Mobile Desalination Units Market - Global Industry Size, Share, Trends, Opportunity, and Forecast, Segmented By Technology (Reverse Osmosis, Multi-Stage Flash (MSF) Distillation, Electrodialysis, Nanofiltration, Hybrid Systems), By End-Use Industry (Municipal, Industrial, Agricultural, Others), By Mobility Type (Towable Systems, Truck-Mounted Systems, Containerized Systems, Portable Units), By Region & Competition, 2020-2030F

Market Overview

The Global Mobile Desalination Units Market was valued at USD 20.10 Billion in 2024 and is expected to reach USD 38.12 Billion by 2030 with a CAGR of 11.09% during the forecast period.

The global Mobile Desalination Units Market is emerging as a vital solution to the growing global water scarcity crisis, providing rapid, flexible, and on-demand access to potable water. These units are compact, transportable systems designed to convert seawater, brackish water, or contaminated freshwater into clean, drinkable water. Unlike stationary desalination plants, mobile units offer a dynamic response to emergency situations, remote site operations, military deployment, and temporary water shortages. The increasing frequency of natural disasters, coupled with rising demand in defense, humanitarian aid, oil & gas, mining, and rural infrastructure projects, is significantly driving demand for mobile desalination technologies.

Key Market Drivers

Rising Incidence of Natural Disasters Driving Emergency Water Supply Needs

The increasing frequency and severity of natural disasters such as hurricanes, floods, and droughts have highlighted the urgent need for deployable water solutions. Mobile desalination units offer a reliable method to ensure potable water supply in disaster-hit regions where conventional infrastructure is damaged or unavailable.

According to the Emergency Events Database (EM-DAT), more than 380 natural disasters were recorded globally in 2023, affecting over 180 million people. Droughts alone impacted nearly 55 million individuals, predominantly in Asia and Africa. The World Bank estimates that 1.8 billion people currently face water scarcity, a number expected to rise significantly due to climate change and population growth.

Mobile desalination units can be deployed within hours and typically process 1,000–5,000 liters of clean water per day, depending on capacity and source salinity. Governments and humanitarian organizations increasingly rely on containerized or trailer-mounted solutions, especially in disaster-prone regions. In India, several coastal states have initiated procurement of mobile desalination systems for cyclone response teams.

Moreover, organizations like UNICEF and the Red Cross are allocating higher portions of their emergency response budgets to deploy such units in vulnerable regions. The ability of these systems to operate independently using renewable energy or generators further supports their adoption in off-grid or infrastructure-deficient zones.

Growing Demand from Military and Defense Sectors

Military operations often occur in remote and austere environments where access to safe drinking water is a critical operational requirement. Mobile desalination units have become a standard component of modern defense logistics, offering on-site water purification capabilities with minimal setup time.

According to SIPRI, global military expenditures exceeded USD 2.2 trillion in 2023. The U.S. Department of Defense alone allocated over USD 400 million toward logistics technologies, including portable water purification and desalination systems. These units can serve battalions of 500–1,000 troops, providing consistent water supply in field conditions for both drinking and hygiene.

NATO and allied forces have integrated modular RO (Reverse Osmosis) systems into military vehicles and containerized formats. Some systems now purify up to 10,000 liters/day, running on diesel or solar hybrid power. Mobile units reduce the need for bottled water resupply missions, which are costly and dangerous in conflict zones.

Emerging economies such as India and Brazil are also investing in similar systems for peacekeeping missions and border operations. In 2022, the Indian Army deployed solar-powered desalination units in the high-altitude Ladakh region, where infrastructure and supply chains are challenging.

Given the increasing geopolitical tensions and need for rapid deployment capabilities, defense ministries across regions are expected to continue increasing budgets for mobile desalination procurement. The portability, reliability, and autonomy of these units directly support military sustainability and survivability in resource-scarce zones.

Expansion of Offshore Oil & Gas and Marine Operations

Offshore platforms and marine vessels often operate in isolated environments with limited or no access to freshwater. Mobile desalination units provide essential support for these sectors by offering on-board freshwater production without reliance on external supply chains.

