展区概况 Bio-based 2026生物基展览 将继续招募全品类产业上下游创新产品，包括 生物基化学品、生物基塑料与制品、生物基纺织与鞋服、生物基橡胶、仪 器与设备、第三方检测与认证、工程技术与EPC、政府与园区、投资 等 。 展区内另设终端品牌需求对接专场；生物基材料标准评审会；新产品新技术发布会；生物基产业高层战略研讨会（第9期）以及11场主题论坛等 主办 方独家策划活动 。 与此同时， 第四届新叶奖（NEW LEAF AWARD 2026）创新评选颁奖 仪式将同期进行，展会以更持续、更多元、更接近行业需 求，为大家带来更多新生机。 02 展览观众类型 行业中高层聚集 Bio-based 2026生物基展览 的参 会观展规模预计超 过 1500人 。观众覆 盖生物基产品全产业链上、中、下游参与者，企业中高管、决策者、研发 人、终端用户材料负责人等。 Bio-based 生物基展 是生物基大会同期举办的生物基产业上下游专业展览。展览聚焦创新和全产业链，为生物基企业提供专业优质的展示交流平台， 推动行业发展。 Bio-based 2026生物基展览正式官宣！ Bio-based 2026生物基展由浙江省全省 ...

Core Viewpoint - Biomanufacturing is emerging as a transformative industry that utilizes living organisms to produce essential materials, marking a shift from traditional manufacturing methods reliant on fossil fuels to more sustainable practices using renewable resources [5][6]. Group 1: Definition and Importance of Biomanufacturing - Biomanufacturing involves using microorganisms, animal, or plant cells to produce desired substances by designing and controlling their metabolic pathways [5]. - This industry combines traditional fermentation techniques with synthetic biology, allowing for the production of pharmaceuticals, flavors, plastics, and fuels from renewable resources like sugar and carbon dioxide [5][6]. - It is considered a future industry because it represents a new manufacturing path driven by life, rather than an extension of traditional industries [5]. Group 2: Environmental and Economic Impact - Biomanufacturing is crucial for achieving carbon neutrality goals, as it utilizes renewable resources instead of fossil fuels, enabling a "carbon cycle" approach [6]. - Predictions suggest that by 2050, approximately 60% of industrial products could be produced through biomanufacturing, potentially generating an economic value exceeding $30 trillion [6]. Group 3: Current Developments in China - China is accelerating its biomanufacturing industry, with government reports emphasizing the need to cultivate new growth engines, including biomanufacturing [7]. - The country has established leading advantages in fermentation capacity, industrial scale, and engineering experience, positioning itself favorably in the future development of this industry [7]. Group 4: Innovations and Applications - Biomanufacturing is reshaping traditional production logic, enabling the cultivation of lab-grown meat and the production of microbial proteins and synthetic dairy products without livestock [8]. - In the fashion industry, biomanufacturing offers sustainable alternatives, such as bio-silk and mycelium leather, which can replace petroleum-based textiles [8]. - In construction, "bio-bricks" made from fungal mycelium and mineral particles can self-repair and absorb carbon dioxide, contributing to eco-friendly building practices [8]. Group 5: Challenges and Future Trends - Key challenges include the need for foundational capabilities in gene editing, strain design algorithms, and metabolic pathway databases, which are currently weak in China [10]. - The transition from laboratory success to industrial application faces hurdles, including process complexity and cost control [11]. - Future trends indicate a convergence of artificial intelligence with biomanufacturing, enhancing the design of living organisms, and a shift towards carbon circular manufacturing, where factories can utilize carbon dioxide as a raw material [12].

