Water utility areas in Johnson County

Consumer Water as well as Provisional Water Utilities in Alaskan communities as listed as Active in the Regulatory Commission of Alaska (RCA) Library where a relationship exists. The presented location of the Utility is mapped to the appropriate DCRA Community centroid.Source: Regulatory Commission of AlaskaThis data has been visualized in a Geographic Information Systems (GIS) format and is provided as a service in the DCRA Information Portal by the Alaska Department of Commerce, Community, and Economic Development Division of Community and Regional Affairs (SOA DCCED DCRA), Research and Analysis section. SOA DCCED DCRA Research and Analysis is not the authoritative source for this data. For more information and for questions about this data, see: Regulatory Commission of Alaska Library

Data OriginThe dataset provided by Ofwat is rooted in legal records. The dataset is digitised from the official appointments of companies as water and sewage undertakers, which include legally binding documents and maps. These documents establish the specific geographic areas each water company is responsible for. The dataset was sourced from Constituency information: Water companiesData TriageAnonymisation is not required for this dataset, since the data is publicly available and focuses on geographical boundaries of water companies rather than individual or sensitive information. The shapefile serves a specific purpose related to geospatial analysis and regulatory compliance, offering transparent information about the service areas of different water companies as designated by Ofwat.Further ReadingBelow is a curated selection of links for additional reading, which provide a deeper understanding of the water company boundaries datasetOfwat (The Water Services Regulation Authority): As the regulatory body for water and wastewater services in England and Wales, Ofwat's website is a primary source for detailed information about the water industry, including company boundaries.Data.gov.uk: This site provides access to national datasets, including the Water Resource Zone GIS Data (WRMP19), which covers all water resource zones in England. This dataset is crucial for understanding geographical boundaries related to water management.Water UK: As a trade body representing UK water and wastewater service providers, Water UK's website offers insights into the industry's workings, including aspects related to geographical boundaries.Specifications and CaveatsWhen compiling the dataset, the following specifications and caveats were made:This shapefile is intended solely for geospatial analysis. The authoritative legal delineation of areas is maintained in the maps and additional details specified in the official appointments of companies as water and/or sewerage undertakers, along with any alterations to their areas.The shapefile does not encompass data on any structures or properties that, despite being outside the designated boundary, are included in the area, or those within the boundary yet excluded from the area.In terms of geospatial analysis and visual representation, the Mean High Water Line has been utilized to define any boundary extending into the sea, though it's more probable that the actual boundary aligns with the low water mark. Furthermore, islands that are incorporated into the area might not be included in this representation.Ofwat’s data was last updated on 25th May 2022Contact Details If you have a query about this dataset, please email foi@ofwat.gov.uk

A grouped feature layer that includes Water Mains, Water Services, Same Side Tap Only and No New Taps layers.Water Mains are large buried pipes that distribute water from a supply source ultimately to customer's service lines. Water Services are lines representing a water service delivered from a watermain to a property.Same Side Tap Only and No New Taps are water main restrictions which represent the availability or access to water main assets. Same Side Tap Only are lines representing where water services are only allowed to be tapped on one side of the water main. No New Taps are lines representing water mains where new water services are no longer permitted to tap into the water main.This data provides a limited view of Seattle's water infrastructure. For example, the data does not include transmission pipelines or feeder mains for reasons of water system network security. The data may show water mains that are not eligible for new water service connections (e.g., obsolete or "no-tap" water mains).

