한글목차

자가 치유 재료는 손상을 감지하고 자율적으로 자가 치유하도록 설계된 혁신적인 스마트 재료로, 생물학적 시스템의 놀라운 상처 치유 능력을 모방한 혁신적인 종류의 스마트 재료입니다. 이 재료는 손상을 입으면 활성화되는 특수한 메커니즘을 가지고 있어 외부의 개입 없이도 복구 과정을 시작하여 구조적 무결성과 기능적 특성을 회복합니다. 이러한 자율적 복구 능력은 기계적 손상, 환경적 노출, 노화에 따른 불가피한 열화라는 기존 소재의 근본적인 한계를 극복할 수 있습니다.

제품 수명을 연장하고 유지보수 필요성을 줄임으로써 교체 빈도 감소, 다운타임 최소화, 수리 비용 절감을 통해 큰 경제적 이점을 제공합니다. 항공우주 부품, 인프라 요소, 의료용 임플란트와 같은 중요한 응용 분야에서 자가 치유 기능은 감지되지 않은 손상의 진행으로 인해 발생할 수 있는 치명적인 고장을 방지하여 안전성을 높입니다. 자가 치유 기술은 여러 가지 다른 메커니즘을 통해 작동합니다. 외재적 시스템은 마이크로 캡슐이나 혈관 네트워크에 내장된 치유제가 손상 시 방출되어 균열을 메우고 특성을 회복시키는 역할을 합니다. 내재적 시스템은 동적 화학적 결합을 이용하여 손상 후 재형성할 수 있으며, 자원을 고갈시키지 않고 여러 번 복구 사이클을 반복할 수 있습니다. 고급 접근법으로는 형상 기억 보조 복구, 열, 빛, 전기 신호에 의해 활성화되는 자극 반응성 시스템 등이 있습니다.

자가 치유 재료의 환경적 영향은 특히 재료 소비를 줄이고, 제품 수명을 연장하며, 폐기물 발생을 줄임으로써 지속가능성에 기여합니다. 콘크리트 인프라에서 전자부품에 이르기까지 수명을 연장할 수 있도록함으로써 이러한 재료는 순환 경제의 원칙과 자원 보존의 목표에 부합합니다.

제조 공정이 성숙하고 비용이 감소함에 따라 자가 치유 능력은 특수한 고부가가치 응용 분야에서 소비자 제품, 건축자재, 운송 시스템, 전자 제품 등 주류로 이동하고 있습니다. 이러한 진화는 재료 과학자, 화학자, 엔지니어, 생물학자들의 다학제적 협력에 의해 가속화되고 있으며, 이들은 자연에서 영감을 얻고 첨단 제조 기술로 강화된 정교한 자가 치유 메커니즘을 지속적으로 개발하고 있습니다.

현재, 자동차 및 항공우주 분야가 채택을 주도하고 있습니다. 자동차 분야에서 자가 치유 클리어 코트와 보호 마감재는 고급 차량에서 주류 생산 모델로 이동하고 있으며, 항공우주 분야에서는 유지보수 주기를 단축하고 안전성을 향상시키는 구조 부품과 내식성 코팅이 주목받고 있습니다. 건축자재는 가장 빠르게 성장하고 있는 분야이며, 자가 치유 콘크리트 솔루션은 주요 시장에서 규제 당국의 승인을 받았으며, 인프라 분야에서 유망한 성능을 보여주고 있습니다.

향후 2035년까지 여러 가지 중요한 트렌드가 시장의 진화를 형성할 것으로 예상됩니다. 규제 프레임워크는 제품의 수명주기를 연장하고 교체 빈도를 줄여 지속가능성을 실현하는 자가 치유 재료에 대한 인식이 점점 더 높아지고 있습니다. 환경적 고려는 바이오 기반 자가 치유 시스템의 개발을 촉진하고 있으며, 초기 상용 제품은 탄소발자국을 줄이면서 유망한 성능을 입증하고 있습니다. 센서 기술 및 디지털 모니터링 시스템과의 통합은 손상 상태와 복구 진행 상황을 알려주는 '스마트한' 자가 치유 재료를 만들어내는 혁신적인 트렌드를 보여주고 있습니다.

