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全球永续酵素市场（2026-2036）
市场调查报告书
商品编码
1874695

全球永续酵素市场（2026-2036）

The Global Sustainable Enzymes Market 2026-2036
出版日期: | 出版商: Future Markets, Inc. | 英文 156 Pages, 35 Tables, 9 Figures | 订单完成后即时交付

价格

永续酶市场是工业生物技术领域最具活力且成长最快的细分市场之一。该市场涵盖专门开发和用于减少环境影响、实现循环经济模式以及替代製造业中有害化学製程的工业酵素。对永续性的关注正在从根本上重塑对工业酶的需求。儘管在洗涤剂、食品加工和纺织等传统应用领域持续成长，但新兴的以永续性为中心的应用正在推动市场快速扩张。酵素法塑胶和纺织品回收或许是最具变革性的发展。酵素能够分解PET塑胶和聚酯纺织品，将其转化为可无限循环利用的优质单体。这项技术有助于应对每年1.5亿至2亿吨的全球塑胶垃圾挑战，同时与原生生产相比，可减少30%至50%的二氧化碳排放。

生物燃料生产仍然是关键推动因素，纤维素酶和半纤维素酶可将农业废弃物转化为再生燃料。纸浆和造纸业正扩大采用酵素漂白来消除氯基化学品，纺织品製造商也正在使用酵素来取代织物加工中的强酸和强碱。这些替代方案带来了显着的环境效益，包括降低 50-70% 的能源消耗、降低 40-60% 的用水量，以及彻底消除有害化学废物。

人工智慧和机器学习正在革新酶的开发，将开发时间从 3-5 年缩短至 6-18 个月，并将成本降低 50-70%。生成式人工智慧模型绕过了传统的定向进化试误法，透过计算工程改造酶，使其具备所需的特性。这种加速使得快速开发用于新型永续发展应用的专用酵素成为可能。蛋白质工程的进步正在创造出能够在以往需要化学催化剂的严苛工业环境中发挥作用的极端酵素。增强的耐热性、耐酸碱性和耐溶剂性拓宽了酵素的应用范围，而酵素的重复利用和固定化技术则提高了製程的经济性。

永续酵素市场与循环经济原则密不可分。除了回收之外，酵素还能实现农业和工业废弃物的增值利用，将副产品转化为高价值的化学品、材料和燃料。与全细胞发酵相比，使用分离酶的无细胞生物催化系统可节省 60-80% 的能源，并透过简化纯化过程获得更清洁的产品。

本报告深入分析了全球永续酵素市场，并提供了关于市场动态、技术创新和竞争格局的见解。

目录

第一章 摘要整理

  • 工业生物製造
  • 工业生物製造工艺
  • 永续工业酵素市场
  • 酵素在现代工业中的重要性
  • 市场推动因素
  • 市场阻碍因素
  • 规模化生产与製造挑战
  • 工业价值链
  • 监理环境
    • 概述
    • 酵素新用途的监管审批
  • 工业酵素的技术进步与新兴应用
    • 蛋白质工程、定向演化
    • 宏基因体学方法
    • 酵素固定化技术
    • 计算酵素设计
    • 製药与生技产业
    • 化妆品和个人护理
    • 生物修復
    • 奈米技术
    • 3D生物列印
    • 酵素回收与循环材料
  • 工业酵素的永续性和环境问题
    • 工业酵素在永续生产中的作用
    • 酵素生产的生命週期评估
    • 酵素产业的循环经济举措

第二章 引言

  • 工业酵素的分类
  • 工业酵素的类型
    • 碳水化合物酶
    • 蛋白酶
    • 脂肪酶
    • 纤维素酶
    • 淀粉酶
    • 其他
  • 生产方法
    • 动植物萃取
    • 微生物发酵
    • 基因改造生物
    • 无细胞酵素系统

