Smart Water Management Market Size, User Adoption, Technology Deployment, Revenue Growth, Market Share Analysis, and Demand Forecast

Gautam Mahajan is a water infrastructure and digital utilities market research analyst. He tracks the use of smart meters, the integration of IoT in water networks, leak detection technologies, water quality monitoring, and investments in smart water infrastructure. His research provides competitive benchmarking and strategic planning for water utilities, technology providers, infrastructure operators, municipalities, and industrial users. The smart water management market is estimated to reach USD 26.98 billion by 2035.

Last Updated : 19 Aug 2026  |  Report Code : 8687  |  Format : PDF / PPT / Excel  |  Author : Gautam Mahajan  |  Reviewed By : Aditi Shivarkar   |  Fact Checked   |  Cite Smart Water Management Market Size and Trends 2026 to 2035
Source: https://www.precedenceresearch.com/smart-water-management-market
Revenue, 2025
USD 26.98 Bn
Forecast Year, 2035
USD 73.62 Bn
CAGR, 2026 - 2035
10.56%
Report Coverage
Global

Smart Water Management Market Size and Forecast 2025 to 2035

Smart water management is moving into a data-driven, more connected era, according to Gautam Mahajan. He has extensive experience in analyzing water infrastructure and digital utility technologies. In the era of water scarcity, aging distribution networks, growing non-revenue water issues, and conservation mandates are putting pressure on utilities. As a result, organizations are turning to smart meters, IoT sensors, SCADA systems, cloud platforms, and advanced analytics to gain network visibility and efficiency. The global smart water management market size was estimated to be USD 26.98 billion in 2025 and is expected to grow at a CAGR of 10.56% over the forecast period, reaching USD 73.62 billion by 2035.

From conventional water infrastructure to an intelligent connected network, Gautam Mahajan sees it as a major transition in the water market. The adoption of cutting-edge metering infrastructure, live leak detection, predictive maintenance, pressure control systems, and AI-driven analytics is helping utilities cut down on water loss and enhance service reliability. It's also being driven by urbanization, water stress resulting from climate change, and government investment in digital infrastructure. Asia-Pacific is showing strong promise as a growth region. Driven by the expansion of smart-city programs and the modernisation of water distribution networks in the region, as well as the need to upgrade water networks in developed markets. These regions have ageing infrastructure and are using connected monitoring and automation systems.

Smart Water Management Market Size 2025 to 2035

Key Takeaways

  • By end user, the municipal water utilities segment led the market with a 42% share in 2025.
  • By communication technology, the cellular segment captured a major revenue share of 28% in 2025.
  • By deployment mode, the cloud segment captured the largest commercial vehicle braking system market share of 54% in 2025.

Market Sizing & Core Statistics

Smart Water Management Market Size, 2025-2035

From a 2025 base of USD 26.98 billion, compounding at the reported 10.56% CAGR lifts the market to approximately USD 73.63 billion by 2035, a 2.7x expansion across the decade. That rate is close to double the rate at which an average industrial-safety or industrial-technology category compounds, and the reason is probably not water, but rather timing. A category is still working through its first wave of digitization, moving utilities from manual meter reads and reactive repairs onto sensor networks and predictive software. This tends to grow faster than one already replacing equipment it installed a decade earlier.

Key Insight: The compounding of this market is nearly double that of a typical industrial-safety technology market, at 10.56% CAGR, and the implied value at 2.7x the value in 2025 indicates that this market is not yet in a digitization stage that is driven by replacement but is still in an early one.

Source: Precedence Research Database

Top 10 Strategic Insights

The World Loses $39 Billion of Water Value Every Year Before It Reaches a Customer

The World Loses $39 Billion of Water Value Every Year Before It Reaches a Customer

The latest estimate of the total NREW volume is USD 39 billion per year, with a value of USD 126 billion cubic meters per year. Based on a revised methodology for the original World Bank non-revenue water estimation methodology, the average non-revenue water rate is approximately 35% globally. This is significantly higher than the recommended level by the World Bank of 25%, with most water utilities operating around 10 percentage points above this benchmark. That's a gap that is this broad, not just in a handful of doomed-to-fail utilities, but across essentially every utility on the planet, and that's what makes it a good or bad opportunity for a tech vendor.

Key insight: Even with an average NRW rate of 35% globally, compared to a World Bank-recommended NRW rate below 25%, most of the world's water utilities are running about ten percentage points above the recommended level of efficiency. This indicates that addressing the opportunity of leak detection and smart metering technology is more structural and global than it is a niche solution for a few less efficient utilities.

Source: Liemberger & Wyatt, "Quantifying the Global Non-Revenue Water Problem," Water Supply Journal, IWA Publishing; World Bank

North America Suffers a Water Main Break Every Two Minutes

North America Suffers a Water Main Break Every Two Minutes

Based on the latest in-depth water main break study in both the U.S. and Canada, which includes more than 800 water main break utilities and approximately 400,000 miles of water main data. The annual water main break average for the region is 260,000, or a new break occurs somewhere in the network every two minutes. The cost of repairing those breaks to the region is USD 2.6 billion annually. The pipe-age data indicates the issue is worsening, not improving. Already 770,000 miles (or 33% of the region's 2.3 million miles) of water mains are past their useful life. A third of the network is already over half a century old, and the current break rate appears more like a peak than a trough on a continuing curve.