According to the International Energy Agency (IEA), offshore oil production accounts for over 30% of global crude oil output. With over 7,000 offshore platforms in operation worldwide, the need for compact, robust water solutions is intensifying. A typical offshore unit houses 100–150 personnel, each requiring at least 100 liters of water per day for drinking, cooking, and sanitation.

Mobile desalination systems, particularly RO-based solutions, are widely used in rigs and ships due to their small footprint and adaptability to saltwater environments. A single mobile RO unit can provide up to 5,000 liters/day and is designed to resist corrosion and withstand maritime conditions. Additionally, these systems reduce reliance on water tankers, which are logistically expensive and environmentally unsustainable.

Shipbuilding industries in South Korea, Japan, and China have begun integrating desalination units as a standard feature in new vessels, including commercial tankers, passenger ships, and naval vessels. In 2023, over 1,800 vessels were delivered globally with integrated water-making systems, a 15% increase over 2021.

As offshore exploration expands and global maritime trade grows, the role of mobile desalination systems in ensuring crew safety and sustainability will continue to strengthen, especially in areas with limited port access or prolonged sea operations.

Water Scarcity in Rural and Remote Communities

Many rural and remote regions lack access to centralized water infrastructure, leading to chronic water shortages and reliance on unsafe sources. Mobile desalination units present a decentralized, rapid-deployment solution for addressing such water stress in both developing and developed countries.

The World Health Organization (WHO) estimates that over 2 billion people globally rely on unsafe drinking water sources. In Sub-Saharan Africa alone, over 400 million people live without access to piped water. In Australia and the U.S., remote Indigenous communities face similar challenges due to geographic isolation and infrastructure gaps.

Mobile desalination units offer a scalable and low-maintenance alternative, requiring minimal civil work and enabling instant access to clean water. Units with daily capacities ranging from 500 to 10,000 liters are increasingly used by local governments, NGOs, and private foundations. In 2022, over 1,200 containerized desalination units were deployed in Kenya, Tanzania, and Mozambique to combat drought-induced water stress.

In addition, hybrid solar-powered desalination units are gaining traction in off-grid areas, reducing both emissions and long-term operating costs. Pilot projects in Southeast Asia have demonstrated up to 70% reduction in energy consumption compared to traditional systems, making them more viable in areas with limited grid connectivity.

This driver is also aligned with UN Sustainable Development Goal 6, which emphasizes universal access to clean water. As water scarcity intensifies due to climate change and population growth, mobile desalination units will become an integral part of rural water strategy, offering immediate and adaptable solutions for underserved populations.

Integration with Renewable Energy Systems Enhancing Cost Efficiency

One of the significant advancements in the mobile desalination space is the integration of renewable energy sources, particularly solar and wind, which drastically reduces operational costs and carbon footprint. This synergy is driving new demand from eco-conscious governments, NGOs, and commercial users.

Conventional desalination is energy-intensive, consuming 3–10 kWh per cubic meter depending on the technology. By coupling mobile units with photovoltaics, total energy usage can be reduced by up to 60%, according to data from the International Renewable Energy Agency (IRENA). Hybrid solar-RO units can now operate autonomously in sun-rich areas, producing 2,000–5,000 liters/day with minimal emissions.

In 2023, over 1,500 solar-powered desalination units were installed globally, primarily in Africa, the Middle East, and island nations. Countries like Morocco and Saudi Arabia are leading the deployment of renewable-based systems in rural and off-grid communities.

The falling cost of solar panels—dropping by nearly 89% since 2010—and improvements in battery storage technologies have further enhanced the economic viability of renewable-powered desalination units. For example, in Bangladesh, solar-desalination pilot units are delivering water at just USD 0.002 per liter, compared to diesel-powered units that average USD 0.007 per liter.

These cost advantages are compelling even in commercial applications, including construction sites, agriculture, and mining. As carbon-neutral commitments and energy cost pressures grow, mobile desalination units integrated with renewables are expected to be a key driver of sustainable water infrastructure across various industries.

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Key Market Challenges

High Capital and Operational Costs

Despite offering significant flexibility and rapid deployment, mobile desalination units involve high initial capital expenditures and operational costs. These systems require specialized components, such as high-pressure pumps, energy recovery devices, and corrosion-resistant materials, all of which increase their upfront cost. On average, a mobile reverse osmosis (RO) desalination unit with a daily output of 1,000 cubic meters may cost between USD 200,000 and USD 500,000 depending on the configuration, energy source, and location.