第三章 工业用酵素市场

  • 技术/材料分析
    • 洗涤剂用酶
    • 食品加工用酶
    • 纺织加工用酶
    • 造纸和纸浆加工用酶
    • 皮革加工用酶
    • 生质燃料生产用酶
    • 动物饲料用酶
    • 医药与诊断用酶
    • 废弃物管理与生物修復用酶
    • 农业和作物改良用酶
  • 市场分析
    • 主要公司与竞争对手市场概况
    • 市场成长推动因素及趋势
    • 未来展望
    • 风险与机遇
    • 定价

第四章：全球收入

  • 依应用市场划分
  • 依类型划分
  • 依原料划分
  • 依形态划分

第五章 公司简介（85家公司简介）

第六章：研究方法

第七章：参考文献

The sustainable enzymes market represents one of the most dynamic and rapidly growing segments within industrial biotechnology. This market encompasses industrial enzymes specifically developed and applied to reduce environmental impact, enable circular economy models, and replace harmful chemical processes across manufacturing sectors. Sustainability concerns are fundamentally reshaping industrial enzyme demand. Traditional applications in detergents, food processing, and textiles continue to grow, but emerging sustainability-focused applications are driving accelerated expansion. Enzymatic recycling of plastics and textiles represents perhaps the most transformative development, with enzymes capable of depolymerizing PET plastics and polyester textiles into virgin-quality monomers for infinite recycling. This technology addresses the global challenge of 150-200 million tonnes of annual plastic waste while reducing carbon emissions by 30-50% compared to virgin production.

Biofuel production remains a significant driver, with cellulases and hemicellulases enabling conversion of agricultural waste into renewable fuels. The pulp and paper industry increasingly adopts enzymatic bleaching to eliminate chlorine-based chemicals, while textile manufacturers use enzymes to replace harsh acids and alkalis in fabric processing. These substitutions deliver substantial environmental benefits: 50-70% energy reduction, 40-60% water savings, and elimination of toxic chemical waste streams.

Artificial intelligence and machine learning are revolutionizing enzyme development, reducing timelines from 3-5 years to 6-18 months while cutting costs by 50-70%. Generative AI models now design enzymes with desired properties computationally, bypassing traditional directed evolution's trial-and-error approach. This acceleration enables rapid development of specialized enzymes for emerging sustainability applications. Protein engineering advances have produced extremozymes functioning in harsh industrial conditions previously requiring chemical catalysts. Enhanced thermostability, pH tolerance, and solvent resistance expand enzyme applicability while improving process economics through enzyme reuse and immobilization technologies.

The sustainable enzymes market is intrinsically linked to circular economy principles. Beyond recycling applications, enzymes enable valorization of agricultural and industrial waste streams, converting by-products into valuable chemicals, materials, and fuels. Cell-free biocatalysis systems using isolated enzymes rather than whole-cell fermentation offer 60-80% energy reductions and cleaner products with simplified purification.

"The Global Sustainable Enzymes Market 2026-2036" provides critical insights into the global sustainable industrial enzymes market. As artificial intelligence revolutionizes enzyme design and enzymatic recycling emerges as a game-changing solution to plastic waste, understanding market dynamics, technological innovations, and competitive landscapes becomes essential for stakeholders across biotechnology, chemical manufacturing, textiles, food processing, and waste management sectors. The report provides exhaustive analysis of sustainable enzyme applications spanning detergents, food and beverage processing, textile manufacturing, biofuels production, pharmaceutical development, and the rapidly emerging enzymatic recycling sector. Special emphasis is placed on breakthrough technologies including AI-driven enzyme discovery, cell-free biomanufacturing systems, and enzymatic depolymerization of plastics and textiles-innovations that are fundamentally reshaping circular economy approaches and enabling virgin-quality material recovery from post-consumer waste streams.

