2026-2027 Global Footwear Industry Full Chain Layout and Practical Technology Ultimate Guide
In the context of a deep restructuring of the global footwear supply chain, continuous capacity transfer to ASEAN and South Asia, and unprecedented tightening of green trade barriers in Europe and America, enterprises across the entire industry chain are facing structural changes and challenges. Currently, finished shoe manufacturers, suppliers of upper and sole materials, shoe machinery manufacturers, and footwear chemical companies are generally facing three core development pain points: the normalization of compliance audits, intensified low-price competition in the industry, and difficulties in mass production of new materials. To help industry practitioners accurately grasp the development rhythm of the industry from 2026 to 2027, lock in quality trade channels, tackle technical compliance challenges, and implement practical production solutions, this article comprehensively summarizes the schedule of core global footwear exhibitions, the competitive landscape and development trends of the industry, key technical points and compliance guidelines for all categories of shoe materials and auxiliary materials, and specifically introduces the practical implementation plan for the 2027 Guangzhou GISMA Intelligent Shoe Machinery Exhibition, forming a comprehensive industry guide covering trade, technology, compliance, and operations. The entire text is presented in plain text format, without complex charts, making it easy for practitioners to copy, search, edit, and implement.
I. Schedule of Core Global Footwear Industry Chain Exhibitions from July 2026 to June 2027
This exhibition cycle covers manufacturing bases in Southeast Asia and South Asia, China's innovation hubs, high-end markets in Europe and America, and emerging global blue ocean markets, precisely matching core demands such as supply chain relocation, high-end order connections, new material and technology investment, and blue ocean market development. It serves as a core reference for enterprises across the entire industry chain to layout their annual market strategies.
(1) Core Manufacturing Base Exhibitions in Southeast Asia and South Asia (Following the Core Position of Supply Chain Relocation)
As the core receiving area for the transfer of global footwear production capacity, local exhibitions in Southeast Asia and South Asia are continuously expanding in scale, serving as a core trade platform for domestic enterprises to expand overseas, connect with local OEM factories, and export shoe machinery, materials, and chemical products.
Ho Chi Minh City, Vietnam, will host the 2026 Vietnam International Intelligent Shoe Machinery, Shoe Materials & Industrial Equipment Exhibition from October 14 to 17, 2026. This is a flagship exhibition with significant industry influence in Southeast Asia, covering trade connections for all categories of shoe machinery, materials, finished shoes, as well as sewing equipment and garment printing industries.
Two major core footwear exhibitions in Jakarta, Indonesia, are being held simultaneously. The Indonesia International Shoe Machinery and Materials Exhibition will take place from June 18 to 20, 2026, focusing on retail of mass-produced finished shoes, OEM cooperation, and trade of fashionable shoe components, covering both terminal and supporting demands.
Bangkok, Thailand Asian Fashion and Footwear Materials Expo, held from July 9-11, 2026, focuses on wholesale finished shoes, special rubber soles, and chemical raw materials for shoemaking. Phnom Penh, Cambodia International Sourcing Fair for Textiles, Accessories & Footwear Industry (CTG & CITAT), held from August 13-16, 2026, directly targets large multinational shoe OEMs in Cambodia, with a core focus on automated shoe machinery and procurement needs for midsoles and upper materials. Dhaka, Bangladesh International Leathertech Bangladesh, held from December 3-5, 2026, is a core procurement event in the low-cost footwear manufacturing sector of South Asia, suitable for companies looking to deploy supporting production capacity in the South Asian market.
(II) Exhibitions in China and Hong Kong, China (Global Supply Chain Innovation and High-End Trade Hub)
As the core hub of the global footwear industry supply chain, China relies on its complete industrial supporting facilities and innovation capabilities to firmly hold a core position in the global R&D of shoe materials, chemicals, and intelligent shoemaking equipment. Local exhibitions in China and Hong Kong focus on high-end, innovative, and international business matchmaking.
The All China Leather Exhibition (ACLE) in Shanghai, held from September 1-3, 2026, and expected to continue in September 2027, is the core display and trading platform for the world's leading companies in raw hides, semi-finished leather, and shoemaking chemicals (dyes, curing agents, treatment agents), dominating the global trade of shoemaking chemical raw material supply chains. The APLF Leather & Materials+ (Hong Kong Return Edition) in Hong Kong, held from March 31 to April 2, 2027, at the Hong Kong Convention and Exhibition Centre in Wan Chai, gathers high-value professional buyers from around the world and is the core international business center for high-end leather, shoe components, and premium raw and auxiliary materials.