Moreover, operational expenses related to energy consumption, membrane replacement, maintenance, and skilled personnel further inflate the lifetime cost. Diesel-powered units are commonly used in emergency or off-grid applications but incur high fuel costs and environmental concerns. Even solar-powered units require ongoing maintenance of photovoltaic panels and storage batteries, which can be challenging in remote or harsh environments. Additionally, the need for consistent pre-treatment of feedwater and disposal of brine concentrate adds complexity and cost to operation.

These economic barriers restrict wider adoption in developing nations and remote communities that need such solutions the most. Government subsidies, donor funding, or innovative financing models such as leasing or pay-per-use services are being explored to offset these costs. Nonetheless, until these cost-related challenges are systematically addressed, the expansion of the mobile desalination units market may be limited, especially in low-income or infrastructure-poor regions.

Limited Freshwater Yield and Scale Constraints

Mobile desalination units, while effective in providing potable water in critical situations, are limited in terms of their production capacity. Most commercially available systems cater to small-scale applications, offering between 500 to 5,000 liters of fresh water per day. While sufficient for small communities, field hospitals, or military outposts, this yield is inadequate for large-scale or sustained municipal use.

In disaster zones or refugee camps, where water demand can easily exceed tens of thousands of liters per day, multiple units may be required to meet daily needs. This not only raises deployment and logistical challenges but also increases operational complexity and maintenance burden. Even larger mobile units that can produce up to 20,000 liters per day are constrained by transportation limitations, power availability, and feedwater source accessibility.

Furthermore, many mobile systems rely on reverse osmosis (RO), which necessitates precise pre-treatment and maintenance to prevent membrane fouling. This requirement adds to downtime and reduces overall system productivity. When the systems are pushed beyond their optimal operating parameters, efficiency drops significantly, further limiting the actual water output.

As urbanization increases and water demand rises globally, the limited yield of mobile desalination units poses a challenge for scalability. Innovations in system design, modular configurations, and more efficient membrane technologies are essential to overcome this limitation. Until then, the limited scale will remain a significant barrier to broader market adoption.

Environmental Concerns Regarding Brine Disposal

One of the most persistent challenges associated with all desalination technologies, including mobile systems, is the environmentally responsible disposal of brine—the highly concentrated saltwater byproduct. Mobile desalination units typically lack advanced brine management infrastructure, making them particularly vulnerable to improper disposal practices that may harm surrounding ecosystems.

The brine produced can be up to twice as salty as seawater and often contains residual chemicals from pre-treatment and membrane cleaning processes. When released into nearby water bodies or the ground without proper dilution or neutralization, this brine can disrupt aquatic life, degrade soil quality, and contaminate freshwater sources.

Mobile units deployed in coastal or remote areas without sufficient regulatory oversight often face logistical constraints in managing waste responsibly. In many developing regions, environmental regulations may be weak or poorly enforced, increasing the risk of ecological damage. According to a UN report, global desalination plants generate over 141.5 million cubic meters of brine per day; while mobile units contribute a small fraction of this, their decentralized and temporary nature often complicates monitoring and mitigation efforts.

To address this challenge, innovations such as zero-liquid discharge (ZLD) technologies, brine concentration for resource recovery, or hybrid systems with integrated brine management are being explored. However, these solutions are costly and technically complex, limiting their integration in mobile platforms. In the absence of scalable brine disposal methods, environmental concerns will continue to impede the market expansion of mobile desalination units.

Regulatory and Certification Barriers

Mobile desalination systems must comply with a range of local, national, and international standards concerning water quality, safety, environmental impact, and equipment specifications. Navigating these regulatory frameworks is a significant challenge, particularly for companies seeking to market units across multiple geographies with differing compliance requirements.

In the European Union, for instance, mobile units must conform to stringent CE certification standards, while in the United States, systems must be certified by the NSF/ANSI 61 for drinking water components. Additional regulations regarding brine disposal, emissions, and public health safety add further complexity. Failure to meet these standards can delay deployments, increase compliance costs, and potentially disqualify systems from public tenders or humanitarian aid programs.

