Bra with a support structure having rigid regions and flexible regions that dynamically adapts to the breast shape and position

Abstract

A bra includes: two fabric cups; a back-side elastic fabric band; a front-side fabric under-band, located horizontally beneath the two fabric cups, and connected to the back-side elastic fabric band; and a hybrid rigid-and-flexible support structure that includes: (i) a non-planar and non-linear rigid support member, that covers a first percentage P1 of a total area of each fabric cup, and that has a first elasticity level E1; and (ii) a non-planar and non-linear flexible support member, that covers a second percentage P2 of the total area of each fabric cup, and that has a second elasticity level E2. The second elasticity level E2 is at least 1.25 times the first elasticity level E1. The second percentage P2 is at least 2 times the first percentage P1. The flexible support member is sufficiently flexible to dynamically adapt to changes in size, position, or shape of the breasts.

Description

Bra with a Support StructureHaving Rigid Regions and Flexible Regions that Dynamically Adapts to the Breast Shape and PositionCross-Reference to Related Applications

[0001] This patent application claims priority and benefit from US 63 / 621,183, filed on January 16, 2024, which is hereby incorporated by reference in its entirety.Field

[0002] Some embodiments are related to the field of clothing.Background

[0003] Clothing articles and clothes are typically formed of textile material and are worn on the body. Clothes are worn for various purposes, for example, to keep the human body warm in a cold weather, to protect the human body from rough surfaces or insects or plants, to provide a hygienic barrier between the human body and the environment, to protect the human body from ultraviolet radiation, to cover genitals, for social reasons or as fashion, or the like.Summary

[0004] Some embodiments provide a bra or brassiere or other chest-covering / chestsupporting garment, that includes a support structure having rigid regions and flexible regions that dynamically adapts to modifications in the shape and / or position and / or size of the breasts of the human wearer. Some embodiments also provide systems and methods for manufacturing such bra or garment.

[0005] For example, some embodiments provide a garment or a sports bra or a tank top or a bra, for a human wearer, comprising: (a) two fabric cups, that are a left-side fabric cup and a right-side fabric cup, that are structured to cover breasts of the wearer; (b) a back-side elastic fabric band; (c) a front-side fabric under-band, located horizontally beneath the two fabric cups, and connected to the back-side elastic fabric band; (d) a hybrid rigid-and-flexible support structure, that comprises: (dl) a rigid support member, that is non-planar and non-linear, and that covers a first percentage Pl of a total area of each fabric cup, and that has a first elasticity level El; (d2) a flexible support member, that is non-planar and non-linear, and that covers a second percentage P2 of the total area of each fabric cup, and that has a second elasticity levelE2; wherein the second elasticity level E2 of the flexible support member, is at least 1.25 times the first elasticity level El of the rigid support member; wherein the second percentage P2 of the total area that is covered by the flexible support member, is at least 2 times the first percentage Pl of the total area that is covered by the rigid support member; wherein the flexible support member is sufficiently flexible to dynamically adapt its three-dimensional contour to changes in size or position or shape of the breasts of the wearer.

[0006] In some embodiments, the flexible support member covers between 20 to 50 percent of the total area of each fabric cup; whereas the rigid support member covers not more than 10 percent of the total area of each fabric cup. In some embodiments, the flexible support member is located above the rigid support member.

[0007] Some embodiments may provide other and / or additional benefits and / or advantages.Brief Description of the Drawings

[0008] Figs. 1A to 1C are schematic illustrations of a support structure for a bra, in accordance with some demonstrative embodiments.

[0009] Fig. 2 is a schematic illustration of a set of components of a bra, in accordance with some demonstrative embodiments.

[0010] Figs. 3A to 3D are schematic illustrations of a bra and its hybrid rigid-and-flexible support structure, in accordance with some demonstrative embodiments.

[0011] Figs. 4A to 4C are schematic illustrations of a bra in three different positions or states, in accordance with some demonstrative embodiments.

[0012] Figs. 5A and 5B are illustrations of a front-side and a back-side (respectively) of a garment (e.g., a sports bra, a fitness bra, an exercise bra, a tank-top, a sportswear garment) having a hybrid chest-support structure, in accordance with some demonstrative embodiments.

[0013] Figs. 6A and 6B are illustrations of a front-side and a back-side (respectively) of another garment (e.g., a sports bra, a fitness bra, an exercise bra, a tank-top, a sportswear garment) having a hybrid chest-support structure, in accordance with some demonstrative embodiments.

[0014] Fig. 7 is an illustration of a front side of a garment (e.g., a sports bra, a fitness bra, an exercise bra, a tank-top, a sportswear garment) having a hybrid chest-support structure that is implemented to include two (or more) discrete and non-connected (or not bridge-connected) flexible support elements, in accordance with some demonstrative embodiments.

[0015] Fig. 8 is an illustration of a front side of another garment (e.g., a sports bra, a fitness bra, an exercise bra, a tank-top, a sportswear garment) having a hybrid chest-support structure that is implemented to include two (or more) discrete and non-connected (or not bridge- connected) flexible support elements, in accordance with some demonstrative embodiments.Detailed Description of Some Demonstrative Embodiments

[0016] The Applicant has realized that a bra should have multiple functional roles, such as to support the breasts, to hold the breasts in place, to lift and / or to shape the breasts; yet a bra should also be comfortable for wearing.

[0017] The Applicant has also realized that the shape or size of the female breasts may change during the day or over time; such as, due to physical activity, physical exercise, walking, running, jogging, jumping, sitting, standing up, bending down, stretching, or the like.

[0018] The Applicant has realized that it would be beneficial to provide a bra having a dynamically adapting support structure, which has one or more components that are more rigid and provide support / lifting / holding to the breasts, particularly from beneath the breasts; and also has one or more components that are more flexible and provide further support and / or cupping and / or front-side covering, particularly to the lower front portion of the breasts (e.g., the lower 20 or 25 or 33 or 40 or up to 50 percent of the area of each breast or each cup).

[0019] Some embodiments provide a bra or brassiere or a sports bra or an athletic bra, that includes an innovative wire or wire-structure that provides comfortable yet dynamic and efficient support to the breast of the female wearer. The “3D Smart Wire” of some embodiments is a dynamic support element having a unique flexible structure, that contracts and expands dynamically according to the shape or position of the breast, and in response to changes in the shape or position of the breast (e.g., due to physical movement or physical activity of the wearer; running, sitting, standing, jumping, or the like). The dynamic support element of the bra covers a portion of the front side part of the Cups surface area (e.g., the lower 20 or 25 o 30 or 33 or 40 or 50 percent of the area of each cup). The dynamic support element is not merely a curved wire having a two-dimensional flat structure; rather, it is a three- dimensional support structure, formed of a plurality of wire or similar support elements, that is capable of surrounding or holding the lower portion of the breast, in a three-dimensional manner that supports the breasts both beneath them and in front of them.

[0020] In some embodiments, the dynamic support structure is constructed of two (or more) layers or two (or more) components having different heights, to provide an engineered support to the breast. In some embodiments, the two components of the dynamic supportstructure are non-detachably attached to each other and cannot be separated from each other, each component providing its functionality (rigid component provides support from beneath and lifting; flexible component provide support from the front and cupping). In other embodiments, the two components or two layers of the support structure are not directly connected to each other; but rather, they are installed or produced as two components of the same bra.

[0021] The support structure may be connected (or sandwiched) between two fabric layers of the cups, creating a new characteristic of lifting, holding and supporting the breast. In other embodiments, the support structure is connected within the inner layer of fabric of the cups. In other embodiments, the support structure is connected externally to the outer layer of the fabric of the cups. In other embodiments, one or more components of the support structure are located within (or are sandwiched between) the two or more layers of fabric of the cups; and one or more other components of the support structure are located: internally relative to the inner fabric layer of the cups, and / or externally relative to the outer fabric layer of the cups.

[0022] The support structure provides a more natural appearance to the breasts, while providing dynamic and ergonomic and soft and comfortable support that can accommodate a diverse range of modifications to the shape / size / position of the breasts. The support structure may be implemented provide a healthier support for the breasts, and to avoid causing injury to the breast (as some conventional wires sometimes do).

[0023] The support structure of some embodiments is also a sustainable solution because it combines several advantages in one; and it adapts its three-dimensional / spatial structure to different shapes and sizes and momentary positions of the breasts or the chest.

[0024] In some embodiments, the entirety of the support structure is three-dimensionally printed using an additive / 3D-printing process, or is formed by injection molding or other types of injection of molded or melted or molten materials that can solidify upon cooling and acquire a particular spatial structure. The support structure is solid and has both rigidity and flexibility: it has the sufficient rigidity to hold and / or life and / or support the breasts, and it has the sufficient flexibility to slightly adjust or adapt or modify its own three-dimensional structure or contour or form in order to adapt to temporary or momentary (or short term, or even long term) changes to the breasts size or position.

[0025] In some embodiments, the support structure is formed of Thermoplastic Polyurethane (TPU), and / or from Polyester, Nylon, or a mixture or combination of two or more of the above-mentioned materials or other materials. In some embodiments, optionally, one ormore components or portions of the support structure may be formed of metal (e.g., titanium, nickel titanium alloy, steel, or other shape memory metal or shape memory alloy).

[0026] The support structure may contain one layer, or two layers, or three layers, or a different number of layers.

[0027] The support structure may be connected on the surface of the cups / the bra, or may eb sandwiched or connected between two fabrics layers of the cups of the bra, or inside one or two or more of the fabric layers, or externally to one or more of the fabric layers.

