Mould cup with built-in flowing air nest structure

Abstract

The utility model discloses a mould cup with a built-in flowing air nest structure, which comprises a mould cup body, the mould cup body comprises a supporting layer used for providing an air feeling supporting effect and a sponge layer used for improving the ventilation effect of the mould cup, the supporting layer is wrapped outside the sponge layer and is attached to the sponge layer, and the flowing air nest structure is arranged in the mould cup body. The three-dimensional model cup has the advantages that the supporting layer is arranged by referring to the fluctuation state of stratosphere cloud, the internal structure of the model cup is built through 3D modeling, the internal space of the model cup is subjected to flowing type air nest space division modeling, and the flowing type air nest space division modeling is achieved; the sponge layer is arranged, honeycomb-shaped soft sponge is adopted as a built-in material of the sponge layer, the perspiration effect of pores is enhanced, the outer portion of the sponge layer is made of a slightly-stiff nylon composite material, molding performance is achieved, and the mold cup is not prone to falling off. And soft and glutinous resilience feeling and comfortable moisture absorption and sweat guide feeling are brought while the gravity of the chest is supported.

Description

Technical Field

[0001] The utility model relates to the technical field of underwear mold cups, in particular to a mold cup with a built-in flowing air nest structure. Background Art

[0002] In the prior art, a mold cup is a cup formed by a piece of cotton through a high-temperature mold. It is one of the most common components of women's underwear. Since conventional thick mold cups have shape but are not breathable enough, some women who pursue high comfort need thin mold cups that are breathable. However, the shaping effect of thin breathable mold cups is not strong enough, and the wearing rate is low. When worn in summer, sweat and high temperature can easily cause bacteria to grow in the mold cups. Today's women have higher and higher requirements for bras. While beautifying their body shape, they have higher requirements for the material, weight, yellowing, and breathability of bra materials. In particular, with the increase in breast diseases, more attention has been paid to the environmental protection and health performance of bra products. However, most bras currently have low breathability. Such bra pads are generally punched first and then glued. This process will result in different pore positions of several layers of bra pads, and the pores are closed, which cannot achieve the breathable effect. At the same time, the support is insufficient, and there is no plumping effect after wearing.

[0003] The Chinese utility model patent with application number: 201921553008.5 discloses a new type of breathable mold cup, wherein the breathable mold cup body comprises an upper pad and a lower pad, the upper pad and the lower pad are connected by bonding, an inner pad cavity is provided between the upper pad and the lower pad, an inner pad is installed in the inner pad cavity, the upper pad, the lower pad and the inner pad are provided with evenly arranged air holes, the air holes at the same position are connected, and the outer edge of the mold cup body is provided with a edging wing, and the air holes are formed by inserting the inner pad into the inner pad cavity, die-casting the upper pad, the lower pad and the inner pad, and punching holes to form the air holes, so that the air holes are completely penetrated. However, this new type of breathable mold cup is a traditional insert cup mold cup structure, which lacks fit and breathability after being worn, as well as the upper body shape. The flat structure shape affects the adaptability of the chest space. The mold cup shape of sports bras on the market is also easy to appear fake or press the chest, and the applicability is poor. Utility Model Content

[0004] The utility model aims to provide a mold cup with a built-in flow air nest structure.

[0005] In order to achieve the above purpose, the technical solution proposed by the utility model is:

[0006] A mold cup with a built-in flowing wind nest structure includes a mold cup body, the mold cup body includes a supporting layer for providing an air-sense supporting effect and a sponge layer for improving the breathability of the mold cup, the supporting layer is wrapped around the outside of the sponge layer and is arranged in close contact with the sponge layer, and the supporting layer is a wave-like stratospheric cloud-shaped structure.

[0007] The supporting layer consists of an inner sticking part and an outer supporting part, both of which are configured as arc-shaped bowl structures and are arranged on the inner and outer sides of the sponge layer respectively. The surfaces of the inner sticking part and the outer supporting part away from the sponge layer are configured as wave-like stratospheric cloud-shaped structures to form a flowing wind nest surface.

[0008] The supporting layer is made of nylon composite material, and two sides of the supporting layer are provided with edge wing structures.

[0009] The sponge layer is made of soft polyurethane sponge material. The sponge layer is arranged in an arc-shaped bowl-shaped structure corresponding to the supporting layer and has edging wing structures on both sides.