Additionally, the lack of harmonized international standards means manufacturers must often modify or customize systems for specific regional requirements, affecting production efficiency and scalability. In emergency contexts, bureaucratic delays in certification or customs clearance can impede timely deployment, undermining the utility of mobile desalination units.

Emerging markets, which represent key growth opportunities, may also lack clear or consistent regulatory frameworks for mobile water treatment systems. This regulatory uncertainty discourages investment and may limit the participation of international players due to compliance risk. Until a more streamlined and standardized regulatory approach is adopted globally, the market will face continued obstacles in terms of product mobility, scalability, and acceptance.

Technical Skill Requirements and Maintenance Complexity

Operating and maintaining mobile desalination units requires a specialized set of skills that are not always readily available, particularly in remote, rural, or disaster-affected areas. These systems involve complex processes such as membrane cleaning, pump calibration, pre-treatment chemical dosing, and troubleshooting of mechanical or electronic components.

A shortage of trained technicians can lead to inefficient operation, reduced water quality, increased downtime, and even irreversible damage to key components like RO membranes. For example, improper handling during start-up or shutdown procedures can shorten the lifespan of membranes, which are among the most expensive parts to replace. Additionally, mobile units must often be operated under variable environmental conditions, requiring real-time adjustments that untrained personnel may be ill-equipped to manage.

Many manufacturers attempt to mitigate this by integrating automated control systems or providing remote monitoring features. However, these technologies can only partially reduce the need for human oversight and often require stable internet connectivity, which may not be available in off-grid locations. In humanitarian or emergency contexts, training programs are sometimes conducted, but the temporary nature of deployments and high turnover among personnel make sustained knowledge retention difficult.

To overcome this challenge, companies are increasingly offering bundled services such as operator training, remote technical support, or full-service operation models. Nonetheless, the technical skill barrier remains a significant impediment to wider adoption. For the market to grow, it will be crucial to design systems that are not only technically robust but also user-friendly and maintainable by non-specialists with minimal training.

Key Market Trends

Integration of Renewable Energy in Mobile Desalination Units

One of the most significant trends in the global mobile desalination units market is the integration of renewable energy sources such as solar, wind, and hybrid systems. Traditional desalination methods are energy-intensive, contributing to high operational costs and environmental concerns. To address these issues, manufacturers are increasingly embedding solar photovoltaic panels and wind turbines into the mobile units to power Reverse Osmosis (RO) and other filtration technologies. For example, solar-powered RO units are being deployed in sun-rich regions like the Middle East, Africa, and Australia, reducing dependency on fossil fuels. These renewable-powered systems also enable the deployment of units in off-grid or disaster-hit areas, offering a sustainable solution for emergency water supply. Additionally, governments and non-governmental organizations (NGOs) are supporting such initiatives through subsidies and funding, especially in regions vulnerable to water scarcity. The trend aligns with global decarbonization goals and the United Nations’ Sustainable Development Goals (SDGs), making mobile desalination units not just viable but essential for water resilience. As technological efficiencies improve, the operational costs of these renewable-integrated units continue to decline, further propelling their adoption.

Increasing Use of AI and IoT for Operational Efficiency

The adoption of Artificial Intelligence (AI) and Internet of Things (IoT) technologies in mobile desalination units is revolutionizing the market by enhancing operational efficiency, predictive maintenance, and water quality monitoring. AI algorithms can optimize energy consumption by dynamically adjusting pressure and flow rates, while IoT sensors provide real-time data on system performance and water quality parameters such as salinity, pH, and turbidity. Remote monitoring systems enable centralized control of mobile units deployed in multiple locations, reducing the need for on-site personnel and lowering operational costs. Furthermore, predictive analytics based on historical data allow operators to foresee component failures, thus minimizing downtime. These smart systems are particularly useful in military, disaster relief, and remote industrial operations where immediate response and reliability are crucial. The increasing affordability and accessibility of AI and IoT technologies are making them standard components in new-generation mobile desalination units. The synergy between advanced computing and desalination technology is not only improving water purification outcomes but also ensuring the sustainability and scalability of these systems in diverse environmental conditions.