[0028] The support structure, and / or other elements of the bra, may be connected directly on or to the cups zones of the bra, without using any foam cups or foam elements.

[0029] The bra may be formed of any suitable type of material(s), including cotton, polyester, natural material, synthetic material, a blend or mixture of materials, or the like.

[0030] The bra may be knitted, woven, non-woven, or formed by other production techniques. The bra may be seam-less or seam-free; or, at least the cups and / or the shoulder straps may be seam-less or seam-free.

[0031] The bra may have two shoulder straps, or one shoulder strap, or may be a strap-less bra.

[0032] The bra may be a regular / everyday bra, or may be a sports bra or an active-wear bra or athletic bra. It may be suitable for teenagers, youth, young adults, adults, or senior citizens; and may have different sizes and colors.

[0033] In some embodiments, the support structure may be glued or bonded to one or more of the fabric layers / fabric regions of the bra / the cups; such as, using glue, adhesive, or other connection methods.

[0034] Reference is made to Fig. 1 A, which is a schematic illustration of a support structure 100 for a bra, in accordance with some embodiments. Rigid support member 101 is rigid or is more rigid / less elastic / less stretchable / has lower elasticity relative to other members / sections / regions of the support structure 100 (and particularly relative to the flexible support member 102), as the rigid support member 101 operates to support or carry or hold the breasts from beneath, and / or to maintain the general form of the entire bra.

[0035] In contrast, flexible support member 102 is flexible or is more flexible or is less rigid or has greater elasticity than member 101; the flexible support member 102 still holds the breasts, particularly the lower portion of each breast, and performs cupping around the lower portion of each breast; yet, the flexible support member 102 can dynamically adjust or modify its three-dimensional structure, by curving / flexing / bending slightly, to accommodate changes in the size / shape / position of the breast.

[0036] A rigid bridge region 103 is generally rigid, and assists in maintaining the general form of the bra and in connecting the right-side and the left-side of the support structure to ensure that they remain a singular support structure.

[0037] In some embodiments, the flexible support member 102 is formed of N2 waveshaped support elements; such as, eleven wave-shaped support elements that are depicted as a non-limiting example. In some embodiments, the rigid support member 101 is formed of N1 wave-shaped support elements; such as, five wave-shaped support elements that are depicted as a non-limiting example. In accordance with some embodiments, N2 is greater than Nl. In some embodiments, N2 is at least 1.25 times Nl. In some embodiments, N2 is at least 1.5 times Nl. In some embodiments, N2 is at least 1.75 times Nl. In some embodiments, N2 is at least 2 times Nl. In some embodiments, N2 is at least 2.5 times Nl. In some embodiments, N2 is at least 3 times Nl. In some embodiments, N2 is in a range of 1.25 to 3 times Nl. In some embodiments, N2 is in a range of 1.5 to 3 times Nl. In some embodiments, N2 is in a range of 2 to 3 times Nl. In some embodiments, N2 is in a range of 2 to 4 times Nl.

[0038] Reference is also made to Fig. IB, which is denotes the discrete endings of each wave-shaped support element of those eleven demonstrative support elements of the flexible support member. For example, a first flexible wave-shaped support element has line-endings denoted LI and L2; a second flexible wave-shaped support element has line-endings denoted L3 and L4; a third flexible wave-shaped support element has line -endings denoted L5 and L6; a fourth flexible wave-shaped support element has line-endings denoted L7 and L8; and so forth, for the eleven elements that are demonstrated in this drawing, or for another suitable number of support elements that together form the flexible support member 102. Also demonstrated are peaks of the wave-shaped elements, denoted KI, K2, K3, K4, K5, and K6.

[0039] Reference is also made to Fig. 1C, which is denotes the discrete endings of each curve-shaped (or curved-line) support element of the five demonstrative support elements of the rigid support member. For example, a first rigid curved-shaped support element has lineendings denoted G1 and G2; a second rigid curved-shaped support element has line-endings denoted G3 and G4; a third rigid curved-shaped support element has line-endings denoted G5 and G6; a fourth rigid curved-shaped support element has line-endings denoted G7 and G8; a fifth rigid curved-shaped support element has line-endings denoted G9 and G10; and so forth, for all the rigid support elements of the rigid support member 102.

[0040] In accordance with some embodiments, the level of flexibility or elasticity of the flexible support member 102, is at least M times the level of flexibility or elasticity of the rigid support member 101; wherein M is greater than 1. In some embodiments, M is 1.25. In someembodiments, M is 1.50. In some embodiments, M is 1.75. In some embodiments, M is 2. In some embodiments, M is 2.50. In some embodiments, M is 3. In some embodiments, M is in the range of 1.25 to 3. In some embodiments, M is greater than 1, and M is not greater than 3. In some embodiments, M is greater than 1, and M is not greater than 4. In some embodiments, M is greater than 1, and M is not greater than 5.

[0041] In accordance with some embodiments, the rigid support member 101 is formed exclusively of: (A) a right-side rigid support component which is formed of 1 or 2 or 3 or 4 or 5 elements, each one of them being a semi-circle (or, a curve of approximately 120 to 180 degrees out of a 360-degree circle) or a U-shaped element, each one of them configured to support the right breast from beneath the right breast; and also, (B) a left-side rigid support component which is formed of 1 or 2 or 3 or 4 or 5 elements, each one of them being a semicircle (or, a curve of approximately 120 to 180 degrees out of a 360-degree circle) or a U- shaped element, each one of them configured to support the left breast from beneath the left breast; and also, (C) a bridge component 103 which connects the right-side curves with the leftside curves.

[0042] In accordance with some embodiments, the flexible support member 102 includes: (A) a right-side region having 6 or 7 or 8 or 9 or 10 or 11 or 12 wave-shaped or curly or curled elements; and also, a left-side region having 6 or 7 or 8 or 9 or 10 or 11 or 12 wave-shaped or curly or curled elements.

[0043] In some embodiments, the rigid support member 101 covers less than 3 percent of the breast area; or covers less than 5 percent of the breast area; or covers less than 8 percent of the breast area; or covers less than 10 percent of the breast area.

[0044] In some embodiments, the flexible support member 102 covers between 10 to 50 percent of the breast area; or covers between 20 to 50 percent of the breast area; or covers between 25 to 50 percent of the breast area; or covers between 10 to 40 percent of the breast area; or covers between 10 to 33 percent of the breast area; or covers between 10 to 25 percent of the breast area; or covers between 20 to 40 percent of the breast area.

[0045] In some embodiments, the rigid support member 101 includes 1 to 5 curved but non-wavy non-curly support lines; whereas, the flexible support member 102 includes 6 to 12 wavy / curly support lines, each having at least 2 peaks per each side (right side, left side).

[0046] The Applicant has realized the unique structures and combinations that were demonstrated above, provide an efficient an advantageous functionality that is (a) comfortable to the wearer, and (b) ergonomic, and (c) supports / lifts / holds in place the breast, and (d) dynamically adapts to changes in the breasts’ size / shape / position.

[0047] In accordance with some embodiments, the rigid support member 101 and the flexible support member 102 are not on the same plane, or do not share any common plane. For example, rigid support member 101 may be implemented as flat element, as a a pair of U- shaped curved elements, that are generally a two-dimensional structure that occupies a single plane (e.g., when the bra is laid down on a flat table); whereas, the flexible support member 102 is a non-flat element, a three-dimensional structure that has depth and that does not occupy a single plane. This is also demonstrated in Fig. 2, which shows the rigid support member (denoted 201) as one or more pairs of U-shaped elements; and shows the flexible support member (denoted 202) as having a non-flat element having three-dimensional curvature that surrounds the lower region of each breast from multiple directions.

[0048] It is noted that the garment of the present invention is not a corset garment, which typically covers also the belly or stomach or tummy of the wearer. Rather, the garment of the present invention is a bra (a non-corset garment), and it does not cover the belly or stomach or tummy of the wearer; and that typically has two shoulder straps.

[0049] It is noted that the curves / waves / curls / curvatures that are shown are only nonlimiting examples; and some embodiments may utilize flexible members that may have other types of curvatures, wave-shaped elements, wavy elements, curled elements, curly elements, sinusoid elements, curved elements, concave elements, convex elements, or the like.

[0050] Reference is made to Fig. 2, which is a schematic illustration of a set 210 of components of a bra, in accordance with some embodiments. For example, cups fabric 203 is shown as the most external layer; having within it the flexible support member 202 and the rigid support member 201, which together are sandwiched between the external cups fabric 203 and the internal / main fabric 200 of the bra.

[0051] Reference is made to Figs. 3A to 3D, which are schematic illustrations of a bra (301 to 304, respectively) and its hybrid rigid-and-flexible support structure, in accordance with some embodiments. For example, the support structure is an integral or integrated component, which may be sandwiched between the two fabric layers of the bra at the cups zones. In some embodiments, the three-dimensional structure of the support structure may be seen through the outer fabric layer of the bra, as demonstrated. In other embodiments, the three-dimensional structure of the support structure may be entirely hidden within the fabric layer(s) of the bra, such that the three-dimensional structure of the support structure is not seen at all when observing the bra; for example, by using a thick or thicker fabric for the cups zone, or by optionally adding foam cups or foamed materials or foam layer externally to the support structure or covering / hiding the support structure.

[0052] Reference is made to Figs. 4A to 4C, which are schematic illustrations of the same single bra in three different positions or states (401 to 403, respectively), in accordance with some embodiments. As demonstrated, the support element dynamically adjusts its three- dimensional characteristics to adapt to a slightly-modified shape / size / position of the supported breast.

