Smart high form dress

Abstract

The application discloses intelligent high-end formal clothes, relates to the field of functional clothing design, and in particular relates to intelligent high-end formal clothes, which comprise a basic support layer, an environment response layer, a dynamic adjustment layer and a decoration symbiotic layer, the layers are linked through material physical properties, are not driven by electronic elements and external energy, and realize passive intelligent response with the dynamic of the human body and the change of the environment. The basic support layer contains a bio-based elastic mesh cloth base and a partitioned memory alloy wire, supports the profile and adjusts the lines with actions; the environment response layer contains a temperature-sensitive gradual change yarn embroidery piece and a humidity sensing embossed screen gauze, changes the color texture with temperature and humidity; the dynamic adjustment layer contains a pressure release gel strip and an elastic wrinkle buffer belt, reduces friction impact force; and the decoration symbiotic layer contains light refraction crystal strings and degradable ribbon buckles, and is beautiful and adjustable. The layers are fixed through simple processes, and natural drooping and lightness are maintained.

Description

Technical Field

[0001] This invention relates to the field of functional clothing design, specifically to intelligent haute couture gowns. Background Technology

[0002] As high-end custom clothing evolves towards personalization and scenario-based applications, traditional formal wear faces significant challenges in balancing aesthetic design and wearing comfort. Existing haute couture gowns often focus on static styling, relying on tailoring and fabric texture to create their appearance. However, in practical use, the following problems frequently arise: First, when the body moves dynamically (such as raising an arm, walking, or sitting), the gown is prone to localized tightness, wrinkle buildup, or sagging, affecting aesthetics and freedom of movement. Second, fluctuations in environmental temperature and humidity (such as indoor-outdoor temperature differences or increased humidity due to perspiration) can cause the fabric to feel stuffy, uncomfortable against the skin, or dull in color, especially in prolonged social settings where wearers need to frequently adjust their posture to maintain a presentable image. Third, traditional decorative components (such as sequins and beads) are mostly rigid and fixed, unable to create dynamic visual effects with changes in movement or lighting, and some materials (such as plastic and metal) are non-biodegradable and easily scratch the skin.

[0003] To address these pain points, smart clothing technology has emerged in recent years. However, existing technologies largely rely on electronic sensors, micro-motors, or external power sources for active adjustment, resulting in complex structures, increased weight, and bulky wearability, which contradicts the "lightweight, natural, and elegant" philosophy of haute couture gowns. For example, some smart gowns adjust warmth through built-in temperature sensors and heating modules, but the implantation of electronic components disrupts the fabric's integrity and drape, and limited battery life restricts their applicability to short-term displays. Other research attempts to use shape memory polymers for silhouette adjustment, but this requires specific temperature triggering conditions (such as hot water or electric heating), making it difficult to match the dynamic temperature changes during daily human activities, thus limiting its practicality.

[0004] Furthermore, while the field of environmentally responsive clothing has explored the application of unidirectional color-changing or deformation-changing materials for temperature- and humidity-sensitive materials (such as temperature-sensitive coating printing and humidity-sensing coatings), these applications are mostly limited to single-functional layers and do not incorporate the dynamic adaptation needs of the human body. Moreover, material selection often neglects skin-friendliness, breathability, and environmental friendliness—for example, some chemically synthesized temperature-sensitive materials may irritate the skin, or humidity-sensitive coatings may exacerbate stuffiness due to poor breathability. In terms of decoration, existing smart dresses rely heavily on LED lights or reflective films for luminous or reflective embellishments, which not only increases energy consumption but also poses risks of exposed wiring and easy damage, and results in low integration with natural materials.

[0005] In summary, the market needs a high-end custom-made dress that does not require external energy and achieves multi-dimensional intelligent response through the physical properties of the material itself. It can automatically optimize the silhouette and comfort according to the body's dynamics, perceive environmental changes and present dynamic beauty, while taking into account the requirements of skin-friendliness, breathability and environmental protection. Summary of the Invention

[0006] The purpose of this invention is to provide intelligent haute couture gowns. Through the linkage of the physical properties of four layers of materials—basic support, environmental response, dynamic adjustment, and decorative symbiosis—it achieves a passive intelligent response to changes in human body dynamics and environment, taking into account silhouette support, comfort, and natural aesthetics, while maintaining the lightweight and draping texture of haute couture gowns.

