膜分离活性污泥（MBR）系统市场：现况分析与预测（2023-2030）

由于水资源短缺和水污染加剧，对创新水处理系统的需求不断增加，膜分离活性污泥 (MBR) 系统市场预计将以约 8.28% 的复合年增长率强劲增长。 随着水资源短缺成为一个迫切的问题，MBR发挥重要作用。 MBR高效率的处理流程可实现水的再利用，并减少对淡水资源的压力。 亚太、南美洲等缺水严重的新兴国家对MBR的需求正快速增加。 例如，2023年10月，联合国粮食及农业组织发布的报告表明，水资源短缺正在以惊人的速度加剧。 此外，该机构估计，到 2030 年，淡水需求将超过可用供应量约 40%。 此外，世界各国政府正在对废水排放实施更严格的法规。 MBR 透过有效去除污染物并确保遵守环境法来满足这些严格的法规。 此外，快速的都市化和工业成长导致废水产生量增加。 MBR 适用于处理市政、纺织、食品和饮料以及石油和天然气行业等不同来源的大量废水。

产品分为中空纤维、平板、多管状。 中空纤维在市场占有率和渗透率方面占据主导地位。 促成这一优势的关键因素是它们能够有效去除废水中的悬浮固体、病原体和有机物等污染物颗粒。 如此优质的废水适合回用和环保排放。 此外，中空纤维MBR将生物处理和固液分离结合在同一装置内。 这种紧凑的设计比传统的废水处理系统需要更少的空间，这在土地空间有限的城市地区尤其有利。 此外，中空纤维MBR可以有效应对进水水质和流量的波动。 这使得它在各种水源上都可靠，并适用于各种应用。 此外，随着对清洁水的需求和严格的环境法规的持续，中空纤维MBR可能会保持其在行业中的主导地位。

依配置，市面上分为水下型和侧向型。 潜水式配置占据了大部分市场占有率。 这种高需求主要是由于潜水器类别的运作效率。 浸入式 MBR 的工作原理是将膜直接浸入生物反应器槽中。 这种配置确保微生物和膜表面之间的有效接触，从而有效去除污染物。 此外，与横向版本相比，设计得到简化，占地面积也减少。 此外，潜水式 MBR 通常需要较少的曝气和搅拌能量。 膜的直接浸没减少了水力损失并节省了能源。 此外，将为水下MBR的广泛采用创造环境。 此外，潜水式MBR广泛应用于都市污水处理设施。 它能够处理不同的进水水质和流量，使其适合城市地区的多样化需求。 这些发展最终促使对水下 HBR 的需求预计将激增。

依应用，市场分为城市污水处理和工业污水处理。 城市污水处理占全球 MBR 市场收入的最大占有率。 人口成长是需求激增的主要驱动力。 随着城市人口的增加，废水的产生量也会增加。 MBR 可有效处理城市废水并满足严格的环境标准。 此外，快速的都市化也加速了MBR的采用。 城市地区面临更高的废水课题。 MBR 提供了适合人口稠密地区的紧凑高效的处理解决方案。 另一方面，遵守严格的废水管理环境法也是市政处理厂采用MBR的主要因素之一。 此外，MBR 确保处理后废水的可重复利用，使 MRB 与持续的永续发展目标保持一致，并为市政处理厂广泛采用 MBR 创造有利的环境。

