Carving integrated treatment method for gold embroidery

Abstract

The invention provides an engraving integrated processing method for a gold embroidery. Installation mapping position data are generated according to an engraving pattern and an embroidery pattern. And mapping the installation position data into the substrate pattern, obtaining fused finished product image data through calculation, and extracting an avoidance installation position coordinate from the fused image. And generating substrate generation data based on the data of the avoidance mounting position coordinates and the substrate pattern. And according to the base generation data, base materials such as cloth are precisely processed, and a processed base is obtained. And processing the carved pattern and the embroidery pattern according to the coordinates of the avoiding mounting positions to obtain a corresponding carved piece and an embroidery piece. And mounting the carving piece and the embroidery piece on the pre-processed base according to the avoiding mounting position coordinates to obtain a processed finished product. Through installation mapping and fusion image generation of the engraved pattern and the embroidery pattern, high-precision positioning and coordination of the two types of patterns in space are realized, and the problems of pattern dislocation and disordered arrangement in a traditional process are avoided.

Description

Technical Field

[0001] The present application relates to the field of gold processing, and in particular to a method for integrated engraving processing of gold embroidery products. Background Art

[0002] Gold embroidery uses integrated engraving techniques, combining traditional gold embroidery with metal engraving to create embroidery pieces that are both three-dimensional and artistic. This technique is often used in high-end apparel, artwork, and home decor, offering a high level of aesthetic value and craftsmanship.

[0003] During the production process, base fabrics with high strength, good stability and high temperature resistance are usually selected, such as high-density silk, brocade or composite fiber cloth; in terms of metal materials, high-purity metal wire (such as gold-plated copper wire, 24K gold-wrapped wire) is used for embroidery, and the carved parts are mostly made of thin metal sheets or engraved metal alloy plates (such as copper-gold alloy) for shaping.

[0004] However, due to the significant differences in the materials used in the two techniques, the integration process presents numerous challenges. For example, engraving materials, such as gold, copper, and silver, are rigid, dense, and inflexible; whereas embroidery relies on flexible threads and stretchable fabrics. This fundamental difference in rigidity and flexibility makes it difficult for the engraved pieces to blend naturally with the embroidered fabric, leading to issues such as bulging, breakage, deformation, and warping in actual use.

[0005] Furthermore, embroidery achieves an embedded connection between thread and fabric through needlework, emphasizing a close integration with the fabric surface. However, engravings are typically attached to the surface through attachment, riveting, or gluing, lacking a natural structural connection to the fabric. This method of attachment makes it difficult to stably secure the edges of the engravings, making them prone to falling off or warping. Furthermore, gluing not only affects aesthetics and durability but can also compromise the breathability and softness of the fabric.

[0006] Ultimately, the above problems may also cause positional deviations between the embroidery and engraving patterns during the splicing process, affecting the precise docking of the overall pattern, resulting in a visual sense of confusion and poor integrity of the finished product. Summary of the Invention

[0007] In view of this, it is necessary to provide a gold embroidery engraving integrated processing method to solve the above problems.

[0008] The embodiment of the present application provides a method for integrated engraving processing of gold embroidery, comprising:

[0009] Obtaining engraving patterns and embroidery patterns, and generating installation mapping position data based on the engraving patterns and embroidery patterns;

[0010] Mapping the mapping position data to a base pattern, and calculating fused finished image data based on the base pattern data and the mapping position data;

[0011] Analyzing the avoidance installation position coordinates based on the fused finished product image data;

[0012] generating substrate generation data according to the avoidance installation position coordinates and the substrate pattern data;

[0013] Processing the substrate according to the substrate generation data to obtain a processed substrate;

[0014] Processing is performed according to the avoidance installation position coordinates and the engraving pattern and the embroidery pattern to obtain processed engraving pieces and embroidery pieces respectively;

[0015] The engraving piece and the embroidery piece are installed on the processed substrate according to the avoidance installation position coordinates to generate a finished product.