March 2025

A Certificate of Convenience and Necessity (CCN) is issued by the PUCT, and authorizes a utility to provide water and/or sewer service to a specific service area. The CCN obligates the water or sewer retail public utility to provide continuous and adequate service to every customer who requests service in that area. The maps and digital data provided in the Water and Sewer CCN Viewer delineate the official CCN service areas and CCN facility lines issued by the PUCT and its predecessor agencies.This dataset is a Texas statewide polyline layer of water CCN facility lines. The CCNs were digitized from Texas Department of Transportation (TxDOT) county mylar maps. The mylar maps were the base maps on which the CCNs were originally drawn and maintained. CCNs are currently created and maintained using digitizing methods, coordinate geography or imported from digital files submitted by the applicant. TxDOT digital county urban road files are used as the base maps on which the CCNs are geo-referenced.This dataset is a Texas statewide polyline layer of water Certificates of Convenience and Necessity (CCN) facility lines. This type of CCN may either be a Facilities Only (F0), a CCN Facility line (point of use) service area that covers only the customer connections at the time the CCN was granted, or Facilities plus a specified number of feet (usually 200 feet buffer) around the facility line. It is best to view the water CCN facility lines in conjunction with the water CCN service areas, since these two layers together represent all of the retail public water utilities in Texas.*Important Notes: The CCN spatial dataset and metadata were last updated on: October 4, 2022The official state-wide CCN spatial dataset includes all types of CCN services areas: water and sewer CCN service areas; water and sewer CCN facility lines. This CCN spatial dataset is updated on a quarterly, or as needed basis using Geographic Information System (GIS) software called ArcGIS 10.8.2.The complete state-wide CCN spatial dataset is available for download from the following website: http://www.puc.texas.gov/industry/water/utilities/gis.aspxThe Water and Sewer CCN Viewer may be accessed from the following web site: http://www.puc.texas.gov/industry/water/utilities/map.htmlIf you have questions about this CCN spatial dataset or about CCN mapping requirements, please e-mail CCN Mapping Staff: water@puc.texas.govTYPE - Indicates whether a CCN is considered a water or a sewer system. If the CCN number begins with a '"1", the CCN is considered a water system (utility). If a CCN number begins with a "2", the CCN is considered a sewer system (utility).CCN_NO - A unique five-digit number assigned to each CCN when it is created and approved by the Commission. *CCN number starting with an ‘N’ indicates an exempt utility.UTILITY - The name of the utility which owns the CCN.COUNTY - The name(s) of the county(ies) in which the CCN exist.CCN_TYPE –One of three types:Bounded Service Area: A certificated service area with closed boundaries that often follow identifiable physical and cultural features such as roads, rivers, streams and political boundaries. Facilities +200 Feet: A certificated service area represented by lines. They include a buffer of a specified number of feet (usually 200 feet). The lines normally follow along roads and may or may not correspond to distribution lines or facilities in the ground.Facilities Only: A certificated service area represented by lines. They are granted for a "point of use" that covers only the customer connections at the time the CCN is granted. Facility only service lines normally follow along roads and may or may not correspond to distribution lines or facilities in the ground.STATUS – For pending dockets check the PUC Interchange Filing Search

Active non-wholesale Water and Provisional Water Utility Service Areas as listed in the Regulatory Commission of Alaska (RCA) Certificate details for regulated utilities. Likely the most comprehensive collection of State of Alaska utility service areas - but not necessarily definitive for every utility. For complicated large city service areas such as water and sewer the GIS department that represents those cities might have the best representation of the service area. There are also utilities that may not be regulated by RCA which will not be in the data. Footprints in general were lifted from existing KML files created by a contractor in the years 2008-2017. Service area changes that have happened since 2008 may not yet be reflected in the footprints. In a few cases legal descriptions had typos which resulted in service areas miles from the community they intended to cover. In the case of the AsOfDate attribute in this dataset only reflects the date of the last syncing of master certificate metadata with RCA Library database - not the current polygon representation.Source: Regulatory Commission of AlaskaThis data has been visualized in a Geographic Information Systems (GIS) format and is provided as a service in the DCRA Information Portal by the Alaska Department of Commerce, Community, and Economic Development Division of Community and Regional Affairs (SOA DCCED DCRA), Research and Analysis section. SOA DCCED DCRA Research and Analysis is not the authoritative source for this data. For more information and for questions about this data, see: Regulatory Commission of Alaska Library

Water Pipeline GIS Market Outlook

According to our latest research, the global Water Pipeline GIS market size in 2024 stands at USD 4.26 billion, with a robust compound annual growth rate (CAGR) of 10.2% projected during the period from 2025 to 2033. By 2033, the market is forecasted to reach approximately USD 10.46 billion. The primary growth factors driving this market include increasing urbanization, the pressing need for efficient water management solutions, and government initiatives to modernize aging water infrastructure worldwide.

One of the most significant growth drivers for the Water Pipeline GIS market is the global surge in urbanization and the corresponding demand for reliable and sustainable water supply systems. Urban populations are expanding rapidly, particularly in Asia Pacific and Africa, placing immense pressure on existing water pipeline networks. This has necessitated the adoption of advanced Geographic Information System (GIS) technologies to enhance the planning, monitoring, and maintenance of water pipeline infrastructure. These systems enable water utilities to map, analyze, and manage complex pipeline networks with greater accuracy, reducing operational inefficiencies and minimizing water loss. As cities strive to become smarter and more resilient, GIS-based solutions are becoming indispensable for ensuring seamless water distribution and long-term infrastructure sustainability.

