Design method of bionic bird wing western-style clothes capable of increasing activity space and clothes

Abstract

The invention relates to the technical field of costume design, in particular to a bionic bird wing western-style clothes design method for increasing the activity space amount and clothes, the bionic bird wing western-style clothes comprise armhole parts, the radian and depth of the armhole parts refer to streamline wing root design of bird wings, and the armhole parts fit the motion trail of the shoulders of the human body; the back yoke part is provided with a dividing line matched with tension distribution when the wings of the birds are unfolded, and the dividing line corresponds to the shoulder blade area of the human body; the back wing structure is provided with a bionic grid segmentation structure and is matched with the back yoke part to disperse the pressure of the spine and shoulder blade areas; and the sleeve parts are provided with dynamic sleeve top structures. The fitting design of the armhole to the motion trail of the shoulders of the human body is completed by combining front piece dart transfer, the dynamic sleeve top structure is designed by designing transverse and oblique parting lines corresponding to shoulder blade areas and simulating the flexibility of the wing joints of birds, and the construction of the armhole, shoulder and back self-adaptive motion system of the suit is completed. The all-weather comfortable wearing effect is achieved.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of clothing design, in particular to a bionic bird wing suit design method for increasing the activity space and a suit. BACKGROUND

[0002] As an important dress for business and formal occasions, the wearing comfort and activity freedom of a suit have become the core needs of modern consumers. The traditional suit is prone to a sense of restraint when the human body is active, such as arm lifting, body leaning forward, shoulder swinging, etc., due to the static nature of the design of the pattern, and it is difficult to balance elegance and dynamic comfort.

[0003] The invention with the application number CN202111626299.8 discloses a suit with air bag shoulder pads and chest pads, which includes air bag shoulder pads, air bag chest pads, a conduit, an air pump, a micro angle measuring instrument, and a microprocessor. The working principles of the air bag shoulder pads and the air bag chest pads are the same. High-resilience sponges are arranged in the air bag shoulder pads and the air bag chest pads. Air valves are arranged on the high-resilience sponges. When the air valves are opened, the high-resilience sponges inside will automatically absorb air. After the air valves are closed, the air is sealed inside the air bags. The air pump can be connected to the high-resilience sponge cavities in the air bag shoulder pads or the air bag chest pads through the conduit. A switchable through hole is arranged on the surface of the air bag shoulder pads and the air bag chest pads. The suit can be produced as a garment. The air bag shoulder pads and the air bag chest pads replace the traditional shoulder pads and chest pads. The shape of the shoulders and the chest can be adjusted according to the user's body type during wearing, achieving a better wearing effect.

[0004] To improve the wearing experience of a suit, there are improvement schemes for the pattern or structure in the prior art. The above-mentioned invention discloses a suit with air bag shoulder pads and chest pads, which adjusts the shape of the shoulders and the chest by inflating the air bags to adapt to different body types. However, such a scheme relies on mechanical structures such as air bags, conduits, and air pumps, which has the problems of complex structure, increased weight and thickness of the suit, and mainly adapts to static body types, which cannot solve the problem of limited activity space of the sleeve, the shoulder, and the back during dynamic activities, and still cannot meet the comfort needs of long-term wearing.

[0005] Therefore, there is an urgent need for a technical scheme that does not require complex mechanical structures, combines bionic design and material optimization, fundamentally improves the comfort and activity freedom of a suit during dynamic activities, and maintains the elegant appearance of a traditional suit. SUMMARY

[0006] To overcome the shortcomings of the prior art, the present invention aims to provide a biomimetic bird wing suit design method and garment that increases the amount of activity space. By biomimicking the structure of bird wings, such as wing shape, feather structure layers, and movement mechanism, and combining it with materials science, such as hollow yarn fibers and lightweight processes, the suit armholes, shoulders, and back are designed as an "adaptive movement system" to solve the problems mentioned in the background art.

[0007] To achieve the above objectives, on the one hand, the present invention provides a biomimetic bird wing suit garment that increases the amount of activity space, including an armhole whose curvature and depth are based on the streamlined wing root design of a bird's wing, conforming to the movement trajectory of the human shoulder. The yoke on the back has dividing lines that are adapted to the tension distribution when a bird's wings are spread, and these dividing lines correspond to the human scapula area. The back wing structure features a biomimetic mesh segmentation structure, which works in conjunction with the back yoke to distribute pressure on the spine and scapula area. The sleeves feature a dynamic sleeve cap structure, which allows the sleeve cap height and armhole allowance to be adjusted according to arm movements. The shoulders are equipped with built-in elastic support material that can adapt to the body's movements. The outer layer of the fabric is a hollow yarn structure fabric, the inner layer is a super elastic spider web yarn lining, and the interlayer is a lightweight honeycomb structure lining.