Expansion of Mobile Desalination Units in Disaster Relief Operations

Mobile desalination units are becoming critical assets in global disaster relief operations. Natural disasters like hurricanes, floods, and earthquakes often destroy water infrastructure, leaving affected populations without clean drinking water. In such scenarios, mobile desalination units can be quickly deployed to provide immediate potable water supply. These units are self-contained, often equipped with onboard power sources, and can purify seawater, brackish water, or contaminated freshwater on-site. Humanitarian organizations and governments are increasingly stockpiling these systems as part of their disaster preparedness strategies. The U.S. Federal Emergency Management Agency (FEMA), for instance, has started incorporating mobile desalination solutions into its emergency response toolkit. Moreover, climate change-induced extreme weather events are expected to rise, further driving the need for portable and rapid-response water purification technologies. In regions like Southeast Asia and the Caribbean, where typhoons and hurricanes are common, mobile desalination units offer a life-saving solution. Their modularity and ease of transportation make them indispensable in emergency logistics. This trend underscores the strategic importance of mobile desalination units beyond conventional industrial or municipal use cases.

Technological Advancements in Membrane Filtration

Recent innovations in membrane filtration technologies are transforming the performance and efficiency of mobile desalination units. The development of high-flux, low-fouling membranes using advanced materials such as graphene oxide, carbon nanotubes, and nanocomposites has significantly improved water recovery rates and reduced energy consumption. These membranes can operate under lower pressures while maintaining high salt rejection rates, making them ideal for compact mobile systems. Moreover, the advent of forward osmosis and hybrid membrane technologies offers enhanced resilience against membrane fouling and longer operational life. Such advancements are critical in maintaining continuous water production in harsh environmental conditions, such as high salinity or turbid water sources. Companies are also investing in automated cleaning systems to prolong membrane life and minimize manual intervention. These next-generation membranes are being field-tested in military and humanitarian missions, proving their effectiveness in real-world conditions. The focus on improving membrane technology is not only elevating the technical capabilities of mobile desalination units but also expanding their applicability in new markets and geographies.

Rising Adoption in Industrial and Construction Applications

Another prominent trend in the global mobile desalination units market is their increasing adoption in industrial and large-scale construction projects. Industries such as mining, oil & gas, and construction often operate in remote or water-scarce regions where conventional water supply is either limited or unavailable. Mobile desalination units offer a reliable, on-site water source for operational processes, dust suppression, and workforce consumption. For example, in the mining sector, water is essential for ore processing, and mobile units can ensure uninterrupted operations even in arid regions. Similarly, construction projects in desert regions or coastal zones benefit from these portable water systems, which can be moved from site to site. Some companies are even leasing mobile desalination units for temporary projects, reducing capital expenditure. Additionally, environmental regulations are pushing industries to adopt sustainable water practices, making mobile desalination a more attractive option. The scalability, flexibility, and rapid deployment of these units make them ideal for dynamic industrial environments, further boosting their demand.

Segmental Insights

Technology Insights

Reverse Osmosis segment dominated in the Global Mobile Desalination Units market in 2024 due to its proven efficiency, lower energy consumption compared to thermal desalination technologies, and adaptability to mobile configurations. RO technology works by applying pressure to push seawater or brackish water through semi-permeable membranes, effectively separating salts and other impurities. This process requires relatively compact equipment, making it ideal for integration into mobile units used in remote areas, disaster-struck regions, and temporary facilities.

One of the key reasons for its dominance is the growing demand for decentralized and portable water purification solutions. RO membranes have improved significantly in terms of durability and performance, enabling high recovery rates of up to 45–60% for seawater and even higher for brackish sources. This makes RO systems highly attractive for mobile units deployed in coastal areas or arid inland zones. The flexibility of RO systems to operate on both small-scale and large-scale units has further enhanced their market penetration.

Additionally, advances in membrane technologies have led to substantial reductions in energy requirements, with many mobile RO systems now incorporating energy recovery devices that reduce operational costs. For instance, modern RO systems with energy recovery can operate at as low as 2.5–3.0 kWh/m³ for seawater desalination, making them more viable than many thermal options.