성능의 일관성을 유지하면서 생산 규모를 확대하는 기술적 과제는 여전히 남아 있지만, 제조 공정의 지속적인 개선을 통해 이러한 한계는 꾸준히 해결되고 있습니다. 기존 소재에 비해 비용이 비싸기 때문에 가격에 민감한 응용 분야에서는 여전히 장벽이 되고 있지만, 수명 주기 비용 분석에서 유지보수 및 교체 비용을 고려하면 유리한 경제성이 입증되고 있습니다. 기술이 성숙해짐에 따라 자가 치유 기능은 여러 산업에서 프리미엄 기능이 아닌 표준 요구사항으로 간주되어 현재 고부가가치 응용 분야뿐만 아니라 소비자 제품, 전자제품, 일반 산업 응용 분야로의 폭넓은 채택을 촉진할 것입니다. 특수 소재에서 주류 소재로의 전환은 향후 10년간 시장의 진화를 결정지을 것으로 예상됩니다.

세계의 자가 치유 재료 시장에 대해 조사 분석했으며, 2035년까지 성장 궤적, 기술 개발, 상용화 전략을 추적하고, 빠르게 변화하는 시장 상황에 대한 정보를 전해드립니다.

목차

제1장 주요 요약

• 자가 치유 재료 시장 기회
• 자가 치유의 이점
• 치유 종류 : 재료 배합별, 형식별
• 기술 로드맵 : 용도별
• 자가 치유 재료 동향
• 자가 치유 제품 상업화
• 바이오미메틱스
• 세계 시장 매출, 실적과 예측(-2035년)
• SWOT 분석
• 자가 치유 재료와 기존 재료의 비교 : 시장 부문별

제2장 소개

• 자가 치유 메커니즘과 분류
• 외재적 자가 치유
• 내재적 자가 치유
• 치유량
• 형상 기억 보조 자가 치유
• 자가 치유 폴리머

제3장 자가 치유 재료 분석

• 폴리우레탄 클리어 코트
• 마이크로/나노캡슐
• 미세혈관 네트워크
• 이오노머
• 클릭 중합
• 초분자 결합, MSA
• 비트리머
• 자가 치유 하이드로겔
• 탄소나노튜브
• 그래핀, 기타 2D 재료
• 자가 치유 단백질
• 압전 결정
• 숙주 구조 변화와 형상 변화 재료

제4장 특허 분석

제5장 자가 치유 재료 시장

• 항공우주
• 자동차
• 전자
• 에너지 저장
• 엘라스토머
• 건축·건설
• 페인트 및 코팅
• 바이오메디컬·의료
• 기타 시장

제6장 기업 개요(39개사 기업 개요)

제7장 조사 방법

제8장 참고문헌

영문목차

Self-healing materials represent a revolutionary class of smart materials engineered to detect damage and autonomously repair themselves, mimicking biological systems' remarkable ability to heal wounds. These materials incorporate specialized mechanisms that activate upon damage, initiating repair processes without external intervention to restore structural integrity and functional properties. This autonomous repair capability addresses a fundamental limitation of conventional materials - their inevitable degradation through mechanical damage, environmental exposure, and aging.

By extending product lifespans and reducing maintenance requirements, these materials offer substantial economic benefits through decreased replacement frequency, minimized downtime, and reduced repair costs. In critical applications like aerospace components, infrastructure elements, and medical implants, self-healing capabilities enhance safety by preventing catastrophic failures that could result from undetected damage progression. Self-healing technologies operate through several distinct mechanisms. Extrinsic systems utilize embedded healing agents in microcapsules or vascular networks that release upon damage to fill cracks and restore properties. Intrinsic systems leverage dynamic chemical bonds that can reform after breakage, enabling multiple healing cycles without depleting resources. Advanced approaches include shape memory assisted healing and stimulus-responsive systems activated by heat, light, or electrical signals.

The environmental impact of self-healing materials is particularly significant, as they contribute to sustainability by reducing material consumption, extending product lifespans, and decreasing waste generation. By enabling longer service life for everything from concrete infrastructure to electronic components, these materials align with circular economy principles and resource conservation objectives.

As manufacturing processes mature and costs decrease, self-healing capabilities are transitioning from specialized high-value applications toward mainstream adoption across consumer products, building materials, transportation systems, and electronic devices. This evolution is accelerating through interdisciplinary collaboration between materials scientists, chemists, engineers, and biologists, who continue to develop increasingly sophisticated self-healing mechanisms inspired by natural processes and enhanced through advanced manufacturing techniques.