[0008] As a further improvement to this technical solution, the arc of the armhole is R8-12cm, the depth is 15-20cm, and the underarm movement is increased by 3-5cm through the transfer of the front panel dart.

[0009] As a further improvement to this technical solution, the dividing line of the back yoke includes a horizontal dividing line and a diagonal dividing line. The horizontal dividing line is located at the upper edge of the scapula, and the diagonal dividing line extends from the shoulder to both sides of the back, thereby increasing the back coverage by 15%-25%.

[0010] As a further improvement to this technical solution, the elastic support material built into the shoulder is a memory lining with an elastic recovery rate of ≥90% and a tension release of 10%-15% when the arm is raised.

[0011] As a further improvement to this technical solution, the back wing structure uses super elastic spider web yarn lining with an elastic elongation rate of ≥20%, and it covers the inner side of the armhole and the back area in a wing-like shape. Combined with the outer hollow yarn fabric, it increases the overall range of motion by 20%-30% compared to traditional suits.

[0012] On the other hand, the present invention provides a design method for a biomimetic bird wing suit that increases the amount of room for movement. The method for manufacturing the aforementioned biomimetic bird wing suit with increased room for movement includes the following steps: S1, airfoil bionic design: referring to the streamlined wing root shape of bird wings, the curvature and depth of the suit sleeve pocket are optimized to make the sleeve pocket fit the human shoulder movement trajectory; S2, back Yoke bionic design: referring to the back tension distribution when the bird wings are unfolded, the split line and fabric tension of the back Yoke are designed to make the back adaptively adjust during human activity; S3, dynamic motion structure design: combining the angle change of bird wing flapping and human arm kinematics data, the dynamic sleeve cap structure of the sleeve is designed to automatically adjust the sleeve cap height and sleeve hole allowance during arm movement; S4, force distribution optimization: using gradient elastic fabric, the outside of the shoulder is high elasticity fabric, and the inside is high air permeability fabric, to realize dynamic pressure balance; S5, fabric and process adaptation: using hollow yarn structure fabric as the outer layer, super-elastic spider web lining as the inner layer, and combining honeycomb structure lightweight lining, to reduce the weight of the suit and improve the freedom of movement.

[0013] As a further improvement of the technical solution, in step S1, the curvature of the sleeve pocket is adapted to the natural curvature when the human arm is raised and swung, and the activity of the armpit and the sleeve pocket is increased by the front piece reserve transfer.

[0014] As a further improvement of the technical solution, in step S2, the split line of the back Yoke part is adapted to the human scapula region, and the activity of the back when the human body is forward inclined or backward inclined is increased by 10%-20% through the split line distribution.

[0015] As a further improvement of the technical solution, in step S3, the adjustment range of the dynamic sleeve cap structure includes: when the arm is stretched forward, held sideways or swung backward, the sleeve cap height can be adaptively lowered by 3-5mm, and the sleeve hole allowance is increased by 2-4cm.

[0016] As a further improvement of the technical solution, in step S5, the hollow yarn structure fabric of the fabric layer is an elastic wool fabric, and the honeycomb structure lightweight lining reduces the overall weight of the suit by 30%-40% compared with traditional suits.

[0017] Compared with the prior art, the beneficial effects of the present application are: 1. The bionic bird wing suit design method and garment that increases the activity space, which optimizes the curvature and depth of the sleeve pocket by imitating the streamlined wing root shape of bird wings, combines the front piece reserve transfer, completes the sleeve pocket design that fits the human shoulder movement trajectory, reduces the binding feeling of the armpit and the sleeve pocket, and increases the activity by 3-5cm.

[0018] 2. The method and garment for designing a bionic bird wing suit with increased activity space, which designs a back Dior split line by referring to the back tension distribution of a bird's wing when it is unfolded, designs a transverse and oblique split line corresponding to the scapula region, completes self-adaptive adjustment of the back fabric tension, and achieves the technical effects of improving the back wrapping degree and increasing the forward and backward activity amount.

[0019] 3. The method and garment for designing a bionic bird wing suit with increased activity space, which designs a dynamic sleeve cap structure by imitating the flexibility of a bird's wing joint, combines with human arm kinematics data, completes self-adaptive adjustment of the sleeve cap height reduction and sleeve hole allowance increase of 2-4 cm when the sleeve is stretched forward, lifted sideways, and swung backward, and achieves the technical effects of reducing the tightness and sleeve jamming of a traditional suit.

