ホワイトバイオテクノロジー 2025-2035年:技術、予測、市場、有力企業

化学品および材料用途のための工業用バイオ製造。工業的発酵プロセス。バイオ製造分子35種類以上の技術分析と展望。バイオ製造市場の評価と10年間の市場予測。

製品情報 概要 目次 FAQ (よくある質問) 価格 Related Content
バイオ由来化学品の市場が今後10年間にわたって11.1%の年平均成長率で成長する見込みであるなど、ホワイトバイオテクノロジーの生産が拡大してます。規制圧力やバイオテクノロジーを利用した産業プロセスへの移行が成長を後押ししています。本調査レポートでは、主要分野のバイオ製品35種類以上を取り上げ、化学品のバイオ製造における現在のトレンドを分析し、酵素工学や合成生物学などの実現技術や、原料、持続可能性、最終用途を評価しています。また、市場の有力企業、最近の工場閉鎖、商業上の課題や、業界を方向付ける規制状況の変化についても解説しています。
「ホワイトバイオテクノロジー 2025-2035年」が対象とする主なコンテンツ 
(詳細は目次のページでご確認ください)
■ 全体概要と結論
■ 最新技術動向
  • 合成生物学
  • 生体触媒
  • 無細胞系
  • 持続可能性
  • 代替原料
■ 主要製品
  • 燃料(エタノール、藻類バイオ燃料など)
  • ポリマー前駆物質(乳酸、コハク酸、ブタンジオール、アジピン酸など)
  • その他の化学品(有機酸、トリグリセリド、脂肪酸など)
  • 新規高性能材料(クモの糸、菌糸体など)
■ 市場分析
■ インタビューに基づく企業概要
■ 市場規模、予測、展望(10分野)
 
「ホワイトバイオテクノロジー 2025-2035年」は以下の情報を提供します
  • バイオエコノミーでのホワイトバイオテクノロジー解説
  • 化学品(燃料、プラスチック、テキスタイル、添加剤、前駆物質など)へのバイオ製造応用の概要
  • バイオ製造で作られるバイオ系分子特定(40種類以上)
  • 主要バイオ製造分子の技術分析(30項目以上。バイオ製造プロセス、技術成熟度、課題、石油系現行品との比較、下流用途など)
  • 主要バイオ系分子(プロパンジオール、PHA、アジピン酸など)現在の生産能力ベンチマーク評価と展望
  • 合成生物学とバイオものづくりへの影響分析
  • ホワイトバイオテクノロジーに影響する技術動向(二酸化炭素回収、ガス状原料とリグノセルロース系原料、新規生体触媒など)
  • バイオ製造に影響するAI・機械学習関連の技術動向
  • 市場推進要因(政府による法整備、ブランド、大衆)と技術的課題評価
  • バイオものづくりの採算性に影響するペインポイント
  • 現在のプロジェクトとこれまでの取り組み解説(成功要因、失敗要因の分析など)
  • 主要バイオ製造分子別(乳酸、ブタンジオール、PHA、コハク酸、その他有機酸など)10年間市場予測
  • バイオものづくり事業の新規参入企業と既存企業紹介(分子別。100社以上)
 
White biotechnology: Advancing the bioeconomy
The bioeconomy can be defined as an economic system in which society uses renewable biological resources (i.e. derived from land, fisheries, and aquaculture environments) to create biobased products such as food and nutrients, chemicals and materials, and bio-energy. Developing the bioeconomy is a key aspect of creating a more circular sustainable economy, an especially critical task as the effects of climate change are exacerbated by global reliance on fossil fuel resources.
 
The advancement of biotechnology is critical to expanding the bioeconomy, as different areas (or "colors") of biotechnology can positively improve different sectors of the economy. For example, "green" biotechnology may be used to improve agricultural yields, while "red" biotechnology may be applied towards the creation of new vaccines. Of the numerous colors of the biotechnology spectrum, white biotechnology stands out as a key technology enabler for the bioeconomy by advancing the industrial production of biobased products through biological systems.
 
In this report, "White Biotechnology 2025-2035", IDTechEx provides independent analysis of the status of white biotechnology, looking critically at technology innovations and historic, current, and future projects to provide an objective assessment of white biotechnology's future.
 