[0007] To achieve the above objectives, the present invention is implemented through the following technical solution: an intelligent haute couture dress, comprising a basic support layer, an environmental response layer, a dynamic adjustment layer, and a decorative symbiotic layer. Each layer forms an inherent linkage mechanism based on the physical properties of the materials themselves. It does not rely on electronic components or external energy supply. It can trigger the natural response of each layer of materials simply through the dynamic changes generated by the human body's daily activities and the subtle changes in the environment. This allows the dress to present a dynamic and adaptable form and visual effect, achieving a completely passive intelligent form and texture adjustment that conforms to the rhythm of human activity and changes in the environmental atmosphere.

[0008] Furthermore, the basic support layer comprises a bio-based elastic mesh base and partitioned shape memory alloy wires. The bio-based elastic mesh base completely covers the body area covered by the dress, and its elastic properties can closely conform to the body curves of different body types, forming a base support that fits well without hindering movement. The partitioned shape memory alloy wires are embedded in the base at the corresponding shoulder line, side waistline, and lower edge of the skirt, according to the key stress and shape nodes of the dress silhouette. Under normal conditions, they are soft and spiral-shaped, but when subjected to human movement or temperature changes, they will transform into a straight and rigid state. In this way, when the human body makes movements such as raising arms, turning, and walking, they simultaneously support the basic silhouette of the dress and allow the lines to adjust naturally with the range of movement, avoiding stiffness or excessive looseness in shape deviation.

[0009] Furthermore, the environmental response layer includes temperature-sensitive gradient yarn embroidery and humidity-sensitive embossed mesh. The temperature-sensitive gradient yarn embroidery is distributed in areas that are easily in contact with the skin or the outside air, such as the neckline, armholes, and front center seam of the skirt. Its material contains thermochromic microcapsules. When in contact with the heat emitted by the human body or when the ambient temperature rises or falls, the physical state of the microcapsules will change slightly, causing the color of the embroidery to change naturally from light to dark or from dark to light. This allows the color of the dress to change with temperature fluctuations, creating a visual hierarchy that responds to the environment or the body's condition.

[0010] Furthermore, the humidity-sensing embossed mesh covers areas such as the back and sides that are prone to contact with moisture due to sweating or a humid environment. Its main body is a cotton-linen blend mesh structure that retains a certain amount of breathability while also having moderate toughness. The surface is coated with a plant-based adhesive coating that expands when it comes into contact with water. When this area comes into contact with sweat or ambient moisture, the coating gradually expands upon contact with water, which pushes the mesh surface to form undulating natural textures. The texture varies in density or depth depending on the humidity concentration, allowing the dress to generate its own unique texture when wet, rather than relying on additional decorations.

[0011] Furthermore, the dynamic adjustment layer includes pressure-releasing gel strips and elastic pleated cushioning bands; the pressure-releasing gel strips are embedded in areas such as the armpits, waist, and groin where the skin is in direct contact with the dress and is prone to compression and friction during activity. Under normal conditions, they are thin liquid films that can deform with the relative displacement of the skin and the dress, evenly dispersing the localized concentrated pressure generated during activity, reducing redness or marks on the skin caused by friction, and improving the fit and comfort during long-term wear.

[0012] Furthermore, the elastic pleated cushioning band connects the upper part of the bra and the upper edge of the skirt, two key connection points that need to balance support and cushioning during movement. It is made of double-layer elastic spandex fabric. The outer layer is pre-pleated into a regular wave shape to reserve space for deformation, and the inner layer is coated with a friction reducer containing silicone oil to reduce interlayer friction. When the human body makes large movements such as bending over or lifting legs, the cushioning band can unfold with the movement. The extension of the pleats absorbs the instantaneous impact of the movement, preventing the dress from deforming due to sudden stretching. When the movement stops and the body returns to a stationary state, the cushioning band will shrink back according to its elastic properties, helping to maintain the original crisp silhouette of the dress.