[0020] 4. The method and garment for designing a bionic bird wing suit with increased activity space, which internally places a memory lining in the shoulder by referring to the elastic support principle of a bird's shoulder muscle, completes self-adaptive release of the shoulder tension with human movement, and achieves the technical effects of giving consideration to the shoulder stiffness and movement adaptability. BRIEF DESCRIPTION OF DRAWINGS

[0021] The drawings described herein are for illustrative purposes only and are not intended to limit the scope of the present disclosure in any way. In addition, the shapes and proportions of the components in the drawings are only illustrative and are used to help understand the present application, and are not specific limitations on the shapes and proportions of the components of the present application. Those skilled in the art can select various possible shapes and proportions to implement the present application according to specific circumstances under the guidance of the present application.

[0022] Figure 1 The flowchart of the present application is shown in Figure 1. Figure 2 The first schematic diagram of the sleeve cap structure of the present application is shown in Figure 2. Figure 3 The second schematic diagram of the sleeve cap structure of the present application is shown in Figure 3. Figure 4 The schematic diagram of the back Dior split structure of the present application is shown in Figure 4. Figure 5 The schematic diagram of the back wing structure of the present application is shown in Figure 5. Figure 6 The schematic diagram of the sleeve structure of the present application is shown in Figure 6. Figure 7 The schematic diagram of the front piece allowance transfer of the present application is shown in Figure 7. The meanings of the various reference numbers in the drawings are as follows: 100, sleeve cap; 200, back Dior split; 300, back wing structure; 400, sleeve structure. DETAILED DESCRIPTION

[0023] The details of the application can be more clearly understood with reference to the drawings and the following description. However, the specific embodiments of the application described herein are intended for purposes of illustration only and are not intended to be limiting in any way. These and other variations of the application will become apparent to those skilled in the art upon reading the detailed description of the application. The terminology used herein is for the purpose of describing only the preferred embodiments of the application and is not intended to limit the scope of the application in any way. The terms "mounting", "connected" should be interpreted broadly, which means direct connection, and also indirect connection through intermediate medium.

[0024] The terms "central axis", "vertical", "horizontal", "front", "back", "upper", "lower", "left", "right", "top", "bottom", "inner", "outer" and the like used herein to indicate the orientation or positional relationship are based on the orientation or positional relationship shown in the drawings, which are only for the purpose of facilitating the description of the application and simplifying the description, and do not indicate or imply that the devices or elements referred to must have a particular orientation, be constructed and operated in a particular orientation, and therefore cannot be understood as limiting the application. In addition, in the description of the application, the meaning of "several" is two or more, unless otherwise explicitly and specifically limited.

[0025] Please refer to Figures 1-7 As shown in the drawings, the application provides a bionic bird wing suit with increased activity space, which comprises a sleeve pocket part 100, a back yoke part 200, a back wing structure 300 and a sleeve part 400. The curvature and depth of the sleeve pocket part 100 refer to the streamlined wing root design of bird wings, and fit the human shoulder movement trajectory. The curvature of the sleeve pocket part 100 is R8-12cm, and the depth is 15-20cm, and the underarm activity is increased by 3-5cm through the front piece allowance transfer. By simulating the streamlined wing root of bird wings, i.e. the wing and body connection part, the curvature and depth of the suit sleeve pocket are optimized, so that the sleeve pocket fits the natural curvature of the human shoulder movement trajectory, such as arm lifting and swinging, and reduces the feeling of restraint.

[0026] Further, the back yoke part 200 is provided with a split line adapted to the tension distribution when the bird wings are unfolded, and the split line corresponds to the human shoulder blade area. The split line of the back yoke part 200 includes a horizontal split line and an oblique split line, the horizontal split line is located on the upper edge of the shoulder blade, and the oblique split line extends from the shoulder to both sides of the back, so that the back wrapping degree is improved by 15%-25%. By referring to the back tension distribution when the wings are unfolded, the split line and fabric tension of the back yoke are designed, so that the back is self-adapted when the human body is inclined forward and inclined backward, and the comfort is improved, such as simulating the dynamic tension balance of bird feathers in flight.

