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市场调查报告书
商品编码
1857130
生质能发电:全球市占率排名、总销售额和需求预测(2025-2031年)Biomass Power Generation - Global Market Share and Ranking, Overall Sales and Demand Forecast 2025-2031 |
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2024年全球生质能发电市场规模估计为497.07亿美元,预计到2031年将达到731.27亿美元,在2025-2031年的预测期内,复合年增长率为5.7%。
生物质发电是一种利用燃烧、气化和发酵等方式将生物质资源(例如农林废弃物、食物废弃物和废弃物粪便)转化为电能的技术。它兼具可再生、排放排放和循环经济的特征。生物质包括林业和农业的废弃物、残渣和特定产品废弃物,以及市政和工业废弃物中的可生物降解有机成分。它还包括食品加工业废弃物、市政废弃物、工业废弃物、农业废弃物、木材废弃物、木材、锯末、短轮伐期木本作物以及许多其他材料。生物质可用作发电、暖气和交通运输的能源来源。生物质是一种环境友善、碳中和且永续的发电能源来源,具有减少对石化燃料依赖的巨大潜力。
技术类型(直接燃烧发电;气化发电;沼气发电)
原理(生物质直接燃烧产生蒸气驱动涡轮机;生物质转化为可燃性气体驱动发电机;厌氧发酵产生甲烷用于发电)
应用规模(10-100MW;1-10MW;0.1-5MW)
效率范围(25-35%;30-42%;35-45%)
典型燃料(秸秆、木屑、甘蔗渣;稻壳、锯末、农业残余物;牲畜和家禽粪、有机污水、垃圾掩埋沼气)
区域市场状况
全球生质能发电市场呈现明显的技术发展趋势,欧洲和美国引领潮流,亚太地区也正在快速扩张。欧洲凭藉其严格的碳减排政策和成熟的环境标准,占据了全球超过35%的市场。德国和瑞典等国正致力于发展生物质气化联合循环技术,与传统的燃煤发电相比,该技术可将发电效率提高10%至15%。北美市场则以废弃物焚化发电为主。美国长期以来一直保持着全球生物质发电装置容量前三名的地位,并且在沼气热电联产技术方面也处于领先地位。
亚太地区是成长最快的区域市场,到2024年将占全球市场份额的40%。中国将贡献该地区新增装置容量的60%以上。
製造商和产业链分析
核心上游环节:原料供应商主要为农林废弃物收集、储存和运输企业(例如中国农业发展集团)。核心设备包括焚化炉(德国马丁公司;中国上海电气公司)、气化炉(通用电气公司;美国华电重工)和烟气处理设备(中国中世盛丰公司;荷兰帕克斯公司)。焚烧炉和气化炉的投资额占总投资额的60%以上。典型的下游客户可分为三大类:国有电网公司(例如国家电网和南方电网,以基准价格购电);高耗能工业用户(例如钢铁企业和化学企业,透过绿色电力直连购买生物质电力);以及地方政府环卫部门(垃圾焚化发电计划的主要投资者)。技术趋势与消费量
生质能发电正迅速朝向更高效率、更清洁运作和更智慧化的方向发展。核心技术突破集中在三个关键领域:在燃烧效率方面,循环流体化床气化技术实现了高效的原料转化;在环境保护与资源利用一体化方面,中日盛丰的烟气脱硝余热回收技术实现了三重突破:氮氧化物去除率达到99%,颗粒物排放降至5 mg/m³以下,氮氧化物转化为液态氮。这为每座工厂每年带来超过2,000万元的额外收益,有效解决了产业环境成本高昂的痛点;在数位化和智慧化管理控制方面,人工智慧演算法和物联网平台被整合到整个流程中进行最佳化。例如,多斯卡公司的碳排放分析系统即时监测燃烧数据,并透过演算法调整进料速率,使碳排放效率提高了18%。 5G技术与远端监控系统的结合,将设备运作维护的反应时间缩短至两小时以内,停机时间减少30%。生质能发电作为唯一兼具「固态废弃物处理」和「能源生产」双重特性的再生能源来源,正透过产业升级和技术创新,成为全球能源转型的重要支柱。在「双碳」和提升环保标准的双重驱动下,能够适应当地原材料、在环保技术方面取得突破、并具备数位智慧管理控制能力的企业有望主导市场。未来,随着绿色电力直连模式的推广和沼气联产技术的成熟,生物质能发电将从单一能源朝向「电-热-气-肥」的多联产模式发展,进一步展现其生态和经济价值。
本报告旨在全面概述全球生物质发电市场,重点关注总销售收入、市场份额和主要企业的排名,并按地区/国家、类型和应用进行分析。
本报告以百万美元为单位,提供生质能发电市场规模、估算和预测数据,涵盖2020年至2031年的历史数据和预测数据,并以2024年为基准年。定量和定性分析有助于读者制定业务/成长策略、评估市场竞争格局、分析公司在当前市场中的地位,并就生物质发电做出明智的商业决策。
The global market for Biomass Power Generation was estimated to be worth US$ 49707 million in 2024 and is forecast to a readjusted size of US$ 73127 million by 2031 with a CAGR of 5.7% during the forecast period 2025-2031.