[0016] In at least one embodiment of the present application, the step of processing the engraving pattern and the embroidery pattern according to the avoidance installation position coordinates to obtain the processed engraving piece and embroidery piece respectively includes:

[0017] Filtering out engraving installation coordinates from the avoidance installation position coordinates;

[0018] Mapping the engraving installation coordinates onto the engraving pattern to obtain engraving installation data;

[0019] generating pre-welding connection point coordinates according to the engraved installation data;

[0020] Generating welding pins on the engraved pattern according to the coordinates of the pre-welding connection points, and generating welding pin data according to the welding pins;

[0021] The engraving piece is processed according to the welding pin data and the engraving pattern data.

[0022] In at least one embodiment of the present application, the step of generating welding pins on the engraved pattern according to the coordinates of the pre-welding connection points, and generating welding pin data according to the welding pins includes:

[0023] The coordinates of the welding points on the engraved pattern are obtained according to the coordinates of the pre-welding connection points and the engraved pattern.

[0024] In at least one embodiment of the present application, obtaining the coordinates of the welding points on the engraved pattern based on the pre-welding connection point coordinates and the engraved pattern includes:

[0025] Obtaining points on the engraved pattern whose coordinates are within a first threshold range to obtain a physical range point set;

[0026] Taking the coordinates of the pre-welding connection point as the center, two points with the same distance from the coordinates of the pre-welding connection point are selected from the physical range point set to obtain a welding coordinate pair;

[0027] Two parallel welding pins are processed on the engraved pattern according to the welding coordinate pair.

[0028] In at least one embodiment of the present application, the processing according to the substrate generation data to obtain the processed substrate includes:

[0029] The processed substrate is processed according to the welding coordinates to form mounting holes in the processed substrate to obtain a secondary processed substrate.

[0030] In at least one embodiment of the present application, the step of mounting the engraving piece and the embroidery piece on the processed substrate according to the avoidance mounting position coordinates to generate a finished product includes:

[0031] Mounting the engraving piece on the secondary processing base according to the avoidance mounting position coordinates, so that each of the welding pins passes through the mounting hole on the secondary processing base;

[0032] The two welding pins of the welding coordinate pair are welded to fix the engraving piece on the secondary processing substrate.

[0033] In at least one embodiment of the present application, the step of processing the engraving pattern and the embroidery pattern according to the avoidance installation position coordinates to obtain the processed engraving piece and embroidery piece respectively includes:

[0034] Filtering out embroidery installation coordinates from the avoidance installation position coordinates;

[0035] Mapping the embroidery installation coordinates to the base pattern, and processing a preset connecting line on the secondary processing base according to the embroidery installation coordinates to obtain a primary processing base;

[0036] Obtaining embroidery connection data on the embroidery pattern according to the embroidery installation coordinates;

[0037] A mounting line is reserved during the processing of the embroidery pattern according to the embroidery connection data, and the embroidery piece is processed according to the embroidery connection data and the embroidery pattern.

[0038] In at least one embodiment of the present application, the step of mounting the engraving piece and the embroidery piece on the processed substrate according to the avoidance mounting position coordinates to generate a finished product includes:

[0039] The connection between the primary processing base and the embroidery piece is sewn according to the preset connection line and the installation line, so that the preset connection line and the installation line are cross-stitched to obtain a finished product after sewing.

[0040] In at least one embodiment of the present application, the method further includes:

[0041] The welding points of the two welding pins are polished.

[0042] In at least one embodiment of the present application, the method further includes:

[0043] The finished product is deburred and polished.

[0044] The engraving integrated processing method of the gold embroidery product of the present embodiment will have at least the following

[0045] Beneficial effects:

[0046] The above-mentioned integrated engraving processing method for gold embroidery first obtains a predetermined engraving pattern and an embroidery pattern, and generates a set of installation mapping position data for subsequent alignment by analyzing the spatial relationship and pattern features of the engraving pattern and the embroidery pattern.

[0047] The installation position data is mapped to the entire base pattern, and a fused finished product image data is obtained through fusion calculation. The avoidance installation position coordinates are extracted from the fused image to ensure that the installation of the engraving will not interfere with the coordinate points of the embroidery line.

[0048] Based on the avoidance installation position coordinates and the base pattern data, the base generation data for the equipment processing is generated. The base generation data guides the equipment to accurately process the base material such as fabric, and finally obtain the processed base.