为了更瞭解MBR系统的市场实施情况，市场有北美（美国、加拿大等北美地区）、欧洲（德国、英国、法国、西班牙、义大利等欧洲地区）、以及亚太地区（中国、日本、印度、亚太地区其他地区）和世界其他地区。 由于对先进废水处理解决方案的需求不断增长，膜分离活性污泥（MBR）系统市场在全球范围内正在经历显着增长。 在主要地区中，北美地区脱颖而出，占据市场收入的最大占有率。 北美拥有完善的工业和市政基础设施。 众多化学、製药、食品和饮料以及汽车製造工厂的存在增加了对水处理服务的需求。 例如，2021 年 8 月，久保田膜美国公司向乔治亚州富尔顿县的 Big Creek 水回收设施交付了每天 3,200 万加仑 (MGD) 的 MBR 系统，使其成为北美最大的设施之一。 此外，北美国家对废水排放有严格的规定。 MBR 通过去除污染物并确保符合环境规范，有效满足这些标准。 同时，北美水资源短缺问题日益严重。 MBR 可实现高效的水再利用，并减少对淡水资源的压力。 此外，北美的 MBR 系统技术不断进步。 公司正在投资研发以增强膜材料和设计。 儘管 2023 年将面临课题，但北美经济预计将復苏，经济稳定支持对水处理基础设施的投资。

参与市场的主要公司包括Veolia、Xylem、United Utilities Group PLC、SUEZ、KUBOTA Corporation、Evoqua Water Technologies LLC、Mitsubishi Chemical Group Corporation、TORAY INTERNATIONAL, INC.、CITIC Envirotech Ltd.、Kovalus Separation Solutions 等。

目录

第一章市场介绍

• 市场定义
• 主要目标
• 利害关係人
• 限制

第二章研究方法或前提

• 调查过程
• 调查方法
• 受访者简介

第三章市场总结

第 4 章执行摘要

第五章COVID-19对膜分离活性污泥（MBR）系统市场的影响

第六章膜分离活性污泥（MBR）系统市场收入，2020-2030

第七章产品市场分析

• 中空纤维
• 平板
• 多管状

第 8 章市场构成分析

• 水下类型
• 横向型

第 9 章依应用程式进行市场分析

• 城市污水处理
• 工业废水处理

第10章区域市场分析

• 北美
  • 美国
  • 加拿大
  • 其他北美地区
• 欧洲
  • 德国
  • 英国
  • 法国
  • 义大利
  • 其他欧洲地区
• 亚太地区
  • 中国
  • 印度
  • 日本
  • 韩国
  • 其他亚太地区
• 世界其他地区

第十一章膜分离活性污泥（MBR）系统市场动态

• 市场驱动因素
• 市场课题
• 影响分析

第十二章膜分离活性污泥（MBR）系统市场机会

第十三章膜分离活性污泥（MBR）系统市场趋势

第十四章需求与供给分析

• 需求方分析
• 供给面分析

第15章价值链分析

第16章比赛场景

• 竞争状况
  • 波特五力分析

第十七章公司简介

• Veolia
• Xylem
• United Utilities Group PLC
• SUEZ
• KUBOTA Corporation.
• Evoqua Water Technologies LLC
• Mitsubishi Chemical Group Corporation.
• TORAY INTERNATIONAL, INC.
• CITIC Envirotech Ltd
• Kovalus Separation Solutions

第十八章免责声明

A Membrane Bioreactor (MBR) is a cutting-edge wastewater treatment technology that marries two essential components: biological treatment and membrane filtration. In the MBR system, microorganisms (such as bacteria) play a crucial role. They break down organic matter present in the wastewater. This biological degradation process occurs in a specialized chamber. After the biological treatment, the treated water undergoes an additional step. It passes through a membrane filter. This membrane acts as a selective barrier, allowing only clean water molecules to pass through while retaining any remaining suspended solids and microorganisms.

The Membrane Bioreactor (MBR) System Market is expected to grow at a strong CAGR of around 8.28% owing to the increasing demand for innovative water treatment systems with the rising water scarcity and water pollution. As water scarcity is becoming a pressing concern, MBRs play a crucial role. Their efficient treatment process allows for water reuse reducing the strain on freshwater resources. In emerging countries like Asia Pacific and South America, where water scarcity is acute, the demand for MBRs has surged. For instance, in October 2023, the Food and Agricultural Organization published a report suggesting that water scarcity is rising at an unnerving rate. Furthermore, the organization has estimated that, by 2030, the need for freshwater will surpass approximately 40% of the available supply. Furthermore, governments worldwide are imposing stricter regulations regarding wastewater discharge. MBRs meet these stringent regulations by effectively removing pollutants and ensuring compliance with environmental laws. Moreover, rapid urbanization and industrial growth lead to increased wastewater generation. MBRs are well suited for handling large volumes of wastewater from diverse sources, including municipal, textile, food and beverages, and oil & gas industries.

