2026-2027 Global Footwear Industry Chain and Frontier Trends White Paper

This entry systematically maps the complete global footwear industry chain, from upstream R&D and design, midstream manufacturing and chemicals, to downstream recycling and regulatory compliance, while deeply integrating 2026 core industry technology trends, market access certificate requirements for various economies, the EU third-party audit process for recycled content, cutting-edge consumer market dynamics, and highlights of iconic international flagship exhibitions.

Comprehensively covers the complete list of finished footwear categories, the complete list of footwear manufacturing equipment across all categories, all major shoe material types and subcategories, detailed footwear manufacturing chemical materials, and corresponding environmental compliance requirements

Finished Footwear Categories

Sports Performance Footwear Series

Racing running shoes, training and fitness shoes, trail hiking shoes, basketball shoes, football shoes, badminton all-around training shoes, knitted one-piece casual sports shoes, carbon plate racing shoes, outdoor mountaineering boots, stream trekking shoes, ski boots, smart sensor shoes

时尚生活鞋系列

Retro running shoes, chunky fashion shoes, Mary Jane shoes, skate shoes, canvas shoes, loafers, dress leather shoes, Chelsea boots, Martin work boots, sandals, slide sandals, indoor home slippers, mules, moccasins

Special Purpose Footwear Series

Children's shoes (infant and toddler walking shoes, mid-to-large child casual shoes), safety protective shoes (impact-resistant, puncture-resistant, anti-static, insulating, acid- and alkali-resistant protective footwear), medical work shoes, waterproof rain boots, diving rubber boots

Eco-friendly circular footwear

Mono-material closed-loop recycled shoes, bio-based material shoes, ocean plastic recycled shoes, net-zero carbon footprint shoes, lab-grown leather shoes, mycelium vegan leather shoes

1. R&D and Product Design (R&D and Product Design)

1.1 Digitalization and AI-Driven

Current status: Traditional footwear R&D cycles take 6 to 18 months. Currently, 3D digital modeling (e.g., Rhino, CLO 3D) has been fully adopted, enabling "digital twin" prototyping.

Trend: Generative AI (AIGC) becomes the core of design. Design software can generate hundreds of shoe samples within seconds by inputting text or inspiration images, compressing the R&D cycle by over 70%. 3D virtual review significantly reduces waste from physical prototyping.

Supporting tools: Shoe-CAD, 3D foot scanning equipment, virtual try-on simulation systems, AIGC shoe sample generation platforms

1.2 Parametric and Structural Design

Current status: Parametric design based on lattice structures breaks the form limitations of traditional foam materials.

Trend: Design is deeply integrated with additive manufacturing (3D printing). Based on ergonomics and plantar pressure distribution, algorithms automatically generate midsole structures with differentiated densities, achieving truly integrated, customized cushioning.

Output deliverables: lattice midsole model, ergonomic custom last digital model, lastless shoe manufacturing digital pattern

2. Materials & Footwear Chemicals

2.1 Footwear Materials Full Catalogue

I Main Upper Materials

1) Natural Leather: Full-grain cowhide, corrected grain leather, waxed leather, split cowhide, sheepskin, pigskin, suede leather, water-dyed leather

Environmental compliance: Chrome-free tanning required; restrictions on hexavalent chromium, heavy metals, azo dyes; pentachlorophenol (PCP) prohibited

2) Synthetic / Microfiber Leather: PU synthetic leather, PVC artificial leather, sea-island microfiber leather, space leather, recycled leather, faux suede; controls on DMF solvent residues, phthalates, PFAS perfluorinated substances

3) Textile and Knitted Fabrics: Flyknit one-piece knitted fabric, polyester mesh, rPET ocean-recycled yarn fabric, canvas, oxford fabric, nylon stretch fabric, Piñatex pineapple leaf plant fiber fabric

4) New Bio-based Alternative Materials: Mycelium leather, lab-grown leather, bamboo fiber, hemp fiber; requirements for non-toxic dyes and biodegradability