Biomass power generation is a technology that converts biomass resources, such as agricultural and forestry waste, garbage, and livestock manure, into electricity through combustion, gasification, and fermentation. It combines renewable, low-carbon emissions, and circular economy characteristics. Biomass includes waste, residues, and by-products from forestry and agriculture, as well as the biodegradable organic fraction of municipal and industrial waste. It also includes waste from the food processing industry, municipal and industrial waste, agricultural and wood waste, wood, sawdust, short-rotation woody crops, and many other materials. Biomass is used as an energy source for power generation, heating, and transportation. Biomass is an environmentally friendly, carbon-neutral, and sustainable energy source for power generation, with significant potential to reduce dependence on fossil fuels.
Technology Type (Direct Combustion Power Generation; Gasification Power Generation; Biogas Power Generation)
Principle (Direct combustion of biomass to generate steam to drive a turbine; Conversion of biomass into combustible gas to drive a generator; Anaerobic fermentation to generate methane for power generation)
Applicable Scale (10-100 MW; 1-10 MW; 0.1-5 MW)
Efficiency Range (25-35%; 30-42%; 35-45%)
Typical Fuels (Straw, wood chips, bagasse; Rice husks, sawdust, agricultural residues; Livestock and poultry manure, organic wastewater, landfill gas)
Regional Market Landscape
The global biomass power generation market demonstrates a "Europe and the United States lead in technology, while Asia-Pacific expands in scale" landscape. Europe, with its stringent carbon reduction policies and mature environmental standards, holds over 35% of the global market share. Countries like Germany and Sweden are focusing on developing biomass gasification-coupled technologies, which improve power generation efficiency by 10-15% compared to traditional coal-fired units. The North American market is centered around waste incineration power generation. The United States has long maintained a top-three position globally in biomass power generation capacity and leads in biogas co-generation technology.
The Asia-Pacific region is the fastest-growing regional market, accounting for 40% of the market size by 2024. China contributes over 60% of the region's installed capacity growth.