Key Insight: The region's 2.3 million miles of water mains are one-third past 50-years-old, and the break rate is a warning sign, rather than a symptom of the problem, while the pipe-age profile indicates that the number of water mains likely has more to climb in the years ahead before the infrastructure can be renewed.

Source: Barfuss & Fugal, "Water Main Break Rates in the United States and Canada," Journal AWWA (2025), Utah State University Buried Structures Laboratory

Desalination Makes the Middle East's Water Sector Four Times More Energy-Intensive Than the West's

Desalination Makes the Middle East's Water Sector Four Times More Energy-Intensive Than the West's

The energy use share of the water sector remained constant at 3% in the U.S. The European Union and the world average for the water sector for the entire outlook window (2015–2040). The situation in the Middle East is very different. The region's water sector already uses 9% of its electricity and will use nearly double as much (16%) by 2040, largely due to the overwhelming use of energy-intensive desalination processes to meet regional water demands. A water-using region that already spends four or five times as much as the US or EU on the electricity grid is not optimizing around the same cost structure as the rest of the world.

Key Insight: The water-sector energy share in the Middle East is almost double in size by 2040, from 9% to 16%, whereas the U.S. and EU remain unchanged at 3%. This makes the technology value proposition for energy optimization in the water sector larger and more fundamental in desalination-dependent regions as compared to conventional water sector markets.

Source: International Energy Agency (IEA), World Energy Outlook 2016 Special Report: Water-Energy Nexus

Every Percentage Point of NRW Recovered Is Worth Roughly $50 Million to a Mid-Sized Utility

Metric / Case Value Description
Annual savings per 1-point NRW reduction $50M+ Annual savings for a utility serving 500,000 customers from each 1-percentage-point reduction in NRW
Johannesburg NRW reduction 40% - 28% Johannesburg's NRW reduction from 2018-2023, generating an additional $120M in annual revenue
Electricity required per cubic meter 0.5-1.2 kWh Electricity required to treat and pump one cubic meter of water, based on EPA estimates; energy associated with each water leak

Non-revenue water reduction in the real world is measured in real terms of money. A utility with 500,000 customers can recover over USD 50 million in annual savings for each percentage point recovered, and every percentage point of NRW recovered. That's what the City of Johannesburg actually tested from 2018 to 2023 by reducing the non-revenue water rate from 40% to 28%. This resulted in USD 120 million in extra revenue every year. On a per-point basis, scaled to the size of the City of Johannesburg, that outcome for Johannesburg is divided by its 12 points of improvement. This is roughly USD 10 million per point, compared to a World Bank theoretical estimate, when scaled to city size, of roughly USD 12 million per point. The US EPA separately estimates that it takes 0.5 to 1.2 kWh of electricity to treat and pump a cubic meter of water. That is much of the energy savings math behind smart pumping investment cases is based on this estimate.

Key Insight: The twelve-point reduction in non-revenue water, from 40% to 28%, that has occurred in Johannesburg, generating USD 120 million of annual revenues. This is a strong real-world example of the World Bank's per-point saving estimate coming true, a rarity where a real municipal outcome directly confirms the theoretical non-revenue water economics used to justify smart water capex.

Source: World Bank NRW economics; BMAG Meter analysis of the City of Johannesburg case study; U.S. Environmental Protection Agency water-energy estimates

Three Global Policy Regimes Are Pushing Utilities Toward Digital Water Management

Policy / Region Policy Framework Key Focus
European Union Water Framework Directive 2000/60/EC Water resource protection and management
United States Safe Drinking Water Act (EPA-administered) Drinking water quality and public health protection
Global/United Nations Sustainable Development Goal 6 Clean Water and Sanitation

Three principal policy frameworks converge on digital metering and monitoring as the practical compliance mechanism, despite operating at entirely different governance levels. The EU Water Framework Directive, 2000/60/EC, is a directly applicable law to EU member states. Federal regulation of U.S. public water systems is regulated by the US Safe Drinking Water Act, administered by the EPA. UN Sustainable Development Goal 6 on clean water and sanitation is a development goal and not a legal agreement that applies to the entire world. Aditi believes none of the three regions were drafted with reference to the others. A multinational utility operator or technology vendor operating in all three jurisdictions cannot assume that compliance under one regime implies compliance under the other regimes.

Key Insight: EU law, U.S. federal law and a UN global goal are three distinct regimes. Operating in different jurisdictions and at different tiers, and as such, multinational utility operators and technology vendors. They are grappling with the same compliance-complexity challenge as other regulated infrastructure markets, where platforms that can report on multiple frameworks at once are at an advantage.