[0049] According to the avoidance installation position coordinates, the engraving pattern and the embroidery pattern are processed respectively to obtain corresponding engraving pieces and embroidery pieces.

[0050] Finally, the finished carvings and embroidery parts are installed on the pre-processed base according to the avoidance installation coordinates to complete the assembly and form a finished product with a complete structure and coordinated patterns.

[0051] By installing mapping and generating fused images of carved and embroidered patterns, high-precision spatial positioning and coordination of the two types of patterns are achieved, avoiding the problems of pattern dislocation and chaotic arrangement in traditional craftsmanship.

[0052] By avoiding the analysis of the installation position coordinates, the processing areas of the carved parts and the embroidered parts can structurally avoid each other's influence, solving the interference problem between the carved parts and the embroidered parts. BRIEF DESCRIPTION OF THE DRAWINGS

[0053] Figure 1 This is a flow chart of the engraving integrated processing method for gold embroidery products of the present invention;

[0054] Figure 2 is a flow chart of an integrated engraving processing method for gold embroidery in another embodiment;

[0055] Figure 3 The figure is a flow chart of a method for integrated engraving of gold embroidery in another embodiment. DETAILED DESCRIPTION

[0056] The embodiments of the present application will be described below in conjunction with the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments.

[0057] It should be noted that when a component is considered to be "connected to" another component, it can be directly connected to the other component or there may be an intermediate component. When a component is considered to be "disposed on" another component, it can be directly disposed on the other component or there may be an intermediate component. The terms "top", "bottom", "upper", "lower", "left", "right", "front", "back", and similar expressions used herein are for illustrative purposes only.

[0058] The following embodiments of the present application are described in detail with reference to the accompanying drawings. In the absence of conflict, the following embodiments and features therein may be combined with each other.

[0059] The embodiment of the present application provides a method for integrated engraving processing of gold embroidery, comprising:

[0060] S101, obtaining a carving pattern and an embroidery pattern, and generating installation mapping position data according to the carving pattern and the embroidery pattern;

[0061] S102, mapping the mapping position data to a base pattern, and calculating fused finished image data based on the base pattern data and the mapping position data;

[0062] S103, analyzing the avoidance installation position coordinates based on the fused finished product image data;

[0063] S104, generating substrate generation data according to the avoidance installation position coordinates and the substrate pattern data;

[0064] S105, processing the substrate according to the substrate generation data to obtain a processed substrate;

[0065] S106, processing the engraving pattern and the embroidery pattern according to the avoidance installation position coordinates to obtain a processed engraving piece and an embroidery piece respectively;

[0066] S107 , installing the engraving piece and the embroidery piece on the processed substrate according to the avoidance installation position coordinates to generate a finished product.

[0067] Please refer to Figure 1-Figure 3 In this embodiment, first, a predetermined engraving pattern and an embroidery pattern are obtained, and a set of installation mapping position data for subsequent alignment is generated by analyzing the spatial relationship and pattern features of the engraving pattern and the embroidery pattern.

[0068] The installation position data is mapped to the entire base pattern, and a fused finished product image data is obtained through fusion calculation. The avoidance installation position coordinates are extracted from the fused image to ensure that the installation of the engraving will not interfere with the coordinate points of the embroidery line.

[0069] Based on the avoidance installation position coordinates and the base pattern data, the base generation data for the equipment processing is generated. The base generation data guides the equipment to accurately process the base material such as fabric, and finally obtain the processed base.

[0070] According to the avoidance installation position coordinates, the engraving pattern and the embroidery pattern are processed respectively to obtain corresponding engraving pieces and embroidery pieces.

[0071] Finally, the finished carvings and embroidery parts are installed on the pre-processed base according to the avoidance installation coordinates to complete the assembly and form a finished product with a complete structure and coordinated patterns.

[0072] By installing mapping and generating fused images of carved and embroidered patterns, high-precision spatial positioning and coordination of the two types of patterns are achieved, avoiding the problems of pattern dislocation and chaotic arrangement in traditional craftsmanship.