With growing regulatory pressure for sustainable manufacturing, carbon emission reduction targets, and circular economy mandates, enzymes offer compelling advantages: 50-70% energy savings compared to chemical processes, 40-60% water consumption reduction, elimination of toxic chemical waste, and significantly lower carbon footprints. This report examines how these sustainability drivers are accelerating enzyme adoption across industries while analyzing the complex regulatory landscape, particularly the evolving recognition of enzymatic recycling as an official recycling pathway in key markets including the European Union, Germany, United States, and Asia-Pacific regions.

Market segmentation analysis covers enzyme types (carbohydrases, proteases, lipases, cellulases, amylases), sources (microbial, plant, animal), forms (liquid, powder, granular), and applications across ten major industrial sectors. Detailed revenue forecasts through 2036 quantify growth opportunities while identifying emerging applications in plastic degradation, textile recycling, and bio-based chemical production that represent the highest-growth segments.

The competitive landscape section profiles 84 leading companies and innovative startups driving sustainable enzyme innovation, from established multinational corporations to venture-backed biotechnology pioneers. Analysis encompasses technology platforms, production capabilities, strategic partnerships, funding rounds, and market positioning, providing decision-makers with actionable intelligence on competitive dynamics and potential collaboration opportunities.

Technology deep-dives examine protein engineering, directed evolution, metagenomic enzyme discovery, computational design using generative AI and machine learning, enzyme immobilization techniques for enhanced reusability, and integration of digital technologies with bioprocessing. Special sections address scale-up challenges, infrastructure development requirements, and capital investment considerations for moving technologies from laboratory to commercial production-critical factors determining market entry success and competitive advantage.

Report Contents Include:

  • Executive summary of sustainable enzymes market dynamics and growth projections
  • Comprehensive analysis of industrial biomanufacturing processes and classifications
  • Detailed market drivers, restraints, and regulatory landscape across major regions
  • Breakthrough technological advancements: AI-driven enzyme design, enzymatic recycling, cell-free systems
  • In-depth applications analysis across 10 industrial sectors with enzyme type specifications
  • Competitive landscape and strategic positioning of 84 key players and emerging innovators
  • Global revenue forecasts 2026-2036 segmented by application, type, source, and form
  • Price trend analysis and forecast through 2036
  • Infrastructure investment requirements and scale-up challenges
  • Circular economy integration strategies and sustainability metrics
  • 33 detailed data tables and 9 illustrative figures
  • Companies Profiled include: AgBiome, Agrivida, Amano Enzyme Inc., Aminoverse, Anodyne Chemistries, Ansa Biotechnologies, Apexzymes, Arctos, Arzeda, Atantares, Basecamp Research, BASF, Biocatalysts Ltd., BioBetter, Bio Fab NZ, BioMap, Biomatter, Biosyntia, Cambrium GmbH, Carbios, Cascade Biocatalysts Inc., CinderBio, Clariant AG, Codexis, Constructive Bio, Debut Biotechnology, Diffuse Bio, DSM-Firmenich, Dupont, Eco Fuel Technology Inc., Elemental Enzymes Inc., EnginZyme AB, EnPlusOne Biosciences, Enzyan Biocatalysis GmbH, Enzymaster, Enzymit, Enzyme, Enzymicals AG, Epoch Biodesign, Ester Biotech, Etcembly, Eversyn, eXoZymes Inc., FabricNano, Futurity Bio-Ventures Ltd., Gen3Bio, General Biological, Ginkgo Bioworks, Global Bioenergies SA, Honext Material SL, HydGene Renewables, Immobazyme, Imperagen Limited, Iogen Corporation, Johnson Matthey and more......