[0053] Reference is made to Figs. 5A and 5B, which are illustrations of a front-side 501 and a back-side 502 of a garment (e.g., a sports bra, a fitness bra, an exercise bra, a tank-top, a sportswear garment) having the hybrid chest-support structure, in accordance with some demonstrative embodiments. In some implementations, optionally, the lower region of the garment may cover part of the upper-stomach or the upper-tummy or the upper-belly, or part of the central abdomen of the wearer; however, in some implementation, those regions of the garment include only fabric and do not include (they exclude) the wave-shaped / curved-shaped / curly-shaped / sinusoid shape support elements.

[0054] Reference is made to Figs. 6A and 6B, which are illustrations of a front-side 601 and a back-side 602 of a garment (e.g., a sports bra, a fitness bra, an exercise bra, a tank-top, a sportswear garment) having the hybrid chest-support structure, in accordance with some demonstrative embodiments. In some implementations, the lower region of the garment terminates at, and / or does not cover, the upper-stomach or the upper-tummy or the upper-belly or the central abdomen of the wearer.

[0055] Reference is made to Fig. 7, which is an illustration of a front side of a garment 700 (e.g., a sports bra, a fitness bra, an exercise bra, a tank-top, a sportswear garment) having the hybrid chest-support structure that is implemented to include two (or more) discrete and nonconnected (or not bridge-connected) flexible support elements, in accordance with some demonstrative embodiments. As demonstrated, the flexible support member of the hybrid support structure excludes, or does not include, any “bridge element”; but rather, is implemented as two discrete and non-connected flexible support elements, each of them supporting separately only one of the two cups and only one of the two breasts; thereby providing a increased level of flexibility to the flexible support member, and / or enabling the flexible support structure to modularly support and hold-in-place one of the two cups / breasts during a physical activity (e.g., jumping, bending down, running) that may differentially modify the size / shape / volume / location / position of the two cups / breasts. In some embodiments, the flexible support member may be implemented as a set of non-connected two or three or four (of greater number of) flexible support elements, to enable such increased flexibility yet also providing the desired level of support. In some implementations, optionally,the lower region of the garment may cover part of the upper-stomach or the upper-tummy or the upper-belly, or part of the central abdomen of the wearer; however, in some implementation, those regions of the garment include only fabric and do not include (they exclude) the wave-shaped / curved-shaped / curly-shaped / sinusoid shape support elements.

[0056] Reference is made to Fig. 8, which is an illustration of a front side of a garment 800 (e.g., a sports bra, a fitness bra, an exercise bra, a tank-top, a sportswear garment) having the hybrid chest-support structure that is implemented to include two (or more) discrete and nonconnected (or not bridge-connected) flexible support elements, in accordance with some demonstrative embodiments. As demonstrated, the flexible support member of the hybrid support structure excludes, or does not include, any “bridge element”; but rather, is implemented as two discrete and non-connected flexible support elements, each of them supporting separately only one of the two cups and only one of the two breasts; thereby providing a increased level of flexibility to the flexible support member, and / or enabling the flexible support structure to modularly support and hold-in-place one of the two cups / breasts during a physical activity (e.g., jumping, bending down, running) that may differentially modify the size / shape / volume / location / position of the two cups / breasts. In some embodiments, the flexible support member may be implemented as a set of non-connected two or three or four (of greater number of) flexible support elements, to enable such increased flexibility yet also providing the desired level of support. In some implementations, optionally, the lower region of the garment terminates at, and / or does not cover, the upper-stomach or the upper-tummy or the upper-belly or the central abdomen of the wearer.

[0057] Referring now to each of the drawings and / or to all the drawings, the following features may apply: (a) In some embodiments, the rigid support member and the flexible support member are sandwiched between: a first fabric-layer of the bra, and a second fabriclayer of the bra; wherein the rigid support member does not directly touch a skin of the wearer; wherein the flexible support member does not directly touch a skin of the wearer, (b) In some embodiments, the rigid support member and the flexible support member are embedded within a fabric-layer of the bra that directly touches the skin of the wearer, (c) In some embodiments, the rigid support member and the flexible support member are embedded within a fabric-layer of the bra that does not directly touch the skin of the wearer, (d) In some embodiments, the flexible support member is embedded within a first fabric-layer of the bra or garment; whereas the rigid support member is embedded within a second, different, fabric layer of the bra or garment.

[0058] Referring again to the drawings, they demonstrate the bra’s support structure, highlighting both the rigid and flexible components. The rigid support member, labeled as a curved structure beneath the breast area, is shown providing foundational support and vertical lift. It is positioned strategically along the lower cup area, focusing on areas requiring structural stability. The flexible support member is depicted as a wave-shaped or curled structure surrounding the lower portion of the cups. This flexible structure is designed to provide dynamic adaptability, expanding and contracting with breast movement while maintaining gentle compression.

[0059] Additionally, the drawings demonstrate the placement of the support elements within the cup layers. The rigid support member is shown anchored at the base of the cup, while the flexible support member covers a larger area, extending both below and slightly around the lower half of the cup. The ensures that the flexible support can conform to changing breast positions while the rigid structure maintains stability.

[0060] The features illustrated emphasize the ergonomic design, with a dual-component system engineered for both support and flexibility. The rigid component’s curved shape minimizes bulk while maximizing lifting capacity. The flexible support structure's wave pattern enhances its adaptability, allowing it to contour to the breast shape while dispersing pressure evenly. The layered fabric surrounding the components is indicated, showing how the support elements can be enclosed within the cup material for a smooth exterior.

[0061] The drawings further depict a close-up view of the flexible support member’s design and placement within the cup. They demonstrate the wave-shaped structure of the flexible support member, which consists of multiple curved elements extending across the lower breast region. The wave elements are strategically spaced to allow controlled expansion and compression, adapting to changes in breast volume and movement.

[0062] The rigid support member is also depicted, positioned beneath the wave structure. It appears as a U-shaped curved element, providing primary structural support from beneath the breast. This configuration ensures the rigid component offers structural stability, while the flexible member handles dynamic adjustments.

[0063] Features that are illustrated in the drawings further include the flexible support member’s varying thickness along the wave pattern, allowing for differential compression levels across the cup area. The drawings also demonstrate how both components interact, with the rigid structure maintaining a static form while the flexible component adjusts based on the breast's natural movement.

[0064] The drawings further demonstrate the structural interaction between the rigid and flexible support members when embedded within the bra fabric layers. For example, the rigid support component is shown as a curved element anchoring the base of the cup, while the flexible support member extends more expansively across the lower and front regions of the cup.

[0065] The drawings also demonstrate a layered arrangement of the support structure, with the flexible member positioned closer to the skin and the rigid component acting as a foundational layer. The wave / curled / curly / sinusoid structure of the flexible support member is depicted, with peaks and troughs creating points of varying compression.

[0066] Additional features that are depicted include optional configurations for fabric layering, such as full integration between fabric layers or partial exposure of the flexible support member. The drawings also demonstrate the potential for varying the number / amplitude / height / density / frequency of wave elements in the flexible support structure, offering customizable coverage from 20% to 50% of the cup area.

[0067] The drawings further show a view of the entire support structure within the bra cups. The rigid support member is illustrated as a pair of U-shaped curved elements, one beneath each breast, providing primary structural reinforcement. The flexible support member, shown in a wave pattern, surrounds the lower cup area and partially extends upward along the cup edges. The drawings emphasize the non-flat and non-linear and non-planar structure of the flexible support component, highlighting its three-dimensional curvature. The flexible member’s peaks and troughs ensure varying levels of compression and adaptability, while the rigid component maintains a fixed shape.

[0068] The drawings further indicate possible material choices, such as TPU and nylon, and the possibility of using multi-layer fabric for enhanced durability and comfort. Optional reinforcements along the side of the cups for additional lateral support are also depicted.

[0069] The drawings further demonstrate the mechanical properties of the support structure, showing the interaction between the rigid and flexible components during breast movement. The flexible support member is illustrated compressing and expanding in response to changes in breast shape, while the rigid support remains stable to ensure structural lift. Optionally, the flexible support extends around the lower half of the breast while maintaining a continuous connection with the rigid base.

[0070] The drawings also demonstrate a cross-sectional view of the bra cup, emphasizing the embedded placement of the rigid and flexible support members within the fabric layers. The rigid component is shown at the cup base, while the flexible support member's wavestructure is closer to the inner fabric layer. The drawings demonstrate how the support elements remain fully enclosed within the cup material, minimizing direct skin contact. It also highlights the layered nature of the fabric and the adhesive bonding method used to secure the components.

[0071] The drawings further showcase an exploded view of the bra assembly, detailing how the support components fit within the fabric structure. The rigid and flexible members are illustrated separately, indicating their positioning within the cups.

[0072] The flexible support member’s wave structure is also shown fully expanded, emphasizing its dynamic movement capacity. The rigid support is depicted in a compact form, highlighting its fixed, non-adjustable nature.

[0073] The drawings also demonstrate optional design variations, such as single-layer fabric versus double-layer construction, and the potential for external visibility of the flexible support member for aesthetic purposes.

[0074] Some embodiments provide a method for producing or manufacturing a bra; for example, by performing: (a) producing the flexible support member 102; (b) producing the rigid support member 101; (c) attaching / inserting them between / within / adjacent to at least one fabric layer of a bra and / or cups zones of a bra.