[0073] By avoiding the analysis of the installation position coordinates, the processing areas of the carved parts and the embroidered parts can structurally avoid each other's influence, solving the interference problem between the carved parts and the embroidered parts.

[0074] In at least one embodiment of the present application, the step of processing the engraving pattern and the embroidery pattern according to the avoidance installation position coordinates to obtain the processed engraving piece and embroidery piece respectively includes:

[0075] S201, selecting engraving installation coordinates from the avoidance installation position coordinates;

[0076] S202, mapping the engraving installation coordinates to the engraving pattern to obtain engraving installation data;

[0077] S203, generating the coordinates of the pre-welding connection points according to the engraving installation data;

[0078] S204, generating welding pins on the engraved pattern according to the coordinates of the pre-welding connection points, and generating welding pin data according to the welding pins;

[0079] S205 : Processing the engraving piece according to the welding pin data and the engraving pattern data.

[0080] Please refer to Figure 1-Figure 3 In this embodiment, first, from the resolved avoidance installation position coordinates, the coordinate points specifically used for the installation of the engraving component are selected, which are called engraving installation coordinates. This ensures that the processing position of the subsequent engraving component does not conflict with the embroidery area, achieving a reasonable spatial layout.

[0081] The above engraving installation coordinates are accurately mapped to the original engraving pattern to generate engraving installation data. This is used to describe the specific installation area and spatial position of the engraving in the pattern, providing a basis for subsequent welding point layout and engraving production.

[0082] Based on the engraving installation data, the engraving pattern is further screened for several pre-welding connection point coordinates for later installation and fixation. The pre-welding connection point coordinates are designed as structural connection locations for later welding, ensuring that the engraving can be firmly fixed to the base through welding during installation.

[0083] At the coordinates of the pre-welded connection points, welding pins—physical structures that actually connect (such as raised columns or sheet-like extensions)—are formed within the engraved pattern through machining. The system then generates a set of welding pin data, including detailed information such as pin size, position, and orientation, to guide the physical manufacturing of the engraved part.

[0084] Finally, the specific engraving process is performed by combining the welding pin data and the original engraving pattern data, and finally a engraving part with a welding structure that meets the installation requirements is obtained for subsequent integrated installation with the substrate.

[0085] By setting welding pins for the carving parts and matching the corresponding welding points, a rigid physical connection between the carving components and the base is achieved, replacing the traditional gluing method and significantly improving the firmness and service life of the finished product.

[0086] By accurately mapping the avoidance coordinates to the engraving pattern and combining data-driven generation of pin points and structures, the processing and installation of the engraving parts are highly matched with the design coordinates, effectively avoiding the common problems of misalignment, deviation, and unstable installation in traditional manual installation.

[0087] In at least one embodiment of the present application, the step of generating welding pins on the engraved pattern according to the coordinates of the pre-welding connection points, and generating welding pin data according to the welding pins includes:

[0088] The coordinates of the welding points on the engraved pattern are obtained according to the coordinates of the pre-welding connection points and the engraved pattern.

[0089] Please refer to Figure 1-Figure 3 In this embodiment, the coordinates of the welding points on the engraved pattern are obtained based on the coordinates of the pre-welding connection points and the engraving pattern. Based on the spatial relationship between the coordinates of the pre-welding connection points and the engraving pattern, the system selects or generates specific position points suitable for forming welding pins, namely, the welding point coordinates, by matching the coordinate position and the pattern structure. The welding point coordinates are the precise coordinate basis for the subsequent actual processing of welding pins (such as metal columns, pins, etc.) on the engraved parts.

[0090] Based on the pre-welding connection point coordinates and engraved patterns, accurate welding point coordinates are generated to avoid welding points falling on fragile, edge or unsuitable locations for reinforcement, ensuring the strength of subsequent welding structures.

[0091] This avoids problems such as deviation, misalignment, and overlap that may be caused by pin settings under traditional manual experience judgment, and improves overall assembly accuracy and process yield.