[0013] Furthermore, the decorative symbiotic layer includes a string of light-refracting crystals and a biodegradable ribbon knot; the string of light-refracting crystals is suspended at the end of the shape memory alloy wire at the shoulder and waist lines, and its material is a fragment of natural fluorite after being broken, with multiple facets polished on the surface; in the absence of a specific direct light source, the crystal string has a soft, misty, milky white visual effect, and when there is diffuse light in the surroundings, the facets will decompose the light into fine iridescent colors, forming a flowing starlight-like visual effect as the body rotates or the angle of light changes, so that the decoration and the dynamic posture of the dress are naturally integrated.

[0014] Furthermore, the biodegradable ribbon knot is fixed at the intersection of the memory alloy wires on the waist. The material is a ribbon woven from bamboo fiber, and the end is formed into a petal-shaped knot through a hot pressing process. The knot can gradually decompose within 72 hours after being exposed to water, and has a detachable decorative attribute. At the same time, the fit and visual proportion of the waistline can be adaptively adjusted by adjusting the binding position or tightness of the knot on the memory alloy wire, taking into account both decorative function and wearability.

[0015] Furthermore, the bio-based elastic mesh substrate is woven from corn fiber blended elastic yarn. The corn fiber gives the substrate natural breathable pores and a skin-friendly feel, while the blended elastic yarn ensures that the substrate can stretch and contract with the body's curves without causing a feeling of restriction. As a whole, it serves as the bonding carrier for all functional layers, allowing the materials of the environmental response layer, dynamic adjustment layer, and decorative symbiotic layer to adhere stably. At the same time, it ensures that each layer maintains a consistent bonding trajectory when responding to changes, avoiding functional failure due to substrate displacement.

[0016] Furthermore, the layers are fixed together using flat stitches, hot-press bonding, or interwoven weaving. The selected processes are all designed based on the material's own combinable properties, without the need for complex mechanical assembly or additional locking components. This simple process allows the layers to maintain the continuity of the overall structure when responding in conjunction with each other, ensuring that the dress presents a natural drape and texture while avoiding the burden of wearing due to complex structure, thus maintaining a lightweight wearing experience.

[0017] This invention provides a smart haute couture dress, which has the following beneficial effects: 1. This gown achieves passive, self-adaptive silhouette without electronic actuation through the linkage between a bio-based elastic mesh base and zoned shape memory alloy wires in its basic support layer. The bio-based mesh, blended with corn fiber, is breathable, skin-friendly, and conforms to the body's curves, providing a stable carrier for each functional layer. The shape memory alloy wires are embedded in key areas such as the shoulder line and side waist. In its normal spiral soft state, it ensures softness for everyday wear, while under stress, stretching, or heat, it straightens and stiffens instantly, providing support and adjusting lines with movement—for example, when raising an arm, the alloy wires in the shoulder line stiffen to maintain a clean silhouette, and when walking, the alloy wires in the skirt subtly adjust the curvature to avoid dragging. This design retains the elegant form of haute couture gowns while eliminating the restrictive feeling of traditional rigid support, allowing the wearer to maintain a proper posture throughout dynamic movements, balancing aesthetics and freedom of movement.

[0018] The environmentally responsive layer, featuring thermochromic gradient yarn embroidery and humidity-sensing embossed mesh, endows the gown with a natural interactive ability to "sense the environment." The thermochromic embroidery contains thermochromic microcapsules distributed in prominent locations such as the neckline and armholes. It changes color gradually as body temperature rises or the environment warms; for example, at a banquet, as body temperature increases, the neckline transitions from light pink to peach, subtly matching the warming atmosphere. The humidity-sensing mesh covers the back and sides, with a cotton-linen blend base that expands upon contact with water and is coated with plant-based adhesive. It generates a natural texture when exposed to sweat or humid air, both indicating the wearer's physical condition and preventing discomfort from a sticky feeling. This responsive design requires no electricity, achieving a gentle dialogue between "person, clothing, and environment" through the inherent properties of the materials. It makes the gown a "visual extension" of the wearer's state, enhancing the subtlety of scene adaptation.