[0075] Some embodiments provide a system for producing or manufacturing a bra; the system including: (a) means or unit for producing the flexible support member 102; (b) means or unit for producing the rigid support member 101; (c) means or unit for attaching / inserting them between / within / adjacent to at least one fabric layer of a bra and / or cups zones of a bra.

[0076] Some embodiments provide a bra comprising a support structure including a rigid support member beneath the breast for lifting and holding, and a flexible support member covering the lower breast portion, wherein the flexible support adapts dynamically to breast shape changes.

[0077] Some embodiments provide a bra with a dual-component support structure featuring a rigid support member for breast elevation and a flexible support member for cupping, both integrated within the cups, where the flexible support adjusts to breast size and shape variations.

[0078] Some embodiments provide a bra comprising a rigid support structure beneath each cup for support and lifting, and a flexible support member integrated into the lower cup area, dynamically adapting to changes in breast position due to movement.

[0079] Some embodiments provide a bra including a support structure with a rigid lower member providing upward breast support and a flexible member with wave-shaped elements,wherein the flexible member adjusts its contour to fit changing breast shapes during physical activity.

[0080] Some embodiments provide a bra with a three-dimensional non-planar and nonlinear support structure comprising a rigid base member for lifting and a flexible, wave-shaped support integrated into the lower cup, where the flexible member conforms to varying breast shapes and movements.

[0081] Some embodiments provide a bra having a dynamic support system comprising a rigid support member beneath the cups for structural stability and a flexible support member with curved elements, both configured to adapt to breast size variations during physical activity.

[0082] Some embodiments provide a bra comprising a multi-layer support structure including a rigid support element beneath the cups for lifting and a flexible member with curled components for cupping, the flexible member responding to breast size and shape changes.

[0083] Some embodiments provide a bra including a support structure with a rigid lower member for breast elevation and a flexible member with wave-shaped elements covering a portion of the cup, where the flexible component adapts to breast shape variations during movement.

[0084] Some embodiments provide a bra comprising a dual-component support structure featuring a rigid support member beneath each cup for lifting, and a flexible support member surrounding the lower breast portion, both integrated into the cups for dynamic shape adjustment.

[0085] Some embodiments provide a bra with a support system as demonstrated in Fig. 1A, comprising a rigid support member with curved U-shaped elements beneath the cups and a flexible member with curled support elements surrounding the lower breast, both working together for adaptive breast positioning and support.

[0086] Some embodiments provide a bra comprising a support structure with a rigid support member beneath the cups and a flexible support member with a wave-like curvature surrounding the lower portion of each cup, as demonstrated in Fig. IB, for dynamic breast support and cupping.

[0087] Some embodiments provide a bra including a dual-component support structure as demonstrated in Fig. 2, with a rigid U-shaped support element beneath the cups and a flexible non-flat support structure enveloping the lower breast, both integrated into the cup fabric layers for enhanced comfort and stability.

[0088] Some embodiments provide a bra having a three-dimensional support structure as demonstrated in Figs. 3A to 3D, comprising a rigid support member beneath the cups and a flexible support member with curled elements positioned within the fabric layers, providing ergonomic support during breast movement.

[0089] Some embodiments provide a bra comprising a multi-layer support structure as demonstrated in Figs. 4A to 4C, including a rigid base element for breast elevation and a flexible component with wavy support lines, both dynamically adjusting to variations in breast shape and size during physical activity.

[0090] Some embodiments provide a bra featuring a rigid support member beneath the cups and a flexible support structure with wave-shaped elements, as demonstrated in Fig. IB, wherein the flexible structure dynamically conforms to breast shape changes during movement.

[0091] Some embodiments provide a bra comprising a rigid U-shaped support structure beneath each cup and a flexible support member with a series of curled elements integrated within the fabric layers, as demonstrated in Fig. 2, providing dynamic cupping and lifting support.

[0092] Some embodiments provide a bra including a three-dimensional support structure with a rigid lower member and a flexible support structure with non-flat, wave-shaped components surrounding the lower breast area, as demonstrated in Figs. 3A to 3D, for adaptive and comfortable breast support.

[0093] Some embodiments provide a bra comprising a layered support structure with a rigid support member beneath the cups and a flexible support member with wavy lines extending around the lower breast portion, as demonstrated in Figs. 4A to 4C, for enhanced adaptability and support.

[0094] Some embodiments provide a bra featuring a rigid support structure with U-shaped curved elements beneath the cups and a flexible support member with curled components integrated into the cup fabric layers, as demonstrated in Fig. 3D, designed to maintain breast positioning during movement.

[0095] In some embodiments, the rigid support member is made from thermoplastic polyurethane (TPU). In some embodiments, the flexible support structure covers the lower 20- 50% of the cup area. In some embodiments, the flexible support structure includes at least 2 or at least 4 or at least 6 wave-shaped elements. In some embodiments, the rigid support member comprises two U-shaped curved elements beneath each cup. In some embodiments, the flexible support structure is constructed from nylon and / or polyester. In some embodiments, the flexible support structure has a flexibility level at least twice that of the rigid support member. In someembodiments, the flexible support structure is integrated between two fabric layers of the cups. In some embodiments, the rigid support member is an injection molded non-planar non-linear structure. In some embodiments, the flexible support structure is a 3D-printed non-planar nonlinear structure. In some embodiments, the rigid support member covers less than 5% of the cup surface area. In some embodiments, the flexible support structure includes curled elements extending towards the lower half of the cups. In some embodiments, the rigid support member includes a titanium alloy component. In some embodiments, the flexible support structure is non-detachably bonded to the inner fabric layer. In some embodiments, the rigid support member is removable. In some embodiments, the flexible support structure dynamically adapts to breast size changes during physical activity.

[0096] In some embodiments, the bra further comprises a foam layer covering the flexible support structure. In some embodiments, wherein the flexible support structure is coated with a soft-touch material for enhanced comfort. In some embodiments, the rigid support member extends from the cup base to the sidewalls. In some embodiments, the flexible support structure is embedded only within the lower half of the cups. In some embodiments, the flexible support structure includes a varying wave amplitude along the length of the cup. In some embodiments, the rigid support member provides additional lateral support along the outer edges of the cups. In some embodiments, the flexible support structure is colored differently from the rigid support member for aesthetic design. In some embodiments, the flexible support structure is bonded with a heat-activated adhesive to the fabric layers. In some embodiments, the rigid support member is constructed from a shape-memory alloy. In some embodiments, the flexible support structure includes a three-dimensional curvature extending towards the central portion of the cups. In some embodiments, the flexible support structure extends into the strap attachment zones. In some embodiments, the bra further comprises a rigid bridge element connecting the cups for additional structural support. In some embodiments, the flexible support structure is composed of a hybrid material combining (i) TPU and (ii) nylon and / or polyester. In some embodiments, the flexible support structure provides compression along the lower breast area for sports and high-impact activities. In some embodiments, the flexible support structure extends to the lateral sides of the cups for additional contouring.

[0097] It is noted that in accordance with some embodiments, the hybrid support structure and / or its flexible member / elements and / or its rigid (or more rigid, or less flexible) member / elements, are non-fabric units or are non-fabric elements; rather, they are elements or members formed of non-fabric materials that cannot be folded or rolled, such as made of TPU or injection molded plastic or 3D-printed polymers or 3D-printed plastic materials or plastic threads orplastic fibers; and those hybrid support structure and / or its flexible member / elements and / or its rigid (or more rigid, or less flexible) member / elements, are not formed of (or, they exclude) cotton and / or polyester and / or nylon and / or elastic yarns and / or other types of fabric or fabric yarns or fabric threads.

[0098] In some embodiments, the rigid support member is segmented into multiple curved components for enhanced mobility and comfort. In some embodiments, the flexible support structure includes perforations for enhanced breathability. In some embodiments, the flexible support structure provides graduated compression based on breast volume distribution. In some embodiments, the flexible support structure is coated with a moisture-wicking material. In some embodiments, the flexible support structure extends partially into the cup’s upper quadrant for additional shaping. In some embodiments, the flexible support structure consists of or includes interlocking wave patterns for enhanced stability and support. In some embodiments, the rigid support member has a non-uniform thickness to provide varying support levels in different regions thereof. In some embodiments, the bra further comprises an adjustable strap system that optionally may be directly connected to the flexible support structure. In some embodiments, the rigid support member is coated with a hypoallergenic material for sensitive skin. In some embodiments, the flexible support structure has a scalloped design for aesthetic enhancement. In some embodiments, the flexible support structure is divided into multiple sections for targeted support zones. In some embodiments, the rigid support member includes integrated reinforcements along the outer edges for side support. In some embodiments, the flexible support structure is designed to reduce chest movement and / or chest bounce during high-impact activities.

[0099] Some embodiments provide a bra comprising a support structure including a rigid support member positioned beneath each cup, configured with U-shaped curved components to provide breast lifting and structural stability, and a flexible support member integrated into the lower portion of each cup, consisting of wave-shaped elements that cover between 20-50% of the cup area; wherein the flexible support dynamically adjusts to breast size changes during movement; wherein both support members being integrated between two fabric layers, with the flexible support member exhibiting at least double the elasticity of the rigid support member for optimal comfort.

[0100] Some embodiments provide a bra comprising a dual-layered support structure including a rigid support member beneath each cup, formed from injection-molded thermoplastic polyurethane (TPU), configured to provide structural breast support, and a flexible support member with wavy, curled elements extending from the lower cup area,covering 25-50% of the breast surface, the flexible support member being formed from nylon or polyester and dynamically adapting to changes in breast size, both components being non- detachably bonded between two fabric layers, with the flexible support member possessing at least twice the flexibility of the rigid member.