[0092] In at least one embodiment of the present application, obtaining the coordinates of the welding points on the engraved pattern based on the pre-welding connection point coordinates and the engraved pattern includes:

[0093] Obtaining points on the engraved pattern whose coordinates are within a first threshold range to obtain a physical range point set;

[0094] Taking the coordinates of the pre-welding connection point as the center, two points with the same distance from the coordinates of the pre-welding connection point are selected from the physical range point set to obtain a welding coordinate pair;

[0095] Two parallel welding pins are processed on the engraved pattern according to the welding coordinate pair.

[0096] Please refer to Figure 1-Figure 3In this embodiment, first, a first threshold range is set within the engraved pattern around the coordinates of the pre-welding connection point (i.e., a certain radius or distance threshold is manually preset), and all physical points on the pattern are screened out within the first threshold range (i.e., valid points in the pattern that can be used to construct the welding structure), forming a physical range point set, which limits the range of the pin setting and ensures that subsequent operations will not deviate from the pattern body or fall into an invalid area.

[0097] For example, the coordinates of the pre-welding connection point are (1, 2), and the first threshold range is r=3, then the entity range point set is all coordinate points with (1, 2) as the center point and a radius of 3.

[0098] With the pre-welding connection point as the center, two points equidistant from the center point are selected from the above-mentioned physical range points; these two points constitute a welding coordinate pair, that is, the final processing target position of the welding pin. Since the distance from the center is equal, the coordinate pair constitutes a relatively balanced and symmetrical structure in space, providing a balanced force basis for the welded part.

[0099] Based on the selected welding coordinate pairs, specific processing operations (such as laser cutting, CNC drilling, etc.) are performed on the engraved pattern to prepare two parallel welding pins; these two pins will be used for subsequent connection with the substrate and form a stable physical fixed structure.

[0100] By setting two parallel welding pins to replace the single-point connection, a double-point reinforcement structure is formed. During subsequent welding or installation, it can effectively disperse stress, increase tensile strength, and improve the structural stability of the entire gold embroidery.

[0101] By filtering points equidistantly from the center to form coordinate pairs, the symmetry and equidistant nature of the pin positions can be automatically maintained to avoid human deviation.

[0102] Screen points within a controllable range to ensure that the pin position does not destroy the key areas of the original pattern.

[0103] In at least one embodiment of the present application, the processing according to the substrate generation data to obtain the processed substrate includes:

[0104] The processed substrate is processed according to the welding coordinates to form mounting holes in the processed substrate to obtain a secondary processed substrate.

[0105] Please refer to Figure 1-Figure 3 In this embodiment, the welding coordinate pair is: the coordinate positions of two symmetrically arranged welding pins generated in the engraving pattern. They are the preset points for forming a physical connection between the engraving and the substrate, ensuring a one-to-one correspondence with the welding pins on the engraving and maintaining a parallel or symmetrical distribution.

[0106] On the base after preliminary processing (i.e., the cloth, fabric or composite base material that has been formed but does not yet have a complete mounting structure), the mounting hole processing operation is performed according to the specific position of the above-mentioned welding coordinate pair. The system forms a set of base generation data for CNC or laser equipment to perform processing based on the overall fusion image data, avoidance information and welding coordinate pair, and directly drives the equipment to perform drilling processing at the specified position to form mounting holes that match the welding pins for structural embedding to obtain a secondary processing base.

[0107] The mounting holes directly correspond to the soldering pins on the engraving, allowing for accurate insertion and positioning of the welded parts during subsequent assembly. This ensures that the engraving's assembly position is highly consistent with the design, avoiding misalignment or offset, and ensuring visual and structural unity.

[0108] Through hole processing, the engraving can be firmly fixed to the base by welding or mechanical clamping, forming a stable and reliable bond, avoiding the problems of falling off, deformation, and structural instability existing in traditional bonding methods, and extending the product life.

[0109] In another embodiment, when generating data for preliminary substrate processing, the system uses the information of the welding coordinate pair as the hole position definition condition, embeds the mounting hole structure at the data level, and completes the substrate part with a complete structure in one go during the preliminary processing.

[0110] The mounting holes are reserved during the initial processing, avoiding material tearing, warping or inaccurate hole positioning problems that may occur during secondary punching on flexible fabrics, ensuring the integrity of the fabric surface and helping to maintain the flatness and aesthetics of the embroidery work.

