Water Desalination Pre-treatment Equipment Market - Global Industry Size, Share, Trends, Opportunity, and Forecast, Segmented By Technology (Reverse Osmosis, Multi-Stage Flash (MSF) Distillation, Multi-Effect Distillation, Vapor Compression, Electrodialysis, Others), By Product Type (Membranes, Pumps, Pressure Vessels, Energy Recovery Devices, Others), By Source of Water (Seawater, Brackish Water, River Water, Wastewater, Others), By Region & Competition, 2020-2030F

Market Overview

Global Water Desalination Pre-treatment Equipment Market was valued at USD 2.11 Billion in 2024 and is expected to reach USD 3.55 Billion by 2030 with a CAGR of 8.88% during the forecast period.

The global Water Desalination Pre-treatment Equipment Market is experiencing robust growth driven by escalating water scarcity, rapid population growth, and increased industrial demand for freshwater. With nearly two-thirds of the world’s population projected to live in water-stressed regions by 2025, the need for sustainable and reliable sources of potable water has intensified. Desalination technology, which removes salts and impurities from seawater, brackish water, and wastewater, is increasingly being viewed as a critical solution to augment existing water supplies, particularly in arid and semi-arid regions. Countries in the Middle East, North Africa, and parts of Asia have already made substantial investments in desalination infrastructure, while adoption is also rising across Latin America, Southern Europe, and parts of the United States.

Technological advancements are a key catalyst for the market. The shift from traditional thermal methods to energy-efficient reverse osmosis (RO) technology has reduced operational costs and carbon emissions, making desalination more viable for broader applications. Innovations in membranes, energy recovery devices, and pre-treatment systems are further improving desalination efficiency and cost-effectiveness. Additionally, integration with renewable energy sources—particularly solar and wind—offers a sustainable pathway for reducing the environmental footprint of desalination operations, aligning with global climate goals and increasing the appeal of the technology to governments and environmental stakeholders.

The market is segmented based on technology, product type, water source, application, and region. Reverse osmosis dominates the technology segment due to its efficiency and cost advantages, while municipal applications account for the largest share owing to growing urban water demand. Industrial sectors such as oil & gas, power generation, and mining are increasingly adopting desalination to ensure process water availability and regulatory compliance. Seawater remains the primary source for desalination, but interest in brackish and wastewater desalination is growing due to lower energy requirements and inland applicability.

Regionally, the Middle East and North Africa lead in installed capacity and project pipeline, supported by strong governmental backing and acute water scarcity. However, Asia Pacific is the fastest-growing market due to increasing industrialization, urbanization, and government initiatives in countries like India and China. Competitive dynamics in the market are shaped by leading players such as Veolia, SUEZ, ACCIONA, Doosan Enerbility, and IDE Technologies, who are investing in R&D and expanding their global footprints. Overall, the water desalination Pre-treatment Equipment market is poised for continued expansion as water security becomes a critical global priority.

Key Market Drivers

Intensifying Global Water Scarcity

The persistent and growing issue of global water scarcity remains the foremost driver for the water desalination Pre-treatment Equipment market. With climate change reducing freshwater availability and increasing drought frequency, many regions are facing critical water shortages. Rapid urbanization and industrialization further intensify this demand, particularly in coastal and arid areas. Traditional water sources like rivers and underground aquifers are becoming unreliable or depleted, leaving governments and industries seeking long-term, sustainable alternatives. Desalination provides a dependable solution by converting seawater and brackish water into potable water, making it increasingly indispensable. Currently, over 2.4 billion people live in countries experiencing high water stress, where the demand for freshwater exceeds sustainable supply. This number is projected to rise significantly by 2030, driven largely by rapid urbanization. As urban populations are expected to grow by more than 30%, the pressure on already limited water resources will intensify. Without urgent action to improve water management and infrastructure, many regions could face severe shortages, impacting public health, agriculture, and economic development.

Technological Innovation in Desalination Processes

The market is benefiting significantly from rapid advancements in desalination technology. Innovations in reverse osmosis membranes, energy recovery systems, and system automation have drastically improved energy efficiency and reduced operational costs. Additionally, the development of advanced monitoring and control systems has increased Pre-treatment Equipment reliability and extended the lifespan of components. These technological improvements are making desalination viable for broader usage across municipal, agricultural, and industrial sectors.