The automotive and aerospace sectors currently lead adoption. Self-healing clearcoats and protective finishes in automotive applications have transitioned from luxury vehicles to mainstream production models, while aerospace implementations focus on structural components and corrosion-resistant coatings that enhance safety while reducing maintenance intervals. Construction materials represent the fastest-growing application segment, with self-healing concrete solutions gaining regulatory approval across major markets and demonstrating promising performance in infrastructure applications.

Looking forward, several significant trends will shape market evolution through 2035. Regulatory frameworks increasingly recognize self-healing materials as enabling sustainability by extending product lifecycles and reducing replacement frequencies. Environmental considerations are driving development of bio-based self-healing systems, with early commercial products demonstrating promising performance while reducing carbon footprints. Integration with sensor technologies and digital monitoring systems represents a transformative trend, creating "smart" self-healing materials that communicate damage status and healing progress.

Technical challenges remain in scaling production while maintaining performance consistency, but continuous improvements in manufacturing processes are steadily addressing these limitations. Cost premiums over conventional materials remain a barrier in price-sensitive applications, though lifecycle cost analyses increasingly demonstrate favorable economics when maintenance and replacement expenses are considered. As the technology matures, self-healing capabilities will increasingly be viewed as standard requirements rather than premium features across multiple industries, driving broader adoption beyond current high-value applications into consumer products, electronic devices, and general industrial use. This transition from specialty to mainstream material solution will define the market's evolution over the coming decade.

"The Global Self-Healing Materials Market 2025-2035" provides insights into the rapidly evolving self-healing materials landscape, tracking growth trajectories, technological developments, and commercialization strategies through 2035.

Key Report Contents include:

• Market Analysis and Growth Projections
  • Market Size and Forecast: Detailed revenue projections from 2025-2035, with historical context from 2015
  • Segmentation by Material Type: Comprehensive breakdown across self-healing polymers, coatings, concrete, metals, ceramics, and composite materials
  • Segmentation by Healing Mechanism: Comparative analysis of microencapsulation, vascular systems, intrinsic self-healing, and shape memory technologies
  • Regional Market Distribution: Granular geographic assessment with regional adoption rates, growth drivers, and market development patterns
  • Technology/Application Matrix: Visual mapping of optimal technology solutions for specific industry challenges
• Technology Analysis
  • Extrinsic Self-Healing Mechanisms: Comprehensive analysis of microencapsulated healing agents, vascular networks, reversible bonds, and external stimulation approaches
  • Intrinsic Self-Healing Systems: Detailed examination of reversible covalent bonds, ionomers, polymer networks, microscopic mobility, and supramolecular chemistry
  • Material-Specific Technologies: Specialized analysis of self-healing polymers, elastomers, hydrogels, concrete, ceramics, metals, and nanomaterial systems
  • Biomimetic Approaches: Assessment of nature-inspired self-healing mechanisms with commercialization potential
  • SWOT Analysis: Strategic evaluation of strengths, weaknesses, opportunities, and threats for major self-healing technology categories
• Application Analysis by End-Use Market
  • Aerospace: Self-healing composites, thermal interface materials, and protective coatings
  • Automotive: Scratch-resistant finishes, self-healing glass, composites, and tire technologies
  • Electronics: Display technologies, flexible electronics, wearables, soft robotics, and sensor applications
  • Energy Storage: Battery components, solid electrolytes, fuel cell membranes, and solar technologies
  • Construction: Self-healing concrete, asphalt, protective coatings, and structural materials
  • Healthcare: Tissue engineering scaffolds, drug delivery systems, artificial skin, dental composites, and orthopaedic applications
  • Additional Sectors: Detailed coverage of paints/coatings, adhesives/elastomers, filtration membranes, textiles, military/defense, oil/gas, and marine applications
• Commercialization Status and Strategic Insights
  • Technology Readiness Assessment: TRL evaluation framework applied to major self-healing technologies
  • Commercial Product Analysis: Comprehensive profiles of marketed products with performance metrics and market positioning
  • Intellectual Property Landscape: Patent analysis revealing innovation trends, strategic positioning, and IP concentration
  • Market Entry Barriers: Identification of technical, economic, and regulatory challenges with mitigation strategies
  • Technology Roadmap: Visual strategic pathway for self-healing material development through 2035
• Competitive Landscape
  • Company Profiles: Detailed assessments of 35+ key players including technology portfolios, commercialization status, and strategic direction. Companies profiled include 3M, A2O Advanced Materials Inc., ABB, Acciona S.A., Advanced Soft Materials, Inc., Aizawa Concrete Corporation, Akzo Nobel N.V., Applied Thin Film, Inc., Arkema S.A., Basilisk, Battelle, CompPair Technologies Ltd., Covestro AG, Croda, DMAT, DS Smith, Dupont Teijin Films, Epion, Evonik Industries AG, Feynlab, Helicoid Industries, Henkel, Hyundai Motor Group, JP Concrete, Kansai Paint Company, Mimicrete, NATOCO Co., Ltd., and more, covering established multinational corporations, specialized material developers, and innovative startups across the value chain.
• Future Outlook and Strategic Opportunities
  • Market Acceleration Factors: Identification of technical breakthroughs, policy developments, and market drivers that could accelerate adoption
  • Cross-Industry Convergence: Emerging opportunities at the intersection of self-healing materials with IoT, smart manufacturing, and circular economy initiatives
  • Sustainability Implications: Analysis of environmental benefits, lifecycle advantages, and alignment with ESG objectives