[0111] In at least one embodiment of the present application, the step of mounting the engraving piece and the embroidery piece on the processed substrate according to the avoidance mounting position coordinates to generate a finished product includes:

[0112] Mounting the engraving piece on the secondary processing base according to the avoidance mounting position coordinates, so that each of the welding pins passes through the mounting hole on the secondary processing base;

[0113] The two welding pins of the welding coordinate pair are welded to fix the engraving piece on the secondary processing substrate.

[0114] Please refer to Figure 1-Figure 3 In this embodiment, first, the system positions the completed engraving on the secondary processing base (with reserved mounting holes) based on the avoidance installation position coordinates, that is, the pre-planned safe installation position that does not interfere with the embroidery area, so that each welding pin is precisely aligned and passes through the corresponding mounting hole, ensuring a high degree of match between the engraving and the base in terms of position, direction, inclination, etc.

[0115] After the welding pins pass through the mounting holes of the base, the two welding pins are welded according to the previously set welding coordinates. After welding is completed, the engraving is firmly fixed on the surface of the base, forming a stable connection structure that is not easy to loosen or fall off.

[0116] The welding pins pass through the fabric surface through the mounting holes and are then heat-welded to form a rigid bond with high mechanical strength and durability, making the engraving less likely to loosen or peel under long-term use, bending or tension conditions, greatly extending the service life of the finished product.

[0117] It should be noted that spot welding is used during the welding process.

[0118] Installation is guided by avoiding the installation position coordinates to ensure that the engraving does not interfere with the embroidery area, avoiding destroying the artistic expression or functional arrangement of the pattern.

[0119] The carved pieces are welded to the fabric to form a three-dimensional rigid-flexible structure, enhancing the spatial layering and texture of the embroidery work.

[0120] In at least one embodiment of the present application, the step of processing the engraving pattern and the embroidery pattern according to the avoidance installation position coordinates to obtain the processed engraving piece and embroidery piece respectively includes:

[0121] S301, selecting embroidery installation coordinates from the avoidance installation position coordinates;

[0122] S302, mapping the embroidery installation coordinates to the base pattern, and processing preset connecting lines on the secondary processing base according to the embroidery installation coordinates to obtain a primary processing base;

[0123] S303, obtaining embroidery connection data on the embroidery pattern according to the embroidery installation coordinates;

[0124] S304: reserving an installation line during the processing of the embroidery pattern according to the embroidery connection data, and processing the embroidery piece according to the embroidery connection data and the embroidery pattern.

[0125] Please refer to Figure 1-Figure 3 In this embodiment, the installation point dedicated to the embroidery area is screened out from the avoidance installation position coordinates, namely the "embroidery installation coordinates". The embroidery installation coordinates identify the location area where the embroidery part needs to be installed, and avoid the position of the engraving part to ensure that the two do not interfere with each other.

[0126] The embroidery installation coordinates are projected onto the base pattern, and their corresponding positions on the secondary processing base are identified. Then, preset connecting lines are processed at these positions, that is, base stitch marks or routing channels for subsequent stitching. After completion, a primary processing base with a connection structure is obtained, that is, compared with the secondary base, a structure for docking with the embroidery pieces is added.

[0127] Based on the embroidery installation coordinates, the embroidery connection data related to the connection is extracted from the embroidery pattern. The embroidery connection data is used to control the processing method of the embroidery piece, so that its edge or designated area is structurally connected to the preset connection line.

[0128] During the embroidery processing, installation lines (such as edge reinforcement lines, pre-punched holes, etc.) are reserved for subsequent sewing with the base.

[0129] By setting a connecting line on the base and a mounting line on the embroidery piece, a matching connection structure is formed. The embroidery piece can be firmly assembled on the base through sewing or other flexible connection methods, thereby improving the overall firmness.

[0130] Both the embroidery connection data and the base connection structure are derived from a unified installation coordinate system, enabling precise matching and coordinate docking, providing a standard interface for automated sewing or positioning equipment, and improving assembly efficiency and accuracy.

