this area can be set with a smaller tensile stiffness so that it is easy to stretch and deform and easy to recover after deformation; for a bra, the two side areas at the lower edge of the cup are areas where tensile deformation is not likely to occur during wearing. The segments in this area can be set with a larger tensile stiffness so that it is not easy to stretch and deform to provide a shaping and supporting effect on the chest.

[0098] In yet another alternative embodiment, referring to Figure 8 , Figure 9 , the soft support 210 of the bra is provided as one piece, including: the left lower edge section 211 of the left cup, the middle lower edge section 212 of the left cup, the right lower edge section 213 of the left cup, the middle section 214, the left lower edge section 215 of the right cup, the middle lower edge section 216 of the right cup, and the right lower edge section 217 of the right cup; the left lower edge section of the left cup, the middle lower edge section of the left cup, the right lower edge section of the left cup, the middle section, the left lower edge section of the right cup, the middle lower edge section of the right cup, and the right lower edge section of the right cup are all arc-shaped structures conforming to the curve of the human chest; the elastic inner core is provided as a discontinuous body, discontinuously distributed in the left lower edge section 211 of the left cup, the right lower edge section 213 of the left cup, the middle section 214, the left lower edge section 215 of the right cup, and the right lower edge section 217 of the right cup, and the elastic inner core is discontinuous in the middle lower edge section 212 of the left cup and the middle lower edge section 216 of the right cup. Therefore, the soft support has a discontinuous elastic inner core in the middle lower edge section of the left cup and the middle lower edge section of the right cup, and there is no inner core, only a softer covering piece. The middle lower edge section of the left cup and the middle lower edge section of the right cup are exactly the areas where the bra is prone to stretching deformation during wearing. The tensile stiffness of this area is smaller and the texture is softer, making it easy to stretch and deform, thus facilitating the wearer to adjust the position of the lower edge of the cup, and it is easy to recover after deformation, which can improve the service life; the two side areas of the lower edge of the cup are areas where stretching deformation is not easy to occur during wearing. This area has solid segments of the elastic inner core, so the soft support here has a greater tensile stiffness, making it not easy to stretch and deform to provide a shaping and supporting effect on the chest from both sides of the cup.

[0099] In another alternative embodiment, referring to Figure 10, the soft supports of the bra are set to two, namely the left cup soft support and the right cup soft support; the left cup soft support and the right cup soft support are symmetric and the same; among them, the left cup soft support includes the left lower edge section of the left cup, the middle lower edge section of the left cup and the right lower edge section of the left cup, and the right cup soft support includes the left lower edge section of the right cup, the middle lower edge section of the right cup and the right lower edge section of the right cup; the elastic inner core of the left cup soft support is set as a discontinuous body, discontinuously distributed in the left lower edge section of the left cup and the right lower edge section of the left cup, and the elastic inner core of the left cup soft support is set as discontinuous in the middle lower edge section of the left cup; the elastic inner core of the right cup soft support is set as a discontinuous body, discontinuously distributed in the left lower edge section of the right cup and the right lower edge section of the right cup, and the elastic inner core of the right cup soft support is set as discontinuous in the middle lower edge section of the right cup. Taking the support effect of the left cup soft support as an example, the elastic inner core of the left cup soft support is discontinuous in the middle lower edge section of the left cup. Therefore, the left cup soft support has no inner core in the middle lower edge section of the left cup and only has a softer covering piece. And the middle lower edge section of the left cup is exactly the area where the bra is prone to stretching deformation during wearing. The tensile stiffness of this area is small and the texture is softer, making it easy to stretch and deform so as to facilitate the wearer to adjust the position of the lower edge of the cup, and it is easy to recover after deformation, which can improve the service life; the two side areas of the lower edge of the left cup are areas where stretching deformation is not easy to occur during wearing. This area has a solid segment of the elastic inner core. Therefore, the soft support here has a greater tensile stiffness, making it not easy to stretch and deform to provide a shaping support effect on the chest from both sides of the left cup; the principle of the right cup soft support is the same.

[0100] In another optional embodiment, the elastic inner core is set as an elastic memory body, or several segments in the elastic inner core are elastic memory bodies, so that the elastic inner core has segmental anisotropic rebound memory characteristics or full-segment rebound memory characteristics. For example, for the area where the soft support is prone to deformation due to the wearing and taking off of the bra, the elastic inner core is set as an elastic memory body, so that the soft support can still recover after deformation, thereby preventing the bra from being severely deformed due to repeated wearing and taking off, and improving the wearing life and wearing experience of the clothing. Exemplarily, the elastic memory body is made of elastic memory nylon or elastic memory metal.