TABLE OF CONTENTS

1. EXECUTIVE SUMMARY

  • 1.1. Industrial Biomanufacturing
  • 1.2. Industrial Biomanufacturing Processes
  • 1.3. Sustainable Industrial Enzymes Markets
  • 1.4. Importance of Enzymes in Modern Industry
  • 1.5. Market Drivers
  • 1.6. Market Restraints
  • 1.7. Scale-Up and Manufacturing Challenges
  • 1.8. Industry Value Chain
  • 1.9. Regulatory Landscape
    • 1.9.1. Overview
    • 1.9.2. Regulatory Recognition of Emerging Enzyme Applications
      • 1.9.2.1. Enzymatic Recycling Regulatory Status
      • 1.9.2.2. Policy Evolution and Positive Signals
      • 1.9.2.3. Expected Regulatory Developments
      • 1.9.2.4. Impact on Market Development
      • 1.9.2.5. Broader Policy Implications
  • 1.10. Technological Advancements and Emerging Applications in Industrial Enzymes
    • 1.10.1. Protein Engineering and Directed Evolution
    • 1.10.2. Metagenomic Approaches
    • 1.10.3. Enzyme Immobilization Techniques
      • 1.10.3.1. Immobilization for Enzymatic Recycling Applications
      • 1.10.3.2. Emerging Immobilization Technologies
    • 1.10.4. Computational Enzyme Design
      • 1.10.4.1. Generative AI and Deep Learning Models
      • 1.10.4.2. Integration with Experimental Data
      • 1.10.4.3. Advanced Computational Techniques
      • 1.10.4.4. Applications and Impact
      • 1.10.4.5. Challenges and Future Directions
    • 1.10.5. Pharmaceutical and Biotechnology Industries
    • 1.10.6. Cosmetics and Personal Care
    • 1.10.7. Bioremediation
    • 1.10.8. Nanotechnology
    • 1.10.9. 3D Bioprinting
    • 1.10.10. Enzymatic Recycling and Circular Materials
      • 1.10.10.1. Plastic and Polyester Recycling
      • 1.10.10.2. Textile Recycling Applications
      • 1.10.10.3. Applicable Polymer Types
      • 1.10.10.4. Process Technology
      • 1.10.10.5. Environmental and Economic Benefits
      • 1.10.10.6. Design for Circularity
      • 1.10.10.7. Industry Adoption
      • 1.10.10.8. Challenges and Development Needs
  • 1.11. Sustainability and Environmental Considerations for Industrial Enzymes
    • 1.11.1. Role of Industrial Enzymes in Sustainable Production
    • 1.11.2. Life Cycle Assessment of Enzyme Production
    • 1.11.3. Circular Economy Initiatives in the Enzyme Industry

2. INTRODUCTION

  • 2.1. Classification of industrial enzymes
  • 2.2. Types of Industrial Enzymes
    • 2.2.1. Carbohydrases
    • 2.2.2. Proteases
    • 2.2.3. Lipases
    • 2.2.4. Cellulases
    • 2.2.5. Amylases
    • 2.2.6. Others
  • 2.3. Production Methods
    • 2.3.1. Extraction from Plant and Animal Sources
    • 2.3.2. Microbial Fermentation
    • 2.3.3. Genetically Engineered Organisms
    • 2.3.4. Cell-Free Enzyme Systems
      • 2.3.4.1. Cell-Free Enzyme Production
      • 2.3.4.2. Cell-Free Biocatalysis
      • 2.3.4.3. Commercial Applications
      • 2.3.4.4. Process Integration
      • 2.3.4.5. Comparison with Precision Fermentation

3. INDUSTRIAL ENZYMES MARKET

  • 3.1. Technology/materials analysis
    • 3.1.1. Detergent Enzymes
    • 3.1.2. Food Processing Enzymes
    • 3.1.3. Textile Processing Enzymes
    • 3.1.4. Paper and Pulp Processing Enzymes
    • 3.1.5. Leather Processing Enzymes
    • 3.1.6. Biofuel Production Enzymes
    • 3.1.7. Animal Feed Enzymes
    • 3.1.8. Pharmaceutical and Diagnostic Enzymes
    • 3.1.9. Waste Management and Bioremediation Enzymes
    • 3.1.10. Agriculture and Crop Improvement Enzymes
  • 3.2. Market analysis
    • 3.2.1. Key players and competitive landscape
    • 3.2.2. Market Growth Drivers and Trends
    • 3.2.3. Future outlook
    • 3.2.4. Risks and Opportunities
    • 3.2.5. Pricing
      • 3.2.5.1. Pricing Trends
      • 3.2.5.2. Factors Affecting Pricing
      • 3.2.5.3. Price Forecast