TABLE OF CONTENTS

1. EXECUTIVE SUMMARY

• 1.1. Market opportunity for self-healing materials
• 1.1. Benefits of self-healing
• 1.2. Types of healing by material formulation and format
• 1.3. Technology roadmap by application
• 1.4. Trends in self-healing materials
• 1.5. Commercialising self-healing products
  • 1.5.1. Construction materials
  • 1.5.2. Protective paints and coatings
  • 1.5.3. PVC cutting mats
• 1.6. Biomimetics
  • 1.6.1. Key biological repair strategies
• 1.7. Global market revenues, historical and forecast to 2035
  • 1.7.1. Total
  • 1.7.2. By type
  • 1.7.3. By end use market
  • 1.7.4. By region
• 1.8. SWOT analysis
• 1.9. Comparison of Self-Healing Materials with Incumbent Materials by Market Sector

2. INTRODUCTION

• 2.1. Self-healing mechanism and categorization
  • 2.1.1. Introduction
  • 2.1.2. Viscous creep
  • 2.1.3. Intrinsic and Extrinsic Mechanisms
  • 2.1.4. Atomic Toolkit
  • 2.1.5. Metrics for self-healing
• 2.2. Extrinsic self-healing
  • 2.2.1. Microencapsulated healing agents
    • 2.2.1.1. Implementation of microcapsule-based self-healing systems
    • 2.2.1.2. Manufacturing of microcapsules
    • 2.2.1.3. Convergence of self-healing materials and pharmaceutical delivery
  • 2.2.2. Vascular self-healing
  • 2.2.3. External Stimulation
  • 2.2.4. SWOT analysis
• 2.3. Intrinsic self-healing
  • 2.3.1. Supramolecular Bonding
  • 2.3.2. Reversible Covalent Bonds
  • 2.3.3. Ionomer Healing
  • 2.3.4. Microscopic Mobility
  • 2.3.5. Microcapsule Monomer Diffusion
  • 2.3.6. Sustainable intrinsic self-healing materials
  • 2.3.7. SWOT analysis
  • 2.3.8. Comparison of self-healing systems.
• 2.4. Healing volume
• 2.5. Shape memory assisted self-healing
  • 2.5.1. Overview
  • 2.5.2. Principle of Shape Memory Assisted Self-Healing (SMASH)
  • 2.5.3. Shape Memory with Polymers
  • 2.5.4. Materials
  • 2.5.5. Self-healing coatings
  • 2.5.6. Anti-corrosion
    • 2.5.6.1. Types
  • 2.5.7. Scratch repair
    • 2.5.7.1. Mechanisms underlying scratch repair
• 2.6. Self-healing polymers
  • 2.6.1. Self-Healing Polymer Toolkit
  • 2.6.2. Intrinsic Self-Healing
    • 2.6.2.1. Covalent-Based Intrinsic Self-Healing
  • 2.6.3. Self-Healing Polypeptides
  • 2.6.4. Reversible Crosslinkers
  • 2.6.5. Rapid Polymerization
  • 2.6.6. Polyvinyl chloride (PVC) based self-healing
  • 2.6.7. Self-Healing Elastomers
  • 2.6.8. Self-Healing Fiber-Reinforced Polymers (FRPs)
    • 2.6.8.1. Self-healing strategies for FRPs
    • 2.6.8.2. Applications
    • 2.6.8.3. Challenges
    • 2.6.8.4. Hollow fiber embedment
  • 2.6.9. Self-healing metals
  • 2.6.10. Metal matrix composites
  • 2.6.11. Self-Healing and Morphing Composites
  • 2.6.12. Self-healing ceramics and ceramic composites
  • 2.6.13. Self-healing nanomaterials
  • 2.6.14. Self-healing biomaterials
  • 2.6.15 3d printing of self-healing materials
  • 2.6.16. Self-healing under water
    • 2.6.16.1. Approaches
  • 2.6.17. Membranes
    • 2.6.17.1. Applications
      • 2.6.17.1.1. Architectural
      • 2.6.17.1.2. Acoustic
      • 2.6.17.1.3. Superhydrophobic Surfaces
      • 2.6.17.1.4. Energy storage and conversion devices
      • 2.6.17.1.5. Desalination
      • 2.6.17.1.6. Filtration membranes
      • 2.6.17.1.7. Kidney Dialysis
      • 2.6.17.1.8. Active ingredients
      • 2.6.17.1.9. Gas Separation
      • 2.6.17.1.10. Vehicle Paint Protection
  • 2.6.18. Factors affecting self-healing