What is white biotechnology, and why does it matter?
White biotechnology, sometimes called industrial biomanufacturing, is the industrial production and processing of chemicals, materials, and energy using living cell factories, like bacteria, yeast, and fungi. White biotechnology represents a more sustainable alternative to petroleum-based chemical production: one that not only decreases society's reliance on fossil fuels but also uses less energy, generates less waste, and potentially creates biodegradable products that are better for the environment.
 
Current distribution of white biotechnology installed production capacity by region 2025. Source: IDTechEx
 
White biotechnology is not particularly new; engineered enzymes for detergents have been produced via white biotechnology since the 1980s, and bacterial enzymes have been used as food additives for many, many years. That begs the question: why is white biotechnology so interesting now?
 
IDTechEx, in this report, sheds light on the technology innovations driving white biotechnology's growth and increasing relevance. With improvements in biotechnology tools and processes comes the ability to produce numerous important products, from commodity chemicals to high performance textiles, through white biotechnology. One main technology driver is synthetic biology - the artificial design and engineering of biological systems and living organisms for the purpose of improving applications for industry or research. IDTechEx offers extensive discussion on synthetic biology's importance to industrial biomanufacturing by considering synthetic biology's tools and techniques, applications, emerging players, etc. IDTechEx continues their analysis of the technology advances enabling white biotechnology with detailed examinations (including status, technical benefits and challenges, commercial activity), among other trends, of:
  • Novel biocatalysts for industrial fermentation
  • Improvements to bioprocesses
  • Cell-free systems
  • Alternative feedstocks for bioreactors - gases, cellulosic materials, etc.
  • Carbon neutral and carbon negative biomanufacturing
 
Biobased products from industrial biomanufacturing: a diverse spectrum
Just as important as the innovations improving white biotechnology are its applications - the chemicals, precursors, additives, and materials produced by the fermentation of engineered cell factories. The range of molecules and compounds that can be biomanufactured is incredibly diverse with use cases in everything from lubricants to leather, textiles to packaging, adhesives to additives, etc. These molecules include alcohols, diols, diamines, organic acids, proteins, and more.
 
To provide clarity on these many products of white biotechnology, IDTechEx provides detailed technical and market analysis on 40+ biomanufactured molecules, looking at essential factors for each molecule such as:
  • The molecule's biomanufacturing process
  • Comparison of the biomanufactured product with its petrochemical equivalent
  • Technical advantages of the biomanufacturing process
  • Current challenges
  • Downstream products and end-applications for the molecule
  • Technology readiness level
  • Players developing and producing the molecule via biomanufacturing
  • Market outlook
 
With these IDTechEx insights, a clear understanding of the status and growing versatility of the white biotechnology industry will be achieved.
 
Lactic acid: Experiencing accelerating growth through regulation-driven PLA demand
Among the many biobased molecules covered in this report, lactic acid stands out for its rapidly growing significance, driven largely by increased demand for polylactic acid (PLA). PLA, a biodegradable polymer derived from lactic acid, is gaining momentum as a substitute for traditional fossil-based plastics in packaging and consumer goods. This surge in demand is notably influenced by tightening environmental regulations, particularly in China, where restrictions on non-biodegradable plastics have spurred a national push toward compostable alternatives. As a result, both domestic and international PLA producers are scaling up production capacity, fueling parallel growth in the lactic acid supply chain.
 
The Impact of AI on White Biotechnology
Artificial intelligence (AI) is increasingly becoming a pivotal enabler in the development and optimization of white biotechnology. By accelerating strain engineering, AI algorithms can analyze genomic and metabolic datasets to predict optimal genetic modifications for improved yield, tolerance, or productivity in microbial cell factories. In bioprocess development, machine learning models are being used to optimize fermentation conditions in silico, reducing the need for costly and time-consuming laboratory trials. AI also plays a vital role in enzyme discovery and protein engineering by rapidly screening candidate molecules for industrial use. As white biotechnology continues to expand its application scope, the integration of AI stands to dramatically improve process efficiency, scalability, and cost effectiveness, reinforcing the field's value proposition as a sustainable alternative to traditional petrochemical production.
 
White biotechnology: An active market of established and emerging players
With the diverse spectrum of molecules being produced through white biotechnology, there is a large number of companies attempting to advance their industrial biomanufacturing activities. Within this report, IDTechEx has considered well over 100 companies pursuing white biotechnology efforts, ranging from multinational material and chemical conglomerates to nascent startups. Important information such as partnerships, funding, past projects, molecules being pursued, current production capacity, and more are highlighted to understand how and why so many companies have chosen to engage with white biotechnology. These will be bolstered by IDTechEx's interview-based company profiles of key players in this market.
 