Based on the product, the market is categorized into hollow fiber, flat sheet, and multi-tubular. The hollow fiber stands out as a dominant player in terms of market share and widespread adoption. The primary factor driving this dominance includes its capability to efficiently remove contaminant particles such as suspended solids, pathogens, and organic matter from wastewater. This high-quality effluent output makes these discharges suitable for reuse or environmentally friendly discharge. Furthermore, Hollow fiber MBRs combine biological treatment and solid-liquid separation within the same unit. This compact design requires less space compared to conventional wastewater treatment systems, particularly advantageous for urban areas with limited land space. Additionally, Hollow fiber MBRs can handle variations in influent quality and flow rates effectively. Thus making them reliable across various water sources, and making them adaptable to diverse applications. Moreover, as the demand for clean water and stringent environmental regulations persist, hollow fiber MBRs will likely maintain their dominance in the industry.

Based on the configuration, the market is bifurcated into submerged and side streams. The submerged configuration holds the major portion of the market in terms of market share. This high demand is primarily due to the efficiency with which the submerged category operates. Submerged MBRs operate with membranes immersed directly in the bioreactor tank. This configuration ensures efficient contact between microorganisms and the membrane surface, leading to effective contaminant removal. Furthermore, it simplifies the design and reduces the footprint compared to side-stream systems. Moreover, submerged MBRs typically require less energy for aeration and mixing. The direct immersion of membranes reduces hydraulic losses, resulting in energy savings. Further creating a conducive environment for the widespread adoption of submerged MBRs. Additionally, Submerged MBRs are widely used in municipal wastewater treatment plants. Their ability to handle variable influent quality and flow rates suits the diverse needs of urban areas. These developments are culminating in a scenario, where a surge in demand for submerged HBRs is being anticipated.

Based on application, the market is categorized into municipal and industrial wastewater treatment. Municipal wastewater treatment accounts for the largest share of MBR market revenue globally. Population growth is the primary factor leading to this surge in demand. As urban populations grow, so does the volume of sewage generated. MBRs efficiently treat municipal wastewater, meeting stringent environmental standards. Furthermore, rapid urbanization is also accelerating the adoption of MBRs. Urban areas face higher wastewater challenges. MBRs offer compact, efficient treatment solutions suitable for densely populated regions. Meanwhile, compliance with strict environmental laws, regarding wastewater management is also one of the major factors driving the adoption of MBRs in municipal treatment plants. Additionally, as MBRs ensure reusability of the treated discharge, align MRBs with the ongoing sustainability goals, creating a favorable environment for the widespread adoption of MBRs in municipal treatment plants.

For a better understanding of the market adoption of the MBR system, the market is analyzed based on its worldwide presence in countries such as North America (The U.S., Canada, and the Rest of North America), Europe (Germany, The U.K., France, Spain, Italy, Rest of Europe), Asia-Pacific (China, Japan, India, Rest of Asia-Pacific), Rest of World. The Membrane Bioreactor (MBR) system market has witnessed significant growth globally, driven by the increasing demand for advanced wastewater treatment solutions. Among the major regions, North America stands out as the leader, accounting for the largest share of market revenue. North America boasts a well-established industrial and municipal infrastructure. The presence of numerous chemical, pharmaceutical, food & beverage, and automotive manufacturing facilities drives the demand for water treatment services. For instance, in August 2021, KUBOTA Membrane USA Corporation provided a 32 million gallon per day (MGD) MBR system to Fulton County's Big Creek Water Reclamation Facility in Georgia, making it one of the largest facilities in North America. Furthermore, North American countries have stringent regulations regarding wastewater discharge. MBRs effectively meet these standards by removing pollutants and ensuring compliance with environmental norms. Meanwhile, Water scarcity is a growing concern in North America. MBRs allow for efficient water reuse, reducing strain on freshwater resources. Additionally, North America is witnessing continuous technological advancements in MBR systems. Companies invest in research and development, enhancing membrane materials and designs. Despite challenges in 2023, North America's economy is projected to rebound, and economic stability supports investments in water treatment infrastructure.