[0101] Some embodiments provide a bra comprising a dynamic support structure including a rigid support member positioned beneath the breast, formed as two U-shaped curved components per cup, and a flexible support member with wave-shaped elements extending across the lower third of each cup, both members being integrated within the cup layers, the flexible support being constructed from a soft-touch, breathable material while the rigid support provides structural stability, wherein the flexible support structure dynamically conforms to variations in breast size and shape during physical movement while maintaining ergonomic support and reducing pressure points.

[0102] Some embodiments provide a bra comprising a multi-layered support structure including a rigid support member beneath each cup, consisting of two or more U-shaped curved components for structural lift, and a flexible support member with wave-shaped elements extending through the lower portion of the cup, covering 25-50% of the cup surface, both support components positioned between fabric layers, with the flexible member being constructed from TPU and the rigid component from a shape-memory alloy, wherein the flexible support adapts dynamically to breast shape variations during physical activity while reducing pressure points.

[0103] Some embodiments provide a bra comprising a three-dimensional support structure including a rigid support member formed of two U-shaped curved elements beneath each cup, and a flexible support member with wave-shaped elements extending across the lower third of the cups, both support members being integrated between fabric layers, with the flexible support component covering between 20-50% of the breast area, made from a blend of polyester and TPU, the flexible member designed to adapt to breast shape changes during movement while the rigid member provides foundational breast support and lift.

[0104] Some embodiments provide a bra comprising a dual-component support structure including a rigid support member formed from injection-molded TPU beneath each cup, shaped as a U-shaped curved element, and a flexible support member with wave-shaped elements extending from the lower cup area, covering between 20-50% of the breast surface, both components non-detachably bonded between two fabric layers, with the flexible support member dynamically adjusting to breast size variations and having at least twice the elasticity of the rigid support member to ensure comfort, cupping, and structural support.

[0105] Some embodiments provide a specialized bra featuring a dual-component structural system designed to provide dynamic support and breast stabilization while maintaining flexibility for wearer comfort. The bra addresses the challenges associated with variations in breast position, volume, and shape during everyday activities such as walking, running, sitting, and bending. The support structure is engineered to manage both structural support and adaptive conformity to the breast's natural movement.

[0106] The support system includes two primary components: a rigid support member and a flexible support member, each serving distinct biomechanical functions.

[0107] The Rigid Support Member is positioned beneath each breast and is designed to offer foundational elevation and structural stability. This component consists of one or more curved or U-shaped elements that span the lower portion of each cup. Its primary purpose is to reduce vertical displacement of breast tissue by providing consistent resistance against gravitational forces. The rigid member is also responsible for load distribution across the lower area of the breast to prevent localized pressure points.

[0108] The Flexible Support Member is integrated into the lower and front portions of each cup. It includes wave-like or curled elements that contour around the lower portion of the breast, offering a more adaptive and conforming structure compared to the rigid component. The flexible member is engineered to respond to minor variations in breast shape and movement, compressing and expanding as needed while maintaining a supportive contour.

[0109] These two components function cooperatively, with the rigid support member providing structural integrity while the flexible support member offers dynamic adaptability. Together, they aim to minimize excessive breast displacement while accommodating natural movements.

[0110] The support structure can be fabricated from a combination of polymeric and metallic materials, chosen for their distinct mechanical properties.

[0111] For example, the rigid support member may be formed of thermoplastic polyurethane (TPU), polyester, nylon, or shape -memory alloys such as nickel-titanium or titanium alloys. These materials are selected based on their capacity to retain structural stability under load while resisting permanent deformation.

[0112] For example, the flexible support member may be formed of softer polymers, such as TPU blends or specialized elastomers, designed to expand and contract without material fatigue.

[0113] These materials can be processed using additive manufacturing techniques, including 3D printing and / or injection molding, to ensure precise control over the geometricand mechanical properties of the components. The combination of flexibility and rigidity allows the support structure to provide consistent performance across a range of body movements.

[0114] Layer Integration and Assembly: The support structure is integrated into the bra through a multi-layered design. Various configurations are possible for positioning the rigid and flexible elements:

[0115] Sandwiched Configuration: The rigid and flexible components are enclosed between two layers of fabric, with both members fixed in place. This design conceals the support elements while ensuring even pressure distribution across the breast area.

[0116] Internal Integration: The support structure may be incorporated entirely within the inner fabric layer, making direct contact with the breast. This design can provide enhanced stability but may require softer materials to avoid skin irritation.

[0117] External Integration: The support components can be attached externally to the outer fabric layer, providing a visible structural effect that may also serve as a design element.

[0118] Partial Layer Embedding: One component (e.g., the flexible support member) may be embedded within the fabric layers, while the other (e.g., the rigid support member) remains exposed or partially visible. In another implementation, one component (e.g., the rigid support member) may be embedded within the fabric layers, while the other (e.g., the flexible support member) remains exposed or partially visible.

[0119] The fabric layers can be constructed from natural fibers (e.g., cotton) and / or synthetic fibers (e.g., polyester, nylon, spandex, elastane, or blends thereof) depending on the intended application, such as everyday wear or athletic use.

[0120] Mechanical Design and Geometric Features: The geometric design of the support structure is carefully engineered to balance breast support and freedom of movement. The rigid member generally consists of curved, non-wavy elements designed for static load distribution, while the flexible support member includes wave-shaped components with multiple peaks and troughs. The flexible support member is structured to cover between 20% and 50% of the breast area, focusing on the lower portion where compression and support are most critical. The rigid support member, in contrast, occupies a smaller area, generally less than 10% of the cup surface, targeting areas requiring enhanced structural reinforcement. The flexible support's elasticity exceeds that of the rigid component by a defined ratio (e.g., between 1.25x and 3x). This mechanical contrast allows the support system to expand and contract in response to dynamic breast movement while preventing excessive compression or discomfort.

[0121] Biomechanical Functionality: the bra is structured to manage dynamic breast movement by modulating both vertical displacement and lateral motion. The rigid support member restricts downward movement, while the flexible support member allows controlled expansion and contraction based on changes in breast volume or positioning.

[0122] In some embodiments, the bra structure may take into account one or more biomechanical considerations, such as: (a) Load Distribution, as the rigid member can be configured to distribute force(s) evenly across the lower cup, reducing localized pressure, (b) Tissue Conformity, as the flexible member conforms to the natural curvature of the breast, reducing skin tension, (c) Adaptive Compression, as the flexible support member provides mild compression that adapts during physical activities, such as jogging or jumping, (d) The bra can be configured or structured for various applications, including sports bras, everyday wear bras, and maternity bras, with design modifications based on intended usage.

[0123] With regard to Manufacturing and Sustainability, the support structure can be produced using advanced manufacturing methods such as: (a) Additive Manufacturing or 3D Printing, that enables precise control over component geometry, (b) Injection Molding, enabling mass production with consistent quality, (c) Multi-Material Bonding, enabling permanent attachment of the rigid and flexible members within the fabric layers.

[0124] In some embodiments, the materials used, including TPU and / or nylon, can be recyclable, contributing to the bra’s sustainability. The design’s combination of flexible and rigid elements reduces the need for multiple support layers, minimizing material use while enhancing functionality.

[0125] With regard to Sizing and Customization, the bra can be produced in multiple sizes and configurations to accommodate a diverse range of body shapes and breast volumes. Size variations can be achieved by altering or modifying or configuring: (a) The number of waveshaped / curled / curly / U-shaped elements in the flexible support member, and / or their amplitude or height, and / or the distance between two nearby peaks of such wave structure; (b) The curvature and length of the rigid support member; (c) The material composition for varying support levels. Additional customization options include different fabric choices, shoulder strap configurations (e.g., single strap, double strap, strapless), and optional foam padding for enhanced contouring.

[0126] Some embodiments thus provide a technical advancement in breast support design by incorporating a dual-component structural system that balances rigidity and flexibility. Some embodiments provide adaptive breast support while considering biomechanicalmovement and material efficiency. The bra’s multi-layered integration and dynamic mechanical properties offer an ergonomic solution suitable for both everyday and athletic use.