[0027] Furthermore, the back wing structure 300 features a biomimetic mesh segmentation structure, which, in conjunction with the back yoke 200, disperses pressure on the spine and scapula areas. The back wing structure 300 uses a super-elastic spiderweb yarn lining with an elastic elongation rate of ≥20%, and it forms a wing-like coverage at the junction of the inner side of the armhole 100 and the back area. Combined with the outer hollow yarn fabric, this increases the overall range of motion by 20%-30% compared to traditional suits. Back pressure dispersion: Mimicking the pressure distribution of feathers on the back of a wing, the suit's back is segmented with a "biomimetic mesh," which, combined with the back yoke design, disperses pressure on the spine and scapula areas, improving comfort during prolonged sitting or activity.

[0028] Furthermore, by analyzing the angular changes in bird wings during flapping, such as wingspan and folding angle, and combining this with human arm kinematic data, such as shoulder joint range of motion and elbow flexion and extension angles, a "bionic joint" structure for the sleeve was designed. The sleeve section 400 features a dynamic sleeve cap structure that adjusts the sleeve cap height and armhole allowance according to arm movement. This "dynamic sleeve cap" design mimics the flexibility of wing joints, allowing the sleeve to automatically adjust its height and armhole allowance during arm movement. This enables multi-directional arm movement, such as natural extension when reaching forward, raising to the side, and swinging backward, reducing the tightness and sleeve constriction issues of traditional suits.

[0029] Furthermore, the suit garments, including the shoulders, incorporate built-in elastic support material that adapts to body movement. This built-in elastic support material is a memory lining with an elastic recovery rate of ≥90%, and a tension release of 10%-15% when the arm is raised. Drawing inspiration from the elastic support of bird shoulder muscles, the suit's shoulders incorporate biomimetic elastic materials, such as memory lining, which maintain a crisp look while adapting to body movement. For example, the shoulder automatically releases tension when the arm is raised and restores support when lowered.

[0030] In addition, the outer layer of the suit's fabric is a hollow yarn structure fabric, the inner lining is a super-elastic spider web yarn lining, and the interlayer is a lightweight honeycomb structure lining. The fabric draws inspiration from the hollow structure of bird feathers, using hollow yarn structure technology to adjust the wool spinning process, creating a hollow yarn structure wool fabric with increased elasticity. The inner lining uses a super-elastic spider web yarn lining, combined with a biomimetic structure, and a lightweight honeycomb structure lining to improve crispness while reducing weight, making the suit 30%-40% lighter and increasing freedom of movement.

[0031] This invention also provides a design method for a biomimetic bird-wing suit that increases the amount of room for movement, used to manufacture the aforementioned biomimetic bird-wing suit with increased room for movement, comprising the following steps: S1, airfoil bionic design: referring to the streamlined wing root shape of bird wings, the curvature and depth of the suit sleeve pocket 100 are optimized to make the sleeve pocket fit the human shoulder movement track; the curvature of the sleeve pocket 100 is adapted to the natural curvature when the human arm is raised and swung, and the activity of the armpit and the sleeve pocket is increased through the front piece transfer.

[0032] S2, back Juk bionic design: referring to the back tension distribution when the bird wings are unfolded, the split line and fabric tension of the back Juk are designed to make the back adaptively adjust during human activity; the split line of the back Juk part 200 is adapted to the human scapula region, and the activity of the back is increased by 10%-20% through the split line distribution when the human body is forward inclined or backward inclined.

[0033] S3, dynamic motion structure design: combined with the angle change of bird wing flapping and human arm kinematics data, the dynamic sleeve cap structure of the sleeve is designed to automatically adjust the sleeve cap height and sleeve hole allowance when the arm moves; the adjustment range of the dynamic sleeve cap structure includes: when the arm is stretched forward, held sideways or swung backward, the sleeve cap height can be adaptively lowered by 3-5mm, and the sleeve hole allowance is increased by 2-4cm.

[0034] S4, force distribution optimization: gradient elastic fabric is used, the outer side of the shoulder is high elastic fabric, and the inner side is high breathable fabric; the pressure difference between traditional suit and bionic design is tested by using pressure sensing technology, and the fabric tension of the shoulder and the sleeve pocket is adjusted, such as using gradient elastic fabric, high elasticity on the outer side of the shoulder and high breathability on the inner side, to realize "dynamic pressure balance", similar to the adaptive adjustment of bird wings to air power in flight.

[0035] S5, fabric and process adaptation: the fabric with hollow yarn structure is used as the outer layer, the super-elastic spider web lining is used as the inner layer, and the honeycomb structure lightweight lining is combined to reduce the weight of the suit and improve the freedom of movement; the fabric with hollow yarn structure is a wool fabric with elastic performance, and the honeycomb structure lightweight lining reduces the overall weight of the suit by 30%-40% compared with the traditional suit.