The player landscape of white biotechnology is just one component of the overall market dynamics that are shaping industrial biomanufacturing. There are numerous factors to be evaluated to determine the economic viability of certain white biotechnology projects, from internal factors such as process yield, ease of scale, and biocatalyst choice to external factors such as government regulations, crude oil prices, and the green premium. This report analyzes the white biotechnology market from these perspectives to offer understanding on the industry's prior trajectory and insight on what will determine its future success.
 
White biotechnology 10-year market forecast segmented by major molecules
 
Colors of biotechnology: defining the scope of white biotechnology. Source: IDTechEx
 
Lastly, to identify the growth potential of the white biotechnology industry, IDTechEx provides industrial biomanufacturing forecasts that segments the market by ten major biomanufactured molecules based on global production capacity. The report looks at the current capacity, drivers, and constraints of each segment and then extrapolates them into a 10-year forecast, to explore the mature and emerging white biotechnology products, technology readiness, potential for disruption, and the future landscape of white biotechnology.
Key Aspects:
  • Discussion of white biotechnology within the bioeconomy.
  • Overview of biomanufacturing's application in fuels, plastics, textiles, additives, precursors, and other chemicals.
  • Identification of 40+ biobased molecules produced through biomanufacturing.
  • 30+ granular technology analyses for major biomanufactured molecules, including biomanufacturing process, technology readiness level, challenges, comparison against petroleum incumbent, and downstream applications.
  • Benchmarking of current production capacity and outlook for major biobased molecules, including propanediol, PHAs, adipic acid, etc.
  • Analysis of synthetic biology and its impact on industrial biomanufacturing.
  • Technology developments influencing white biotechnology, including carbon capture, gaseous and lignocellulosic feedstock, and novel biocatalysts.
  • The impact of technology developments with AI and machine learning on biomanufacturing.
  • Assessment of market drivers (government legislation, brands, the public) and key technical challenges for white biotechnology.
  • Pain points affecting economic viability for industrial biomanufacturing.
  • Discussion of current projects and previous efforts in white biotechnology, including analysis of factors for success or failure.
  • Detailed 10-year market forecasts segmented by major biomanufactured molecules, including lactic acid, butanediol, PHAs, succinic acid, and other organic acids.
  • Identification of 100+ emerging startups and established players operating in industrial biomanufacturing, segmented by molecule.
Report MetricsDetails
CAGRBiomanufactured chemicals to grow at 11.1% CAGR from 2025-2035 (excluding fuels).
Forecast Period2025 - 2035
Forecast Unitskilotonnes per annum (ktpa)
Regions CoveredWorldwide
Segments CoveredLactic Acid, 1,3-propanediol, Long chain dicarboxylic acids (LCDAs), Succinic Acid, PHA, Other Biomanufactured Chemicals, Short chain fatty acids (SCFAS), 1,4-butanediol, 1,5-pentanediamine, Other organic acids
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アイディーテックエックス株式会社 (IDTechEx日本法人)
担当: 村越美和子 m.murakoshi@idtechex.com
1.EXECUTIVE SUMMARY
1.1.Glossary of terms
1.2.Colors of biotechnology
1.3.What is white biotechnology?
1.4.White Biotechnology 2025-2035: scope
1.5.Trends and drivers in white biotechnology
1.6.Synthetic biology as applied to white biotechnology
1.7.Technology trends in white biotechnology
1.8.Overview of alternative feedstocks for white biotechnology