Over the past decade, energy consumption in modern reverse osmosis (RO) desalination plants has decreased by nearly 50%, thanks to advancements in membrane technology and energy recovery systems. This significant improvement has led to a substantial reduction in operational costs, bringing the cost of producing desalinated water down to under USD 0.50 per cubic meter in some facilities. These efficiency gains make RO a more viable and sustainable solution for addressing global freshwater scarcity, particularly in arid and water-stressed regions.

Rising Investment in Renewable-Powered Desalination

The integration of renewable energy with desalination systems is gaining strong traction. Solar- and wind-powered desalination plants are being deployed to overcome high energy costs and reduce carbon emissions associated with traditional fossil-fuel-based desalination. These hybrid systems enable sustainable and cost-effective water production, especially in sun- or wind-rich regions. The falling cost of renewable energy generation makes such installations increasingly practical for both off-grid and large-scale applications.

Over 30% of newly planned desalination projects globally are incorporating renewable energy, with solar-powered systems accounting for over 60% of that share.

Government Support and Infrastructure Funding

Public sector involvement is a strong market enabler. Many governments are prioritizing water security in national policy, offering subsidies, favorable tariffs, and long-term procurement contracts for desalinated water. Several large-scale infrastructure projects are being executed or planned, especially in regions where water scarcity threatens economic stability. These government-backed initiatives lower investment risks and improve long-term viability for private sector participation.

As of 2024, over 80 countries have implemented national desalination strategies or adopted public-private partnership (PPP) models to support the development of desalination infrastructure. These initiatives aim to address growing water scarcity challenges by securing sustainable freshwater supplies. Through strategic planning and collaborative financing, governments are encouraging private sector involvement in building and operating modern desalination facilities. This global trend reflects increasing recognition of desalination as a critical solution for ensuring long-term water security in both urban and rural regions.

Industrial and Commercial Sector Water Demand

Industries such as energy, chemicals, food processing, and manufacturing have rising requirements for clean and consistent water supplies. Water quality regulations, particularly in emerging markets, are becoming stricter, pushing companies to invest in independent water sourcing and treatment systems. Desalination Pre-treatment Equipment offers industries a reliable means to meet both operational demands and environmental compliance goals. With rising industrial activity and water-intensive processes, this trend will only strengthen.

Industrial water use is forecast to rise by more than 20% by 2030, especially in Asia-Pacific, where desalinated water is increasingly being used in high-purity industrial applications.

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Key Market Challenges

High Capital and Operating Costs

One of the most significant challenges in the water desalination Pre-treatment Equipment market is the high capital expenditure required to establish desalination facilities. Building a desalination plant involves considerable investment in specialized Pre-treatment Equipment, including high-pressure pumps, membranes, pre-treatment filters, and post-treatment systems. In addition to installation costs, the operational expenditure remains high, mainly due to substantial energy consumption. Electricity alone can account for up to 50% of the operating cost in reverse osmosis plants. Moreover, the continuous need for membrane replacements, skilled labor, and maintenance further strains budgets, particularly in developing economies where financial resources and access to advanced technology are limited. The result is that many regions facing severe water stress may struggle to adopt desalination solutions at scale. The capital-intensive nature also makes the market vulnerable to economic downturns or government budget cuts, slowing the pace of new project development. Private investors often hesitate due to long ROI cycles unless long-term public contracts or subsidies are in place. While technological advancements are gradually improving cost-efficiency, achieving widespread affordability remains a major roadblock for the sector’s expansion.

Environmental Impact of Brine Disposal

The discharge of highly concentrated saline waste, known as brine, poses a major environmental concern. Desalination processes, especially thermal and reverse osmosis methods, produce large volumes of brine containing concentrated salt, chemicals, and sometimes heavy metals. When this brine is returned to the ocean without adequate dispersion or dilution, it can lead to localized marine ecosystem degradation. Elevated salinity levels, reduced oxygen levels, and chemical residues can adversely impact marine flora and fauna, especially in shallow coastal zones. Additionally, the high temperature of the effluent in thermal desalination processes can exacerbate environmental stress. With the global push for sustainable and ecologically responsible practices, these negative effects attract public opposition and regulatory scrutiny. In some cases, environmental impact assessments have delayed or even blocked desalination projects. While research is ongoing to find eco-friendlier brine management techniques—including brine mining, dilution, and reuse—the economic feasibility of such solutions remains limited. Regulators in many regions are tightening discharge guidelines, which adds to compliance costs and forces plant operators to invest in additional Pre-treatment Equipment or engineering solutions, affecting overall profitability.