[0019] The dynamic adjustment layer addresses the pain points of friction and marks caused by tight-fitting dresses through pressure-relieving gel strips and elastic pleated cushioning bands. The gel strips, embedded in pressure-prone areas such as the armpits and sides, are normally a liquid film that evenly distributes skin pressure, significantly reducing friction and redness from prolonged wear. The elastic cushioning band connects the bra to the skirt; the outer layer of double-layered spandex fabric is pleated into a wave shape, while the inner layer is coated with silicone oil to reduce friction—the pleats expand to absorb impact during movement (such as when turning, the cushioning band expands to dissipate force), and retract to maintain a crisp silhouette when stationary. The combined effect of these two elements allows the fitted dress to move freely yet maintain its style, making it especially suitable for occasions requiring prolonged sitting or frequent movement, significantly improving wearing comfort and breaking the traditional perception that "beauty must sacrifice comfort."

[0020] The decorative symbiotic layer integrates light-refracting crystal beads and biodegradable ribbon knots into the functional system, achieving an organic unity of decoration and practicality. The crystal beads, made from multifaceted natural fluorite fragments, are suspended from the ends of shape-memory alloy wires. In the absence of light, they appear as a subtle, elegant, milky white mist; when exposed to diffused light, they refract delicate iridescent colors, like flowing starlight along the shoulder and waistline under banquet lights, replacing the artificial feel of traditional sequins. The biodegradable ribbon knots, woven from bamboo fiber and heat-pressed into petal knots at the ends, serve as a detachable adjuster for the waistline (suitable for all body types) and decompose after 72 hours of contact with water, reducing pollution from clothing waste. This design transforms decoration from mere "visual embellishment" into a functional extension and a carrier of sustainable concepts, aligning with the pursuit of "refined yet warm" in high-end customization.

[0021] The entire gown is driven by the interconnected physical properties of the materials, without electronic components or external energy sources. Each layer is secured using simple processes such as flat stitching and heat pressing, avoiding complex mechanical assembly. The breathability and skin-friendliness of the bio-based mesh fabric, the shape memory of the shape-memory alloy threads, and the thermochromic properties of the temperature-sensitive yarns all achieve intelligent responses based on the intrinsic properties of the materials, avoiding the cumbersome wiring and battery anxiety of electronic devices. The simplified process maximizes the preservation of the gown's natural drape, making it lightweight and burden-free to wear, and folding and storing it without easily damaging its structure. This "de-electronic" passive intelligence reduces maintenance costs and allows the gown to return to its essence—achieving a long-term balance between aesthetics, comfort, and function through materials that are closest to the body—providing a more natural and sustainable path for the "intelligent evolution" of haute couture gowns. Attached Figure Description

[0022] To more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings in the following description are merely exemplary, and those skilled in the art can derive other embodiments based on the provided drawings without creative effort.

[0023] Figure 1This is a schematic diagram of the overall structure of the present invention. Figure 1 ; Figure 2 This is a schematic diagram of the overall structure of the present invention. Figure 2 ; Figure 3 This is a schematic diagram of the overall structure of the present invention. Figure 3 .

[0024] Part Name: Bio-based elastic mesh base 1; zoned memory alloy wire 2; temperature-sensitive gradient yarn embroidery 3; humidity-sensing embossed mesh 4; pressure-releasing gel strip 5; elastic pleated cushioning strip 6; light-refracting crystal string 7; biodegradable ribbon knot 8. Detailed Implementation

[0025] Exemplary embodiments will now be described in detail, examples of which are illustrated in the accompanying drawings. When the following description relates to the drawings, unless otherwise indicated, the same numerals in different drawings denote the same or similar elements. The embodiments described in the following exemplary embodiments do not represent all embodiments consistent with this disclosure. Rather, they are merely examples of apparatuses consistent with some aspects of this disclosure as detailed in the appended claims.