1.9.Major market challenges for white biotechnology
1.10.Technical challenges facing white biotechnology
1.11.Products derived from white biotechnology: Overview
1.12.Molecules that can be produced through industrial biomanufacturing
1.13.Molecules that can be produced through industrial biomanufacturing
1.14.Company landscape in white biotechnology
1.15.Company landscape in white biotechnology
1.16.Next-generation fuels through white biotechnology
1.17.Bioplastics through white biotechnology
1.18.Navigating biobased polymers from monosaccharides
1.19.Common bioplastics and polymer precursors synthesized via white biotechnology
1.20.Status of molecules produced through white biotechnology
1.21.White biotechnology market share by molecule 2025-2035
1.22.White biotechnology global capacity forecast 2025-2035
1.23.White biotechnology global capacity forecast 2025-2035: Discussion (I)
1.24.White biotechnology global capacity forecast 2025-2035: Discussion (II)
1.25.Emerging areas of white biotechnology forecast 2025-2035
1.26.IDTechEx circular bioeconomy research
1.27.Company profiles
1.28.Access More With an IDTechEx Subscription
2.INTRODUCTION
2.1.Glossary of acronyms
2.2.Glossary of acronyms
2.3.Glossary of terms
2.4.Glossary of terms
2.5.Colors of biotechnology
2.6.What is white biotechnology?
2.7.The bioeconomy and white biotechnology
2.8.White Biotechnology 2025-2035: Scope
3.MARKET ANALYSIS
3.1.Market Drivers for White Biotechnology
3.1.1.Market drivers: Demand for biobased products
3.1.2.Market drivers: Government regulation on petroleum-based plastic use
3.1.3.Market drivers: Regulations that are likely to impact biomanufacturing demand
3.1.4.Market drivers: Regulations are driving strong interest in biodegradable plastics in China
3.1.5.Market drivers: Government support of biotechnology
3.1.6.Market drivers: Government support of biotechnology
3.1.7.Market drivers: Carbon taxes
3.2.Economic Viability of White Biotechnology
3.2.1.Factors affecting the economic viability of white biotechnology projects
3.2.2.Effect of the price of Brent crude on biobased products
3.2.3.The Green Premium
3.2.4.Rising feedstock prices
3.2.5.Effect of cell factory on cost
3.2.6.Identifying the chemicals with the most potential to become biobased based on price
3.2.7.How scale-up affects cost
3.2.8.Zymergen: Case study on economics of synthetic biology
3.2.9.Case study: LanzaTech
3.2.10.Case study: Solazyme
3.2.11.Synthetic biology: Shift from commodity products to lower volume, high value markets
3.2.12.Major market challenges for white biotechnology
3.3.Player, Start-up, and Regional Landscape
3.3.1.Production capacity of chemicals from biomanufacturing by region 2025
3.3.2.Regional analysis: Drivers and restraints for biomanufacturing production and demand by region
3.3.3.Regional analysis: Location of R&D vs production
3.3.4.Regional analysis: Biomanufacturing
3.3.5.Regional analysis: Production capacity by region
3.3.6.Players: Synthetic biology tools and platforms
3.3.7.Players: Vertically integrated biomanufacturing
3.3.8.Emerging players segmented by molecule
3.3.9.Emerging players segmented by molecule
3.3.10.Overview of chemicals and materials companies involved with white biotechnology
3.3.11.Overview of chemicals and materials companies involved in white biotechnology
4.CELL FACTORIES FOR WHITE BIOTECHNOLOGY
4.1.Cell factories for biomanufacturing: Factors to consider
4.2.Cell factories for biomanufacturing: A range of organisms
4.3.Escherichia coli (E.coli)
4.4.Corynebacterium glutamicum (C. glutamicum)
4.5.Bacillus subtilis (B. subtilis)
4.6.Saccharomyces cerevisiae (S. cerevisiae)
4.7.Yarrowia lipolytica (Y. lipolytica)
4.8.Microorganisms used in different biomanufacturing processes
4.9.Non-model organisms for white biotechnology