Some of the major players operating in the market include Veolia; Xylem; United Utilities Group PLC; SUEZ; KUBOTA Corporation.; Evoqua Water Technologies LLC; Mitsubishi Chemical Group Corporation.; TORAY INTERNATIONAL, INC.; CITIC Envirotech Ltd; and Kovalus Separation Solutions

TABLE OF CONTENTS

1MARKET INTRODUCTION

• 1.1.Market Definitions
• 1.2.Main Objective
• 1.3.Stakeholders
• 1.4.Limitation

2RESEARCH METHODOLOGY OR ASSUMPTION

• 2.1.Research Process of the Membrane Bioreactor (MBR) System Market
• 2.2.Research Methodology of the Membrane Bioreactor (MBR) System Market
• 2.3.Respondent Profile

3MARKET SYNOPSIS

4EXECUTIVE SUMMARY

5IMPACT OF COVID-19 ON THE MEMBRANE BIOREACTOR (MBR) SYSTEM MARKET

6MEMBRANE BIOREACTOR (MBR) SYSTEM MARKET REVENUE (USD BN), 2020-2030F.

7MARKET INSIGHTS BY PRODUCT

• 7.1.Hollow Fiber
• 7.2.Flat Sheet
• 7.3.Multi-Tubular

8MARKET INSIGHTS BY CONFIGURATION

• 8.1.Submerged
• 8.2.Side Stream

9MARKET INSIGHTS BY APPLICATION

• 9.1.Municipal Wastewater Treatment
• 9.2.Industrial Wastewater Treatment

10MARKET INSIGHTS BY REGION

• 10.1.North America
  • 10.1.1.The U.S.
  • 10.1.2.Canada
  • 10.1.3.Rest of North America
• 10.2.Europe
  • 10.2.1.Germany
  • 10.2.2.The U.K.
  • 10.2.3.France
  • 10.2.4.Italy
  • 10.2.5.Rest of Europe
• 10.3.Asia-Pacific
  • 10.3.1.China
  • 10.3.2.India
  • 10.3.3.Japan
  • 10.3.4.South Korea
  • 10.3.5.Rest of Asia-Pacific
• 10.4.Rest of the World

11MEMBRANE BIOREACTOR (MBR) SYSTEM MARKET DYNAMICS

• 11.1.Market Drivers
• 11.2.Market Challenges
• 11.3.Impact Analysis

12MEMBRANE BIOREACTOR (MBR) SYSTEM MARKET OPPORTUNITIES

13MEMBRANE BIOREACTOR (MBR) SYSTEM MARKET TRENDS

14DEMAND AND SUPPLY-SIDE ANALYSIS

• 14.1.Demand Side Analysis
• 14.2.Supply Side Analysis

15VALUE CHAIN ANALYSIS

16COMPETITIVE SCENARIO

• 16.1.Competitive Landscape
  • 16.1.1.Porters Fiver Forces Analysis

17COMPANY PROFILED

• 17.1.Veolia
• 17.2.Xylem
• 17.3.United Utilities Group PLC
• 17.4.SUEZ
• 17.5.KUBOTA Corporation.
• 17.6.Evoqua Water Technologies LLC
• 17.7.Mitsubishi Chemical Group Corporation.
• 17.8.TORAY INTERNATIONAL, INC.
• 17.9.CITIC Envirotech Ltd
• 17.10.Kovalus Separation Solutions

18DISCLAIMER