[0127] Some embodiments may provide or may utilize or may include one or more, or most, or all, of the following features. (1) Dual-Component Support System, as the bra incorporates a rigid support member beneath the cups for structural stability and a flexible support member with wave-shaped elements for dynamic adaptability; this dual-component design ensures both lifting and contouring functions, preventing excessive breast displacement while allowing the flexible component to conform to natural breast movements throughout the day. (2) 3D Smart Wire Technology, as the flexible support member is constructed using a three-dimensional wave pattern that contracts and expands in response to breast movement; unlike conventional underwires, the 3D Smart Wire technology provides multi-directional support by distributing pressure more evenly, reducing discomfort while maintaining effective cupping and stabilization during both rest and physical activity. (3) Material Combination for Flexibility and Support, as the bra uses a hybrid of thermoplastic polyurethane (TPU) for rigidity and nylon or polyester for flexibility; this provides a balance of structural integrity and elasticity, as TPU offers resistance to deformation under load, while the flexible materials ensure comfort by expanding and contracting with breast movement. (4) Adaptive Breast Movement Control, as the bra’s flexible support component expands and contracts with changes in breast position, adapting to activities such as running, sitting, or bending; this adaptive movement control minimizes breast displacement without excessive compression, making the bra suitable for both everyday wear and athletic use. (5) Layered Fabric Integration, as the support structure can be integrated between two fabric layers, allowing the flexible and rigid components to remain discreet; this layered structure enhances comfort and prevents skin irritation by eliminating direct contact with the support components while still providing the necessary structural benefits. (6) Ergonomic Support Distribution, as the rigid support member is designed to cover less than 10% of the cup area, focusing on the lower portion of the breast where support is most needed; the flexible support member extends over 20-50% of the cup surface, ensuring uniform pressure distribution and reducing stress concentration points. (7) Wave-Shaped Flexible Member, as the flexible support member uses wave-shaped or curled elements with multiple peaks and troughs, enhancing the bra's ability to conform to varying breast shapes and sizes; and this structural design increases surface contact while providing gradual, controlled compression and maintaining a natural breast shape. (8) Customizable Flexibility Ratio, as the flexibility ratio between the rigid and flexible components can be adjusted or configured, with the flexible member offering 1.25 times to 3 times the elasticitylevel of the rigid member; and this customization allows for tailored support levels suitable for different breast shapes, activity levels, and user preferences. (9) Non-Detachable Construction, as the support structure can be permanently bonded between the fabric layers, ensuring durability and preventing shifting or misalignment over time; and this non-detachable structure enhances the structural integrity of the bra while maintaining a smooth exterior profile. (10) Multiple Configurations for Fabric Integration, as the bra allows for various configurations, including full embedding of both support members between fabric layers, partial embedding with external exposure, or full external placement for visible design elements; and this versatility supports different aesthetic preferences while maintaining technical functionality. (11) Optionally, 3D Printing and / or Injection Molding features, as the support structure can be manufactured using both additive manufacturing (3D printing) for precision prototyping and injection molding for mass production; and this dual manufacturing compatibility allows for scalability while maintaining design precision and component consistency. (12) Sustainable Design and Material Efficiency, as the use of recyclable materials such as TPU and / or polyester, along with the dual-component structure minimizing material redundancy, can enhance sustainability; the combination of both support members reduces the need for additional padding or foam inserts, further lowering material consumption. (13) Variable Breast Coverage Options, as the flexible support member can be designed to cover between 20% and 50% of the cup surface area, with variations in wave density and curvature. This design adaptability allows the bra to accommodate different breast sizes while maintaining consistent support across all sizes. (14) Shock Absorption for High-Impact Activities, as the flexible support member’s wave design also serves a shock-absorbing function, reducing the impact forces transmitted during high-intensity activities like running or jumping; this feature makes the bra suitable for sports applications without compromising comfort during lower- impact activities. (15) Aesthetic and Functional Design Integration, the flexible support structure can be designed with visible wave patterns, offering both functional support and aesthetic enhancement; the external visibility of the wavy design elements can create a visually appealing product, while still preserving the technical benefits of dynamic breast support.

[0128] Some embodiments may provide one or more, or some, or most, or all, of these surprising or non-obvious or counter-intuitive features. (1) Flexible Yet Supportive Structure, as the flexible support member, despite its wave-like structure, provides substantial support without the need for excessive material stiffness; this counter-intuitive combination allows for both gentle cupping and structural lift without compromising comfort or compressing the breast excessively. (2) Reduced Rigid Material Coverage, as the rigid support member covers lessthan 10% of the breast area, yet still provides effective lifting and support; this minimal coverage challenges the conventional belief that larger, stiffer components are necessary for structural stability in bras. (3) Dual Material Interaction, as the rigid and flexible components work together, with the flexible member expanding and the rigid member maintaining form; this dynamic interaction provides a balance of support and adaptability that outperforms singlematerial designs typically used in undergarments. (4) Wave-Patterned Support for Load Distribution, as the wave-shaped flexible support member is designed to increase surface area contact, which results in a more even distribution of support pressure; this design minimizes pressure points, which contrasts with the common flat wires that concentrate force along a single line. (5) 3D Structure for Flat Fabric Integration, as the three-dimensional support structure can be embedded between two flat fabric layers without creating noticeable bulk. This feature challenges the standard assumption that effective breast support requires visible or thick external components. (6) Limited Contact Surface for Maximum Lift, as despite covering only a portion of the breast area, the rigid support member provides significant lift and stabilization by targeting critical points beneath the breast; this goes against the notion that full coverage is required for effective elevation. (7) Structural Adaptability Without Detachment, as the flexible support member can expand and contract without being separate from the fabric. This integrated yet adaptable design challenges the expectation that flexible support requires detachable or replaceable components. (8) Curved and Non-Linear Compression, as the flexible support member’s wave pattern provides non-linear compression, meaning different points of the cup respond with varying elasticity; this contrasts with standard bras that apply uniform compression, leading to a more tailored fit. (9) High Flexibility With Load Retention, as the flexible support member offers a higher degree of elasticity while still retaining its shape under load, defying the common assumption that flexibility sacrifices structural integrity in support systems. (10) Low-Profile Design with High Impact Control, as the minimalistic design, with both support members integrated into fabric layers, can still control breast motion effectively during high-impact activities; this approach counters the traditional belief that visible, thick support structures are necessary for impact resistance in sportswear.

[0129] In some embodiments, the bra (or garment) may include some of the following components or functionalities. (1) Rigid Support Member, that is a curved U-shaped structural component positioned beneath each breast, designed to provide foundational lift and structural stability; it prevents vertical displacement by resisting gravitational forces while distributing pressure evenly across the lower breast area for enhanced support. (2) Flexible Support Member, that is a wave-shaped structural component integrated into the lower cup area,designed to adapt to the natural movement of the breast; it expands and contracts to accommodate shape variations while maintaining gentle compression and contouring, enhancing comfort during physical activity. (3) Cup Fabric Layer (Inner), which is the fabric layer closest to the body, housing the support structure; it is designed for comfort and direct skin contact, often made from breathable, soft materials such as cotton, polyester blends, or moisture-wicking synthetics to prevent skin irritation. (4) Cup Fabric Layer (Outer), which encases the flexible and rigid support components, concealing the structural elements; it may serve both a protective and aesthetic function, providing a smooth appearance while contributing to structural stability. (5) Bridge Component, which is a rigid element connecting the two cups at the bra's center, ensuring that both support structures function cohesively; it helps distribute tension equally across both cups, maintaining balance and preventing asymmetrical support. (6) Shoulder Straps, such as adjustable straps extending from each cup to the back of the bra, designed to distribute weight evenly across the shoulders; the straps work in conjunction with the support structure to help stabilize the bra and minimize upward displacement. (7) Back Band or back wing, which is the horizontal fabric band wrapping around the torso, anchoring the bra in place; it contains elastic components for added stretch and is important for providing baseline support, as it works with the cups to secure the bra. (8) Underhand (Lower Band), which is a reinforced fabric strip along the lower edge of the cups and back band, providing additional structural support; it prevents the bra from shifting upward and offers compression for better stabilization, especially during movement. (9) Cup Padding, which is optional padding that is detachably inserted into the cups or that is non-detachably integrated into the cups, which may be foam or gel-based, to provide additional shaping, modesty, or volume enhancement; the padding can also act as a barrier between the support structure and the breast tissue for comfort. (10) Support Layer Bonding Adhesive, such as a specialized adhesive used to bond the rigid and flexible support structures between fabric layers, and ensures that the components remain fixed in place without shifting, contributing to the structural stability of the bra. (11) Wave Elements, such as flexible, curved segments of the flexible support member, shaped in a wave or spiral pattern; these elements allow for dynamic adaptation to breast movement while expanding and contracting to conform to breast volume changes. (12) Optional Cup Seams, or stitching or heat-sealed seams along the fabric cups, holding the support components in place, allowing durability and minimal visibility to avoid skin irritation and maintain a smooth outer appearance. (13) Elastic Edging, such as stretchable fabric or elastic trim along the edges of the cups and straps, to provide a secure fit; this component prevents gaping and ensures the cups stay flush against the body while still allowingflexibility. (14) Hook-and-Eye Closure, such as a multi-row closure system positioned at the back of the bra, allowing adjustability in the band size for a customizable fit; it typically includes metal hooks and fabric loops for secure fastening. (15) Flexible Side Panels, such as fabric or mesh panels located along the sides of the bra, designed to provide lateral support and prevent breast tissue displacement; these panels offer additional structure while maintaining breathability. (16) Rigid Insert Layers, such as thin, rigid polymer or metal layers embedded within the support structure for additional lifting support; such inserts enhance the bra’s ability to resist deformation while keeping the flexible components operational. (17) Moisture- Wicking Lining, such as an inner lining made from technical fabrics designed to draw moisture away from the skin, keeping the wearer dry; this component is beneficial for sports or high- impact bras. (18) Reinforcement Stitching, or specialized stitching used in high-stress zones such as strap connections, the bridge, and / or cup seams, to add structural integrity and prevent tearing or fabric separation over time. (19) Adjustable Strap Hardware, typically plastic or metal hardware, such as sliders and rings, used for length adjustments on the shoulder straps; to help customize the bra fit based on the wearer’s body shape and preferences. (20) Non-Slip Strap Lining, such as a silicone or rubberized coating applied to the inside of the shoulder straps to prevent slipping during movement, to ensure better grip and stability, particularly for strapless or convertible bras.