[0131] In at least one embodiment of the present application, the step of mounting the engraving piece and the embroidery piece on the processed substrate according to the avoidance mounting position coordinates to generate a finished product includes:

[0132] S305 , sewing the connection between the primary processed base and the embroidery piece according to the preset connecting line and the installation line, so that the preset connecting line and the installation line are cross-stitched to obtain a finished product after sewing.

[0133] Please refer to Figure 1-Figure 3 In this embodiment, the preset connecting line is a positioning stitching line or thread groove formed on the primary processing base based on the embroidery installation coordinate processing, which is used to guide the path of the stitching on the base; the installation line is a stitch area reserved for installation and docking according to the embroidery connection data during the embroidery piece processing process, usually located at the edge of the embroidery piece or a specific structure.

[0134] During the installation stage, manual or automatic sewing devices are used to accurately align the preset connecting lines on the primary processed base with the installation lines on the embroidery piece. A cross-stitching method (such as X-shaped, cross-cross or other reinforced sewing methods) is used to establish a physical connection between the two connecting structures to complete the structural connection between the embroidery piece and the base. The sewing line can be made of gold thread or high-strength silk thread consistent with the embroidery process, taking into account both structure and aesthetics.

[0135] After sewing, the embroidery piece is firmly connected to the base surface, and the connection points are hidden within the pattern structure or at the edge transition without affecting the visual integrity.

[0136] At this point, the entire piece of gold embroidery has integrated the carved parts (installed by welding) and the embroidery parts (installed by sewing), forming a finished product with a complete structure and uniform pattern.

[0137] The preset sewing path ensures thread alignment and structural fit, ensuring that the embroidery piece will not loosen due to stress, pulling or friction during use.

[0138] The suture connection form has good flexibility and can adapt to the bending, folding and dynamic deformation requirements of embroidery products.

[0139] Both the connecting lines and the installation lines are digitizable paths that can be used to guide automatic sewing devices to perform precise stitching, improve production efficiency, and reduce dependence on manual operations. They are suitable for industrial mass production scenarios.

[0140] Secondly, cross-stitching provides a multi-point, multi-directional stress dispersion structure, which significantly enhances the fixing force of the embroidery pieces.

[0141] In at least one embodiment of the present application, the method further includes:

[0142] S306: Polishing the welding points of the two welding pins.

[0143] Please refer to Figure 1-Figure 3 In this embodiment, the welding point is the area where the welding pin of the engraving passes through the base and is welded to it. The polishing treatment can be performed by mechanical polishing, manual grinding, micro electric grinder, ultrasonic vibration or chemical polishing, so that the surface of the welding is smooth, without sharp residue, does not cut hands, and the overall transition between the welding point and the base is natural.

[0144] After polishing, the welding point area presents a fine and smooth metallic texture or luster, which is visually coordinated with the embroidered fabric or carved pattern.

[0145] Polishing can remove excess metal or welding burrs at the welding points, making the surface smoother, more delicate and textured. Polishing can effectively eliminate the potential risks of cutting hands, abrading clothing or embroidery threads, and improve the safety performance and applicability of the finished product.

[0146] In at least one embodiment of the present application, the method further includes:

[0147] S307, deburring and polishing the finished product.

[0148] Please refer to Figure 1-Figure 3In this embodiment, during the process of engraving processing (such as laser cutting, CNC engraving), welding fixation, installation and sewing, burrs, debris or tiny protrusions are easily generated on the metal edges or fabric composite areas. A micro-grinding wheel, polishing cloth, flexible grinding head, manual fine file, ultrasonic grinder or pneumatic grinding equipment is used to finely grind the burr area. After grinding, the edge transition of the finished surface is natural, without sharp residues, and the overall texture is smooth and delicate, avoiding burrs scratching the user's skin, snagging clothes or cutting embroidery wire, significantly improving the safety and reliability of the product.

[0149] The above is only an implementation method of the present application. It should be pointed out that for ordinary technicians in this field, improvements can be made without departing from the creative concept of the present application, but these all fall within the scope of protection of the present application.