[0101] In a preferred embodiment, the covering member in the soft support of the bra provided in this embodiment includes a first covering layer and a second covering layer, and the elastic inner core is placed between the first covering layer and the second covering layer. Compared with the traditional soft support using the injection molding process, the covering member provided in this application uses the method of upper and lower covering layers to cover the elastic inner core, and it is easier to be made by 3D printing. The first covering layer, the elastic inner core, and the second covering layer are all made by 3D printing process. By printing layer by layer in sequence, the first covering layer and the second covering layer cover the elastic inner core from top and bottom to form a soft support. Exemplarily, the covering layer material can be selected from one or more of rubber, resin, polypropylene, and thermoplastic elastomer. Among them, it is preferred that the first covering layer is a film layer and the second covering layer is a silica gel layer. The first covering layer is set as a film layer for convenient connection with the clothing. It can be directly heat-melted on the clothing surface, or grooves can be reserved during clothing processing, and the soft support can be buried in the grooves; the second covering layer is set as a silica gel layer. On the one hand, the silica gel has a longer service life, and on the other hand, the silica gel layer is softer and can play a protective role. Compared with the silica gel layer, the elastic inner core is generally harder, which can prevent the elastic inner core from directly contacting the wearer.

[0102] Further, to improve the structural stability of the soft support, refer to Figure 11 , a binder 250 can be provided between the film layer 230 and the silica gel layer 240. The binder can be added by methods such as glue coating process or 3D printing spraying process, etc.; it is preferred that the binder material is a silica gel bridging agent, which is used in combination with the silica gel layer to improve the structural stability of the soft support, prevent separation between layers, and improve the service life. Furthermore, a flocking layer 260 can be provided outside the silica gel layer to enhance the aesthetic effect or user experience.

[0103] In another alternative embodiment, the flexural rigidity of the elastic inner core is set to be directionally anisotropic, and the flexural rigidity of the elastic inner core in direction one is set to be less than the flexural rigidity of the elastic inner core in direction two. Direction one is used to characterize the direction in which the elastic inner core bends and deforms to fit the body contour of the wearer, so that: in the direction of fitting the body contour of the wearer, the elastic inner core is more likely to bend to fit the body contour of the wearer, and in direction two, that is, other directions, the elastic inner core is not easy to bend to provide a supporting effect. Exemplarily, the cross-section of the elastic inner core is set to be an anisotropic cross-section with a long side dimension larger than the short side dimension, such as: dumbbell-shaped, rectangular, I-shaped, etc.; the long side direction is parallel to the body contour of the wearer, and the short side direction is perpendicular to the body contour of the wearer. By adopting an anisotropic cross-section, the flexural rigidity of the elastic inner core in the direction of bending and deforming to fit the body contour of the wearer can be less than the flexural rigidity of the elastic inner core in the direction of bending and deforming parallel to the body contour of the wearer.

[0104] In yet another alternative embodiment, a plurality of segments are provided in the elastic inner core as anisotropic segments, and the remaining segments are used as conventional segments, that is, the elastic inner core is divided into a plurality of segments, and at least one anisotropic segment is included in the plurality of segments. Thus, the elastic inner core has both segmental anisotropy and directional anisotropy. The flexural rigidity of the anisotropic segment in direction one is less than the flexural rigidity of the anisotropic segment in direction two. Direction one is used to characterize the direction in which the anisotropic segment bends and deforms to conform to the body contour of the wearer, such that: in the direction of conforming to the body contour of the wearer, the anisotropic segment is more easily bent to conform to the body contour of the wearer, and in other directions, the anisotropic segment is not easily bent to provide a supporting effect. In this embodiment, the elastic inner core has both segmental anisotropy and directional anisotropy, which can provide different mechanical properties at different positions of the bra and can also provide different mechanical properties in different directions, with a wider range of applications.

[0105] In yet another alternative embodiment, referring to Figure 12 , the bra body includes a curved cup region 271 and a flat underband region 272. The soft support is provided as a space-folded structure, including an upper fold 281 that fits the cup region and a lower fold 282 that fits the underband region. The upper fold 281 of the soft support is fixedly attached to the cup region 271, and the lower fold 282 is fixed to the underband region 272. By using the space-folded structure of the soft support, stronger supporting mechanical properties can be provided for the bra.