Manufacturer and Industry Chain Analysis
Core upstream links: The raw material supply side is primarily agricultural and forestry waste collection, storage, and transportation companies (such as China National Agricultural Development Group). Core equipment components include incinerators (Martin, Germany, Shanghai Electric, China), gasification units (GE, China Huadian Heavy Industry, USA), and flue gas treatment equipment (Zhongji Shengfeng, China, and Paques, the Netherlands). Incinerators and gasification units account for over 60% of total equipment investment. Downstream typical customers are divided into three core groups: first, state-owned power grid companies (such as State Grid and China Southern Power Grid, which purchase electricity at benchmark prices); second, high-energy-consuming industrial users (such as steel and chemical companies, which purchase biomass electricity through green power direct connections); and third, local government sanitation departments (the main investors in waste-to-energy projects). Technological Trends and Innovations
Biomass power generation is rapidly evolving toward higher efficiency, cleaner operation, and smarter processes. Core technological breakthroughs are concentrated in three key areas: In terms of combustion efficiency, circulating fluidized bed gasification technology achieves efficient raw material conversion. In terms of integrating environmental protection with resource utilization, Zhongji Shengfeng's flue gas denitrification and heat recovery technology achieves a triple breakthrough: NOx removal efficiency reaches 99%, particulate matter emissions are below 5mg/m3, and nitrogen oxides are converted into liquid nitrogen fertilizer. This generates over 20 million yuan in additional annual revenue per plant, addressing the industry's pain point of excessively high environmental costs. In terms of digital intelligent management and control, AI algorithms and IoT platforms are integrated to optimize the entire process. For example, Dosker's carbon emission analysis system monitors combustion data in real time and adjusts feed rates through algorithms, increasing carbon emission reduction efficiency by 18%. Combined with 5G and a remote monitoring system, equipment operation and maintenance response time is shortened to within 2 hours, reducing downtime by 30%. In summary, as the only renewable energy source that combines the dual attributes of "solid waste treatment" and "energy production," biomass power generation is becoming a key pillar of the global energy transition through industrial upgrading and technological innovation. Driven by the dual goals of "dual carbon" and the upgrading of environmental standards, companies with the ability to adapt to local raw materials, breakthroughs in environmental protection technologies, and digital intelligent management and control will dominate the market. In the future, with the promotion of green electricity direct connection models and the maturity of biogas cogeneration technology, biomass power generation will evolve from a single power supply to a multi-generation model of "electricity-heat-gas-fertilizer," further unleashing both ecological and economic value.
This report aims to provide a comprehensive presentation of the global market for Biomass Power Generation, focusing on the total sales revenue, key companies market share and ranking, together with an analysis of Biomass Power Generation by region & country, by Type, and by Application.
The Biomass Power Generation market size, estimations, and forecasts are provided in terms of sales revenue ($ millions), considering 2024 as the base year, with history and forecast data for the period from 2020 to 2031. With both quantitative and qualitative analysis, to help readers develop business/growth strategies, assess the market competitive situation, analyze their position in the current marketplace, and make informed business decisions regarding Biomass Power Generation.
Market Segmentation
By Company
Segment by Type
Segment by Application
By Region
Chapter Outline
Chapter 1: Introduces the report scope of the report, global total market size. This chapter also provides the market dynamics, latest developments of the market, the driving factors and restrictive factors of the market, the challenges and risks faced by manufacturers in the industry, and the analysis of relevant policies in the industry.
Chapter 2: Detailed analysis of Biomass Power Generation company competitive landscape, revenue market share, latest development plan, merger, and acquisition information, etc.
Chapter 3: Provides the analysis of various market segments by Type, covering the market size and development potential of each market segment, to help readers find the blue ocean market in different market segments.
Chapter 4: Provides the analysis of various market segments by Application, covering the market size and development potential of each market segment, to help readers find the blue ocean market in different downstream markets.
Chapter 5: Revenue of Biomass Power Generation in regional level. It provides a quantitative analysis of the market size and development potential of each region and introduces the market development, future development prospects, market space, and market size of each country in the world.
Chapter 6: Revenue of Biomass Power Generation in country level. It provides sigmate data by Type, and by Application for each country/region.
Chapter 7: Provides profiles of key players, introducing the basic situation of the main companies in the market in detail, including product revenue, gross margin, product introduction, recent development, etc.
Chapter 8: Analysis of industrial chain, including the upstream and downstream of the industry.
Chapter 9: Conclusion.