[0130] Some embodiments may prevent, cure, and / or mitigate one or more of the following problems that were identified by the Applicant in traditional bras. (1) Breast Discomfort from Excessive Compression, as traditional bras often apply excessive compression to the breast tissue, causing discomfort; in contrast, the bra of some embodiments mitigates this by combining a rigid support structure with a flexible wave-patterned element, distributing pressure more evenly and reducing excessive constriction. (2) Inadequate Breast Support During Physical Activity, as many traditional bras fail to provide sufficient support during dynamic movements, leading to excessive breast motion; in contrast, the bra of some embodiments prevents this by integrating a rigid support member for vertical stabilization and a flexible member for controlled compression, reducing excessive bounce and strain during activity. (3) Poor Weight Distribution on Shoulders, as conventional bras often place excessive strain on the shoulder straps, leading to discomfort and shoulder pain; in contrast, the bra of some embodiments resolves this by using a dynamic support structure beneath the cups, allowing weight to be distributed more evenly across the chest and reducing reliance on the straps. (4) Lack of Adaptability to Breast Shape Changes, as changes in breast shape due to movement or hormonal fluctuations are often not accommodated in conventional bras; incontrast, the bra of some embodiments has a flexible support structure that dynamically adjusts to size variations, expanding and contracting as needed to maintain consistent support without discomfort. (5) Sharp Underwire Discomfort, as traditional metal underwires can dig into the skin, causing irritation and injury over time; in contrast, the bra of some embodiments eliminates this issue by using a non-metallic, curved rigid support member integrated within the fabric layers, reducing sharp pressure points while maintaining structural support. (6) Limited Customization for Different Breast Sizes, as many conventional bras fail to adapt to a range of breast sizes and shapes, limiting comfort and fit; in contrast, the bra of some embodiments addresses this by offering multiple configurations of flexible support coverage (20%-50%) and varying the rigidity ratio, allowing for personalized support tailored to breast size and activity levels. (7) Skin Irritation and Chafing, as conventional bras made with rigid, unyielding components often cause skin irritation, especially during prolonged wear; in contrast, the bra of some embodiments prevents this by embedding its support structures between fabric layers, reducing direct contact with the skin while ensuring structural integrity. (8) Structural Instability Over Time, as many conventional bras lose their shape and support effectiveness after extended use; in contrast, the bra of some embodiments addresses this issue by utilizing shape-memory materials and / or TPU polymers, which retain their structural properties and adapt to repeated stretching without permanent deformation. (9) Insufficient Coverage for Breast Position Control, as some conventional bras fail to control lateral breast movement, leading to uncomfortable shifting; in contrast, the bra of some embodiments prevents this with its flexible support elements designed to extend laterally, improving side coverage and keeping the breasts centered and secure during activity. (10) Excessive Bulk and Visibility Under Clothing, as conventional bras with reinforced support structures can appear bulky under clothing; in contrast, the bra of some embodiments solves this by embedding the support structure between two fabric layers and utilizing a minimalistic design, offering both structural integrity and a smooth outer profile. (11) Ineffective Support for Larger Cup Sizes, as traditional bras often struggle to provide effective support for larger cup sizes without using thick padding or heavy materials; in contrast, the bra of some embodiments resolves this with a multi-component support system where the rigid and flexible components work together to manage both weight and movement. (12) Environmental Impact of Bra Materials, as many conventional bras rely on foam padding and non-recyclable materials, contributing to waste; in contrast, the bra of some embodiments can address this by using recyclable polymers like TPU and polyester, reducing material consumption through its dual-component design, while offering long-term durability and sustainability.

[0131] Some embodiments may be implemented by using a machine or an automated or semi-automatic production line, which may comprise, for example: cutting unit, welding unit, bonding unit, extrusion unit, co-extrusion unit, coating unit, spiraling unit, spinning unit, rotating unit, twisting unit, sewing unit, stitching unit, ultrasonic operations unit, ultrasonic cutting unit, gluing unit, ultrasonic bonding unit, ultrasonic gluing unit, folding unit, adhesive painting unit or adhesive application unit or adhesive coating unit, heat-sealing unit, heat-and- press unit, connection-creating unit, knitting machine, circular / tubular knitting machine, seamless knitting machine, seamless circular / tubular knitting machine, weaving machine, conveyor belt, robotic arm, control unit, workstation; as well as suitable hardware components and / or software components, for example, processor to execute code, memory unit, storage unit, input unit (keyboard, mouse, touch-screen), output unit (screen, touch-screen), modems, transceivers or transmitters or receivers, wireless and / or wired communication links and / or transceivers or transmitters or receivers, power sources, Operating System (OS) and suitable applications, or the like.

[0132] Some embodiments provide a garment or a sports bra or a bra for a wearer, the bra comprising: (a) two fabric cups, that are a left-side fabric cup and a right-side fabric cup, that are structured to cover breasts of the wearer; (b) a back-side fabric elastic band, such as an openable and closable back-side elastic fabric band; yet this openable-and-closeable component may be optional, as in some implementations (such as a sports bra or a tank-top) the back-side elastic fabric band is a singular element that does not open and that cannot be opened yet can be stretched as an elastic fabric band; (c) a front-side fabric under-band, located horizontally beneath the two fabric cups, and connected to the back-side elastic fabric band. The garment or bra or sports bra further includes: (d) a hybrid rigid-and-flexible support structure, that comprises: (dl) a rigid support member, that is non-planar and non-linear, and that covers a first percentage Pl of a total area of each fabric cup, and that has a first elasticity level El; (d2) a flexible support member, that is non-planar and non-linear, and that covers a second percentage P2 of the total area of each fabric cup, and that has a second elasticity level E2; wherein the second elasticity level E2 of the flexible support member, is at least 1.25 times the first elasticity level El of the rigid support member; wherein the second percentage P2 of the total area that is covered by the flexible support member, is at least 2 times the first percentage Pl of the total area that is covered by the rigid support member; wherein the flexible support member is flexible or is sufficiently flexible to dynamically adapt its three-dimensional contour to changes in size or position or shape of the breasts of the wearer.

[0133] In some embodiments, the flexible support member covers between 20 to 50 percent of the total area of each fabric cup; wherein the rigid support member covers not more than 10 percent of the total area of each fabric cup.

[0134] In some embodiments, the flexible support member is located above the rigid support member.

[0135] In some embodiments, the rigid support member comprises: a left-side U-shaped support element that curves around the left-side fabric cup; a right-side U-shaped support element that curves around the right-side fabric cup; a curved and generally-horizontal bridge support element that bridges between and connects the left-side U-shaped support element and the right-side U-shaped support element.

[0136] In some embodiments, the rigid support member comprises at least: a first curved- line support element having two curved-line endings (Gl, G2); a second curved-line support element having two other curved-line endings (G3, G4).

[0137] In some embodiments, the flexible support member comprises: (i) a left-side waveshaped support element that covers at least 20 percent of a lower-left area of the left-side fabric cup; (ii) a right-side wave-shaped support element that covers at least 20 percent of a lower- right area of the left-side fabric cup; (iii) a flexible bridge element that bridges between and connects the left-side wave-shaped support element and the right-side wave-shaped support element.

[0138] In some embodiments, the flexible support member comprises: (i) a left-side waveshaped support element that covers at least 20 percent of a lower-left area of the left-side fabric cup, wherein the left-side wave-shaped support element comprises at least two supporting wave-peaks (KI, K2); and (ii) a right-side wave-shaped support element that covers at least 20 percent of a lower-right area of the left-side fabric cup, wherein the right-side wave-shaped support element comprises at least two supporting wave-peaks (K3, K4); and (iii) a flexible bridge element that bridges between and connects the left-side wave-shaped support element and the right-side wave-shaped support element.

[0139] In some embodiments, the rigid support member is configured to lift the breasts of the from beneath the breasts or from a direction that goes upwardly from beneath the breasts of the wearer; whereas the flexible support member is configured to support the breasts from a front-side of the breasts and not from beneath the breasts, and / or not upwardly but rather internally towards the wearer’s body.

[0140] In some embodiments, the flexible support member comprises at least: a first waveline support element having two wave-line endings (LI, L2); a second wave-line supportelement having two other wave-line endings (L3, L4); a third wave-line support element having two other wave-line endings (L5, L6); a fourth wave-line support element having two other wave-line endings (L7, L8).

[0141] In some embodiments, the rigid support member comprises N1 discrete curved-line support elements; wherein the flexible support member comprises N2 discrete wave-line support elements; wherein N2 is greater than Nl.

[0142] In some embodiments, the second elasticity level of the flexible support member E2, is in a range of 1.5 to 5.0 times the first elasticity level of the rigid support member.

[0143] In some embodiments, the rigid support member and the flexible support member are sandwiched between: a first fabric-layer of the bra, and a second fabric-layer of the bra; wherein the rigid support member does not directly touch a skin of the wearer; wherein the flexible support member does not directly touch a skin of the wearer.

[0144] In some embodiments, the rigid support member and the flexible support member are embedded within a fabric-layer of the bra that directly touches the skin of the wearer.

[0145] In some embodiments, the rigid support member and the flexible support member are embedded within a fabric-layer of the bra that does not directly touch the skin of the wearer.

[0146] In some embodiments, the flexible support member is covered by, or coated with, one of: soft foamed material, soft fabric, soft padding, sponge.

[0147] In some embodiments, at least the flexible support member is an additive 3D- printed support member. In some embodiments, at least the rigid support member is an additive 3D-printed support member. In some embodiments, only the flexible support member (and not the rigid support member) is an additive 3D-printed support member. In some embodiments, only the rigid support member (and not the flexible support member) is an additive 3D-printed support member. In some embodiments, both the flexible support member and the rigid support member are additive 3D-printed support members.