Dependence on Stable Energy Supply

Desalination technologies, particularly reverse osmosis and multi-stage flash distillation, are extremely energy-intensive. A stable and affordable energy supply is essential for continuous operation. This dependency becomes a critical limitation in regions where power infrastructure is unreliable or electricity costs are volatile. Energy price fluctuations can have a significant impact on the cost of desalinated water, making it economically unviable for some applications. Furthermore, in fossil-fuel-dependent regions, the carbon footprint of desalination processes comes under criticism, limiting its adoption in markets that prioritize climate goals. Efforts to integrate renewable energy sources into desalination processes are promising, but the infrastructure and storage solutions required to ensure 24/7 operation using renewables are not yet widespread or cost-effective at scale. Even solar desalination systems, while gaining popularity, face challenges during nighttime or cloudy weather, affecting reliability. This energy dependency also exposes the sector to geopolitical risks related to fuel supply, especially in oil-importing regions. Unless energy efficiency dramatically improves or renewable integration becomes widespread, this remains a major operational challenge for both new and existing desalination projects.

Technical Complexity and Skilled Workforce Shortage

Operating and maintaining a desalination facility requires a highly skilled technical workforce. From system design to daily operations and troubleshooting, desalination plants rely on expertise in fluid dynamics, membrane science, chemistry, and electrical systems. In many regions, especially in developing countries or remote areas, there is a significant shortage of qualified personnel to manage such advanced infrastructure. This leads to increased costs as operators must hire expatriate specialists or conduct frequent training programs. Moreover, technological upgrades require continuous learning, making workforce development a persistent challenge. The complexity of integrating various components—like pre-treatment systems, membranes, pumps, sensors, and automation controls—means that any misalignment or malfunction can reduce efficiency or cause system failure. Downtime, in turn, affects water availability and can incur high repair costs. The limited pool of local expertise also slows the expansion of smaller or modular desalination units, which are otherwise ideal for rural or decentralized deployment. As automation and digital monitoring systems grow in importance, the skills gap widens further, limiting market growth in certain geographies.

Regulatory Hurdles and Lengthy Approval Processes

Water desalination projects often face complex and time-consuming regulatory frameworks before implementation. Governments impose strict environmental, health, and safety regulations that must be complied with throughout the planning, construction, and operational phases. These include water quality standards, marine discharge regulations, land-use permits, and environmental impact assessments. In many countries, overlapping jurisdictions and bureaucratic inefficiencies further prolong approval timelines, increasing pre-development costs and uncertainty. Investors are deterred by these unpredictable delays, especially in regions lacking clear public-private partnership models or desalination-specific policy frameworks. Moreover, ongoing regulatory changes, such as stricter discharge limits or energy consumption caps, can force existing plants to invest in costly retrofitting. Regulatory compliance also necessitates regular reporting, third-party inspections, and audits, which can burden operators. For small or medium-scale developers, these hurdles may prove insurmountable, limiting innovation and market diversification. Unless streamlined and transparent regulatory pathways are developed, many regions will continue to face delays in scaling desalination infrastructure despite rising water demand.

Key Market Trends

Rising Demand for Modular and Mobile Desalination Units

The demand for modular and mobile desalination units is experiencing strong growth, especially in regions with emergency water shortages, temporary construction sites, military applications, and island communities. Unlike traditional large-scale plants, modular systems are pre-engineered, scalable, and can be quickly deployed with minimal site preparation. These units, typically based on containerized reverse osmosis (RO) systems, allow for rapid installation and easy integration with existing infrastructure, making them ideal for disaster response or rural areas lacking access to centralized water treatment systems.

Modular solutions also offer cost benefits for small municipalities or private industries that require limited but reliable water sources. Governments and NGOs are increasingly turning to these mobile systems to support refugee camps, drought-affected regions, and areas facing infrastructure damage from natural disasters. Furthermore, advancements in smart automation and remote monitoring technologies enable real-time performance tracking of these systems, improving efficiency and minimizing operational intervention.