5.TECHNOLOGY DEVELOPMENTS
5.1.Synthetic Biology
5.1.1.Synthetic biology: The design and engineering of biological systems
5.1.2.Synthetic biology: Manipulating the central dogma
5.1.3.The vast scope of synthetic biology
5.1.4.The process of synthetic biology: Design, build and test
5.1.5.Synthetic biology: Why now?
5.1.6.Synthetic biology: From pharmaceuticals to consumer products
5.1.7.Synthetic biology: Disrupting existing supply chains
5.1.8.Synthetic biology: Drivers and barriers for adoption
5.1.9.Synthetic biology as applied to white biotechnology
5.2.Tools and Techniques of Synthetic Biology
5.2.1.Tools and techniques of synthetic biology: Overview
5.2.2.DNA synthesis
5.2.3.Introduction to CRISPR-Cas9
5.2.4.CRISPR-Cas9: A bacterial immune system
5.2.5.CRISPR-Cas9's importance to synthetic biology
5.2.6.Protein/enzyme engineering
5.2.7.Computer-aided design
5.2.8.Commercial examples of engineered proteins in industrial applications
5.2.9.Strain construction and optimization
5.2.10.Synergy between synthetic biology and metabolic engineering
5.2.11.Framework for developing industrial microbial strains
5.2.12.The problem with scale
5.2.13.Introduction to cell-free systems
5.2.14.Cell-free versus cell-based systems
5.2.15.Cell-free systems in the context of white biotechnology
5.2.16.Cell-free systems for white biotechnology
5.2.17.Commercial implementation of cell-free systems: Solugen
5.2.18.Startups pursuing cell-free systems for white biotechnology
5.2.19.Startups pursuing cell-free systems for white biotechnology
5.2.20.Immobilized enzymes in white biotechnology
5.2.21.Immobilized catalysts in white biotechnology
5.2.22.Robotics: enabling hands-free and high throughput science
5.2.23.Robotic cloud laboratories
5.2.24.Automating organism design and closing the loop
5.2.25.Artificial intelligence and machine learning
5.2.26.Machine learning de novo protein prediction
5.2.27.Overview of machine learning based improvements for biomanufacturing
5.2.28.AI-driven fermentation platform companies
5.3.Improvement of Biomanufacturing Processes
5.3.1.Continuous vs batch biomanufacturing
5.3.2.Benefits and challenges of continuous biomanufacturing
5.3.3.Continuous vs batch biomanufacturing: Key fermentation parameter comparison
5.3.4.Machine learning to improve biomanufacturing processes
5.3.5.Downstream processing (DSP) improvements
5.3.6.Downstream processing (DSP) improvements (2)
5.3.7.Perfusion bioreactors
5.3.8.Tangential flow filtration (TFF) in downstream bioprocessing
5.3.9.Hybrid biotechnological-chemical approaches
5.3.10.Process intensification and high-cell-density fermentation
5.4.White Biotechnology for Sustainability
5.4.1.White biotechnology as a sustainable technology
5.4.2.Routes for carbon capture in white biotechnology
5.4.3.Autotrophic bacteria for carbon capture through biomanufacturing
5.5.Alternative Feedstocks for Biomanufacturing
5.5.1.Why use alternative feedstocks for white biotechnology?
5.5.2.Food, land, and water competition
5.5.3.C1 feedstocks: Metabolic pathways
5.5.4.C1 feedstocks: Economic benefits
5.5.5.C1 feedstocks: Challenges
5.5.6.Non-methane C1 feedstocks
5.5.7.C1 feedstocks: Products
5.5.8.C1 feedstocks: Gas fermentation
5.5.9.C2 feedstocks
5.5.10.C2 feedstocks: Products segmented by feedstock
5.5.11.C1 and C2 feedstocks: Commercial activity
5.5.12.C1 and C2 feedstocks: Commercial activity
5.5.13.Lignocellulosic biomass feedstocks
5.5.14.Lignocellulosic biomass feedstocks: Challenges
5.5.15.Lignocellulosic biomass feedstocks: Challenges
5.5.16.Lignocellulosic biomass feedstocks: Products
5.5.17.Lignocellulosic biomass feedstocks: Products
5.5.18.Lignocellulosic feedstocks: Commercial activity
6.BLUE BIOTECHNOLOGY
6.1.What is blue biotechnology?
6.2.Main biocatalysts of blue biotechnology: Cyanobacteria and algae