The two major industry exhibitions in Guangzhou in May 2027, held back-to-back in South China, are the annual core highlights, forming a super attraction matrix for global OEM procurement directors. They serve as a key window for domestic enterprises to showcase smart shoemaking technology and connect with high-end global orders. The Guangdong International Intelligent Shoemaking Machinery and Materials Exhibition (GISMA Guangzhou 2027) will be held from May 27 to 29, 2027, at the Poly World Trade Expo Center, focusing on cutting-edge technologies such as 3D digital shoemaking, intelligent sewing machines, CNC cutting equipment, and fully automated shoemaking production lines. Industry itinerary suggestion: Practitioners can reserve about 10 days for a trip to visit both exhibitions, first connecting with high-quality traditional fabric and accessory resources, then delving into intelligent shoemaking technology and digital production solutions.
(III) European Market Exhibitions (Core Hub for High-End Design, Top Craftsmanship, and Bulk Orders)
Europe controls the global footwear industry's high-end pricing power and fashion design trends. Its local exhibitions have clear tiers, catering to both high-end brand orders and mass-market trade orders, making them a key channel for enterprises to connect with global premium clients and benchmark cutting-edge craftsmanship.
Italy Garda International Finished Shoes and Bags Exhibition (Expo Riva Schuh & Gardabags), held in multiple sessions from June 13-16, 2026, January 16-19, 2027, and June 2027, is the earliest opening and largest order volume trade fair for mid-to-low-end and mass-market fashion finished shoes in Europe, focusing on bulk order matching. Milan International Footwear Exhibition (MICAM Milano), held from September 13-15, 2026, February 21-23, 2027, and continuing in September 2027, is a globally authoritative core ordering exhibition for mid-to-high-end branded finished shoes and fashion footwear, leading the global high-end fashion trends in the footwear industry.
Milan International Leather, Footwear Materials and Accessories Exhibition (LINEAPELLE), held from September 15-17, 2026, and in late February 2027 in sync with MICAM, is a global innovation benchmark for high-end leather and fashionable footwear raw materials, guiding the annual direction of footwear material design and material iteration. Milan International Shoe Machinery and Tanning Technology Exhibition (Simac Tanning Tech), held from September 15-17, 2026, gathers the world's top high-precision shoe machinery, molds, and leather automation equipment, serving as the core display platform for high-end production technology iteration in the industry.
Germany Düsseldorf Shoe Fair (Shoes Düsseldorf), held from August 30 to September 1, 2026, and in February-March 2027, focuses on European local independent retailers and high-end boutique resources, specializing in boutique finished shoe ordering trade. Turkey Istanbul International Footwear Accessories and Shoe Industry Exhibition (AYSAF EXPO), held from November 11-13, 2026, radiates to the Middle East, North Africa, and Eastern European markets, serving as the core trade hub for footwear components and the shoe industry in the region.
(IV) Exhibitions in the Americas, Middle East, and Other Blue Ocean Markets
Markets in the Americas, the Middle East, and Russia have stable consumer demand and relatively low competitive pressure, making them core blue ocean regions for footwear enterprises to break through involution and explore incremental markets.
Las Vegas, USA Sourcing at MAGIC, held from August 10-12, 2026, and expected to continue in mid-February 2027, is the largest wholesale finished shoe procurement exhibition in North America, covering mass-market sports, fashion, and outdoor footwear orders. Leon, Mexico International Footwear and Leather Fair (SAPICA), held from August 11-13, 2026, is a key springboard for Chinese companies to enter the Latin American footwear consumer market and OEM supply chain. Novo Hamburgo, Brazil Footwear and Leather Fair (FENAC), expected to be held in March 2027, is the largest full-industry-chain footwear exhibition in South America, covering raw hides, fully automatic shoe machinery, and all categories of footwear materials and components.
Dubai, UAE International Footwear and Leather Fair (DIFLEX Dubai Expo), held from December 8-10, 2026, is a core bridge for companies to enter the high-end finished shoe consumer market in the Middle East and expand high-end leather goods trade. Moscow, Russia International Footwear and Leather Fair (MOSSHOES), held from August 25-28, 2026, and continuing in March 2027, stably covers Russia, Belarus, and the five Central Asian countries, serving as the most stable order trading platform for finished shoes and leather products in the region.