[0036] The present application bionically designs the structure of bird wings, such as airfoil, feather structure hierarchy, and motion mechanism, and combines material science, such as hollow yarn fiber and lightweight process, to design the suit sleeve pocket, shoulder and back as "self-adaptive motion system", which not only maintains the elegance of traditional suit, but also breaks through the "static version" limit and realizes all-weather comfortable wearing.

[0037] It should be noted that the fixed connection and the fixed setting of the present application are realized by using conventional fixing means such as bolt connection or welding. The above-mentioned embodiments are only for illustrating the technical concept and characteristics of the present application, and the purpose is to enable the person skilled in the art to understand the content of the present application and to implement it, and cannot limit the protection scope of the present application. Any equivalent changes or modifications made according to the spirit and principle of the present application should be covered within the protection scope of the present application.

Claims

1. A bionic bird wing suit garment for increasing the amount of active space, characterized in that, Including the armhole (100), whose curvature and depth are inspired by the streamlined wing root design of bird wings, conforming to the movement trajectory of the human shoulder; The back yoke (200) has a dividing line adapted to the tension distribution when the bird's wings are spread, and the dividing line corresponds to the human scapula area; The back wing structure (300) has a biomimetic grid segmentation structure, which works with the back yoke (200) to distribute pressure on the spine and scapula area; The sleeve section (400) is equipped with a dynamic sleeve cap structure for adjusting the sleeve cap height and armhole allowance; Shoulders, with built-in elastic support material; The outer layer of the fabric is a hollow yarn structure fabric, the inner layer is a super elastic spider web yarn lining, and the interlayer is a lightweight honeycomb structure lining.

2. The biomimetic winged bird suit of claim 1, wherein, The arc of the armhole (100) is R8-12cm and the depth is 15-20cm. The range of motion between the armpit and the armhole (100) is increased by transferring the front panel darts.

3. The biomimetic winged bird suit of claim 2, wherein, The dividing lines of the back yoke (200) include a horizontal dividing line and a diagonal dividing line. The horizontal dividing line is located at the upper edge of the scapula, and the diagonal dividing line extends from the shoulder to both sides of the back.

4. The biomimetic winged bird suit of claim 3, wherein, The built-in elastic support material in the shoulder is a memory lining with an elastic recovery rate of ≥90% and a tension release of 10%-15% when the arm is raised.

5. The biomimetic winged bird suit of claim 4, wherein, The back wing structure (300) is made of super elastic spider web yarn lining with an elastic elongation rate of ≥20%, and is covered in a wing-like shape at the junction of the inner side of the armhole (100) and the back area.

6. A method of designing a bionic bird wing suit for increasing the amount of active space for making the bionic bird wing suit for increasing the amount of active space according to claim 5, characterized in that, Includes the following steps: S1. Bionic design of wing shape: The arc and depth of the armhole (100) of the suit are optimized by referencing the streamlined wing root shape of birds' wings. S2. Back yoke biomimetic design: The back yoke's dividing lines and fabric tension are designed based on the tension distribution on the back of birds when their wings are spread. S3. Dynamic motion structure design: Combining the angle changes of bird wing flapping and human arm kinematics data, a dynamic sleeve cap structure is designed for the sleeve, which automatically adjusts the sleeve cap height and armhole allowance when the arm moves. S4. Force distribution optimization: Gradient elastic fabric is used, so that the outer side of the shoulder is made of highly elastic fabric and the inner side is made of highly breathable fabric. S5. Fabric and process matching: The outer layer is made of hollow yarn structure fabric, the inner layer is made of super elastic spider web yarn lining, and it is combined with honeycomb structure lightweight lining.

7. The method of claim 6, wherein the amount of space for movement is increased by the bionic bird wing suit design. In step S1, the curvature of the armhole (100) is adapted to the natural curvature of the human arm when it is raised and swung, and the range of motion between the armpit and the armhole is increased by the transfer of the front dart.

8. The method of claim 6, wherein the amount of space for movement is increased by the bionic bird wing suit design. In step S2, the dividing line of the back yoke (200) is adapted to the human scapular region.

9. The method of claim 6, wherein the amount of space for movement is increased by the bionic bird wing suit design. In step S3, the adjustment range of the dynamic sleeve cap structure includes: when the arm is extended forward, raised to the side, or swung back, the sleeve cap height can be adaptively reduced by 3-5mm, and the armhole allowance can be increased by 2-4cm.

10. The method of claim 6, wherein the amount of space for movement is increased by the bionic bird wing suit design. In step S5, the hollow yarn structure of the fabric layer is made of wool fabric with elastic properties.

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