6.3.Cyanobacteria
6.4.Algae
6.5.Key drivers and challenges for blue biotechnology
6.6.Selected startups in blue biotechnology
7.PRODUCTS DERIVED FROM WHITE BIOTECHNOLOGY
7.1.1.Products derived from white biotechnology: Overview
7.2.Fuels
7.2.1.Biofuel generations - conventional & advanced biofuels
7.2.2.Biofuel generations
7.2.3.Biofuels made from white biotechnology
7.2.4.Metabolic pathways to biofuels
7.2.5.Bioethanol
7.2.6.Next-generation bioethanol
7.2.7.Next generation bioethanol: Barriers
7.2.8.Next-generation ethanol - operational plants
7.2.9.Next-generation ethanol - operational plants
7.2.10.Next-generation ethanol - operational plants
7.2.11.Next-generation ethanol - operational plants
7.2.12.Next-generation ethanol - operational plants
7.2.13.Next-generation ethanol - planned plants
7.2.14.Next-generation ethanol - planned plants
7.2.15.Next-generation ethanol - non-operational and cancelled plants
7.2.16.Next-generation ethanol - non-operational and cancelled plants
7.2.17.Diesel from biomanufacturing pathways
7.2.18.Farnesene
7.2.19.n-Butanol
7.2.20.Isobutanol
7.2.21.Methanol
7.2.22.Blue biotechnology in biofuel production
7.2.23.Blue biotechnology in biodiesel production
7.2.24.Blue biotechnology in bioethanol production
7.2.25.Blue biotechnology for biofuel production: Key challenges for commercial viability
7.2.26.Blue biotechnology for biofuel production: Commercial activity by US oil producers
7.2.27.Blue biotechnology for biofuel production: Commercial activity by non-US oil producers
7.2.28.Blue biotechnology for biofuel production: List of current and former players
7.2.29.Blue biotechnology for biofuel production: List of current and former players
7.2.30.Blue biotechnology for biofuel production: List of current and former players
7.3.Plastics and Textiles
7.3.1.Introduction to bioplastics
7.3.2.Production of bioplastics through white biotechnology
7.3.3.Navigating biobased polymers from monosaccharides
7.3.4.Common bioplastics and polymer precursors synthesized via white biotechnology
7.3.5.Lactic Acid and Polylactic Acid (PLA)
7.3.6.Lactic acid (C3H6O3)
7.3.7.Lactic acid: Bacterial fermentation or chemical synthesis?
7.3.8.Optimal lactic acid bacteria strains for fermentation
7.3.9.Engineering yeast strains for lactic acid fermentation
7.3.10.Fermentation, recovery and purification
7.3.11.What is polylactic acid?
7.3.12.Production of PLA
7.3.13.PLA production process
7.3.14.Polylactic acid: A SWOT analysis
7.3.15.Molecules for Other Biobased Synthetic Polyesters
7.3.16.The range of available biobased polyesters from bio-manufactured monomers
7.3.17.Propylene glycol (PG) or 1,2-propanediol
7.3.18.1,3-Propanediol (1,3-PDO)
7.3.19.Biobased PDO and PTT: Monomer production
7.3.20.Biobased PDO and PTT: Polymer applications
7.3.21.2,3-Butanediol (2,3-BDO)
7.3.22.1,4-Butanediol (1,4-BDO)
7.3.23.Biobased BDO: Monomer production
7.3.24.Biobased BDO technology licensed from Geno
7.3.25.Biobased BDO and PBT: Polymer applications
7.3.26.Succinic acid
7.3.27.Biobased succinic acid: Monomer production
7.3.28.Biobased succinic acid and PBS: Polymer applications
7.3.29.Biobased succinic acid: Project status
7.3.30.2,5-furandicarboxylic acid (FDCA)
7.3.31.Biobased FDCA: Monomer production
7.3.32.Polyethylene furanoate (PEF)
7.3.33.Biobased FDCA and PEF: Polymer applications
7.3.34.Molecules for Other Biobased Synthetic Polymers
7.3.35.Biosynthetic pathways to polyamides
7.3.36.C6: Adipic acid, hexamethylenediamine, and caprolactam
7.3.37.C10: Sebacic acid
7.3.38.C12: Dodecanedioic acid
7.3.39.1,5-Pentanediamine (PDA)
7.3.40.Covestro: PDI and Desmodur eco aliphatic polyisocyanate
7.3.41.Cathay Industrial Biotech: TERRYL and ECOPENT biobased polyamides
7.3.42.1,3-Butadiene
7.3.43.Status of biomanufacturing-derived butadiene projects