[0026] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative effort are within the scope of protection of the present invention.

[0027] How to use: 1. Preparation for Wearing: Take out the smart haute couture gown and first confirm that the basic support layer includes a bio-based elastic mesh base 1 and partitioned shape memory alloy wires 2. The bio-based elastic mesh base 1 is made of corn fiber blended elastic yarn, covering the entire body and conforming to the body's curves. It is breathable and skin-friendly, serving as the bonding carrier for all functional layers. Unfold the gown, allowing the bio-based elastic mesh base 1 to naturally wrap around the body. Feel the close-fitting support of the elastic mesh; there is no need to deliberately pull it, as the mesh's own elasticity will allow it to initially conform to the contours.

[0028] Base support layer activation: The partitioned shape memory alloy wire 2 is embedded in the shoulder line, side waistline, and lower edge of the skirt, and is normally in a spiral soft state. When worn, the shape memory alloy wire 2 will be stretched by the body dynamics such as raising the arms, rotating the waist, or walking and causing the skirt to sway, or will gradually become straight and hard due to heat conduction from the body temperature, thereby supporting the silhouette and adjusting the lines with the movement. No additional operation is required, and the support shape is naturally adapted in dynamic movement.

[0029] Environmental Response Layer Sensing: The environmental response layer comprises temperature-sensitive gradient yarn embroidery 3 and humidity-sensitive embossed mesh 4. The temperature-sensitive gradient yarn embroidery 3 is distributed at the neckline, armholes, and front center seam of the skirt. It contains thermochromic microcapsules that change color with rising body temperature or changes in ambient temperature. No intervention is required while wearing the garment; natural fluctuations in body and ambient temperature trigger the color change. The humidity-sensitive embossed mesh 4 covers the back and sides. It is a cotton-linen blend mesh coated with a water-swelling plant-based adhesive. When exposed to moisture such as sweat or ambient humidity, the plant-based adhesive coating swells, creating a natural texture on the mesh surface. This is also a passive response, requiring no active operation.

[0030] Dynamic Adjustment Layer Adaptation: The dynamic adjustment layer comprises a pressure-relieving gel strip 5 and an elastic pleated cushioning band 6. The pressure-relieving gel strip 5 is embedded in the skin contact layer under the armpits, waist, and groin. Normally, it is a liquid film. After wearing, the gel strip 5 adapts to pressure changes at the contact points with body movement, reducing friction and marks, without the need for manual adjustment. The elastic pleated cushioning band 6 connects the upper part of the bra to the upper edge of the skirt. It is made of double-layered elastic spandex fabric with a wavy outer layer and a silicone oil friction reducer coating on the inner layer. During activity, the cushioning band 6 expands to absorb impact as the limbs extend, and retracts to maintain a crisp silhouette when stationary, automatically switching states throughout the entire process.

[0031] Decorative Symbiotic Layer: The decorative symbiotic layer includes a light-refracting crystal string 7 and a biodegradable ribbon knot 8. The light-refracting crystal string 7, suspended from the ends of the shoulder and waistline shape memory alloy wires 2, is made of natural fluorite fragments with a multi-faceted surface. In the absence of light, it appears misty and milky white. In environments with diffused light, such as indoor lighting or natural light scattering, it automatically refracts fine iridescent colors, creating a flowing starlight effect without manual control. The biodegradable ribbon knot 8 is fixed at the intersection of the waistline shape memory alloy wires 2. It is a bamboo fiber woven ribbon with the ends heat-pressed into petal knots. The ribbon can be manually pulled or loosened to adjust the tightness of the waistline. Removal is simple; the knot decomposes after 72 hours of contact with water and can naturally degrade after temporary decorative use.