Several market players are now offering plug-and-play units, including solar-powered variants, capable of producing thousands of liters per day. Countries such as India, Kenya, and Indonesia are exploring these systems as cost-effective ways to address rural water scarcity. The ease of transportation and scalability also makes modular units attractive for public-private partnerships, especially in developing economies that lack financing for massive infrastructure investments.

As water demand becomes more fragmented and geographically diverse, this trend toward decentralized, agile desalination systems is likely to accelerate, giving rise to a new segment within the broader desalination market focused on flexibility, mobility, and speed of deployment.

Growing Adoption of Advanced Membrane Technologies

Membrane-based desalination technologies, especially reverse osmosis (RO), continue to dominate the market, and recent advancements in membrane materials and configurations are significantly improving efficiency, durability, and cost-effectiveness. The industry is witnessing a rapid shift toward nanocomposite membranes, graphene oxide membranes, and forward osmosis (FO) technologies, which promise higher salt rejection rates, lower fouling tendencies, and reduced energy requirements.

Nanotechnology-enhanced membranes offer improved permeability and selectivity, which means more water can be produced at lower pressures, thereby reducing energy consumption by up to 20-30% compared to traditional membranes. These new-age membranes are also more resistant to biofouling and scaling, thereby extending the operational life of the membrane and lowering maintenance costs. Additionally, several companies are experimenting with 3D-printed membrane modules and hollow-fiber designs, aiming to optimize surface area and reduce material usage.

The rising focus on zero liquid discharge (ZLD) systems, especially in industrial applications, further boosts the demand for advanced membrane configurations. Hybrid systems that combine RO with ultrafiltration (UF) or electrodialysis reversal (EDR) are also being adopted to increase purification efficiency and water recovery rates. These advancements are crucial in expanding desalination beyond seawater treatment to brackish water, industrial wastewater, and municipal reuse applications.

As environmental regulations tighten and cost competitiveness becomes more important, membrane innovation is expected to play a pivotal role in future desalination strategies. The trend underscores a broader shift from simply expanding desalination capacity to optimizing process efficiency, sustainability, and system longevity through cutting-edge materials science.

Digitalization and Smart Monitoring of Desalination Plants

The trend of digital transformation is rapidly penetrating the desalination industry, with operators increasingly embracing Industrial Internet of Things (IIoT), AI-based analytics, and predictive maintenance platforms to enhance plant performance and reduce downtime. Modern desalination facilities are being equipped with smart sensors, real-time data loggers, remote SCADA systems, and advanced control software to monitor key parameters such as flow rate, pressure, TDS levels, and energy consumption.

These technologies enable real-time decision-making, anomaly detection, and optimization of chemical dosing and cleaning cycles. Predictive analytics can forecast membrane fouling or Pre-treatment Equipment failure before they occur, reducing unplanned shutdowns and improving cost efficiency. Moreover, cloud-based dashboards and mobile applications allow plant managers to remotely monitor performance, conduct virtual inspections, and make data-driven decisions, even in distributed or modular systems.

As a result, digital solutions not only enhance operational efficiency but also extend Pre-treatment Equipment life and reduce overall lifecycle costs. Countries like Singapore, Saudi Arabia, and Spain are at the forefront of adopting smart water technologies in their desalination infrastructure. Pre-treatment Equipment manufacturers are also embedding AI and machine learning algorithms directly into pumps, membranes, and filtration units, creating a more intelligent and autonomous plant environment.

In emerging markets, digital tools are enabling remote troubleshooting and workforce training, addressing the scarcity of local technical expertise. As governments push for smart utility infrastructure, especially in urban areas, digital integration in desalination will become a standard feature. The convergence of water tech with Industry 4.0 is expected to reshape not just how water is produced, but also how it is measured, analyzed, and optimized in real time.

Expansion of Desalination in Non-Coastal and Inland Regions

Historically, desalination has been closely associated with coastal areas due to direct access to seawater. However, a growing trend is the expansion of desalination Pre-treatment Equipment into inland regions for treating brackish groundwater, rivers, and industrial wastewater. With freshwater sources increasingly overexploited or contaminated, inland desalination is becoming a viable alternative to ensure long-term water security for agriculture, industry, and residential use.

Brackish water desalination requires lower pressure and energy compared to seawater treatment, making it more cost-effective and feasible for inland deployment. Countries like the United States, China, and India are deploying RO-based brackish water desalination units in arid zones, especially in agriculture-intensive regions facing aquifer depletion. These inland plants often focus on low-salinity water sources, which can be treated with minimal pre-treatment and energy consumption, reducing the burden on the grid.