7.3.44.Isoprene
7.3.45.Isobutene (isobutylene)
7.3.46.Naturally Occurring Biobased Polymers: Polyhydroxyalkanoates (PHAs)
7.3.47.Introduction to poly(hydroxyalkanoates)
7.3.48.Biosynthetic pathways to PHAs
7.3.49.Fermentation, recovery and purification
7.3.50.Key commercial PHAs and microstructures
7.3.51.PHB, PHBV, and P(3HB-co-4HB)
7.3.52.Types of PHAs
7.3.53.Material properties of commercial PHAs
7.3.54.Suppliers of PHAs
7.3.55.Short and medium chain-length PHAs
7.3.56.PHAs: A SWOT analysis
7.3.57.Applications of PHAs
7.3.58.Opportunities in PHAs
7.3.59.Reducing the cost of PHA production
7.3.60.Risks in PHAs
7.3.61.PHAs are only made in small quantities
7.3.62.PHA production facilities
7.3.63.Case Study: Danimer Scientific ends PHA production
7.3.64.Conclusions
7.3.65.Other Textiles Produced through White Biotechnology
7.3.66.Spider silk
7.3.67.Collagen-derived textiles
7.3.68.Mycelium
7.4.Other Chemicals, Precursors, and Additives
7.4.1.Acetone
7.4.2.Acrylic acid
7.4.3.Acetone
7.4.4.Itaconic acid
7.4.5.Biobased ethanol as a precursor
7.4.6.Biomanufacturing of ethylene
7.4.7.Monoethylene glycol (MEG)
7.4.8.Biobased MEG: Monomer production
7.4.9.Biobased MEG: Industry landscape
7.4.10.Biobased MEG: Industry landscape
7.4.11.Polyethylene terephthalate (PET)
7.4.12.Biobased polyolefins
7.4.13.Braskem: "I'm green" polyethylene
7.4.14.Biomanufacturing of propylene precursors
7.4.15.Malonic acid
7.4.16.Short chain fatty acids and medium chain fatty acids (SCFAs/MCFAs)
7.4.17.Short chain fatty acids and medium chain fatty acids (SCFAs/MCFAs)
7.4.18.Short chain fatty acids: Acetic acid
7.4.19.Triglycerides
7.4.20.Other organic acids and aldehydes
7.4.21.Other organic acids and aldehydes
7.4.22.Bacterial cellulose
7.5.Other Products Derived from White Biotechnology
7.5.1.Overview of vitamins and amino acids produced through white biotechnology
7.5.2.Overview of white biotechnology for cosmetics
7.5.3.Biomanufacturing for surfactants and detergents
7.5.4.Enzymes for onward use: Novozymes
7.5.5.Cement alternatives from biomanufacturing: BioMason
7.5.6.Precision fermentation: Definition and scope
8.FORECASTS FOR WHITE BIOTECHNOLOGY
8.1.Forecast methodology
8.2.White biotechnology market share by molecule 2025-2035
8.3.White biotechnology global capacity forecast 2025-2035
8.4.White biotechnology global capacity forecast 2025-2035: Discussion (I)
8.5.White biotechnology global capacity forecast 2025-2035: Discussion
8.6.White biotechnology global capacity forecast 2025-2035: Discussion
8.7.Emerging areas of white biotechnology forecast 2025-2035
8.8.Emerging areas of white biotechnology forecast: Discussion
9.COMPANY PROFILES
9.1.Afyren
9.2.Arzeda
9.3.Biomason
9.4.Bolt Threads
9.5.Braskem
9.6.Cathay Biotech
9.7.CarbonBridge
9.8.Celtic Renewables
9.9.Chaincraft
9.10.CyanoCapture
9.11.Ecovative
9.12.Enginzyme
9.13.Enzymaster
9.14.Industrial Microbes
9.15.Kraig Biocraft Laboratories
9.16.LanzaTech (2023) Update
9.17.LanzaTech
9.18.Mango Materials
9.19.Modern Meadow
9.20.New Energy Blue
9.21.Novozymes
9.22.Q Power
9.23.Spiber
9.24.Henan Techuang Biotechnology
9.25.Huitong Biomaterials
9.26.Total Energies Corbion
9.27.Teijin Frontier: PLA
9.28.Natureworks
9.29.Biotic Circular Technologies
9.30.Bluepha
9.31.CJ Biomaterials
9.32.Danimer Scientific (2024 Update - Now bankrupt)
9.33.Danimer Scientific
9.34.Fortum: INGA Plastic
9.35.Kaneka
9.36.Newlight Technologies (Not currently operational)
9.37.Ourobio
9.38.Paques Biomaterials
10.APPENDIX
10.1.White biotechnology global capacity forecast 2025-2035
10.2.Emerging areas of white biotechnology forecast 2025-2035
 

About IDTechEx reports

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スライド 315
フォーキャスト 2035
発行日 Apr 2025
 

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