5) Functional Film and Auxiliary Materials: TPU hot-melt reinforcement film, waterproof breathable membrane, 3D-printed upper consumables

II Midsole Materials

Traditional: EVA, MD/PHYLON, PU Foam, TPU, PEBA

High-Performance: Supercritical Physical Foaming PEBA, Supercritical TPU, Bio-Based Castor Oil Foaming, Corn-Based Bio-Foaming Materials

Recycled Materials: Recycled EVA, Recycled TPU, Mono-Material TPU Pellets

Environmental Requirements: Chemical foaming agents are prohibited; supercritical chemical-free foaming is promoted; reduce carbon footprint and limit VOC emissions

III Outsole Materials

Natural Rubber, Synthetic Rubber, TPR/TPE, Abrasion-Resistant PU, Carbon Plate Reinforced Substrates; Recycled Rubber, Marine Plastic Recycled Outsole Materials

IV Accessories / Support Components

Insole Base Materials: OrthoLite Recycled Foam, Memory Foam, Antibacterial EVA Insoles, Plant-Based Biodegradable Insoles

Support Components: Steel Shank, TPU Torsion Plate, Segmented Carbon Fiber Propulsion Plate, Fiberglass Support Plate

Hardware accessories: aluminum alloy shoe eyelets, biodegradable plastic decorative buckles, shoelaces, woven labels, hot melt adhesive film reinforcement patches

Mold base materials: aluminum molds, steel molds, 3D printed metal molds, CNC high-speed milling mold blanks

2.2 Complete list of footwear chemical materials and environmental requirements (Footwear Chemicals)

A Adhesive series

Solvent-based oil adhesives (phase-out category): chloroprene rubber solvent adhesive, PU solvent adhesive

Environmental control: high VOC, containing toluene, xylene, n-hexane, DMF, strictly restricted by EU REACH, gradually banned

Water-based adhesives (mainstream compliance): water-based chloroprene adhesive, water-based PU adhesive, water-based non-toxic shoe adhesive

Environmental indicators: low VOCs, no benzene series, alkylphenol APEO limit control, near-zero workshop emissions

PUR hot-melt reactive adhesive, EVA hot-melt adhesive film: primer-free eco-friendly hot-bonding system, reducing solvent use

B Surface treatment agent series

Treatment water, activators, mold release agents, shoe upper colorants, sole spray gloss paint, matte spray coatings

Environmental protection: halogenated hydrocarbon solvents prohibited; heavy metals and PFAS waterproof/oil-repellent coating substances controlled, with full PFAS phase-out

C Leather / fabric dyeing and finishing auxiliaries

Chrome-free tanning agents, water-free CO₂ supercritical dyeing dyes, color fixing agents, anti-mold agents, softening agents

Controls: dimethyl fumarate (DMF) anti-mold agents prohibited; carcinogenic azo dyes that decompose prohibited; heavy metal migration control (lead, cadmium, mercury)

Overall industry chemical trend: 100% water-based adhesives and hot-melt adhesives (PUR) have become mandatory industry standards. High-performance eco-friendly adhesives that require no roughing or primer treatment are becoming widespread, achieving near-zero VOCs (volatile organic compounds) emissions in shoe factories.

Representative innovative exhibits: Water-based Non-toxic Shoe Adhesives: overcoming the bottleneck of insufficient initial adhesion in traditional water-based adhesives, achieving zero harmful gas emissions in production workshops.

2.3 Upgrade of Traditional Foam Materials

Current status: EVA (ethylene-vinyl acetate copolymer) and PU (polyurethane) remain the mainstream midsole materials. Supercritical fluid foaming technology (PEBA, TPU physical foaming) has expanded from high-end racing shoes to mass-market athletic shoes.

Trend: The ultimate pursuit of lightweight and high resilience. Major players are shifting to bio-based supercritical foaming materials (e.g., castor oil, corn extract bases), achieving over 75% energy return while reducing carbon footprint by 30%-50%.