Environmental regulations and sustainability concerns have also favored the adoption of RO. Unlike thermal desalination, which involves high-temperature processes and often uses fossil fuels, RO systems produce lower greenhouse gas emissions and require less infrastructure, aligning with global trends toward low-carbon and energy-efficient technologies.

Furthermore, the ease of maintenance, shorter deployment times, and modular nature of RO units make them preferable for emergency response applications and military use, reinforcing their lead in the global mobile desalination market landscape in 2024.

End-Use Industry Insights

Municipal segment dominated the Global Mobile Desalination Units market in 2024 The municipal segment dominated the Global Mobile Desalination Units market in 2024 due to the rising demand for emergency and supplemental water supplies in urban and rural communities. Municipalities increasingly adopted mobile desalination units to address water shortages caused by climate change, droughts, and infrastructure failures. These units offer rapid deployment, cost-effectiveness, and flexibility, allowing local governments to provide clean drinking water during crises or in underserved areas. Additionally, population growth and urbanization have driven the need for decentralized water solutions, making mobile desalination a strategic investment for ensuring consistent water availability in cities and towns worldwide.

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Regional Insights

Largest Region

North America dominated the Global Mobile Desalination Units market in 2024 North America dominates the Global Mobile Desalination Units market in 2024 due to its advanced technological capabilities, high investment in water infrastructure, and increasing focus on emergency response and disaster preparedness. The region, particularly the United States, faces significant challenges related to water scarcity, especially in states like California, Arizona, and Texas. Prolonged drought conditions, exacerbated by climate change, have heightened the urgency for reliable and flexible water solutions. Mobile desalination units offer a rapid and efficient method to produce potable water in regions where traditional infrastructure is either lacking or insufficient during peak demand or crisis situations.

In addition, the U.S. government and local municipalities have shown a growing preference for decentralized and portable water treatment systems. Funding through initiatives like the Bipartisan Infrastructure Law has also supported innovation and deployment of sustainable water technologies, including mobile desalination. These policies have accelerated the adoption of containerized or trailer-mounted reverse osmosis units, particularly in coastal and disaster-prone areas.

Furthermore, North America is home to several leading manufacturers and technology providers specializing in mobile desalination solutions. The presence of companies with strong R&D capabilities has driven product enhancements in energy efficiency, automation, and operational reliability, making these systems more viable and attractive to government and commercial buyers.

The region’s strong defense sector also contributes significantly to market growth. Mobile desalination units are widely used by military forces for supplying clean water during deployments or in remote locations. Humanitarian missions and emergency relief agencies further bolster demand as they require mobile units for rapid deployment during natural disasters such as hurricanes, floods, or wildfires.

Emerging Region

Europe was the emerging region in the Global Mobile Desalination Units market in the coming period due to increasing climate-induced water stress, especially in Southern Europe. Countries like Spain, Italy, and Greece are facing prolonged droughts and rising demand for emergency and seasonal water supply. Additionally, the European Union’s push for sustainable and decentralized water infrastructure aligns with the adoption of mobile desalination units. The growing need for rapid deployment in disaster relief, refugee camps, and military operations also contributes to demand. Technological innovation, environmental regulations, and funding under the EU Green Deal further support market growth 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 Water Technologies
• SUEZ Water Technologies & Solutions
• IDE Technologies
• DuPont Water Solutions
• Toray Industries, Inc.
• Doosan Enerbility
• Aquatech International
• Xylem Inc.
• Biwater Holdings Limited
• Energy Recovery Inc.

Report Scope:

In this report, the Global Mobile Desalination Units Market has been segmented into the following categories, in addition to the industry trends which have also been detailed below:

•  Mobile Desalination Units Market, By Technology:

o   Reverse Osmosis

o   Multi-Stage Flash (MSF) Distillation

o   Electrodialysis

o   Nanofiltration

o   Hybrid Systems

• Mobile Desalination Units Market, By End-Use Industry:

o   Municipal

o   Industrial

o   Agricultural

o   Others

• Mobile Desalination Units Market, By Mobility Type:

o   Towable Systems

o   Truck-Mounted Systems

o   Containerized Systems

o   Portable Units

• Mobile Desalination Units 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 Mobile Desalination Units Market.

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