3. SELF-HEALING MATERIALS ANALYSIS

• 3.1. Polyurethane clear coats
  • 3.1.1. Properties
  • 3.1.2. Products
  • 3.1.3. Markets
• 3.2. Micro-/nanocapsules
  • 3.2.1. Properties
  • 3.2.2. Manufacturing
  • 3.2.3. Products
  • 3.2.4. Markets
• 3.3. Microvascular networks
  • 3.3.1. Properties
  • 3.3.2. Markets
• 3.4. Ionomers
  • 3.4.1. Properties
  • 3.4.2. Markets
• 3.5. Click polymerization
  • 3.5.1. Properties
  • 3.5.2. Markets
• 3.6. Supramolecular bonding and MSA
  • 3.6.1. Properties
• 3.7. Vitrimers
  • 3.7.1. Properties
• 3.8. Self-healing hydrogels
  • 3.8.1. Self-healing mechanisms
    • 3.8.1.1. Hydrogen Bonding
    • 3.8.1.2. Ionic Bonds
    • 3.8.1.3. Host-Guest Interactions
    • 3.8.1.4. Hydrophobic Bonds
    • 3.8.1.5. Imine Bonds
    • 3.8.1.6. Arylhydrazone bonds
    • 3.8.1.7. Diels-Alder Reaction
  • 3.8.2. Types and materials
    • 3.8.2.1. Natural Polymers
    • 3.8.2.2. Synthetic polymers
    • 3.8.2.3. Polyampholyte self-healing hydrogels
      • 3.8.2.3.1. Reversible polymer self-healing hydrogels
    • 3.8.2.4. Peptides
    • 3.8.2.5. Mussel-inspired proteins
    • 3.8.2.6. Bacterial cellulose
    • 3.8.2.7. Conductive polymers
    • 3.8.2.8. Zwitterionic polymers
    • 3.8.2.9. Nanomaterial self-healing hydrogels
      • 3.8.2.9.1. Graphene
      • 3.8.2.9.2. Carbon nanotubes
      • 3.8.2.9.3. Nanoclays
      • 3.8.2.9.4. Silicate nanoparticles
      • 3.8.2.9.5. Magnetic nanoparticles
  • 3.8.3. Markets and applications
• 3.9. Carbon nanotubes
  • 3.9.1. Properties
• 3.10. Graphene and other 2D materials
  • 3.10.1. Properties
• 3.11. Self-healing proteins
  • 3.11.1. Properties
• 3.12. Piezoelectric crystals
• 3.13. Morphing host structures and shapeshifting materials
  • 3.13.1. Overview
  • 3.13.2. Applications
  • 3.13.3. Modes of Active Morphing
  • 3.13.4. Piezoelectric Actuators
  • 3.13.5. Ultraviolet Stimulation
  • 3.13.6. Bend-Twist Coupling
  • 3.13.7. Electroactive polymer (EAP) composites
  • 3.13.8. Morphing Skins
  • 3.13.9. Passive Morphing Systems
  • 3.13.10. Shape Memory Alloys as Host Materials
  • 3.13.11. Active morphing airfoils
  • 3.13.12. Active Winglets