Representative Innovative Exhibits:

Supercritical Foaming Complete Equipment: Achieves a green and environmentally friendly leap with fully physical, chemical-free foaming agents.

Ultra-light Eco-friendly Sole Materials: Significantly reduces shoe weight while ensuring material biodegradability and high recycling rates.

2.4 Bio-based and Alternative Leather (Next-Gen Materials)

Current Status: Traditional natural leather faces environmental scrutiny, and ordinary PU synthetic leather incurs high environmental taxes due to organic solvents (DMF).

Trend: Non-animal, non-petroleum-based alternative materials are booming. Mycelium leather, Piñatex (pineapple leaf fiber), lab-grown leather, and recycled ocean plastics (such as Ocean Plastic yarn) are entering large-scale commercial application stages.

3. Footwear Machinery & Smart Manufacturing

Complete Equipment List for the Full Process: Traditional shoemaking (labor-intensive) --> Automated single machines (needle cart / cutting) --> Intelligent fully automatic molding lines (visual AI + robotics)

3.1 Knitting and Intelligent Cutting Equipment

Computerized flat knitting integrated molding machines, multi-layer computerized cutting presses, AI vision layout cutting machines, automatic leather defect recognition and cutting machines, CNC oscillating knife cutting machines, leather splitting machines, and laser engraving machines for shoe uppers

Current Status: Computerized flat knitting machine one-piece molding knitting (Flyknit weaving method) greatly simplifies upper stitching. Automatic multi-layer computer-controlled cutting machines replace traditional die presses.

Trend: Intelligent vision cutting systems. Equipment automatically identifies leather defects and grain direction through cameras, with algorithms automatically calculating the optimal layout and cutting path, improving material utilization by over 15%.

Representative Innovative Exhibit: AI Visual Nesting Cutting Machine: Utilizes computer vision algorithms for genuine leather defect identification and millisecond-level optimal nesting, significantly reducing edge material waste.

3.2 Sole Preparation Equipment

EVA slicing machines, EVA rough grinding and buffing machines, rubber internal mixers, rubber hydraulic vulcanizing presses, TPR/TPE injection molding machines, PU casting molding machines, supercritical foaming complete equipment, sole trimming machines, and automatic sole spraying and polishing machines

3.3 Complete Shoemaking Assembly and Bonding Production Line Equipment

Shoe upper steam softening machine, toe lasting machine, side lasting machine, heel seat lasting machine, heel counter molding machine, automatic roughing machine, automatic primer spraying machine, six-axis robot automatic glue spraying workstation, hot air activation oven, universal hydraulic sole pressing machine, low-temperature freezing setting machine, automatic last pulling machine, last recycling conveyor line, automated shoe molding production line, last-free shoemaking micro-factory complete unit

Current status: Traditional molding lines (toe lasting, heel seat lasting, sole pressing) require intensive manual handling and operations.

Trend: Deep integration of six-axis industrial robots with 3D vision guidance technology. Robots can automatically identify sole contours for precise glue spraying, bonding, and sole pressing. Last-free shoemaking technology and fully automated "micro-factories" are emerging to meet the ultra-fast production demands of small batches and multiple production runs.

Representative innovative exhibits: Automated Shoe Molding Production Line: perfectly integrates cold lasting, heat conditioning, robotic arm glue spraying, and automatic sole pressing, achieving a smart factory with minimal or even zero manual operation.

3.4 Finishing and Testing Equipment

Upper polishing and color rubbing machines, automatic glue removal and cleaning machines, finished shoe flexing / abrasion testing machines, safety shoe anti-impact and anti-puncture testing machines, VOC emission testing equipment, carbon footprint digital collection terminals

4. Components and Accessories (Components & Accessories)

4.1 Molds and Hardware

Current status: Traditional steel molds and aluminum molds have long development cycles and high costs.

Trend: 3D printed metal molds combined with CNC high-speed milling. Accessories (such as eyelets and decorative parts) are fully transitioning to recyclable aluminum or biodegradable plastics.