One of the main enablers of this trend is the development of advanced concentrate management techniques, which address the challenge of brine disposal in landlocked regions. Innovations like zero liquid discharge systems, evaporative ponds, and salt recovery technologies are making it easier to manage waste in environmentally acceptable ways. Furthermore, compact, skid-mounted desalination Pre-treatment Equipment is well-suited for deployment in inland villages or industrial parks without centralized water treatment systems.

The inland expansion of desalination is also being supported by government water reuse mandates and industrial sustainability goals. As water scarcity becomes a universal challenge—not just a coastal one—this trend highlights the broadening relevance of desalination across diverse geographies and use cases, signaling a structural evolution in the market’s reach and application base.

Segmental Insights

Technology Insights

Reverse Osmosis segment dominated in the Global Water Desalination Pre-treatment Equipment market in 2024 due to its cost-effectiveness, high efficiency, and broad applicability across multiple water sources, including seawater, brackish water, and industrial wastewater. RO technology uses semi-permeable membranes to remove salts, minerals, and other impurities from water under high pressure. Compared to other desalination methods like multi-stage flash (MSF) or multi-effect distillation (MED), RO offers significantly lower energy consumption and reduced operational costs, making it the preferred choice for both municipal and industrial users.

One of the key reasons for its dominance is technological advancement in membrane materials and system configurations. Modern RO membranes offer improved salt rejection rates (over 99%), enhanced resistance to fouling, and longer lifespans. Additionally, the introduction of energy recovery devices (ERDs) and high-pressure pumps has significantly lowered the specific energy consumption of RO plants, making large-scale implementation more viable in regions with limited energy resources.

Moreover, RO systems are modular and scalable, allowing for easier customization based on project size or location. This flexibility is especially valuable in decentralized or remote applications, such as small island communities, mobile units, and emergency water supply solutions. The trend toward brackish water desalination in inland areas has further bolstered the RO segment, since RO is well-suited for lower-salinity sources and requires less energy than seawater treatment.

RO is also increasingly adopted in industrial sectors such as oil & gas, food & beverage, and power generation, where treated water is needed for process applications or zero-liquid-discharge systems. As water stress intensifies globally and sustainability targets tighten, the market continues to favor RO due to its lower environmental impact, reduced chemical usage, and compatibility with renewable energy sources, further reinforcing its leadership in the global market.

Product Type Insights

Pumps segment dominated the Global Water Desalination Pre-treatment Equipment market in 2024 due to its critical role in every stage of the desalination process, especially in Reverse Osmosis (RO) systems. High-pressure pumps are essential for pushing saline water through membranes, enabling effective salt separation. With advancements in energy-efficient pump technologies and the integration of energy recovery devices, operational costs have been significantly reduced. Additionally, the rising demand for large-scale desalination projects in water-scarce regions has increased the need for robust, durable, and high-capacity pumps, making them indispensable and driving their dominance in the global market landscape.

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Regional Insights

Largest Region

North America dominated the Global Water Desalination Pre-treatment Equipment market in 2024 due to a combination of increasing water scarcity, robust investments in infrastructure, and strong technological adoption across both municipal and industrial sectors. Although traditionally not a major desalination region compared to the Middle East, the growing water stress in parts of the United States, particularly in California, Arizona, and Texas, has pushed the development and expansion of desalination facilities. These states face recurring droughts and declining groundwater levels, which has compelled local governments to invest heavily in alternative water sources, especially seawater and brackish water desalination.

Furthermore, the U.S. Environmental Protection Agency (EPA) and other regulatory bodies have been tightening standards for water quality, driving the demand for advanced desalination and treatment technologies. The region also benefits from the presence of leading technology providers and system integrators, which has facilitated the deployment of high-efficiency Reverse Osmosis (RO) systems and energy recovery devices, making projects more cost-competitive and sustainable.

The industrial sector also plays a significant role. Oil & gas, power generation, and manufacturing industries in North America require reliable, large volumes of purified water. In regions with water quality challenges, especially near coastal and inland saline sources, desalination Pre-treatment Equipment is increasingly being used to meet process water and reuse targets.