4. PATENT ANALYSIS

5. MARKETS FOR SELF-HEALING MATERIALS

• 5.1. Aerospace
  • 5.1.1. Market drivers
  • 5.1.2. Applications
    • 5.1.2.1. Self-healing composites
    • 5.1.2.2. Self-healing thermal interface materials
  • 5.1.3. Commercial activity
  • 5.1.4. SWOT analysis
  • 5.1.5. Revenues
• 5.2. Automotive
  • 5.2.1. Market drivers
  • 5.2.2. Applications
    • 5.2.2.1. Self-healing glass
    • 5.2.2.2. Self-healing coatings for scratch repair
    • 5.2.2.3. Self-healing composites
    • 5.2.2.4. Self-healing tires
      • 5.2.2.4.1. Products
  • 5.2.3. Commercial activity
  • 5.2.4. SWOT analysis
  • 5.2.5. Revenues
• 5.3. Electronics
  • 5.3.1. Market drivers
  • 5.3.2. Applications
    • 5.3.2.1. Colourless polyimides (CPIs)
    • 5.3.2.2. Self-healing displays
    • 5.3.2.3. Self-healing consumer electronic device coatings
    • 5.3.2.4. Flexile insulators
    • 5.3.2.5. Self-healing flexible and stretchable wearables
    • 5.3.2.6. Self-healing soft robotics
    • 5.3.2.7. 6G Reconfigurable Intelligent Surfaces
    • 5.3.2.8. Sensors
      • 5.3.2.8.1. Skin Electronics
      • 5.3.2.8.2. Optomechanical Sensors
      • 5.3.2.8.3. Multifunctional Sensors
  • 5.3.3. Commercial activity
  • 5.3.4. SWOT analysis
  • 5.3.5. Revenues
• 5.4. Energy Storage
  • 5.4.1. Overview
  • 5.4.2. Applications
    • 5.4.2.1. Self-healing materials for Lithium batteries
    • 5.4.2.2. Performance limitations and healing capacity
    • 5.4.2.3. Silicon anodes
    • 5.4.2.4. Electrolytes
      • 5.4.2.4.1. Solid-State Batteries
      • 5.4.2.4.2. 9. Self-Healing Polymers
    • 5.4.2.5. Capacitors
      • 5.4.2.5.1. Tantalum Capacitors
    • 5.4.2.6. Self-healing flexible batteries
    • 5.4.2.7. Fuel cell membranes
      • 5.4.2.7.1. Types
    • 5.4.2.8. Gas turbine coatings
    • 5.4.2.9. Wind energy
    • 5.4.2.10. Self-healing photovoltaics
  • 5.4.3. Commercial activity
  • 5.4.4. SWOT analysis
  • 5.4.5. Revenues
• 5.5. Elastomers
  • 5.5.1. Market drivers
  • 5.5.2. Applications
    • 5.5.2.1. Self-healing elastomers
    • 5.5.2.2. VPTA vitrimer adhesive
    • 5.5.2.3. Elastomers in robotics
  • 5.5.3. Commercial activity
  • 5.5.4. SWOT analysis
  • 5.5.5. Revenues
• 5.6. Buildings and construction
  • 5.6.1. Overview
    • 5.6.1.1. Cement
    • 5.6.1.2. Green Cement
    • 5.6.1.3. Cement Decarbonization
    • 5.6.1.4. Ultra High Performance Concrete
    • 5.6.1.5. Bacterial Bio-Concrete
    • 5.6.1.6. Fungal-based self-healing concrete
    • 5.6.1.7. Asphalt
    • 5.6.1.8. Fiber-Reinforced Polymer Construction Materials
      • 5.6.1.8.1. Future Development
      • 5.6.1.8.2. Fiber selection
      • 5.6.1.8.3. Manufacturing methods
      • 5.6.1.8.4. Advanced fiber-reinforced polymers (FRPs)
      • 5.6.1.8.5. Challenges
  • 5.6.2. Market drivers
  • 5.6.3. Applications
    • 5.6.3.1. Intrinsic with additives
    • 5.6.3.2. Bacteria with post treatment
    • 5.6.3.3. Enzymes
    • 5.6.3.4. Funghi
    • 5.6.3.5. Natural polymers
      • 5.6.3.5.1. Materials
    • 5.6.3.6. Self-healing structural ceramics
    • 5.6.3.7. 3D Networks
    • 5.6.3.8. Self-healing concrete