[0106] Example 3

[0107] This embodiment provides a manufacturing method for a soft support for clothing. By 3D printing a first coating layer, an elastic inner core, and a second coating layer, the first coating layer and the second coating layer are bonded to coat the elastic inner core to form the soft support; wherein, the flexural rigidity of the elastic inner core against bending is set to be directionally anisotropic, and / or the flexural rigidity of the elastic inner core against bending is set to be segmentally anisotropic, and / or the tensile rigidity of the elastic inner core against stretching is set to be segmentally anisotropic. The elastic inner core serves as the supporting inner core of the soft support and generally has stronger supporting ability than the first coating layer and the second coating layer. The conventional 3D printing materials for the first coating layer and the second coating layer are soft materials such as rubber, resin, polypropylene, and thermoplastic elastomer. Compared with the coating layer, the supporting inner core is generally harder. In this embodiment, the mechanical properties of the elastic inner core are set such that the flexural rigidity is directionally anisotropic, so that different supporting effects can be provided in different directions; or the mechanical properties of the elastic inner core are set such that the flexural rigidity is segmentally anisotropic, and different supporting effects can be provided at different positions; or the mechanical properties of the elastic inner core are set such that the tensile rigidity is segmentally anisotropic, and different stretching effects can be provided at different positions. Further, the mechanical properties of the elastic inner core in the soft support in this embodiment are set such that the resilience memory characteristic is segmentally anisotropic, and different memory resilience effects can be provided at different positions.

[0108] In an alternative embodiment, the elastomeric inner core is 3D printed as a continuum, or the elastomeric inner core is 3D printed as a discontinuous body. When the elastomeric inner core is a continuum, directional anisotropy of mechanical properties can be achieved by 3D printing different cross-sectional shapes, and sectional anisotropy of mechanical properties can be achieved by changing the strength of the 3D printing material, the material ratio, or the cross-sectional dimensions at different positions. When the elastomeric inner core is a discontinuous body, the mechanical properties naturally have sectional anisotropy.

[0109] In an alternative embodiment, the elastomeric inner core is 3D printed into an anisotropic cross-section where the long side dimension of the cross-section is larger than the short side dimension. This gives the elastomeric inner core directional anisotropy in flexural stiffness, such as dumbbell-shaped, rectangular, or I-shaped.

[0110] In an alternative embodiment, the 3D printing raw material of the elastomeric inner core is set as an elastic memory nylon material, so that the elastomeric inner core is an elastic memory body, or part of the elastomeric inner core is fabricated as an elastic memory body; the elastomeric inner core has sectional anisotropic resilience memory characteristics or full-section resilience memory characteristics, enabling the soft support to recover after deformation and improving the service life of the soft support.

[0111] Furthermore, an adhesive is coated between the first coating layer and the second coating layer by 3D printing or gluing to improve the bonding strength and stability between the first coating layer and the second coating layer. Specifically, the first coating layer is a film layer, the second coating layer is a silicone layer, and the adhesive is a silicone bridging agent. Even further, a flocking layer is also provided on the outside of the silicone layer through a flocking process to enhance the aesthetic effect or user experience.

[0112] Example 4

[0113] This embodiment provides a method for manufacturing clothing. A soft support processing area is provided on the clothing. The first coating layer, the elastic inner core, and the second coating layer are 3D printed in the soft support processing area, so that the first coating layer and the second coating layer are bonded to coat the elastic inner core to form a soft support. Among them, the flexural rigidity of the elastic inner core against bending is set to be directionally anisotropic, and / or the flexural rigidity of the elastic inner core against bending is set to be piecewise anisotropic, and / or the tensile rigidity of the elastic inner core against stretching is set to be piecewise anisotropic. The elastic inner core serves as the support inner core of the soft support and generally has stronger support ability than the first coating layer and the second coating layer. The conventional 3D printing materials for the first coating layer and the second coating layer are soft materials such as rubber, resin, polypropylene, and thermoplastic elastomer. Compared with the coating layer, the support inner core is generally harder. In this embodiment, the mechanical properties of the elastic inner core are set such that the flexural rigidity is directionally anisotropic, so that different support effects can be provided for the clothing in different directions; or the mechanical properties of the elastic inner core are set such that the flexural rigidity is piecewise anisotropic, which can provide different support effects for the clothing at different positions; or the mechanical properties of the elastic inner core are set such that the tensile rigidity is piecewise anisotropic, which can provide different stretching effects for the clothing at different positions. Further, in this embodiment, the mechanical properties of the elastic inner core of the soft support are set such that the resilience memory characteristic is piecewise anisotropic, and different memory resilience effects can be provided at different positions.