4.2 Insoles and Support Systems

Current status: Shanks have evolved from traditional steel sheets and TPU to carbon fiber plates.

Trend: Carbon fiber plates are developing toward segmented and bionic forms, providing more elastic propulsion rather than pure rigidity. Insoles widely adopt renewable OrthoLite or memory foam materials with moisture absorption, sweat wicking, and antibacterial functions.

5. Supply Chain and Sourcing Models (Supply Chain & Sourcing Models)

5.1 Geopolitical Landscape Shift

Current Status: Global footwear production capacity is mainly concentrated in Asia (China, Vietnam, Indonesia, India). Driven by trade frictions and cost pressures, low-value-added orders continue to shift from China to Southeast Asia and South Asia. China, India, Vietnam and other countries, as global manufacturing hubs, contribute over 55% of the global share.

Trend: "China + N" (China Plus One) and Nearshoring coexist. China is transforming into a "super factory" with high value, strong technology, and complete supply chain integration; meanwhile, companies targeting European and American markets are beginning to establish nearshore factories in Mexico, Eastern Europe, and North Africa to shorten delivery times.

5.2 Flexible Sourcing and Supply Model

Current Status: The traditional "futures system" leads to severe inventory backlog.

Trend: Production based on sales (driven by DTC model) and small-batch quick response (flexible supply chain). Utilizing digital ERP and MES systems, initial orders are extremely small, and real-time terminal sales data (POS) triggers upstream raw material procurement and factory replenishment, reducing production lead time from 3 months to 14 days.

6. Environmental Protection and Low-Carbon Manufacturing

6.1 Carbon Footprint Tracking

Current Status: The full lifecycle carbon emissions of an average pair of sports shoes are approximately 10-14 kg CO₂e.

Trend: Life Cycle Assessment (LCA) has become standard for footwear companies. From raw material collection, transportation, manufacturing to disposal, every pair of shoes has a "digital carbon label." Major brands are committed to reducing carbon emissions per pair to below 2 kg through the use of green electricity and optimized processes, and even launching net-zero carbon emission shoe models.

Mandatory Environmental Requirements: Statistics on green electricity usage ratio; collection of upstream carbon data from raw materials; LCA report archiving for EU DPP (Digital Product Passport) filing.

6.2 Zero Wastewater and Clean Production

Current Status: Leather tanning and textile dyeing are highly water-consuming and polluting processes.

Trend: Waterless dyeing technologies (such as CO₂ supercritical dyeing) and chrome-free tanning technologies are being applied on a large scale, completely eliminating heavy metal chromium pollution and achieving zero wastewater discharge in the production process.

Wastewater Control Indicators: Chromium ions, COD, ammonia nitrogen; Waste gas control: VOCs, benzene series, halogenated hydrocarbons; Solid waste: classified recycling of offcuts, compliant disposal of hazardous chemical containers

7. Recycling & Circular Economy

7.1 Mono-material Design

Current status: Traditional shoes are made by bonding over 40 different materials together, making them impossible to disassemble and recycle, leaving only landfill or incineration as options.

Trend: "Design for Recycling." The entire shoe (including upper, stitching, midsole, and outsole) is made from a single chemical material (e.g., 100% TPU or 100% polyester). After disposal, the shoe requires no disassembly and can be directly shredded, melted, and re-pelletized to create new shoes, achieving a perfect closed-loop cycle.

7.2 Physical and Chemical Recycling Systems

Current status: Old shoe recycling is mostly at the low-end utilization stage (e.g., crushed and used to pave plastic tracks).

Trend: Breakthroughs in depolymerization chemical recycling technology. Through chemical methods, polyester or polyurethane in waste footwear is decomposed into monomer molecules, then repolymerized into high-performance new shoe materials with quality identical to virgin petroleum-based materials.

Recycled material classification: Pre-consumer recycled materials (industrial offcuts) and post-consumer recycled materials (waste shoes, rPET from plastic bottles) must be fully traceable and comply with GRS/RCS chain of custody.