II. Global Footwear Exhibition Market Competition Landscape and Core Development Trends (2026-2027)
(I) Market Competition Status: Three Major Camps Divided, Industry Competition Intensifies
The current global footwear exhibition market shows a significant Matthew effect, with three major camps solidified and differentiated competitive dynamics. The European camp monopolizes global high-end orders and pricing power, leveraging Milan MICAM and LINEAPELLE high-end joint exhibitions to control the discourse in the luxury footwear market, while using the GDS exhibition to secure large-volume mass orders, establishing a high barrier for professional buyers and long-term dominance of the global high-end footwear trade system.
The Chinese exhibition camp is caught in homogeneous hand-to-hand combat, with dense layouts of industry exhibitions in South China and East China. In May 2027, the Guangzhou Xianhui Exhibition and the GISMA Smart Shoe Machinery Exhibition will be held concurrently. On one hand, this enriches trade resources; on the other hand, it poses significant challenges to exhibitors' budgets and buyer traffic diversion, making it increasingly difficult for small and medium-sized exhibitors to acquire customers.
Exhibitions in Southeast Asia and South Asia are fully reaping the benefits of production capacity relocation. The scale of core footwear exhibitions in Vietnam and Indonesia has seen explosive growth year after year. Local exhibitions are no longer limited to local trade; they have become core implementation scenarios for Chinese shoe machinery and footwear chemical companies to expand overseas, acquire customers, and achieve market penetration, undertaking all supporting trade demands brought by the global supply chain shift.
(II) Three Irreversible Industry Upgrade Trends
First, the industry is shifting comprehensively from traditional physical property transactions to full-chain compliance competition. In the past, exhibition transactions and customer cooperation only focused on physical properties like product traction and wear resistance. Now, overseas brand buyers and large OEM factories primarily audit compliance qualifications such as GRS, LWG, REACH, and ZDHC. Environmental compliance and sustainable production have become the first entry barrier for footwear companies participating in global trade. Without compliance qualifications, companies will directly lose order eligibility.
Second, footwear material technology is iterating towards low-carbon, ultra-lightweight, and physical foaming directions. Traditional AC chemical foaming technology and related materials are rapidly being marginalized in industry exhibitions and mass production scenarios. Supercritical fluid nitrogen physical foaming technology and low-carbon bio-based materials have become mainstream. Lightweight, low-residue, and recyclable environmentally friendly materials have completely replaced traditional high-pollution, high-residue materials, becoming the core competitiveness of products.
Third, production equipment is comprehensively upgrading towards AI intelligence, full automation, and digitalization. Traditional manual and semi-automatic shoe stitching machines are gradually withdrawing from mainstream production lines. Intelligent glue-spraying robotic arms adapted to water-based environmentally friendly adhesive systems, equipped with AI visual recognition and 3D curvature automatic adaptation, along with fully automatic molding production lines, have become the core advantages for companies to win high-end overseas orders. Digital and intelligent production capabilities are replacing traditional production scale to become the core competitive barrier.
III. Core Technologies and Compliance FAQ for Footwear Materials, Footwear Chemicals, and All Categories of Raw and Auxiliary Materials
(I) Technical Key Points for Footwear Adhesives and Surface Treatment Chemicals
1. Selection and adaptation rules for mainstream shoe adhesives. Oil-based PU adhesive uses organic solvents as carriers, offering strong bonding, fast curing, and excellent water, heat, and flex resistance. It is suitable for mainstream substrates such as EVA, polyurethane, rubber, and TPR, and is widely used in mass production of sports shoes and dress shoes for upper-to-sole bonding. Water-based PU adhesive uses water as a diluent, with extremely low VOCs content, making it the designated adhesive for environmentally mandatory orders in Europe and America. However, it requires strict drying processes, needing thorough drying at 60°C-65°C until the adhesive film becomes transparent for activation and bonding; otherwise, false drying and delamination issues may occur. CR neoprene contact adhesive offers strong initial tack, good film elasticity, a long open time, and excellent wetting properties for leather and fabrics. It is mainly used in moccasin shoe forming, Goodyear welt processes, upper edge folding positioning, and lining-to-insole bonding, but its poor creep resistance makes it unsuitable for high-stress upper-to-sole main bonding layers.
2. Core functions and application principles of shoe primers. Main sole materials such as EVA, PP, TPR, and cold-vulcanized rubber are non-polar, highly crystalline polymer materials with low surface energy and natural hydrophobicity and adhesive resistance. Direct adhesive application cannot form effective bonding. Primers, as surface activators, swell the substrate surface with solvents, anchoring polar groups onto the substrate to provide chemical bonding points for the adhesive. Different substrates require specific primers: EVA soles need dedicated EVA primers to remove molded wax and silicone release agents; rubber soles require chlorinated primers for surface etching and acidification. Missing, insufficient, or incorrect primer application will directly lead to large-scale upper-to-sole delamination failures in mass production.