Source: EU Water Framework Directive 2000/60/EC; U.S. Safe Drinking Water Act (EPA); UN Sustainable Development Goal 6

Digital Twins and AI Are Growing Nearly Three Times Faster Than Core IoT Connectivity

Digital Twins and AI Are Growing Nearly Three Times Faster Than Core IoT Connectivity

The Internet of Things, as the underpinning technology layer for virtually all smart water deployments, stands in the lead with an average forecast CAGR of 82% and a projected installed share of 28% in 2025, as is only natural. Ranking ten technology categories by forecast CAGR alongside each one's 2025 share of the technology-segment market puts the Internet of Things clearly in the lead by installed share at 28%. The natural result of IoT being the foundational sensing layer that essentially every smart water deployment requires before anything else gets built on top of it. However, IoT is growing at a rate of only 10.2% a year, with both categories making significant progress at less than half of that.

Although the market currently accounts for only 5% of the total, the technology that is growing the fastest is Digital Twin with 16.7% CAGR, followed closely by Artificial Intelligence and Machine Learning (15.4% CAGR). All of these fastest-moving categories are downstream of IoT and not an alternative to it. They are doing something with the data that is generated by IoT sensors.

Key Insight: IoT still has the highest market share due to the fact that it is the most basic sensing layer that any deployment needs, but it's expanding at only half the rate of Digital Twin and AI/ML. The market's growth momentum has shifted from connecting things to making sense of what those things report.

Source: Precedence Research Database

Reducing Water Loss Follows a Repeatable Four-Stage Detection-to-Repair Cycle

Stage Process Description
1 Detect Acoustic sensors, pressure loggers, and flow monitoring flag anomalies consistent with a leak signature.
2 Locate Correlation analytics and AI narrow the anomaly to a specific pipe segment or district metered area.
3 Repair Field crews are dispatched with precise repair location data, minimizing excavation and service disruption.
4 Verify & Prevent Post-repair monitoring confirms resolution and feeds data back into predictive maintenance models.

Current practice of water loss management using International Water Association methodology operates on a four-stage cycle. Detect anomalies using acoustic sensors, pressure loggers, and flow monitoring that are consistent with a leak signature. Use correlation analytics and AI to identify the anomaly and pinpoint a specific pipe section or district metered area. With the accurate location data, repair dispatches field crews and significantly reduces excavation and service disruption from the trial-and-error digging leak response that was previously required.

Verify and Prevent validates the fix and monitors for the same, and returns the result data directly to the stage one models that are used for prediction. A true loop, not a linear process, is made when that last step is undertaken, as each time the cycle is completed, the next detection pass is slightly sharper than the previous one.

Key insight: The closing of the loop in the last stage of the loop becomes critical for the detection thresholds in stage one. This indicates that the value of every additional detection point is multiplied with each subsequent detection as the model gets better and better, and why analytics and data management are among the fastest-growing offering categories in the whole data set. Right after digital twin solutions and smart irrigation management, which are growing at 14.6% CAGR.

Source: Precedence Research Database

Smart Water Platforms Stack Four Layers Between the Pipe and the Decision

Layer Technology / Components
Field Sensing Layer Smart meters, pressure, flow, and water-quality sensors across the water network.
Connectivity Layer NB-IoT, LoRaWAN, cellular, and RF mesh transmits sensor readings to the cloud.
Analytics & Digital Twin Layer AI/ML models, digital twins, and GIS detects anomalies and simulates the water network.
Decision & Control Layer SCADA control, utility dashboards, and customer engagement converts insights into operational decisions and actions.

The complete digital water technology stack is 4 layers thick. Field Sensing is foundational and includes smart meters, pressure, flow, and water-quality sensors installed throughout the physical network. Readings are connected to the cloud via NB-IoT, LoRaWAN, cellular, or RF mesh networks. Analytics and Digital Twin use AI and machine learning models and digital twins, combined with GIS, to identify anomalies and simulate the network's operation. Decision and control put everything in a circle, as SCADA systems, utility dashboards, and customer interaction tools follow what the analytics layer came up with. Each of these layers corresponds to a different growth rate, which then gives a relatively sharp demarcation between the opportunities available to each vendor depending on how many layers one can sell into.

Key Insight: Each layer in this stack corresponds to a different segment, and a vendor's addressable opportunity relates to the number of layers of the stack it can deliver. Pure hardware vendors will only be fighting in the slowest-growing layer. Platform vendors covering analytics and decision-support will be getting into the fastest-growing revenue bucket.

Source: Precedence Research Database

Regional Intelligence

Asia-Pacific Overtakes Europe as the Second-Largest Regional Market by 2035

Asia-Pacific Overtakes Europe as the Second-Largest Regional Market by 2035

North America had the highest percentage in the world in 2025 with a 34.0% market share, and the smallest increase out of any of the five reporting regions, dropping to 31.0% in 2035. The European region also sees a slight reduction, from 28.0% to 27.0%, while the Middle East and Africa go down from 6.0% to 5.0%.

Asia-Pacific is the only region recording any significant gain, moving from 25.0% to 30.0% in five years, thus surpassing Europe to become the top region worldwide by 2035. Latin America's performance is flat at 7.0% for both years. The five-point roll-over in a decade is a quicker rebalancing than is typical for most infrastructure-tech categories. This is likely to indicate a specific catalyst for the growth of Asia-Pacific beyond mere population size.