[0032] Overall maintenance and storage: Each layer is fixed by flat stitching, heat-pressing bonding, or weaving, requiring only simple processes to achieve the structure and avoiding complex mechanical assembly. When wearing, maintain the natural drape of the dress and avoid excessive stretching of the shape memory alloy wire 2 to prevent affecting its shape transformation; when storing, gently fold the dress, utilizing the elastic recovery properties of the bio-based elastic mesh base 1, so that it can maintain good fit and functional response for the next wear. The entire process relies on the physical properties of the materials, without electronic components or external energy drive, achieving passive intelligent response.

[0033] Example: Example 1: A scenario combining static and micro-motion in everyday social situations In a cozy tea break, the user wears a smart haute couture gown. The bio-based elastic mesh base 1 in the basic support layer is made of corn fiber blended elastic yarn, conforming to the body's curves and evenly distributing contact pressure, providing a skin-friendly and breathable bottom layer support. The zoned memory alloy wires 2 are located at the shoulder line, side waistline, and hem. When sitting and conversing, they are in a spiral soft state, maintaining a gentle and close-fitting silhouette. When the user raises their hand to pick up tea and snacks, the arm movement causes the memory alloy wires 2 at the shoulder line to be stretched and straightened, instantly supporting the elegant shoulder line. At the same time, the memory alloy wires 2 at the side waistline enhance the waistline contour with the slight rotation of the waist, and the memory alloy wires 2 at the hem adjust the angle of the skirt's drape when the feet move, allowing the silhouette to flow naturally between static sitting posture and slight movements. In the environmental response layer, temperature-sensitive gradient yarn embroidery pieces 3 are distributed at the neckline, armholes, and front center seam of the skirt. As body temperature blends with the warmth of the room, the embroidery pieces gradually reveal a soft, warm hue. The humidity-sensitive embossed mesh 4 covering the back and sides has not yet come into contact with significant moisture, maintaining the original smooth texture of the cotton and linen mesh. The pressure-relieving gel strips 5 in the dynamic adjustment layer silently relieve the contact pressure between the clothing and the skin under the armpits and on the sides, so that there are no marks even after sitting for a long time. The elastic pleated cushioning bands 6 gently unfold and return to their original shape with the slightest movement of breathing at the bust and the upper edge of the skirt, maintaining the crispness of the upper body and the skirt. The light-refracting crystal beads 7 in the decorative symbiotic layer are suspended at the ends of the memory alloy wires 2 on the shoulder and waist lines, refracting delicate rainbows under the diffused light by the window, as if there is light in stillness. The biodegradable ribbon knots 8 are appropriately fastened on the sides of the waist according to the body shape, both embellishing and securing the position.

[0034] Example 2: Outdoor Garden Ceremony - Slow Walk Scene In a garden ceremony bathed in soft morning light, the wearer, clad in a smart haute couture gown, walks gracefully. The bio-based elastic mesh base 1 naturally stretches and conforms to the wearer's movements, maintaining a breathable and skin-friendly comfort. The zoned memory alloy wires 2, continuously stretched by the legs and torso during walking, gradually transition from a spiraled, soft state at the shoulder line, side waistline, and hem to a straight, firm state, supporting a dignified silhouette that adjusts with each step, resulting in flowing lines with every movement. The temperature-sensitive gradient yarn embroidery 3 in the environmentally responsive layer, due to the combined effects of outdoor sunlight and body temperature, displays a gradient of color that echoes natural light; the humidity-sensing embossed mesh 4, when exposed to morning dew on the back and sides, expands its plant-based adhesive coating upon contact with water, creating a subtle, natural texture that gives the gown a vibrant feel that blends seamlessly with its surroundings. The pressure-relieving gel strip 5 of the dynamic adjustment layer continuously reduces skin friction and constriction during long walks, while the elastic pleated cushioning band 6 expands to absorb the impact of each step and retracts instantly when stationary to maintain the clean silhouette of the skirt and corset. The light-refracting crystal string 7 shimmers with flowing iridescence under the diffused light reflected from the branches and leaves, adding a touch of ethereal brilliance to the silhouette as you walk; the biodegradable ribbon knot 8 is adjustable at the waist to ensure a stable waistline while walking and allows for customizable styling.