[0114] In an alternative embodiment, the elastic inner core is 3D printed as a continuous body, or the elastic inner core is 3D printed as a discontinuous body. When the elastic inner core is a continuous body, the directional anisotropy of the mechanical properties can be achieved by 3D printing different cross-sectional shapes, and the piecewise anisotropy of the mechanical properties can be achieved by changing the strength of the 3D printing material, the material ratio, or the cross-sectional size at different positions. When the elastic inner core is a discontinuous body, the mechanical properties are naturally piecewise anisotropic.

[0115] In an alternative embodiment, the elastic inner core is 3D printed into an anisotropic cross-section with the long side dimension of the cross-section greater than the short side dimension. This makes the flexural rigidity of the elastic inner core directionally anisotropic, such as dumbbell-shaped, rectangular, or I-shaped, etc.

[0116] In an alternative embodiment, the 3D printing raw material of the elastic inner core is set as an elastic memory nylon material, so that the elastic inner core is an elastic memory body, or a part of the elastic inner core is made into an elastic memory body; the elastic inner core has piecewise anisotropic resilience memory characteristics or full-section resilience memory characteristics, so that the soft support can still recover after deformation, improving the service life of the soft support.

[0117] Further, a binder is coated between the first coating layer and the second coating layer by 3D printing or gluing to improve the bonding strength and stability between the first coating layer and the second coating layer. Specifically, the first coating layer is a film layer, the second coating layer is a silicone layer, and the binder is a silicone bridging agent. Further, a flocking layer is also provided outside the silicone layer through a flocking process to enhance the aesthetic effect or user experience.

[0118] Example 5

[0119] This embodiment provides a soft support for clothing with a layered structure and a bra using such a soft support. The soft support includes a strip-shaped elastic inner core and a coating member that coats the elastic inner core. The coating member is a layered structure, including a first coating layer and a second coating layer. The elastic inner core is located between the first coating layer and the second coating layer. The first coating layer and the second coating layer are adhesively bonded to coat the elastic inner core to form the soft support.

[0120] Compared with the traditional soft support using an injection molding process, the coating member provided in this embodiment coats the elastic inner core in a manner of upper and lower two coating layers, and is easier to be made by 3D printing. The first coating layer, the elastic inner core, and the second coating layer are all made by 3D printing process. By printing layer by layer in sequence, the first coating layer and the second coating layer coat the elastic inner core from above and below to form the soft support. Compared with the coating layer, the elastic inner core generally has a harder texture, and the layered coating layer can prevent the elastic inner core from directly contacting the wearer and play a protective role.

[0121] In a further embodiment, the material of the first coating layer is set as a film layer, such as hot melt adhesives: polyamide, polyester, polyethylene, and polyester amide (PEA), etc., which is convenient for connecting with the clothing and can be directly heat-melted and connected to the clothing. Of course, the first coating layer can also be set as other materials, such as rubber, resin, polypropylene, thermoplastic elastomer and other soft materials, and the soft support can be buried in the groove by reserving a groove during clothing processing.

[0122] In a further embodiment, the material of the second coating layer can be selected from soft materials such as rubber, resin, polypropylene, thermoplastic elastomer, etc., and is preferably set as a silicone layer. The silicone has a longer service life and a softer texture, which can play a protective role.

[0123] Further, in order to improve the structural stability of the soft support, a binder can be provided between the first coating layer and the second coating layer. The binder can be added by means of gluing process or 3D printing and spraying process, etc., so as to ensure the stable bonding of the multi-layer structure. When the first coating layer is a film layer and the second coating layer is a silicone layer, the binder material is preferably selected as a silicone bridging agent, which is used in combination with the silicone layer, which is more beneficial to improving the structural stability of the soft support, preventing the layers from separating from each other, and increasing the service life.

[0124] Furthermore, a flocking layer can be provided outside the second coating layer to enhance the aesthetic effect or user experience.