Core Insights - The European Commission has officially released a new bioeconomy strategy framework, focusing on "competitiveness + sustainability" as dual core objectives aimed at accelerating the circular economy and decarbonization while reducing dependence on imported fossil fuels [1] - The strategy identifies ten core application areas for bio-based materials and technologies, covering end products such as plastics, textiles, and chemicals, as well as key technological directions like biorefining, advanced fermentation, and permanent storage of biochar [1] - The bioeconomy is seen as a crucial pathway for Europe to enhance economic resilience and replace fossil-based products, supporting 17.1 million jobs and positioning Europe to capture a leading role in the global clean industry [1] Industry Developments - The bioeconomy in the EU has reached a scale of €2.7 trillion in 2023, with expanding application scenarios including bio-based chemicals from algae serving the pharmaceutical and daily chemical sectors, and bio-based plastics gradually replacing traditional materials in packaging and automotive parts [1] - The strategy aims to achieve three goals: enhancing resilience, increasing competitiveness, and protecting the ecosystem, with a commitment to ensuring that natural ecology remains the foundation of economic development [1] Implementation Framework - To unlock potential, the EU has established a three-dimensional implementation system of "regulation + funding + market": simplifying regulatory frameworks to incentivize sustainable business models while ensuring safety, guiding EU finances towards bio-based technologies, and setting demand targets through legislation [2] - The establishment of the "European Bio-based Alliance" aims to facilitate collective procurement of €10 billion in bio-based solutions by 2030 [2] - Industry responses have been positive, with calls for a specialized legal framework and market premium mechanisms for low-carbon products, emphasizing the need for stronger policy guidance to accelerate the commercialization of innovative results [2]

Core Viewpoint - The development of biomanufacturing is crucial for enhancing new productive forces in China, with the potential to account for one-third of global manufacturing output by the end of the century, creating a market worth $30 trillion [4]. Group 1: Biomanufacturing Industry Insights - Biomanufacturing is becoming a focal point in national strategic competition, with the U.S. aiming to replace 90% of traditional plastics with bio-based products within 20 years, and the EU implementing a carbon border adjustment mechanism by 2027 [4]. - The technology demonstrates significant potential in addressing resource and environmental challenges, such as using a 50 cubic meter bioreactor to produce artemisinin, which saves 30,000 acres of arable land [4]. - Each ton of bio-based plastic can reduce carbon dioxide emissions by 0.6 tons compared to traditional plastics, contributing to carbon neutrality goals [4]. Group 2: Applications and Innovations - Revolutionary breakthroughs in biomanufacturing are emerging, including the development of biological pheromones for precise pest control, which can replace high-residue pesticides [5]. - The cost of products like hyaluronic acid has significantly decreased due to biomanufacturing, and carbon dioxide is being explored as a third-generation raw material [5]. - The integration of artificial intelligence accelerates innovation, enabling the industrial production of scarce components like catechin from green tea [5]. Group 3: Challenges and Recommendations - Despite holding 70% of global fermentation capacity, the biomanufacturing industry in China faces challenges such as a lack of proprietary strains and limitations in core software tools [5]. - There is a call for enhanced top-level design to focus on cutting-edge areas like carbon dioxide bioconversion and future food manufacturing, aiming to address both green chemical alternatives and protein supply security [5].

Core Viewpoint - The uncertainty in EU regulations regarding bio-based naphtha and pyrolysis oil is suppressing demand in the petrochemical industry, hindering investments, and causing price differentiation based on end-use applications [2][6]. Regulatory Impact - The lack of clear and unified regulations from the EU is leading to decreased procurement interest in bio-based naphtha and pyrolysis oil from 2024 to 2025, complicating financing for new projects and infrastructure [2][3]. - The quality balance accounting rules significantly affect the potential profitability of bio-based naphtha and pyrolysis oil, with unclear regulations making investment returns unpredictable [2][4]. Legislative Developments - The EU Commission is required to assess the technological development and environmental performance of bio-based plastic packaging within three years of the PPWR regulation coming into effect, potentially setting usage targets for bio-based materials [3][4]. - The legal positioning of pyrolysis oil remains uncertain due to the Waste Framework Directive, which complicates its classification as a recyclable material [3][4]. Industry Dynamics - There are differing opinions on the recycling content targets, with the EU Council proposing phased targets for new vehicles, while the European Parliament suggests higher initial targets [4]. - The recognition of quality balance accounting is crucial for the chemical recycling sector to be included in recycling content thresholds, impacting the entire industry's profitability and competitiveness [4][5]. Market Outlook - The regulations will be key drivers for the future demand and investment in pyrolysis oil and bio-based naphtha, with earlier clarity from the EU potentially accelerating their scale development [6].