[0035] Example 3: Indoor dance party scene with spinning and jumping In a softly lit indoor ballroom, the user, dressed in a smart haute couture gown, dances gracefully. The bio-based elastic mesh base 1 maintains its conformity to the body during rapid turns and arm swings, ensuring freedom of movement. The zoned memory alloy wire 2 stretches under stress in multiple areas during vigorous limb movements or hardens to a straight line when body temperature rises. The shoulder line provides stable support for the shoulders during dance movements, the side waistline accentuates the waist, and the hem of the skirt instantly straightens during rotation to maintain the skirt's tension and aesthetics. The temperature-sensitive gradient yarn embroidery 3 in the environmental response layer displays richer color gradations due to increased body temperature and ambient warmth generated during dance; the humidity-sensing embossed mesh 4 captures the slight perspiration and moisture on the back and sides during dance breaks, and the plant-based adhesive coating expands and textures, allowing the gown to exhibit unique textural changes in response to the dancer's breath. The pressure-relieving gel strip 5 of the dynamic adjustment layer effectively reduces friction and restriction during high-frequency movements, allowing for unrestricted limb movement; the elastic pleated cushioning band 6 expands to absorb shock with each leap and quickly retracts to maintain the crisp rhythm of the bust and skirt when transitioning to a still dance step. The light-refracting crystal string 7 refracts dense iridescence under the diffuse reflection of the dance floor lights, like a personal galaxy; the biodegradable ribbon knot 8 is securely positioned at the waist and can be quickly loosened to accommodate costume changes or minor styling adjustments.

[0036] Example 4: Multi-faceted communication scenarios at a long banquet table During an elegant evening banquet, users, dressed in smart haute couture gowns, engage in multi-pose interactions. The bio-based elastic mesh base 1 maintains a comfortable and supportive fit throughout, from sitting upright to leaning forward for conversation. The zoned memory alloy wires 2 stiffen as the shoulder and side waistlines stretch under pressure when leaning to pick up food or raise a glass, supporting the corresponding silhouettes. The hem of the skirt subtly adjusts its drape when the legs cross or move, maintaining an elegant and continuous overall line. The temperature-sensitive gradient yarn embroidery 3 in the environmental response layer gradually displays subtle color shifts in response to changes in the banquet room temperature and body temperature during conversation. The humidity-sensing embossed mesh 4 creates texture on the back and sides as the body becomes slightly damp during conversation, echoing the atmosphere. The pressure-relieving gel strips 5 in the dynamic adjustment layer alleviate concentrated pressure points during prolonged sitting in different postures, while the elastic pleated cushioning bands 6 expand and retract when the body leans forward or backward, maintaining the dignified shape of the corset and skirt. The light-refracting crystal string 7 emits a soft iridescent glow in the diffuse reflection of the banquet hall lights, highlighting the subtle brilliance between static and interactive elements; the biodegradable ribbon knot 8 allows for slight adjustments in tightness at the waist to accommodate different seating postures during the meal, ensuring both comfort and aesthetics.

[0037] Example 5: Slow-paced viewing scenario in an art gallery In the quiet art gallery, users, dressed in intelligent haute couture gowns, stroll leisurely to appreciate the artworks. The bio-based elastic mesh base 1 maintains a close fit while walking and pausing, without compromising breathability and skin-friendliness. The zoned memory alloy wires 2 naturally switch between soft and firm states based on body angle and temperature changes during slow walking, turning, and pausing to gaze, subtly adjusting the shoulder line, side waistline, and hemline according to the direction of the gaze, resulting in a serene and stylish viewing posture. The temperature-sensitive gradient yarn embroidery 3 in the environmentally responsive layer presents a tranquil gradient color under the constant indoor temperature and body temperature, echoing the gallery's atmosphere; the humidity-sensing embossed mesh 4 creates delicate textures on the back and sides due to traces of moisture generated during walking, allowing the gown to blend seamlessly with the space. The pressure-relieving gel strips 5 in the dynamic adjustment layer continuously reduce discomfort during prolonged slow walking and pausing, while the elastic pleated cushioning strips 6 adjust their position according to changes in stride frequency, maintaining a clean and crisp silhouette. The light-refracting crystal string 7 shimmers with a faint iridescence in the diffused light reflected from the sky and walls of the exhibition hall, adding a touch of quiet beauty; the biodegradable ribbon knot 8 secures the waist and can be adjusted slightly according to the viewing posture to ensure comfort and elegance.