3. Curing agent mixing and usage specifications. Curing agents are mostly polyisocyanate compounds. When mixed with PU adhesive, they form a three-dimensional cross-linked network structure, significantly enhancing the heat resistance, hydrolysis resistance, and peel resistance of the adhesive layer, preventing issues such as sole detachment under sunlight exposure or water immersion. In mass production, the mixing ratio must be strictly controlled at 3%-5% of the main adhesive weight. A ratio too low fails to achieve effective cross-linking, while a ratio too high makes the adhesive layer excessively hard, brittle, and prone to cracking. The mixed adhesive has a pot life of only 4-8 hours; beyond this time, the molecular chains become ineffective and cannot be reactivated.
4. Technical principles and standards for anti-yellowing of shoe materials. White and light-colored shoe materials such as PU leather, EVA, TPU, and adhesive threads are prone to yellowing under the effects of ultraviolet light, high temperatures, and nitrogen oxides. The mainstream industry solution involves adding UV absorbers, hindered amine light stabilizers (HALS), and antioxidants during raw material production to block the yellowing reaction. The industry-standard testing method uses a gray scale rating of 1-5, with high-end European and American brands generally requiring an anti-yellowing rating of level 4 or above, capable of withstanding 12-24 hours of UV exposure without discoloration.
(2) Differences in the application of upper materials and molding reinforcement auxiliaries
1. Core value of TPU hot melt adhesive film. Modern sports shoe mesh and 3D fly knitted upper fabrics have large pores and strong elasticity, making them prone to fraying and loose threads during cutting and sewing, failing to secure the shoe shape. TPU hot melt adhesive film can be bonded to the back of the fabric through high-frequency heat lamination, achieving upper reinforcement and shaping, preventing thread tearing. It is also a core foundational material for seamless heat pressing, KPU embossing, eyelet reinforcement, and heel counter shaping, making it an essential auxiliary material for modern lightweight sports shoe production.
2. Differences in insole board material selection. Fiberboard is made from wood fiber, cotton fiber, and latex pressed together under heat. It is low-cost, has good moisture absorption, and stable hardness, commonly used for heel reinforcement and full-length insoles in ordinary fashion shoes and mass-market sports shoes. Leather fiberboard is made by crushing and polymerizing genuine leather scraps, offering leather-grade folding resistance, resilience, and toughness, with water resistance far superior to fiberboard. It is the core insole material for high-end dress shoes and mid-to-high-end women's shoes. High-carbon steel shanks are specifically designed for high heels and arch-support casual shoes. Embedded inside the insole board, they support body weight, maintain the shoe's anti-twist structure, and prevent heel breakage or collapse.
3. Guidelines for selecting counter (stiffener) materials. The counter is a rigid shaping piece located at the toe and heel of the shoe, directly determining the stability of the shoe's appearance and contour. Traditional chemical-impregnated counters require solvent soaking to soften and shape, offering high and irreversible hardness but causing severe pollution and cumbersome operation. They are gradually being phased out, with limited use in safety shoes, military boots, and heavy-duty马丁靴 (Martens-style boots). Low-temperature hot melt counters are made of TPU polymer hot melt material, which can be heated and softened for shaping at 80°C-110°C. They allow for secondary modification, have no solvent residue, and are environmentally friendly, making them the mainstream choice for large-scale production of sports shoes and branded leather shoes.
(3) Core Technologies of Sole Materials and Mixing/Chemical Engineering
1. Physical properties and application scenarios of five mainstream sole materials. RB (Rubber) vulcanized rubber soles offer excellent wear resistance, slip resistance, and tear resistance, with ample elasticity. Disadvantages include heavy weight, high production pollution, and non-biodegradability. They are mostly used in professional basketball shoes, outdoor hiking shoes, and durable safety shoes. EVA material is extremely lightweight, soft, and cushioning, easy to color and process, suitable for midsole of jogging shoes, lightweight casual shoes, and slippers. However, long-term wear can lead to compression deformation and sole collapse. TPR (Thermoplastic Rubber) can be directly injection molded, has a short production cycle, and allows 100% recycling of scrap material, with low cost. However, its wear resistance and low-temperature performance are poor, making it suitable for fast-fashion dress shoes and ordinary casual shoes. PU (Polyurethane) foam has low density, a high-end feel, lasting resilience, and strong fatigue resistance, suitable for high-end business leather shoes, elderly shoes, and medical work shoes. Its disadvantage is susceptibility to hydrolysis and crumbling damage during long-term storage. TPU (Thermoplastic Polyurethane) has high mechanical strength, wear and puncture resistance, and a wide adjustable hardness range. It is relatively heavy and prone to oxidative yellowing, commonly used in functional components such as football shoe studs and stability plates for high-end running shoes.