Key insight: Asia-Pacific is the only region enjoying a meaningful share increase from 25.0% to 30.0% with a faster rebalancing of the region than typically observed across infrastructure-technology markets, driven by Asia-Pacific water stress and greenfield smart city investments.

Source: Precedence Research Database

Asia-Pacific Grows 1.5x Faster Than the Slowest Region Through 2035

Asia-Pacific Grows 1.5x Faster Than the Slowest Region Through 2035

Region CAGR (2025-2035) Underlying Growth Driver
Asia-Pacific 12.70% Rapid urbanization, water stress, and smart-city investment
Latin America 10.60% Water-loss reduction and municipal infrastructure modernization
Europe 10.20% Water-efficiency regulation and digital utility transformation
North America 9.60% Mature smart-meter base and utility modernization
Middle East & Africa 8.60% Water scarcity, desalination-linked infrastructure, and uneven adoption

Asia-Pacific is the top region by forecast CAGR with 12.7% and is supported by water stress, smart city investments, rapid urbanization, and overall infrastructure growth across the region. Tied to water loss reduction and the upgrading of municipal infrastructure, Latin America is tied with it at 10.6% CAGR. The construction of new capacity does not drive European growth, which is currently 10.2% due to water-efficiency regulation, aging networks, and digital utility transformation.

North America is the smallest of the larger markets, with 9.6% CAGR growth, as utility modernization, rather than new installations, dominates growth in this already-mature market. Overall, the Middle East and Africa is the least dynamic region, with an 8.6% CAGR. Due to water scarcity and desalination-induced infrastructure, despite the fact that adoption in the region is in fact very uneven by country. None of these categories has a growth rate as fast as is generally found in developed-market industrial technologies, whereas most global infrastructure markets do not have such strong growth.

Key Insight: Unlike more mature infrastructure-technology markets, every region compounds at 8.6% or faster, and even the slowest-growing region, Middle East and Africa, still grows nearly 40% faster than a typical developed-market industrial technology CAGR. Further underscoring that smart water is a genuinely global growth category, not a story confined to any single region.

Source: Precedence Research Database

Segment Deep-Dives

Software Is Growing Faster Than Hardware as Utilities Shift Value to Analytics

Component 2025 Market Share 2035 Market Share CAGR (2025-2035) Key Details
Hardware 43.00% 38.00% 9.20% Smart meters, sensors, and controllers remain the infrastructure foundation, but lose relative share.
Software 35.00% 39.00% 11.70% AI analytics, digital twins, GIS, and network-management platforms drive value migration.
Services 22.00% 23.00% 11.00% Integration, managed services, and analytics support scale with growing digital deployments.

The hardware segment, which holds the largest share in all years, is also the only one of the three losing ground, dropping to 38.0% by 2035 as it grows at 9.2% CAGR, the lowest of the three. The one getting stronger is software, increasing its share from 35.0% to 39.0% from 2025 to 2035 at an 11.7% CAGR, the highest of the decade. The only one that is actually gaining share over the decade. Services, which has a smaller share but is more stable, increased from 22.0% to 23.0% at 11.0% CAGR. Where hardware still had a lead in share as it was shrinking, and software was gaining share and also gaining the most while doing so. It's close to a textbook example of a technology category entering the next phase of its development where continuing value is accrued from analytics, not the hardware itself.

Key Insight: As expected, the classic move from a hardware-led build-out phase towards a software/analytics-led value phase is unfolding in a technology market, with software gaining in share (35.0% to 39.0%) while hardware is losing the most (43.0% to 38.0%) despite its continued status as the biggest category in the forecast.

Source: Precedence Research Database

Municipal Utilities Lead Today, but Industrial Water Users Are Closing the Gap

Municipal Utilities Lead Today, but Industrial Water Users Are Closing the Gap

The biggest end user is municipal water systems, which is expected to comprise 42.0% of the end users in 2025 as municipal systems cover more customers with water systems and more pipe network than any other end user. In fact, municipal growth is lower than the industrial growth rate at 10.0% CAGR and currently accounts for only 24.0% of the market compared to industry's share of more than half.

It seems that process water optimization needs and corporate sustainability goals are driving industrial buyers into this market quicker than municipal water utilities. This faces the challenges of the public-sector budget cycle and procurement timelines. Commercial and residential buyers make up the remaining meaningful shares at 18.0% and 12.0%, respectively, and agricultural use, the smallest at 4.0% share, also has the slowest growth of any end user at 7.6%.

Key Insight: Municipal water utilities make up just over half of the market, at 42.0% compared to 24.0% for industrial end users. Industrial end users don't have much time to catch up on process-water optimization and sustainability targets. That is driving industrial buyers into the market at a pace that is well on its way to bringing the gap with municipalities to a close before the end of the decade.

Source: Precedence Research Database

NB-IoT Is Overtaking RF Mesh as the Backbone of Smart Meter Connectivity

NB-IoT Is Overtaking RF Mesh as the Backbone of Smart Meter Connectivity

Aman interpreted that cellular connectivity technically holds the largest 2025 share among the eight communication technologies at 28.0%. But a better comparison can be done among the eight communication technologies vying for the backbone service. Despite still having a significant share of the market (20.0%), RF Mesh's growth is much slower compared to NB-IoT at 14.2% CAGR, which is the fastest of any communication technology tracked, and LoRaWAN at 12.6% CAGR.