8. Industry Regulations and Compliance Standards (Regulations & Compliance)

8.1 EU Digital Product Passport (DPP)

EU Ecodesign for Sustainable Products Regulation (ESPR): Footwear sold in Europe must be equipped with a "Digital Product Passport". Through QR codes, consumers and regulators can trace the material composition, recycling rate, origin, and supply chain carbon footprint of shoes.

Anti-Greenwashing Directive: Strictly combats unsubstantiated "eco-friendly, green" false marketing. All sustainability claims must have third-party certification (e.g., GRS, RCS, OEKO-TEX).

8.2 Chemical Safety and Supply Chain Due Diligence

REACH and RoHS Regulations: Restrictions on phthalates, heavy metals, and PFAS (per- and polyfluoroalkyl substances) in footwear have reached historic highs, making "full PFAS removal" a mandatory requirement.

Supply Chain Labor Legislation: Such as the EU Corporate Sustainability Due Diligence Directive (CSDDD), which mandates that multinational footwear companies audit labor rights and working conditions across all tiers of suppliers, with non-compliant companies facing substantial fines.

9. EU Third-Party Audit Process for Recycled Content

With the full implementation of the EU Ecodesign for Sustainable Products Regulation (ESPR) and the Anti-Greenwashing Directive, footwear companies claiming that their products contain "recycled/recovered materials" (such as recycled outsoles or recycled polyester uppers) must pass extremely stringent system audits and traceability processes conducted by third-party certification bodies (such as Control Union, Intertek, SGS) before obtaining customs clearance and market authorization. The core audit mechanism can be divided into four major stages: [Stage 1: Source Access and Definition] --> [Stage 2: Factory On-Site Mass Balance Audit] --> [Stage 3: Chain of Custody Flow] --> [Stage 4: Certificate Issuance and Labeling for Customs Clearance]

9.1 Stage 1: Raw Material Recycling Source Access and Definition Audit

Pre-Consumer/Post-Industrial Recycled Material Audit: The auditor first verifies the source of waste or scrap shoe materials from the shoe factory. It must be proven that the waste is derived from industrial production processes and is material that "cannot be directly reused in the original process by this factory or system and must undergo secondary pelletization processing."

Post-Consumer Recycled Material Audit: If claiming the use of recycled plastic bottles (rPET yarn) or recycled waste shoe materials, the supplier must provide original purchase receipts and material transfer documents from upstream collection, sorting, and washing stations to establish the waste status of the materials.

9.2 Phase 2: On-Site Factory Mass Balance Audit

Production Line Physical Segregation Review: The auditor assesses on-site whether the factory has implemented clear physical warehouse segregation between "virgin petroleum-based materials" and "recycled materials," and checks whether there is a risk of cross-contamination during weighing and feeding processes.

Input-Output Verification: Formula review: Total input of recycled materials × process loss rate = total recycled material content in finished shoes / shoe components.

Financial and Inventory Reconciliation: Retrieve the factory's ERP sales invoices, customs declarations, raw material purchase receipts, and workshop material requisition forms within the specific audit period. If it is found that "1 ton of recycled material was requisitioned, but finished shoes containing 2 tons of recycled material were sold," the audit is directly deemed failed.

9.3 阶段三：产销监管链（Chain of Custody）证书流转

Third-party audits are fully dependent on the Chain of Custody system. Taking GRS (Global Recycled Standard) as an example, every tier in the supply chain (pelletizing plant ──> filament spinning plant ──> weaving plant ──> upper factory ──> finished shoe factory) must undergo an annual independent on-site audit by a third-party body. During material transactions, upstream suppliers must apply to the certification body for an official TC (Transaction Certificate). When the next-tier factory undergoes an audit, it must present the physical TC certificate that fully matches the batch of raw materials; if the chain is broken, recycled content cannot be claimed.