2. Advantages of supercritical physical foaming technology upgrade. Traditional chemical foaming relies on AC foaming agents to decompose and produce gas at high temperatures, resulting in uneven foam pore sizes and residual harmful substances such as ammonia and formamide in the finished product, making it less environmentally friendly. Supercritical fluid physical foaming technology uses high-pressure nitrogen and carbon dioxide as physical foaming agents, which are injected into TPU and PEBAX resin particles. Microporous formation is achieved through instantaneous pressure reduction, with no chemical additive residues, making it green and environmentally friendly. The rebound rate of the finished product increases from 50% to 70%-80%, and the weight is reduced by nearly half. This is the core production technology for current high-end lightweight shoe soles.
3. Application principle of wear-resistant and anti-slip additives for shoe soles. Wear-resistant additives are mostly ultra-high molecular weight silicone powder and modified polymer materials. After being mixed in the rubber mixing stage, they can significantly reduce Akron and DIN abrasion test losses without changing the hardness of the sole, thereby improving the wear life of the sole. Anti-slip additives use modified silicone gel and nano-inorganic fillers, which can destroy the water film on the ground, increase the contact area of the sole, significantly enhance the anti-slip performance on wet, slippery, and oily surfaces, and help the finished shoes pass the highest EU SRC anti-slip certification.
4. Special practical solution for closed-loop implementation of core technology and compliance pain points
(1) Full-process rectification plan for EVA outsole delamination in finished shoe factories
To address the batch delamination problem caused by residual mold release agent and low surface energy of EVA soles, a three-step closed-loop process of physical cleaning, chemical activation, precise adhesive application, and high-pressure pressing must be implemented. First, carry out physical + chemical dual cleaning. Roughly grind and sand the bonding area of the formed EVA sole surface with a coarse grinding wheel to remove the foamed glossy surface and wax layer. For irregular grooves that cannot be ground, use a lint-free cloth with screen cleaning solvent to wipe unidirectionally, thoroughly removing silicone oil residues. Second, precisely control the application and activation of the treatment agent. Evenly brush the special EVA UV treatment agent, and use a UV curing machine to stably output energy of 800-1200 mJ/cm² to ensure sufficient crosslinking of the groups. For heat-activated treatment agents, lock the baking temperature at 60℃-65℃ and hold for 3-5 minutes to ensure complete solvent evaporation. Finally, standardize the adhesive mixing and pressing process. Add curing agent to PU adhesive at a ratio of 3%-5%, stir for more than 5 minutes, and use within 4 hours. After bonding, use an automatic sole pressing machine to apply a stable pressure of 3.5-4.5 kg/cm² for more than 5 seconds. The finished product tensile test must meet the standard of substrate rupture to prevent false adhesion.
(2) Optimization plan for drying efficiency of water-based PU adhesive
To address the pain points of residual moisture and false drying leading to delamination with water-based adhesives, upgrades are made from four dimensions: formula optimization, segmented temperature control, air circulation system, and heating equipment. At the formula level, increase the solid content of the water-based adhesive to 48%-52% to reduce the total amount of water from the source. Use a thickener to stabilize the brushing viscosity at 2500-3500 mPa.s at 25℃, ensuring uniform and controllable adhesive film thickness. The drying line adopts a three-stage gradient temperature control. The first flash-off zone occupies 1/4 of the drying line length, at 45℃-50℃, to smoothly evaporate surface moisture and prevent blistering and wrinkling of the adhesive film. The second main drying zone occupies 1/2 of the length, at 65℃-75℃ combined with near-infrared radiation, to completely vaporize internal moisture. The third activation zone is at 75℃-85℃ to achieve melting and activation of the adhesive film and enhance initial tack. Simultaneously, upgrade the air circulation and dehumidification system, maintaining an oven wind speed of 3.5-5.0 m/s and an exhaust volume of 1500-2500 cubic meters per hour, stably controlling the internal humidity below 30%. Completely replace traditional far-infrared heating equipment with a near-infrared heating matrix with a wavelength of 0.76-1.6 microns, achieving simultaneous heating of the adhesive layer from the inside out, improving drying efficiency by more than 50%.