The first-generation proprietary LP network, Sigfox, has the slowest growth of 4.8% CAGR of any communication technology, indicating that utilities are actively moving new deployments away from it. Both are open and non-proprietary, meaning they don't rely on a single vendor's infrastructure. That distinction is of huge importance to utility procurement teams that are looking at a 10-year asset life rather than a single hardware refresh cycle.

Key Insight: RF Mesh is still a major installed base at 20.0%, but is being left behind by both NB-IoT (14.2%) and LoRaWAN (12.6%) by a long shot, with Sigfox's CAGR of 4.8% the slowest of any communications technology covered, a clear indication that the LPWAN standards battle is going to Sigfox's rivals – NB-IoT and LoRaWAN - and not to its.

Source: Precedence Research Database

Cloud Deployment Will Command Nearly Two-Thirds of the Market by 2035

Cloud Deployment Will Command Nearly Two-Thirds of the Smart Water Market by 2035

This category leads in terms of cloud deployment in 2025 at a 54.0% share, and by 2035, it will reach a 63.0% share with a 12.2% CAGR. This is the highest of the three deployment models. On-premises deployment is the only deployment model to lose both share and relative growth over the past year, dropping 9.0 percentage points in both instances from 29.0% to 20.0% of the total, and with a mere 6.7% CAGR.

The hybrid deployment remains essentially flat at 17.0% share in both years, but increases at a middling 10.6% CAGR. That's a different scenario than if a segment is growing more slowly than others: both share and growth are declining. It's not so much about adding cloud resources on top of their existing on-premises environments, but rather it's about phasing out the current on-premises infrastructure as they move to the cloud.

Key insight: The on-premises deployment is alone in the entire data set losing both share and relative growth, dropping from 29.0% to 20.0% share, while utilities' on-premises growth rate fell just 6.7% CAGR. Indicating that they're using cloud capacity as a substitute for on-premises infrastructure and thus negatively impacting on-premises vendors.

Source: Precedence Research Database

Recent Developments

May 1, 2026 Badger Meter: Completed acquisition of UDlive Limited

What Happened: The acquisition of UDlive Limited by Badger Meter extended its sewer-line and lift-station monitoring capabilities through its BlueEdge brand, “beyond the meter”, solutions portfolio.

Why It Matters: The acquisition adds to Badger Meter's addressable market by moving beyond water metering to the monitoring of water networks, which is becoming a bigger piece of the smart water management puzzle.

Business Impact: The shift reflects a trend by longstanding metering companies to venture beyond the traditional replacement cycle and into related markets like leak detection and wastewater monitoring.

Source: Badger Meter, Inc. SEC Form 8-K, 2026

February 10, 2026 Xylem: Reported record FY2025 revenue following early integration of $7.5B Evoqua acquisition

What Happened: Xylem had a record full-year 2025 revenue and completed the integration of its $7.5 billion Evoqua Water Technologies acquisition 18 months early. The company also gave a guarded outlook for 2026, triggering a down day in its share price.

Why It Matters: The development illustrated that despite mixed short-term market demand, one of the sector's biggest acquisitions is moving forward from an integration standpoint.

Business Impact: The deal will help drive the water technology scale consolidation trend. Xylem's smart infrastructure and analytics with Evoqua's treatment technologies results in a wider platform that spans across the water value chain.

Source: Xylem Inc. FY2025 earnings release, reported February 10-11, 2026

May 2025 Veolia: Acquired remaining 30% stake in Water Technologies and Solutions (WT&S) from CDPQ for $1.75 billion

What Happened: Veolia paid for the remaining 30% stake in its Water Technologies and Solutions division for CDPQ's $1.75 billion.

Why It Matters: The sale boosts Veolia's control over digital water technologies, such as monitoring and digital water-grid solutions, enabling better integration into the company's core water services business.

Business Impact: The deal confirms the wider industry trend of major water-services providers gaining full ownership of smart and digital water solutions, rather than setting up joint ventures to handle them.

Source: Veolia transaction announcement, May 2025, as reported by DataM Intelligence market research

July 2025 H2O America: Agreed to acquire Quadvest for approximately $540 million

What Happened: H2O America bought out Quadvest, a Houston-area water company, for nearly $540 million. The deal will help expand the digital water utility operations and smart infrastructure deployment in Texas.

Why It Matters: This acquisition will be different from a technology-vendor buy, as it's a utility-level consolidation, and smart infrastructure is one of the factors that make it an important element of the strategic decision.

Business Impact: Smart water is becoming more and more integral to utilities' acquisition considerations as a technology, and less as technology acquired down the road from third parties.

Source: H2O America transaction announcement, July 2025, as reported by DataM Intelligence market research

February 2026 Itron: Expanded smart water metering ecosystem across North America and Asia-Pacific

What Happened: Itron has grown its smart water metering ecosystem to North America and Asia-Pacific by combining AI-powered analytics, IoT connectivity, and comprehensive meter data management to support utility deployments.