[0010] It also includes ventilation holes, which are provided in a plurality of groups. The plurality of groups of ventilation holes are evenly spaced and arranged on the sponge layer and penetrate the sponge layer. The sponge layer and the ventilation holes together form a honeycomb built-in sponge structure.

[0011] A supporting wing is provided at the lower part of the mold cup body, and the supporting wing is configured as an arc-shaped wing structure.

[0012] The beneficial effects of the utility model are:

[0013] It is equipped with a supporting layer, which is arranged with reference to the wave state of stratospheric clouds. The internal structure of the mold cup is created through 3D stereo modeling, and the internal space of the mold cup is divided into a flowing wind nest space, which can bring an airy supporting effect and a microcirculation feeling inside the mold cup. It is equipped with a sponge layer, which uses honeycomb-shaped soft sponge as the built-in material to enhance the perspiration effect of the pores. The external part uses a slightly stiff nylon composite material to bring plasticity, supporting the gravity of the chest while bringing a soft and sticky rebound feeling and a comfortable moisture absorption and sweat conduction feeling. The curvature and position of the mold cup achieve optimal stability and support, and the upper body is stylish and not fake. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 It is a schematic diagram of the overall structure of the utility model;

[0015] Figure 2 It is a cross-sectional schematic diagram of the supporting layer of the utility model;

[0016] Figure 3 It is a schematic cross-sectional view of the mold cup body of the utility model.

[0017] In the figure: 1. Supporting layer; 2. Sponge layer; 3. Breathable holes; 4. Supporting wings. DETAILED DESCRIPTION

[0018] The utility model is further described in detail below in conjunction with the accompanying drawings.

[0019] A mold cup with a built-in flowing air nest structure includes a mold cup body, the mold cup body includes a supporting layer 1 for providing an air-feeling supporting effect and a sponge layer 2 for improving the air permeability of the mold cup, the supporting layer 1 is wrapped around the outside of the sponge layer 2 and is arranged in close contact with the sponge layer 2, and the supporting layer 1 is a wave-like stratospheric cloud-shaped structure. The overall structural schematic diagram of the utility model is shown in FIG. Figure 1 shown.

[0020] The supporting layer 1 is composed of an inner sticking part and an outer supporting part, both of which are configured as an arc-shaped bowl-shaped structure and are arranged on the inner and outer sides of the sponge layer 2 respectively, and the surfaces of the inner sticking part and the outer supporting part away from the sponge layer 2 are configured as wave-like stratospheric cloud-shaped structures to form a flowing wind nest surface, and the supporting layer 1 is made of a nylon composite material, and both sides of the supporting layer 1 are provided with an edge wing structure, wherein the inner sticking part is used as the part that fits the user's skin as the inner side of the mold cup body, and the outer supporting part is used as the part that provides support for the user's chest as the outer side of the mold cup body, and the surface of the supporting layer 1 is configured as a flowing wind nest surface structure, which can make the air flow along its wave-like stratospheric cloud-shaped structure when the mold cup is worn, thereby enhancing the adaptive air support feeling of the chest, dividing the internal space of the mold cup into a flowing wind nest space, and providing the user with a microcirculation feeling of the internal space of the mold cup, and the nylon composite material can bring plasticity to the mold cup through its slightly stiff characteristic. The cross-sectional schematic diagram of the supporting layer 1 of the utility model is shown in Figure 2 shown.

[0021] The sponge layer 2 is made of soft polyurethane sponge material. The sponge layer 2 is set to an arc-shaped bowl-shaped structure corresponding to the supporting layer 1 and has edge wing structures on both sides. The sponge layer 2 made of soft polyurethane sponge can support the gravity of the chest while bringing a soft and glutinous rebound feeling. The edge wing structures on both sides of the supporting layer 1 and the sponge layer 2 can improve the fit of the mold cup body after being put on. The cross-sectional schematic diagram of the mold cup body of the utility model is shown as follows Figure 3 shown.

[0022] It also includes breathable through holes 3, which are provided in a plurality of groups. The plurality of breathable through holes 3 are evenly spaced on the sponge layer 2 and penetrate the sponge layer 2. The sponge layer 2 and the breathable through holes 3 together constitute a honeycomb built-in sponge structure, wherein the breathable through holes 3 are used to improve the air permeability of the sponge layer 2, thereby forming a honeycomb built-in sponge structure together with the sponge layer 2 to provide a comfortable moisture absorption and sweat conduction feeling, thereby enhancing the sweat discharge effect of the user's pores.