Group 1 - The core viewpoint of the articles emphasizes the urgent need for sustainable development in the plastic industry, focusing on recycling, biodegradable plastics, and reducing plastic waste [1][2][3] - China's plastic production has increased nearly 400,000 times since the establishment of the new China, making it the world's largest producer and consumer of plastics, but this rapid growth has led to significant plastic waste issues [1] - In 2023, China generated 62 million tons of plastic waste, with a recycling rate of approximately 30%, which is significantly higher than the global average of 9% [2] Group 2 - Experts suggest that to mitigate the environmental impact of plastic waste, it is essential to reduce the use of single-use plastics and develop new biodegradable materials that can decompose in specific environments [3] - There is a call for the development of bio-based plastics to decrease reliance on fossil resources and increase the use of renewable resources in the plastic industry [3] - The articles highlight the importance of advancing environmentally friendly recycling technologies and chemical recycling methods to safely manage plastic waste [2][3]

Core Viewpoint - The article emphasizes the growing importance of bio-based materials as a sustainable alternative to petroleum-based plastics, driven by environmental concerns and technological advancements in bio-manufacturing [1][2]. Group 1: Definition and Characteristics of Bio-based Materials - Bio-based materials are defined as materials derived from renewable biological resources, including biopolymers, bio-based chemicals, and various products made from biomass [3][4]. - Common bio-based materials are produced from renewable resources such as grains, legumes, and agricultural residues, showcasing a wide range of applications and environmental benefits [8]. Group 2: Market Growth and Trends - China's bio-based materials production reached 2.266 million tons in 2022, an increase of 1.418 million tons since 2014, with expectations to exceed 3 million tons by 2024 [15]. - The market size for bio-based materials in China grew from 9.686 billion yuan in 2014 to 23.12 billion yuan in 2022, with a projected increase to 31 billion yuan by 2024 [17][18]. Group 3: Competitive Landscape - The bio-based materials industry in China is characterized by a competitive market with numerous companies entering the sector, supported by favorable government policies [20]. - Leading companies in the bio-based materials market include various specialized firms focusing on different segments, indicating a trend towards increased market concentration [21]. Group 4: Development Suggestions - Recommendations for the industry include innovating agricultural breeding techniques, exploring new production pathways for bio-based materials, and leveraging IT and biotechnology for industrial advancements [22][24][26].

Group 1 - The article discusses the trends in the development and application of plastic materials in consumer electronics, emphasizing the shift towards sustainable and recyclable materials [3][5][79] - It highlights the importance of lightweight and thin-walled materials, which can reduce carbon emissions and enhance product performance [52][60][79] - The article mentions the increasing use of bioplastics and recycled materials in manufacturing, reflecting a growing consumer preference for sustainable products [89][91][106] Group 2 - The article outlines the advancements in LCP (Liquid Crystal Polymer) materials, which are crucial for high-frequency communication applications, ensuring reliable data transmission [20][21][37] - It notes the trend of using film technology to replace traditional automotive painting processes, potentially reducing CO2 emissions by up to 40% [11][12] - The article emphasizes the role of innovative manufacturing techniques, such as 3D printing and laser structuring, in enhancing the efficiency and sustainability of production processes [9][46][60] Group 3 - The article discusses the emergence of zero-carbon initiatives in various sectors, including automotive and food services, showcasing efforts to minimize environmental impact [5][8][79] - It highlights the significance of consumer awareness and demand for eco-friendly products, which is driving companies to adopt sustainable practices [82][85][88] - The article also addresses the challenges and opportunities in recycling and waste management, particularly in the context of plastic materials [79][90][99]