Why It Matters: The expansion directly tackles key utility priorities, such as billing accuracy, asset management, and minimizing non-revenue water.

Business Impact: The development reinforces the transition from hardware to software, analytics and data-driven services, with some of the traditional meter brands becoming more of a digital water technology player.

Source: Itron ecosystem expansion announcement, February 2026, as reported in smart water meter market research

October 30, 2024 (effective December 30, 2024) U.S. EPA: Finalized the Lead and Copper Rule Improvements (LCRI)

What Happened: The U.S. Environmental Protection Agency finalized the Lead and Copper Rule Improvements on October 30, 2024, and the Rule will be effective on December 30, 2024. Within 10 years, the regulation demands that the U.S. drinking water system locate and retire all lead and some galvanized service lines. It also reduces the lead action level from 15 to 10 parts per billion, and mandates ongoing inventory reporting until November 2027.

Why It Matters: The rule sets a national timeframe for replacing lead service lines and mandates that utilities keep comprehensive digital records of their water assets.

Business Impact: The rule provides a near-term opportunity for GIS, asset-management, inventory, and digital water technology solutions to help utilities respond to the new reporting and infrastructure-management needs.

Source: U.S. EPA, Lead and Copper Rule Improvements, finalized October 30, 2024, effective December 30, 2024

Smart Water Management Market Companies

Company Headquarters Role in Market Strategic Relevance
Xylem Washington, D.C., US Major/incumbent A leading water technology firm in the field of smart infrastructure, analytics, and water treatment. The company's completed $7.5 billion Evoqua deal has resulted in a larger platform that covers much of the water value chain.
Badger Meter Milwaukee, Wisconsin, US Major/incumbent A specialist in smart water metering and “beyond the meter” monitoring. The acquisition of UDlive gave it new capabilities for monitoring sewer and lift-stations via the BlueEdge platform.
Itron Liberty Lake, Washington, US Major/incumbent AMI and smart-grid technology provider; actively expanding AI-powered analytics and meter data management across North America and Asia-Pacific.
Landis+Gyr Cham, Switzerland Major/incumbent Holds an estimated ~19.6% share of the smart water meter market via advanced AMI, IoT-enabled metering, and cloud-based analytics.
Kamstrup Skanderborg, Denmark Specialist/SME Ultrasonic smart water meter and data-management solutions provider, serving municipal and utility customers globally.
Neptune Technology Group Tallassee, Alabama, US Specialist/SME Water metering and AMI/AMR technology provider serving North American municipal utilities.
Mueller Water Products Atlanta, Georgia, US Major/incumbent Water infrastructure, leak detection, and pipe-condition monitoring technology for municipal water distribution networks.
Veolia (Water Technologies & Solutions) Paris, France Major/incumbent Full water-services conglomerate with digital water grid and smart monitoring capabilities; took full ownership of its WT&S division from CDPQ in 2025.
Siemens Munich, Germany Major/incumbent Broader industrial technology player supplying SCADA, automation, and digital infrastructure technology into the smart water grid market.
Honeywell Charlotte, North Carolina, US Major/incumbent Building- and infrastructure-automation technology provider supplying monitoring and control systems into municipal and industrial water applications.

Expert Insights

The smart water management market is witnessing the shift from traditional, reactive water infrastructure to intelligent, connected and predictive water networks. I think there are good things about coming together all of these concepts of smart meters, IoT sensor monitoring, AI analytics, and automated network control. The coming decade will be defined by rising water scarcity, a need to increase water resource efficiency, increasing non-revenue water losses, and ageing distribution systems. This will all drive competitiveness. I expect continued growth in the need for utilities and municipalities to have operational visibility, conservation, service reliability, and real-time monitoring, as well as advanced leak detection, predictive maintenance, and integrated digital water platforms. Companies able to take a multi-scalable sensing approach, interoperable software, reliable analytics, and strong utility partnerships should be well placed to tap into the increasing demand for efficient and resilient water management solutions.

Our Experts

Gautam Mahajan has spearheaded the main market research, methodology preparation, market segmentation, application analysis, competitive developments, analysis, and forecasting for the report, making it the analytical underpinning of the report.

Aman handled the collection and validation of government publications, company disclosures, technology investments data, infrastructure statistics, and other independently sourced quantitative data that contributed to a robust evidence base for the market estimates.

Aditi checked the entire research paper, did quality checks, confirmed the findings, altered the paper for refinement, removed inconsistencies, and finalized the research paper, making it accurate and understandable.

Complete Market Segmentation

Full segmentation structure as provided in the market dataset, beyond the segments selected for dedicated visual treatment.