[0148] In some embodiments, at least the flexible support member is an injection molded support member formed of one or more plastic materials. In some embodiments, at least the rigid support member is an injection molded support member formed of one or more plastic materials. In some embodiments, both the flexible support member and the rigid support member are a single, unified, injection molded support member formed of one or more plastic materials. In some embodiments, the flexible support member and the rigid support member are two distinct or discrete or separate or non-connected units, each of them being an injection molded support member formed of one or more plastic materials. In some embodiments, only the flexible support member (but not the rigid support member) is an injection molded supportmember formed of one or more plastic materials. In some embodiments, only the rigid support member (but not the flexible support member) is an injection molded support member formed of one or more plastic materials.

[0149] In some embodiments, at least the flexible support member is formed of Thermoplastic Polyurethane (TPU). In some embodiments, at least the rigid support member is formed of TPU. In some embodiments, only the rigid support member (but not the flexible support member) is formed of TPU. In some embodiments, only the flexible support member (but not the rigid support member) is formed of TPU. In some embodiments, both the flexible support member and the rigid support member are a single, unified, support member formed of TPU. In some embodiments, the flexible support member and the rigid support member are two distinct or discrete or separate or non-connected units, each of them being a support member formed of TPU.

[0150] In some embodiments, at least the flexible support member excludes any wires, and / or excludes any metal wires, and / or excludes any metal elements, and / or excludes any metal components. In some embodiments, only the flexible support member (but not the rigid support member) excludes any wires, and / or excludes any metal wires, and / or excludes any metal elements, and / or excludes any metal components.

[0151] In some embodiments, at least the rigid support member excludes any wires, and / or excludes any metal wires, and / or excludes any metal elements, and / or excludes any metal components. In some embodiments, only the rigid support member (but not the flexible support member) excludes any wires, and / or excludes any metal wires, and / or excludes any metal elements, and / or excludes any metal components. Both the flexible support member and the rigid support member exclude any wires, and / or exclude any metal wires, and / or exclude any metal elements, and / or exclude any metal components. In some embodiments, only the flexible support member (but not the rigid support member) excludes any wires, and / or excludes any metal wires, and / or excludes any metal elements, and / or excludes any metal components.

[0152] In some embodiments, at least the rigid support member consists exclusively of non-metal material(s). In some embodiments, at least the flexible support member consists exclusively of non-metal material(s). In some embodiments, only the rigid support member (but not the flexible support member) consists exclusively of non-metal material(s). In some embodiments, at least the flexible support member (but not the rigid support member) consists exclusively of non-metal material(s). In some embodiments, both the flexible support member and the rigid support member consist exclusively of non-metal material(s), and are two discrete or separate components that can move or relocate or re-shape independently of each other. Insome embodiments, both the flexible support member and the rigid support member consist exclusively of non-metal material(s), and are implemented as a singular component that can move or relocate or re-shape with one member affecting (directly or indirectly, or at least potentially affecting) the movement of another member of the hybrid support member. In some embodiments, the entirety of the bra or the garment lacks any wires, and / or excludes any wires, and / or lacks any metal components, and / or excludes any metal components.

[0153] In some embodiments, at least the two fabric cups are seam-less or seam-free, and they lack any seams. In some embodiments, an entirety of the bra or the garment is seam-less or seam-free, and lacks any seams. In some embodiments, at least the two fabric cups are stitchless or stitch-free, and they lack any stitches. In some embodiments, an entirety of the bra or the garment is stitch-less or stitch-free, and lacks any stitches.

[0154] In some embodiments, the garment or the bra is non-corset garment; and it does not cover any portion of a stomach or a belly of the wearer; and it excludes any fabric -region that covers the stomach or the belly of the wearer.

[0155] In other embodiments, the garment or the bra may optionally include one or more fabric-regions that cover a portion of the upper-stomach or the upper-belly or the centralabdomen of the wearer; however, those one or more fabric -regions exclude, and do not include, any support element and / or any metal element and / or any wires and / or any TPU component and / or any injection-molded plastic components and / or any injection-molded elements and / or any 3D-printed / additive-manufactured components.

[0156] In some embodiments, the bra is one of: an everyday bra, a maternity bra, a fitness bra, a sports bra.

[0157] Functions, operations, components and / or features described herein with reference to one or more embodiments, may be combined with, or may be utilized in combination with, one or more other functions, operations, components and / or features described herein with reference to one or more other embodiments, or vice versa.

[0158] While certain features of some embodiments have been illustrated and described herein, many modifications, substitutions, changes, and equivalents may occur to those skilled in the art. Accordingly, the claims are intended to cover all such modifications, substitutions, changes, and equivalents.

Claims

CLAIMS1. A bra for a wearer, the bra comprising:(a) two fabric cups, that are a left-side fabric cup and a right-side fabric cup, that are structured to cover breasts of the wearer;(b) a back-side elastic fabric band;(c) a front-side fabric under-band, located horizontally beneath the two fabric cups, and connected to the back-side elastic fabric band;(d) a hybrid rigid-and-flexible support structure, that comprises:(dl) a rigid support member, that is non-planar and non-linear, and that covers a first percentage Pl of a total area of each fabric cup, and that has a first elasticity level El;(d2) a flexible support member, that is non-planar and non-linear, and that covers a second percentage P2 of the total area of each fabric cup, and that has a second elasticity level E2; wherein the second elasticity level E2 of the flexible support member, is at least 1.25 times the first elasticity level El of the rigid support member; wherein the second percentage P2 of the total area that is covered by the flexible support member, is at least 2 times the first percentage Pl of the total area that is covered by the rigid support member; wherein the flexible support member is sufficiently flexible to dynamically adapt its three-dimensional contour to changes in size or position or shape of the breasts of the wearer.

2. The bra according to claim 1, wherein the flexible support member covers between 20 to 50 percent of the total area of each fabric cup; wherein the rigid support member covers not more than 10 percent of the total area of each fabric cup.

3. The bra according to any one of claims 1-2, wherein the flexible support member is located above the rigid support member.

4. The bra according to any one of claims 1-3, wherein the rigid support member comprises: a left-side U-shaped support element that curves around the left-side fabric cup, a right-side U-shaped support element that curves around the right-side fabric cup, a curved and generally-horizontal bridge support element that bridges between and connects the left-side U-shaped support element and the right-side U-shaped support element.

5. The bra according to any one of claims 1-4, wherein the rigid support member comprises at least: a first curved-line support element having two curved-line endings (Gl, G2); a second curved-line support element having two other curved-line endings (G3, G4).

6. The bra according to any one of claims 1-5, wherein the flexible support member comprises:(i) a left-side wave-shaped support element that covers at least 20 percent of a lower-left area of the left-side fabric cup;(ii) a right-side wave-shaped support element that covers at least 20 percent of a lower- right area of the left-side fabric cup;(iii) a flexible bridge element that bridges between and connects the left-side wave-shaped support element and the right-side wave-shaped support element.

7. The bra according to any one of claims 1-5, wherein the flexible support member comprises:(i) a left-side wave-shaped support element that covers at least 20 percent of a lower-left area of the left-side fabric cup, wherein the left-side wave-shaped support element comprises at least two supporting wave-peaks (KI, K2);(ii) a right-side wave-shaped support element that covers at least 20 percent of a lower- right area of the left-side fabric cup, wherein the right-side wave-shaped support element comprises at least two supporting wave-peaks (K3, K4);(iii) a flexible bridge element that bridges between and connects the left-side wave-shaped support element and the right-side wave-shaped support element.

8. The bra according to any one of claims 1-7, wherein the rigid support member lifts the breasts from beneath the breasts; wherein the flexible support member supports the breasts from a front-side of the breasts.

9. The bra according to any one of claims 1-8, wherein the flexible support member comprises at least: a first wave-line support element having two wave-line endings (LI, L2); a second wave-line support element having two other wave-line endings (L3, L4); a third wave-line support element having two other wave-line endings (L5, L6); a fourth wave-line support element having two other wave-line endings (L7, L8).

10. The bra according to any one of claims 1-9, wherein the rigid support member comprises N1 discrete curved-line support elements; wherein the flexible support member comprises N2 discrete wave-line support elements; wherein N2 is greater than Nl.

11. The bra according to any one of claims 1-10, wherein the second elasticity level of the flexible support member E2, is in a range of 1.5 to 5.0 times the first elasticity level of the rigid support member.

12. The bra according to any one of claims 1-11, wherein the rigid support member and the flexible support member are sandwiched between: a first fabric-layer of the bra, and a second fabric-layer of the bra; wherein the rigid support member does not directly touch a skin of the wearer; wherein the flexible support member does not directly touch a skin of the wearer.

13. The bra according to any one of claims 1-11, wherein the rigid support member and the flexible support member are embedded within a fabric-layer of the bra that directly touches the skin of the wearer.

14. The bra according to any one of claims 1-11, wherein the rigid support member and the flexible support member are embedded within a fabric-layer of the bra that does not directly touch the skin of the wearer.

15. The bra according to any one of claims 1-14, wherein the flexible support member is covered by, or coated with, one of: soft foamed material, soft fabric, soft padding, sponge.

16. The bra according to any one of claims 1-15, wherein at least the flexible support member is an additive 3D-printed support member.

17. The bra according to any one of claims 1-16, wherein at least the flexible support member is an injection molded support member formed of one or more plastic materials.

18. The bra according to any one of claims 1-17, wherein at least the flexible support member is formed of Thermoplastic Polyurethane (TPU).

19. The bra according to any one of claims 1-18, wherein the bra is non-corset garment, and does not cover any portion of a stomach or a belly of the wearer, and excludes any fabric-region that covers the stomach or the belly of the wearer.

20. The bra according to any one of claims 1-19, wherein the bra is one of: an everyday bra, a maternity bra, a fitness bra, a sports bra.

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