Claims

1. A method for integrated engraving of gold embroidery, characterized in that: include: Obtaining engraving patterns and embroidery patterns, and generating installation mapping position data based on the engraving patterns and embroidery patterns; Mapping the mapping position data to a base pattern, and calculating fused finished image data based on the base pattern data and the mapping position data; Analyzing the avoidance installation position coordinates based on the fused finished product image data; generating substrate generation data according to the avoidance installation position coordinates and the substrate pattern data; Processing the substrate according to the substrate generation data to obtain a processed substrate; Processing is performed according to the avoidance installation position coordinates and the engraving pattern and the embroidery pattern to obtain processed engraving pieces and embroidery pieces respectively; The engraving piece and the embroidery piece are installed on the processed substrate according to the avoidance installation position coordinates to generate a finished product.

2. The method for integrated engraving of gold embroidery according to claim 1, characterized in that: The step of processing the engraving pattern and the embroidery pattern according to the avoidance installation position coordinates to obtain the processed engraving piece and embroidery piece respectively includes: Filtering out engraving installation coordinates from the avoidance installation position coordinates; Mapping the engraving installation coordinates onto the engraving pattern to obtain engraving installation data; generating pre-welding connection point coordinates according to the engraved installation data; Generating welding pins on the engraved pattern according to the coordinates of the pre-welding connection points, and generating welding pin data according to the welding pins; The engraving piece is processed according to the welding pin data and the engraving pattern data.

3. The method for integrated engraving of gold embroidery according to claim 2, characterized in that: The steps of generating welding pins on the engraved pattern according to the coordinates of the pre-welding connection points and generating welding pin data according to the welding pins include: The coordinates of the welding points on the engraved pattern are obtained according to the coordinates of the pre-welding connection points and the engraved pattern.

4. The method for integrated engraving of gold embroidery according to claim 3, characterized in that: The step of obtaining the coordinates of the welding points on the engraved pattern according to the pre-welding connection point coordinates and the engraved pattern comprises: Obtaining points on the engraved pattern whose coordinates are within a first threshold range to obtain a physical range point set; Taking the coordinates of the pre-welding connection point as the center, two points with the same distance from the coordinates of the pre-welding connection point are selected from the physical range point set to obtain a welding coordinate pair; Two parallel welding pins are processed on the engraved pattern according to the welding coordinate pair.

5. The method for integrated engraving of gold embroidery according to claim 4, characterized in that: The processing according to the substrate generation data to obtain the processed substrate comprises: The processed substrate is processed according to the welding coordinates to form mounting holes in the processed substrate to obtain a secondary processed substrate.

6. The method for integrated engraving of gold embroidery according to claim 5, characterized in that: The step of installing the engraving piece and the embroidery piece on the processed substrate according to the avoidance installation position coordinates to generate a finished product includes: Mounting the engraving piece on the secondary processing base according to the avoidance mounting position coordinates, so that each of the welding pins passes through the mounting hole on the secondary processing base; The two welding pins of the welding coordinate pair are welded to fix the engraving piece on the secondary processing substrate.

7. The method for integrated engraving of gold embroidery according to claim 6, characterized in that: The step of processing the engraving pattern and the embroidery pattern according to the avoidance installation position coordinates to obtain the processed engraving piece and embroidery piece respectively includes: Filtering out embroidery installation coordinates from the avoidance installation position coordinates; Mapping the embroidery installation coordinates to the base pattern, and processing a preset connecting line on the secondary processing base according to the embroidery installation coordinates to obtain a primary processing base; Obtaining embroidery connection data on the embroidery pattern according to the embroidery installation coordinates; A mounting line is reserved during the processing of the embroidery pattern according to the embroidery connection data, and the embroidery piece is processed according to the embroidery connection data and the embroidery pattern.

8. The method for integrated engraving of gold embroidery according to claim 7, characterized in that: The step of installing the engraving piece and the embroidery piece on the processed substrate according to the avoidance installation position coordinates to generate a finished product includes: The connection between the primary processing base and the embroidery piece is sewn according to the preset connection line and the installation line, so that the preset connection line and the installation line are cross-stitched to obtain a finished product after sewing.

9. The method for integrated engraving of gold embroidery according to claim 6, characterized in that: The method further comprises: The welding points of the two welding pins are polished.

10. The method for integrated engraving of gold embroidery according to claim 1, characterized in that: The method further comprises: The finished product is deburred and polished.

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