[0023] A supporting wing 4 is provided at the lower part of the mold cup body, and the supporting wing 4 is arranged as an arc-shaped wing-shaped structure, wherein the supporting wing 4 is used as a supporting structure on the mold cup body, thereby providing support for the user's chest. The supporting wing 4 with an arc-shaped wing-shaped structure can ensure the supporting effect of the mold cup body while improving the fit between the mold cup body and the user's chest.

[0024] The nylon composite material may be the nylon composite material used in the mold cup in the prior art.

[0025] Among them, the curvature of the BP point in this technical solution can be adaptively adjusted according to the actual measured effects of the upper body of different people, so as to achieve a stylish upper body and ensure that its curvature and position achieve the best stability and support.

[0026] Working principle:

[0027] The mold cup body structure is composed of the supporting layer 1 and the sponge layer 2. The sponge layer 2 uses honeycomb sponge as the built-in material to enhance the perspiration effect of the pores. The supporting layer 1 uses a slightly stiff nylon composite material to bring plasticity. The surface of the supporting layer 1 is arranged as a flowing wind nest surface with reference to the fluctuation state of stratospheric clouds. The internal space of the mold cup is divided into flowing wind nests, which can bring an airy supporting effect and a microcirculation feeling in the internal space of the mold cup. The mold cup body is arranged as an arc-shaped bowl structure with hemming wing structures on both sides, which can ensure that the mold cup reaches the best BP point curvature, the upper body is stylish and not fake, and the curvature and position achieve the best stability and support.

[0028] The beneficial effect of the utility model is that a supporting layer is provided, which is arranged with reference to the wave state of stratospheric clouds, and the internal structure of the mold cup is created through 3D stereo modeling. The internal space of the mold cup is divided into a flowing wind nest space, which can bring an airy supporting effect and a microcirculation feeling in the internal space of the mold cup. A sponge layer is provided, which uses honeycomb-shaped soft sponge as the built-in material to enhance the perspiration effect of the pores. A slightly stiff nylon composite material is used on the outside to bring plasticity, supporting the gravity of the chest while bringing a soft and sticky rebound feeling and a comfortable moisture absorption and sweat conduction feeling. The curvature and position of the mold cup achieve optimal stability and support, and the upper body is stylish and not fake.

[0029] The above is a detailed description of an embodiment of the utility model, but the content is only a preferred embodiment of the utility model and cannot be considered to limit the scope of implementation of the utility model. All equivalent changes and improvements made within the scope of application of the utility model should still fall within the scope of the patent coverage of the utility model.

Claims

1. A mold cup with a built-in flow air nest structure, including a mold cup body, characterized in that: The mold cup body comprises a supporting layer (1) for providing an air-feeling supporting effect and a sponge layer (2) for improving the air permeability of the mold cup. The supporting layer (1) is wrapped around the outside of the sponge layer (2) and is arranged in close contact with the sponge layer (2). The supporting layer (1) is a wave-like stratospheric cloud-shaped structure.

2. The mold cup with a built-in flow air nest structure as claimed in claim 1, characterized in that: The supporting layer (1) is composed of an inner sticking part and an outer supporting part, both of which are configured as arc-shaped bowl-shaped structures and are arranged on the inner side and the outer side of the sponge layer (2) respectively, and the surfaces of the inner sticking part and the outer supporting part away from the sponge layer (2) are configured as wave-like stratospheric cloud-shaped structures to form a flowing wind nest surface.

3. The mold cup with a built-in flow air nest structure as claimed in claim 2, characterized in that: The supporting layer (1) is made of a nylon composite material, and two sides of the supporting layer (1) are provided with hemming wing structures.

4. The mold cup with a built-in flow air nest structure as claimed in claim 3, characterized in that: The sponge layer (2) is made of a soft polyurethane sponge material. The sponge layer (2) is arranged to be an arc-shaped bowl-shaped structure corresponding to the supporting layer (1) and has hemming wing structures on both sides.

5. The mold cup with a built-in flow air nest structure as claimed in claim 4, characterized in that: It also comprises ventilation holes (3), wherein the ventilation holes (3) are provided in a plurality of groups, and the plurality of groups of ventilation holes (3) are evenly spaced and arranged on the sponge layer (2) and penetrate the sponge layer (2), and the sponge layer (2) and the ventilation holes (3) together form a honeycomb-shaped built-in sponge structure.

6. The mold cup with a built-in flow air nest structure as claimed in claim 5, characterized in that: A supporting wing (4) is provided at the lower part of the mold cup body, and the supporting wing (4) is configured as an arc-shaped wing structure.

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