By Offering

  • Smart Water Meters
  • Sensors & Monitoring Devices
  • Advanced Metering Infrastructure (AMI)
  • Automated Meter Reading (AMR)
  • SCADA Systems
  • Meter Data Management
  • Analytics & Data Management
  • Leak Detection & Monitoring
  • Asset Management
  • Network Management
  • Digital Twin Solutions
  • Water Quality Monitoring
  • Smart Irrigation Management
  • Professional & Managed Services

By Meter Type

  • Smart Water Meters
  • Ultrasonic Meters
  • Electromagnetic Meters
  • Mechanical Meters
  • Turbine Meters
  • Other Smart Meters

By Application

  • Water Metering & Billing
  • Leak Detection & Non-Revenue Water Management
  • Water Distribution Management
  • Pressure Management
  • Water Quality Monitoring
  • Wastewater Management
  • Asset Management
  • Pumping & Energy Management
  • Demand Forecasting
  • Smart Irrigation
  • Customer Engagement
  • Flood & Stormwater Management

By Region

  • North America (U.S., Canada, Mexico)
  • Europe (Germany, U.K., France, Italy, Spain, Netherlands, Switzerland, Rest of Europe)
  • Asia-Pacific (China, Japan, India, South Korea, Australia, Singapore, Indonesia, Rest of Asia-Pacific)
  • Latin America (Brazil, Argentina, Mexico, Rest of Latin America)
  • Middle East & Africa (UAE, Saudi Arabia, Qatar, South Africa, Israel, Rest of Middle East & Africa)

Questions This Report Deliberately Leaves Open

  • From the five regions, which one offers the most attractive risk adjusted entry opportunity - the faster growing Asia-Pacific at 12.7% CAGR or the more established North America, the largest market share and with a longer replacement cycle opportunity?
  • The software is projected to grow at an annual rate of 11.7% for 2016-2020 and account for 39.0% of the total sales in 2020. What is the right way for hardware vendors to invest in R&D to not fall behind the platform vendors?
  • How do you think the realistic opportunity is for converting the existing 20.0%-share RF Mesh into NB-IoT or LoRaWAN before the time of their natural replacement cycle?
  • How can vendors compete with GIS and asset-management software in pricing Digital Twin Solutions that currently account for 1.5% of the market but are growing at an 18.1% CAGR?
  • What is the opportunity for multi-year revenues to be generated from U.S.-specific asset-management and GIS software compliance and reporting requirements with the EPA's Lead and Copper Rule Improvements with a 10-year replacement requirement?
  • Between industrial users, which have a 24.0% base and 11.4% CAGR, and residential users, which have a 12.0% base and the same 11.4% CAGR, which offers a more capital-efficient expansion opportunity for a mid-sized smart water vendor?
  • What is the likelihood that vendors will be negatively impacted by the change from on-premises to cloud systems, where cloud is expected to comprise 63.0% of the infrastructure market in 2035, as opposed to 20.0% in 2022? Is this a change that warrants the end of legacy on-premises products?
  • Given the documented $50M-per-NRW-point savings benchmark, what pricing models based on results or gains could enable vendors to capture more value from their customers than the traditional hardware-plus-licence pricing model?
  • With the Middle East and Africa's slower CAGR of 8.6%, should vendors cut back on their investment, or will the region's high water-sector energy intensity (c. 16% of electricity consumption by 2040) call for specific energy optimisation solutions?
  • With 33% of North American water mains currently over 50 years old and nearing the end of their service life, what is the realistic TAM for leak-detection technologies?
  • What do companies need to do after the model of the scale to consolidate, which was followed by Xylem's $7.5 billion acquisition of Evoqua, and what mid-sized specialist companies might be seen as viable acquisition targets?
  • How much more revenue is possible throughout the water meter's lifetime, as a result of the hardware, connectivity, software subscription and managed service revenues, versus the one-time revenue that's usually realized from the sale of the water meter?
  • With NB-IoT and LoRaWAN both showing a 14.2% and 12.6% CAGR respectively, which technology will provide the better long-term base for a vendor's connectivity strategy, especially when faced with Sigfox's CAGR of 4.8%?
  • What should be the approach for regional expansion strategies, if the vendor is to focus on the near term or the long term, and which region is the near term (North America with a 34.0% share) or the long term (Asia-Pacific with a 30.0% share)?
  • What pricing, financing, and deployment models are there to address capital constraints and accelerate investment in utilities, while global non-revenue water is still around 35%?
  • What is the potential of the Smart Irrigation Management segment-a 1.0% share of the market that is increasing at a 15.4% CAGR-to fend off competition from wider ag Tech players?
  • As Water Technologies and Solutions is fully integrated into Veolia, what should the competitors Xylem, Badger Meter, Itron, and Landis+Gyr expect?
  • What are the two or three industries that have the highest growth potential and are relatively unsaturated for new entrants in the industrial water market?
  • What is the impact of the ~35% global non-revenue water rate on the creditworthiness of a municipal utility and its ability to invest in infrastructure strategically?
  • Where are there opportunities to integrate water-loss reduction technologies with energy-saving solutions, especially since pumping accounts for a large portion of the energy consumption throughout the water sector?