Additionally, the region’s emphasis on innovation and research & development has led to the creation of more compact, modular, and energy-efficient systems that can be quickly deployed, especially in decentralized or emergency contexts. Government funding programs and public-private partnerships (PPPs) are also accelerating adoption.

Altogether, the combination of growing water demand, environmental regulations, industrial requirements, and a strong technological ecosystem positions North America as the dominant region in the global desalination Pre-treatment Equipment market in 2024.

Emerging Region

Europe was the emerging region in the Global Water Desalination Pre-treatment Equipment market in the coming period due to increasing water stress in southern countries like Spain, Italy, and Greece, driven by climate change and population growth. The region's strong focus on sustainability and stringent environmental regulations encourage the adoption of advanced, energy-efficient desalination technologies. Investments in modernizing aging water infrastructure and increasing demand for alternative water sources in agriculture and industry further boost market growth. Additionally, Europe’s innovation in renewable energy integration with desalination systems positions it as a growing market with promising opportunities in the coming period.

Recent Developments

• In May 2025, SUEZ, in partnership with CTCI Group and Hung Hua, commenced construction of Taiwan’s first large-scale municipal reverse osmosis desalination facility in Hsinchu. The groundbreaking event, attended by over 200 dignitaries including the Prime Minister and Economic Affairs Minister, highlights a major advancement in securing long-term water resilience for residents and local industries. This initiative underscores SUEZ’s commitment to addressing water scarcity challenges in fast-growing regions through advanced desalination infrastructure.
• In October 2024, during the French President’s state visit to Morocco, Veolia and the Kingdom of Morocco signed a Memorandum of Agreement for a strategic desalination project near Rabat. Structured as a 35-year public-private partnership, the facility will produce 822,000 m³/day—Africa’s largest and the world’s second-largest plant—delivering potable water to 9.3 million residents in drought-affected regions. This agreement reinforces Veolia’s leadership in sustainable water infrastructure across emerging markets.
• In March 2025, Larsen & Toubro (L&T), in joint venture with Spain’s Lantania, signed a contract with ACWA Power to construct a large-scale SWRO desalination plant in Saudi Arabia. Executed under L&T’s Water & Effluent Treatment division, the project will serve the Makkah and Al-Baha regions, providing drinking water for nearly one million people. This strategic agreement enhances L&T’s footprint in the Middle East’s critical infrastructure development sector.
• In April 2025, SUEZ, in collaboration with JEMCO and Metro Pacific Water (MPW), began construction of the Philippines’ largest SWRO desalination facility in Metro Iloilo. Scheduled for completion in 24 months, the project will significantly improve water availability for local communities facing acute shortages. This venture strengthens SUEZ’s presence in Southeast Asia’s water sector and aligns with MPW’s strategy to expand access to sustainable water infrastructure across the Philippines.

Key Market Players

• Veolia Environnement 
• SUEZ Group
• ACCIONA
• Doosan Enerbility
• IDE Technologies
• Aquatech International
• DuPont Water Solutions
• LG Chem
• Toray Industries
• Xylem Inc. 

Report Scope:

In this report, the Global Water Desalination Pre-treatment Equipment Market has been segmented into the following categories, in addition to the industry trends which have also been detailed below:

•  Water Desalination Pre-treatment Equipment Market, By Technology:

o   Reverse Osmosis

o   Multi-Stage Flash (MSF) Distillation

o   Multi-Effect Distillation

o   Vapor Compression

o   Electrodialysis

o   Others

• Water Desalination Pre-treatment Equipment Market, By Product Type:

o   Membranes

o   Pumps

o   Pressure Vessels

o   Energy Recovery Devices

o   Others

• Water Desalination Pre-treatment Equipment Market, By Source of Water:

o   Seawater

o   Brackish Water

o   River Water

o   Wastewater

o   Others

• Water Desalination Pre-treatment Equipment Market, By Region:

o   North America

§  United States

§  Canada

§  Mexico

o   Europe

§  Germany

§  France

§  United Kingdom

§  Italy

§  Spain

o   South America

§  Brazil

§  Argentina

§  Colombia

o   Asia-Pacific

§  China

§  India

§  Japan

§  South Korea

§  Australia

o   Middle East & Africa

§  Saudi Arabia

§  UAE

§  South Africa

Competitive Landscape

Company Profiles: Detailed analysis of the major companies present in the Global Water Desalination Pre-treatment Equipment Market.

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Company Information

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