9.4 Phase 4: Issuance of Certificate of Compliance (CoC) and Binding with Digital Product Passport (DPP)

After a comprehensive audit covering four major areas—on-site management, social responsibility (labor rights, workplace safety), environmental management (wastewater and chemical controls), and mass balance—the third-party body issues the annual CoC (Certificate of Compliance) to the shoe factory. Finally, the recycled content ratio of the finished shoe (e.g., "the shoe contains 35% post-consumer recycled TPU") will be mandatorily entered into the EU Digital Product Passport (DPP) as a green clearance pass for customs entry into Europe.

10. Regional Certification Requirements

Footwear products entering major global economies must meet hard requirements that are highly region-specific, including customs clearance certificates, physical performance, and chemical/environmental准入 indicators:

[Exported Footwear Products]

1) Sold to the EU ──> CE Certification (Safety Footwear) / OEKO‑TEX 100 / GRS Recycled Certificate / REACH Compliance Declaration

2) Sold to the US ──> ASTM (Safety Shoes) / CPSIA (Children's Shoes) / California Prop 65

3) Sold to China ──> GB 30585 (Restricted Substances in Children's Shoes) / GB 25038 (Dual-Phase Health Standard) / CCC Certification (Specific Safety Footwear)

10.1 EU Market Access

Chemical Compliance (REACH): All footwear entering the EU must provide an SVHC (Substances of Very High Concern) compliance declaration under the REACH regulation, strictly restricting phthalates (plasticizers), azo dyes, and polycyclic aromatic hydrocarbons (PAHs).

Environmental and Recycling Certificates (GRS / RCS / OEKO‑TEX): Footwear claiming to be "eco-friendly" or "recycled" must hold the GRS (Global Recycled Standard) or RCS (Recycled Claim Standard) certification issued by third-party audits as mentioned above; textile upper components must pass the OEKO‑TEX Standard 100 toxicity test certificate.

Functional shoes / Safety shoes (CE certification): Protective shoes, safety shoes, and occupational shoes are personal protective equipment (PPE) and must pass EU EN ISO 20345 / 20347 standard testing, and must be affixed with the CE mark certificate.

10.2 US Market Access

Children's footwear (CPSIA / CPC certificate): Children's shoes worn by children aged 12 and under must be tested by a CPSC (U.S. Consumer Product Safety Commission) recognized third-party laboratory for total lead, phthalates, and small parts, and must be accompanied by a CPC (Children's Product Certificate) for customs clearance.

California Proposition 65: Footwear exported to California that contains carcinogenic / teratogenic substances such as bisphenol A (BPA) and heavy metals must have a clear warning label affixed to the product, otherwise it faces high litigation fines; major brand buyers usually mandate the provision of a Proposition 65 compliance report.

Industrial safety shoes (ASTM certificate): Safety footwear must comply with ASTM F2413 / F2412 standards, covering impact resistance, compression resistance, and puncture resistance, and must be accompanied by a declaration of conformity certificate with the shipment.

10.3 China (CN) Market Access

National quality standards (GB standards): Commercially sold footwear is subject to mandatory random inspection. Adult shoes must comply with GB 25038 (General safety specification for rubber shoes), etc.; children's shoes face extremely stringent restrictions under GB 30585 (Safety technical specification for children's footwear), with hard requirements on mechanical safety (such as small accessory pull force, laces) and chemical limits (phthalates ≤ 0.1%, removable heavy metals, etc.).

Special protective shoes (CCC certification / LA safety mark certificate): Special protective shoes such as anti-static, insulating, and acid-alkali resistant types must pass China Compulsory Certification (CCC certification) or obtain the Safety Mark Certificate for Special Labor Protection Products (LA certification).

10.4 Access to other major economies

Japan (JIS): Footwear must comply with the Act on Control of Household Products Containing Harmful Substances (e.g., restrictions on free formaldehyde and organotin compounds).

Saudi Arabia (SABER system / SASO certificate): All footwear must be registered on the SABER platform before export, and obtain PC (Product Conformity Certificate) and SC (Shipment Conformity Certificate) through testing.