(III) Implementation Plan for International Environmental Compliance Systems
In terms of EU REACH regulations and RSL/MRSL control, strictly manage SVHC substances such as phthalate plasticizers, carcinogenic azo dyes, and dimethyl fumarate in shoe materials, adhesives, and leather. The content of any single substance must not exceed 0.1% to avoid risks of detention, recall, and fines. For leather products, strictly control hexavalent chromium content, which must be below 3 mg/kg or completely undetected, and eliminate oxidation issues from the source through tanning chemicals and production processes.
In terms of GRS recycled certification compliance, the proportion of recycled materials in products must meet standards. If the recycled content of a single auxiliary material is ≥20%, the recycled attribute can be indicated; if ≥50%, the environmental recycling ratio can be clearly disclosed. Each transaction link in the entire industry chain must fully apply for TC transaction certificates to prevent certificate gaps and ensure the product's compliance for labeling.
In terms of LWG leather certification implementation, enterprises must possess a complete environmental impact assessment report, pollutant discharge permit, and an independent wastewater treatment system to ensure the leather source is legal and traceable. Strictly control water and electricity consumption, chemical usage, and hazardous waste treatment, and implement safety production and social responsibility standards. The audit adopts a single-item veto system. Even if most modules meet the standards, failure in core environmental protection and safety modules will directly lead to downgrading or audit failure. Therefore, production control processes must be refined in all aspects.
V. Practical Business Development Suggestions for All Roles in the Industry Chain
(I) Finished Shoe Factories: Stabilize the High-End Market and Differentiate ODM to Break Through
Use compliance qualifications as core negotiation leverage. When connecting with high-end European orders or participating in overseas exhibitions, proactively present BSCI and SEDEX social responsibility audit reports, as well as upstream GRS and LWG compliance certificates, to build trust barriers. Promote a flexible ODM development model, leveraging domestic 3D digital shoemaking and CNC cutting technology to reduce the minimum order quantity to 500 pairs, achieving fast delivery within 3-4 weeks to meet overseas retailers' low-inventory, fast-turnaround needs. Avoid price competition in popular categories, and focus on high-tech barrier specialty footwear such as EU SRC anti-slip medical shoes and CE-certified anti-smash safety shoes to secure stable, high-quality customers. Optimize trade services by partnering with professional logistics providers to offer DDP (Delivered Duty Paid) terms, providing one-stop logistics, customs clearance, and delivery services to enhance overseas customer loyalty.
(II) Sole and Upper Accessory Suppliers: R&D Rooted Domestically, Production Capacity Localized Overseas
Core high-end R&D remains domestic, focusing on high-margin products such as high-performance carbon fiber reinforcement plates, ultra-light elastomer midsoles, and four-level yellowing-resistant recycled TPU films. Product performance is optimized by adding antioxidants, light stabilizers, and wear-resistant additives, while relying on precision mold technology to solve industry pain points like uneven density in supercritical foaming materials. Basic volume production capacity is shifted overseas, with offices and warehousing centers established in key manufacturing bases such as Northern Vietnam and Indonesia. Leveraging local exhibitions, 24-hour fast delivery is achieved to meet the localized procurement needs of Southeast Asian OEM factories, avoiding homogeneous competition in low-end domestic accessories.
(III) Shoe Machinery and Footwear Chemical Enterprises: Equipment and chemical synergy, data-driven cost reduction and efficiency improvement
Promote collaborative R&D integrating chemical formulations and intelligent equipment, comprehensively deploy zero-VOC water-based environmentally friendly bonding systems, and develop environmentally friendly treatment agents and solvent-free hot melt adhesives suitable for new foaming materials. Simultaneously, upgrade UV activation curing machines to ensure stable high-energy output above 1000 mJ/cm², achieving precise matching of formulations and equipment. Optimize the hydraulic fine-tuning system of the sole pressing machine to protect the microporous structure of ultra-light foamed soles and eliminate production losses. Use data-driven results to explore overseas markets, showcasing digital production cost reduction, quality improvement, and efficiency enhancement data at core exhibitions in Southeast Asia to overcome the technical wait-and-see attitude of overseas OEMs, and export complete intelligent and environmentally friendly shoemaking production solutions to seize the dividends of global supply chain upgrades.