References

  • Precedence Research Database
    "Smart Water Management Market Size, Segmentation, and Regional Data, 2025-2035"
    https://www.precedenceresearch.com
    Data used: Market size, CAGR, all segment and regional share/CAGR tables
  • IWA Publishing (Water Supply Journal)
    "Quantifying the Global Non-Revenue Water Problem (Liemberger & Wyatt)" 2019 update
    https://iwaponline.com/ws/article/19/3/831/41417/Quantifying-the-global-non-revenue-water-problem
    Data used: Global NRW volume and economic value
  • World Bank
    "What Is Non-Revenue Water? How Can We Reduce It for Better Water Service?" Accessed 2026
    https://blogs.worldbank.org/en/water/what-non-revenue-water-how-can-we-reduce-it-better-water-service
    Data used: Global average NRW rate and recommended target
  • American Water Works Association (AWWA) / Journal AWWA
    "Water Main Break Rates in the United States and Canada (Barfuss & Fugal)" 2025
    https://awwa.onlinelibrary.wiley.com/doi/abs/10.1002/awwa.2401
    Data used: Annual water main breaks, aged-pipe mileage, repair cost
  • International Energy Agency (IEA)
    "World Energy Outlook 2016 Special Report: Water-Energy Nexus" 2016 (regional outlook to 2040)
    https://www.iea.org/reports/water-energy-nexus
    Data used: Water sector electricity consumption share by region
  • BMAG Meter
    "Non-Revenue Water (NRW): Unlocking Hidden Value in Global Water Utilities" 2026
    https://www.bmagmeter.com/non-revenue-water/
    Data used: Per-point NRW savings estimate; City of Johannesburg case study
  • European Commission
    "Water Framework Directive 2000/60/EC" 2000
    https://environment.ec.europa.eu/topics/water/water-framework-directive_en
    Data used: EU regulatory framework reference
  • U.S. Environmental Protection Agency (EPA)
    "Safe Drinking Water Act / Lead and Copper Rule Improvements" Finalized October 30, 2024; effective December 30, 2024
    https://www.epa.gov/ground-water-and-drinking-water/lead-and-copper-rule-improvements
    Data used: U.S. regulatory framework reference; recent development
  • United Nations
    "Sustainable Development Goal 6: Clean Water and Sanitation" Ongoing
    https://sdgs.un.org/goals/goal6
    Data used: Global policy framework reference
  • Badger Meter, Inc.
    "SEC Form 8-K UDlive Limited Acquisition Completion" 2026
    https://www.sec.gov/Archives/edgar/data/0000009092/000119312526311374/bmi-ex99_pressrelease.htm
    Data used: Recent development: M&A
  • Xylem Inc.
    "FY2025 Earnings Release and Evoqua Integration Update" February 10-11, 2026
    https://markets.financialcontent.com/stocks/article/finterra-2026-2-11-water-powerhouse-at-a-crossroads-a-deep-dive-into-xylem-inc-xyl-in-2026
    Data used: Recent development: M&A integration

For inquiries regarding discounts, bulk purchases, or customization requests, please contact us at sales@precedenceresearch.com

Frequently Asked Questions

Answer : Smart water management leverages connected meters, sensors, communication networks, analytics, and automation to track and apply best practices for water supply, distribution, consumption, and infrastructure performance.

Answer : It enables utilities to identify leaks, minimize non-revenue water, track usage, optimize operations, and to better manage limited water supplies.

Answer : Smart meters, Internet of Things (IoT) sensors, SCADA systems, cloud platforms, artificial intelligence (AI) and analytics, digital twins, automated controls, and real-time water quality monitoring are all key technologies.

Answer : Some of the biggest growth drivers are increased water scarcity, outdated water systems, urbanisation, higher non-revenue water losses, regulatory pressure and investments in digital utility infrastructure.

Answer : By using connected sensors and smart meters, utilities can get live data on pressure, flow, and consumption and identify any abnormal patterns and locate leaks in a quicker time.

Ask For Sample

No cookie-cutter, only authentic analysis – take the 1st step to become a Precedence Research client

Meet the Team

Gautam Mahajan

Gautam Mahajan LinkedIn

Author

With four years of specialized experience, Gautam Mahajan serves as a senior research analyst at Precedence Research, focusing on aerospace and ICT sectors. He delivers in-depth, data-driven market intelligence that helps clients navigate technological advancements, supply chain challenges, regulatory frameworks, and competitive dynamics. Gautam’s expertise allows him to identify emerging trends, assess market potential, and guide strategic decisions that maximize growth and efficiency. By combining rigorous research methodologies with a keen understanding of industry innovation, he provides actionable insights that support both long-term planning and agile market responses. His collaborative approach ensures that complex insights are translated into practical solutions for clients across the globe.

Read more about Gautam Mahajan
Aditi Shivarkar

Aditi Shivarkar LinkedIn

Reviewed By

Aditi brings more than 14 years of experience to Precedence Research, serving as the driving force behind the accuracy, clarity, and relevance of all research content. She reviews every piece of data and insight to ensure it meets the highest quality standards, supporting clients in making informed decisions. Her expertise spans healthcare, ICT, automotive, and diverse cross-industry domains, allowing her to provide nuanced perspectives on complex market trends. Aditi’s commitment to precision and analytical rigor makes her an indispensable leader in the research process.

Learn more about Aditi Shivarkar

Related Reports