11. Industry Talent and Skills Transformation (Workforce & Talent Transformation)

11.1 The loss and growing pains of traditional craftsmanship

Current status: Traditional shoemaking relies on experienced sewing workers, mold makers, and stitching operators. As aging intensifies, the younger generation shows extremely low willingness to enter traditional shoe factories, leading to a severe generational gap in skilled labor.

11.2 Demand trend for interdisciplinary composite talent

The shift in industry focus has created entirely new job demands:

Footwear materials scientist: specializing in bio-based material development and chemical recycling technologies.

3D digital modeler / AI prompt engineer: replacing traditional manual pattern makers, proficient in using virtual reality and artificial intelligence for digital R&D.

Sustainability Auditor / LCA Carbon Footprint Expert: Responsible for carbon emission calculations, compliance with the EU recycling audits mentioned above, and supply chain transparency tracking.

Smart Shoe Machinery Operation and Maintenance Engineer: Responsible for programming and maintenance of automated production lines and industrial robots.

12. Global Flagship Industry Exhibition Matrix

12.1 South China Smart Shoe Manufacturing Hub: GISMA GUANGZHOU 2026

Exhibition Basic Information: The Guangzhou International Shoe Machinery and Materials Industrial Exhibition (GISMA 2026) will be held from May 28 to May 30, 2026, at the Guangzhou Poly World Trade Expo (PWTC Expo) in Guangzhou, China. The exhibition area covers 30,000 square meters, bringing together over 400 high-quality exhibitors from around the world and attracting more than 20,000 professional buyers from domestic and international markets.

Strategic Positioning: The exhibition focuses on 'full-chain AI unmanned production, zero-carbon smart manufacturing, digital twins, and global flexible supply chains,' comprehensively showcasing mature industrial achievements in the evolution of the shoe manufacturing industry from single-machine automation to fully unmanned, digitalized, and intelligent factories.

Core Exhibit Directions: Large-scale debut of AI Visual Nesting Cutting Machines, Automated Shoe Molding Production Lines, Supercritical Foaming Complete Equipment, Ultra-light Eco-friendly Sole Materials, and Water-based Non-toxic Shoe Adhesives.

Core Exhibitor Matrix (Selected 50 Global and Chinese Smart Manufacturing Benchmark Enterprises):

International Smart Manufacturing Giants: DESMA, BRUSTIA, ATOM, STEMMA, ROBOTSYSTEM

Smart Machinery and Molding Equipment: Luxin Shoe Machinery, Dadong Shoe Machinery, Zhongan Technology, Jinlei Machinery, Mingda Shoe Machinery, Yongzheng Automation, Tengyulong Machinery, Qifeng Shoe Machinery, Dingsheng Machinery, Chian Fu Industrial, Jieyu Machinery, Chuanhao Intelligent, Dayu Stainless Steel, Nanbang Sewing Machine, Qixiang Needle Cart

High-precision CNC and AI Cutting: IECHO, Ruizhou Technology, Topcut-Bullmer, Jingwei CNC, Tusi Intelligent, Gangyu Intelligent, Googol Technology, Lectra, Bopai Intelligent, Jinggong Sewing

Green Chemicals and High-efficiency Adhesives: Dadong Resin, Nanbao Resin, Guojing Chemical, Degao Chemical, Sanli Chemical, Gaoding Fine, Yibang New Materials, Huidi Technology, Younuo Chemical

Eco-friendly Sole Materials, New Shoe Materials, and Accessories: OrthoLite, Huafon Microfiber, Taiya Shares, Meixin New Materials, Shuangxiang Microfiber, GEM Recycling, Baihua Shoe Materials, Jianda Electrical, Changxing Materials, Xinmao Composite Materials

12.2 Dual Exhibition Flagship in Southeast Asia: VTG 2026 & VFM 2026

The 24th Vietnam International Textile and Garment Industry Exhibition (VTG 2026) and the Vietnam International Shoemaking Machinery and Materials Exhibition (VFM 2026) will be held jointly at the Saigon Exhibition and Convention Center (SECC) in Ho Chi Minh City, Vietnam, from October 14 to October 17, 2026. The exhibition is open daily from 9:00 AM to 5:00 PM (early closure at 3:00 PM on the final day). The exhibition strictly enforces professional trade visitor registration, and minors under 16 years old are not admitted. This grand event adopts a four-exhibition linkage model, organically connecting shoemaking machinery and materials, textiles and garments, fabrics and accessories (VITATEX), and dyeing and chemical industries (DYECHEM), building a one-stop full industry chain closed-loop ecosystem covering ASEAN.