4. GLOBAL REVENUES

  • 4.1. By application market
  • 4.2. By type
  • 4.3. By source
  • 4.4. By form

5. COMPANY PROFILES(85 company profiles)

6. RESEARCH METHODOLOGY

7. REFERENCES

List of Tables

  • Table 1. Biomanufacturing revolutions and representative products
  • Table 2. Industrial Biomanufacturing categories
  • Table 3. Overview of Biomanufacturing Processes
  • Table 4. Market Drivers for Industrial Enzymes
  • Table 5. Market Restraints for Industrial Enzymes
  • Table 6. Scaling Challenges in Enzyme Production and Application
  • Table 7. Regulatory Status of Enzymatic Recycling by Region
  • Table 8. Comparison of Traditional vs. AI-Driven Enzyme Development
  • Table 9. Enzymatic Recycling vs. Traditional Recycling Methods
  • Table 10. Polymer Types Suitable for Enzymatic Recycling
  • Table 11. Circular Economy Benefits of Enzymatic Recycling
  • Table 12.Commonly Used Industrial Enzymes
  • Table 13. Industrial Enzyme Applications
  • Table 14. Comparative analysis of industrial enzyme manufacturing
  • Table 15. Key Properties and Advantages of Industrial Enzymes
  • Table 16. Comparison of Enzyme Production and Application Methods
  • Table 17. Types of Detergent Enzymes
  • Table 18.Types of Food Processing Enzymes
  • Table 19. Types of Textile Processing Enzymes
  • Table 20. Circular Economy Benefits of Enzymatic Recycling
  • Table 21. Types of Paper and Pulp Processing Enzymes
  • Table 22. Types of Leather Processing Enzymes
  • Table 23. Types of Biofuel Production Enzymes
  • Table 24. Types of Animal Feed Enzymes
  • Table 25. Types of Pharmaceutical and Diagnostic Enzymes
  • Table 26. Types of Waste Management and Bioremediation Enzymes
  • Table 27. Types of Agriculture and Crop Improvement Enzymes
  • Table 28. Comparison of enzyme types
  • Table 29. Key players in industrial enzymes
  • Table 30. Market Growth Drivers and Trends in industrial enzymes
  • Table 31. Risks and Opportunities in industrial enzymes
  • Table 32. Global revenues for industrial enzymes from to 2036, Billions USD
  • Table 33. Market Segmentation by Type of Industrial Enzymes 2023-2036 (Billion USD)
  • Table 34. Market Segmentation by Source of Industrial Enzymes 2023-2036 (Billion USD)
  • Table 35. Market Segmentation by Form of Industrial Enzymes 2023-2036 (Revenue Billion USD)
  • able 35. Market Segmentation by Form of Industrial Enzymes 2023-2036 (Revenue Billion USD)

List of Figures

  • Figure 1. Industry Value Chain Industrial Enzymes
  • Figure 2. Global revenues for industrial enzymes from to 2036, Billions USD
  • Figure 3. Market Segmentation by Type of Industrial Enzymes 2023-2036 (Billion USD)
  • Figure 4. Market Segmentation by Source of Industrial Enzymes 2023-2036 (Billion USD)
  • Figure 5. Market Segmentation by Form of Industrial Enzymes 2023-2036 (Revenue Billion USD)
  • Figure 6. Enzymatic recycling of plastics
  • Figure 7. sunliquid-R production process
  • Figure 8. Light Bio Bioluminescent plants
  • Figure 9. Corbion FDCA production process