      • 5.6.3.8.1. Self-Healing Geopolymer Concrete
      • 5.6.3.8.2. Biological approaches
      • 5.6.3.8.3. Bacteria Coated-Fibers
    • 5.6.3.9. Fiber concrete
    • 5.6.3.10. Self-healing road surfaces and asphalt
  • 5.6.4. Commercial activity
  • 5.6.5. SWOT analysis
  • 5.6.6. Revenues
• 5.7. Paint and coatings
  • 5.7.1. Market drivers
  • 5.7.2. Applications
    • 5.7.2.1. Self-healing anti-corrosion coatings
      • 5.7.2.1.1. Healing mechanisms
      • 5.7.2.1.2. Implementation and challenges
      • 5.7.2.1.3. Silica gel technology
      • 5.7.2.1.4. Approaches
    • 5.7.2.2. Epoxy Coatings
    • 5.7.2.3. Hydrophobic recovery mechanisms
    • 5.7.2.4. Anti-fouling coatings
      • 5.7.2.4.1. Approaches
      • 5.7.2.4.2. Implementation
      • 5.7.2.4.3. Sea slug-inspired smart marine antifouling coatings
    • 5.7.2.5. Self-healing polymer film and paint
    • 5.7.2.6. Self-healing scratch-resistant coatings
    • 5.7.2.7. Icephobic coatings
  • 5.7.3. Commercial activity
  • 5.7.4. SWOT analysis
  • 5.7.5. Revenues
• 5.8. Biomedical and Healthcare
  • 5.8.1. Market drivers
  • 5.8.2. Applications
    • 5.8.2.1. Hydrogels
      • 5.8.2.1.1. Biocompatible polymeric self-healing hydrogels represent
      • 5.8.2.1.2. Super strong self-healing hydrogels
      • 5.8.2.1.3. Wound-Healing Hydrogels
      • 5.8.2.1.4. Polyampholytes Hydrogel
    • 5.8.2.2. Drug or cell delivery carriers
    • 5.8.2.3. Tissue Engineering
      • 5.8.2.3.1. Overview
      • 5.8.2.3.2. Self-Healing Adhesives
    • 5.8.2.4. Electronic Skin
    • 5.8.2.5. Artificial muscle and cartilage
    • 5.8.2.6. Self-healing dental composites
    • 5.8.2.7. Self-healing orthopaedic implants
      • 5.8.2.7.1. Titanium Implants
      • 5.8.2.7.2. Bone Healing and Replacement
      • 5.8.2.7.3. Bone Regeneration
      • 5.8.2.7.4. 3D Printed Bone Replacement
    • 5.8.2.8. Artificial human skin
    • 5.8.2.9. Strain biosensors
    • 5.8.2.10. Prosthetics and soft robotics
    • 5.8.2.11. Bone repair
  • 5.8.3. Commercial activity
  • 5.8.4. SWOT analysis
  • 5.8.5. Revenues
• 5.9. Other markets
  • 5.9.1. Filtration
    • 5.9.1.1. Applications
      • 5.9.1.1.1. Self-healing materials for membrane separation
      • 5.9.1.1.2. Desalination membrane
      • 5.9.1.1.3. Kidney dialysis membrane
  • 5.9.2. Textiles
    • 5.9.2.1. Applications
      • 5.9.2.1.1. Self-healing fabrics
      • 5.9.2.1.2. Programmable Textiles
  • 5.9.3. Military
    • 5.9.3.1. Applications
      • 5.9.3.1.1. Self-healing aircraft
      • 5.9.3.1.2. Self-healing vehicles
  • 5.9.4. Oil and gas
    • 5.9.4.1. Applications
      • 5.9.4.1.1. Corrosion and other protection
      • 5.9.4.1.2. Self-healing metals
  • 5.9.5. Marine
    • 5.9.5.1. Applications
    • 5.9.5.2. Commercial activity
  • 5.9.6. Conductive inks
  • 5.9.7. Optical and photonic materials
  • 5.9.8. Metamaterials
  • 5.9.9. Robotics
    • 5.9.9.1. Overview
    • 5.9.9.2. Integration
    • 5.9.9.3. Self-healing energy harvesting systems

6. COMPANY PROFILES (39 company profiles)

7. RESEARCH METHODOLOGY

8. REFERENCES