[0125] The above are only the preferred embodiments of the present invention, and do not impose any formal or substantial limitations on the present invention. It should be noted that for those of ordinary skill in the art in this technical field, several improvements and supplements can still be made without departing from the present invention, and these improvements and supplements should also be regarded as within the protection scope of the present invention. Those skilled in the art can also combine the technical contents disclosed in the above embodiments without conflict to obtain new embodiments. Any equivalent changes made by such modifications, decorations, and evolutions are equivalent embodiments of the present invention; at the same time, any equivalent changes, modifications, and evolutions made to the above embodiments based on the substantial technology of the present invention still fall within the scope of the technical solutions of the present invention.

Claims

1. A bra with soft support, characterized in that: The bra comprises a bra body and a soft support placed at the lower edge of the bra cup, wherein the soft support comprises an elastic support body; the elastic support body comprises at least two segments with different mechanical properties; the mechanical properties comprise directional anisotropic bending stiffness for resisting bending, and / or segmentally anisotropic tensile stiffness for resisting stretching.

2. A bra with soft support according to claim 1, characterized in that: The elastic support body includes: a strip-shaped elastomeric inner core, and a covering member covering the elastomeric inner core; the flexural stiffness of the elastomeric inner core against bending is set to be directional anisotropic, and / or the flexural stiffness of the elastomeric inner core against bending is set to be segmentally anisotropic, and / or the tensile stiffness of the elastomeric inner core against stretching is set to be segmentally anisotropic.

3. A bra with soft support according to claim 2, characterized in that: The elastomeric inner core includes at least one elastic memory segment.

4. A bra with soft support according to claim 2, characterized in that: The inner core of the elastic body is configured as a continuous body, or the inner core of the elastic body is configured as a discontinuous body.

5. The bra with soft support according to claim 2, characterized in that: The inner core of the elastic body is provided with j segments N1, N2, ... Nj along the core axis direction, where j≥2; the tensile stiffness of the j segments varies with the positions of the segments.

6. The bra with soft support according to claim 2, characterized in that: The continuous soft support comprises in sequence: a left lower edge section of a left cup, a middle lower edge section of a left cup, a right lower edge section of a left cup, a middle section, a left lower edge section of a right cup, a middle lower edge section of a right cup and a right lower edge section of a right cup; the left lower edge section of a left cup, the middle lower edge section of a left cup, the right lower edge section of a left cup, the middle section, the left lower edge section of a right cup, the middle lower edge section of a right cup and the right lower edge section of a right cup are all arc-shaped structures that conform to the curve of a human chest; the inner core of the elastic body is set as a discontinuous body, which is discontinuously distributed in the left lower edge section of a left cup, the right lower edge section of a left cup, the middle section, the left lower edge section of a right cup and the right lower edge section of a right cup, and the inner core of the elastic body is set as a missing discontinuous shape in the middle lower edge section of a left cup and the middle lower edge section of a right cup.

7. The bra with soft support according to claim 2, characterized in that: The soft support comprises a left cup soft support and a right cup soft support which are separated; The left cup soft support and the right cup soft support are symmetrical and identical; the left cup soft support includes a left lower edge section of the left cup, a middle lower edge section of the left cup and a right lower edge section of the left cup, and the right cup soft support includes a left lower edge section of the right cup, a middle lower edge section of the right cup and a right lower edge section of the right cup; the elastic inner core of the left cup soft support is set as a discontinuous body, which is discontinuously distributed in the left lower edge section of the left cup and the right lower edge section of the left cup, and the elastic inner core of the left cup soft support is set as a missing discontinuity in the middle lower edge section of the left cup; the elastic inner core of the right cup soft support is set as a discontinuity, which is discontinuously distributed in the left lower edge section of the right cup and the right lower edge section of the right cup, and the elastic inner core of the right cup soft support is set as a missing discontinuity in the middle lower edge section of the right cup.

8. The bra with soft support according to claim 2, characterized in that: The covering member comprises a first covering layer and a second covering layer, and the elastic inner core is arranged between the first covering layer and the second covering layer.

9. A bra with soft support according to claim 8, characterized in that: The first coating layer is set as a film layer, and the second coating layer is set as a silicone layer; an adhesive is provided between the film layer and the silicone layer, and the adhesive is set as a silicone bridging agent; and a flocking layer is further provided outside the silicone layer.

10. The bra with soft support according to claim 2, characterized in that: The cross section of the inner core of the elastic body is set to be an anisotropic cross section with a longer side dimension greater than a shorter side dimension; the shape of the cross section includes a dumbbell shape, a rectangle or an I-shape.

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