VTG 2026 | Vietnam International Textile and Garment Industry Exhibition

Exhibition Positioning: A flagship textile machinery and intelligent manufacturing technology platform with nearly 20 years of deep cultivation in Southeast Asia.

Exhibition Core: Focusing on integrated software and hardware solutions from "Textile 4.0 to 5.0".

Core Exhibits: High-speed intelligent knitting machines, digital spinning and weaving equipment, nonwoven fabric machinery, 3D intelligent body scanning garment systems, and factory intelligent management ERP systems.

Commercial Value: Directly addressing the strict requirements of the future supply chain for "small orders, quick response", helping factories overcome the pain points of labor shortages and rising costs.

Visitor pre-registration portal - VTG:https://www.chanchao.com.tw/en/entryApply.asp?id=FTXTHCM2026

VFM 2026 | Vietnam International Shoe Machinery and Shoe Materials Industry Exhibition

Exhibition positioning: A professional trade channel covering over 70% of shoe factories in Vietnam, precisely connecting the OEM systems of multinational shoe industry giants.

Technical highlights: Supercritical physical foaming equipment and high-performance shoe materials.

Core exhibits: AI Visual Nesting Cutting Machine, Automated Shoe Molding Production Line, Supercritical Foaming Complete Equipment, Ultra-light Eco-friendly Sole Materials, and Water-based Non-toxic Shoe Adhesives, jointly showcased by member enterprises of the Guangdong Shoe Machinery Association and core GISMA exhibitors.

Commercial value: On-site demonstrations of the world's top fully automated shoe production lines and green, low-carbon shoe material molding technologies, providing complete intelligent and fully green cost-reduction and efficiency-enhancement solutions for contract factories in Vietnam serving multinational brands such as Nike and Adidas.

Visitor pre-registration portal - VFM: Visitor pre-registration - VFM:https://www.chanchao.com.tw/en/entryApply.asp?id=FVNFLM2026

14. 2026 Global Footwear Consumer Core Trends (Market & Consumer Trends)

With the upgrade of the upstream industry chain, the focus of consumer attention has also undergone profound evolution:

Seamless integration of athleisure and professional outdoor wear: The boundaries between professional sports performance, daily commuting, and social scenarios have completely blurred. For example, shoes designed for fitness training and trail running are widely worn in everyday outfits.

New generation high-performance cushioning technology: Major giants are engaged in a technological arms race around "energy return," with technology empowerment (such as the supercritical physical foaming midsoles mentioned above) becoming the core support for brand premium pricing.

The rise of smart shoes: The smart wearable footwear market, led by North America, is growing rapidly, capable of integrating with mobile fitness platforms to track users' fitness data and athletic performance in real time.

Resurgence of fashion-retro aesthetics: In the fashion and casual footwear sectors, nostalgia continues to exert influence. Retro running shoes from the 70s-90s, chunky soles and square-toe sandals, as well as Mary Janes with wide ankle straps, have become the absolute wardrobe staples for 2026.

Conclusion: Future Industry Vision

The future global footwear industry chain will completely bid farewell to the traditional labels of "high pollution, high energy consumption, and labor intensity," evolving into a high-tech, green, and transparent industrial system driven by AI design, robotic manufacturing, bio-based materials, full lifecycle recyclability, and subject to stringent regulatory oversight.

October 14-17 | Ho Chi Minh City SECC, Vietnam | Looking forward to meeting you