[0038] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A smart haute couture gown, characterized in that: It includes a basic support layer, an environmental response layer, a dynamic adjustment layer, and a decorative symbiotic layer. Each layer is linked through the physical properties of the materials, without electronic components or external energy drive, to achieve a passive intelligent response that changes with the human body's dynamics and the environment.

2. The intelligent haute couture dress according to claim 1, characterized in that, The basic support layer includes a bio-based elastic mesh fabric base (1) and partitioned memory alloy wires (2); the bio-based elastic mesh fabric base covers the whole body and conforms to the body curves; the partitioned memory alloy wires are embedded in the shoulder line, side waist line and lower edge of the skirt of the base, normally in a spiral soft state, and become straight and hard when stretched or heated, to support the silhouette and adjust the lines with movement.

3. The intelligent haute couture dress according to claim 1, characterized in that, The environmental response layer includes a temperature-sensitive gradient yarn embroidery piece (3) and a humidity-sensitive embossed mesh (4); the temperature-sensitive gradient yarn embroidery piece is distributed on the neckline, armholes and front center seam of the skirt, and contains thermochromic microcapsules to present a gradient color with changes in body temperature or ambient temperature.

4. The intelligent haute couture dress according to claim 3, characterized in that, The humidity-sensitive embossed mesh (4) covers the back and sides. It is a cotton and linen blended mesh with a plant glue coating that expands when exposed to water, which is used to generate natural textures as humidity changes.

5. The intelligent haute couture dress according to claim 1, characterized in that, The dynamic adjustment layer includes a pressure-releasing gel strip (5) and an elastic pleated buffer strip (6); the pressure-releasing gel strip is embedded in the skin contact layer of the armpit, waist and thigh, and is normally a liquid film to reduce friction and marks during activities.

6. The intelligent haute couture dress according to claim 5, characterized in that, The elastic pleated buffer band (6) connects the upper part of the bra and the upper edge of the skirt. It is made of double-layer elastic spandex fabric with the outer layer pleated in a wave shape and the inner layer coated with silicone oil friction reducer. It is used to expand to absorb impact when active and to shrink back to maintain the shape when stationary.

7. The intelligent haute couture dress according to claim 1, characterized in that, The decorative symbiotic layer includes a light-refracting crystal string (7) and a biodegradable ribbon knot (8); the light-refracting crystal string is suspended at the end of the shoulder line and waist line memory alloy wire, is a natural fluorite fragment and the surface is polished into a multi-faceted shape. When there is no light source, it appears as a misty milky white color, and when exposed to diffuse light, it refracts fine rainbow colors to create a flowing starlight effect.

8. The intelligent haute couture dress according to claim 7, characterized in that, The biodegradable ribbon knot (8) is fixed at the intersection of the memory alloy wires on the waist side. It is a bamboo fiber woven ribbon with the end hot-pressed into a petal knot. It decomposes after 72 hours of contact with water and is used as a detachable decoration to adjust the tightness of the waistline.

9. The intelligent haute couture dress according to claim 2, characterized in that, The bio-based elastic mesh substrate (1) is made of corn fiber blended elastic yarn, which is both breathable and skin-friendly, and serves as the bonding carrier for all functional layers.

10. The intelligent haute couture dress according to claim 1, characterized in that, Each layer is fixed by flat stitching, hot pressing, or weaving. The structure requires only simple processes to achieve, avoiding complex mechanical assembly and maintaining the natural drape and ease of wearing of the dress.

Images