Another critical factor propelling market growth is the rising incidence of water leakage and pipeline failures, which result in substantial water loss and financial setbacks for utilities. Water pipeline GIS solutions facilitate real-time monitoring, predictive maintenance, and rapid leak detection, empowering utilities to respond proactively to pipeline issues. The integration of GIS with IoT sensors, hydraulic modeling, and artificial intelligence further enhances network visibility and operational efficiency. Governments and regulatory bodies are increasingly mandating the adoption of such technologies to comply with stringent water conservation and quality standards, thereby accelerating market adoption. Furthermore, the global emphasis on environmental sustainability and resource optimization is prompting both public and private sector stakeholders to invest in advanced GIS solutions for water pipeline management.

In addition to technological advancements, the Water Pipeline GIS market is benefiting from significant investments in digital transformation across the utility sector. The proliferation of cloud computing and the growing preference for cloud-based GIS deployment models are lowering barriers to entry for smaller utilities and municipalities. Cloud-based solutions offer scalability, cost-effectiveness, and ease of integration with existing IT infrastructure, making them attractive options for organizations with limited resources. Additionally, the increasing availability of skilled GIS professionals and the development of user-friendly software interfaces are facilitating broader adoption across diverse end-user segments. These trends are expected to continue shaping the market landscape over the coming decade.

From a regional perspective, Asia Pacific is poised to emerge as the fastest-growing market for Water Pipeline GIS solutions, driven by rapid urban development, government-led smart city initiatives, and substantial infrastructure investments in countries such as China, India, and Southeast Asian nations. North America and Europe are also witnessing significant adoption, fueled by the need to upgrade aging water infrastructure and comply with regulatory mandates. In contrast, regions like Latin America and the Middle East & Africa are gradually catching up, supported by international funding and increasing awareness of the benefits of GIS in water management. This diverse regional landscape underscores the global relevance and growth potential of the Water Pipeline GIS market.

Component Analysis

The Water Pipeline GIS market is segmen

This data release describes water service areas (WSA) for community water systems (CWS) within the conterminous United States, representing areas of active service between 2010 and 2020. A WSA is defined by a delineated polygon that contains all customers served by a water system. WSAs are represented by an ArcGIS shapefile. The U.S. Safe Drinking Water Act defines a CWS as a type of public-water system that serves at least 15 service connections used by year-round residents or regularly serves at least 25 year-round residents. Water may be used for several purposes (such as for commercial, industrial, and residential uses) or may be used only for one specific purpose (such as for residential use). This data release includes CWS that operate their own infrastructure and furnish water through their own water sources, purchase water from a neighboring water system, or are diversified in that they serve water from a combination of their own sources and purchases. This dataset also includes communities that do not operate a water system but receive water services by way of contract; in other words, an adjacent water system’s infrastructure extends their waterlines across boundaries from which residents connect to, are supplied, and directly billed from this neighboring water system.

Utility GIS Market Outlook

According to our latest research, the global Utility GIS market size reached USD 2.65 billion in 2024, and is projected to grow at a robust CAGR of 10.2% during the forecast period, reaching an estimated USD 6.23 billion by 2033. The market’s expansion is primarily fueled by the increasing need for efficient infrastructure management, the proliferation of smart grid initiatives, and the growing adoption of digital mapping technologies across electric, water, gas, and telecommunication utilities. As per our latest research, the surge in infrastructure modernization projects globally and the integration of advanced geospatial analytics into utility operations are key factors propelling this market forward.

One of the principal growth drivers of the Utility GIS market is the escalating demand for real-time asset and network management within utility sectors. As utilities face mounting pressure to optimize resource allocation and reduce operational costs, Geographic Information Systems (GIS) have become indispensable tools for visualizing, analyzing, and managing spatial data. Utilities are leveraging GIS platforms to monitor asset health, track outages, and streamline maintenance activities, which enhances service reliability and minimizes downtime. The ability of GIS to integrate with other enterprise systems, such as SCADA and ERP, further amplifies its value proposition, driving widespread adoption across both developed and emerging markets.

Another significant factor contributing to market growth is the global trend towards smart grid and infrastructure modernization. Governments and private sector entities are investing heavily in digital solutions that support sustainable urban development and resilient utility networks. GIS technologies play a crucial role in planning, monitoring, and optimizing smart grids by providing real-time geospatial intelligence. This enables utilities to improve disaster response, forecast demand, and manage distributed energy resources more effectively. Furthermore, the integration of GIS with IoT devices and cloud computing is enabling more scalable and flexible solutions, which is particularly attractive for utilities looking to future-proof their operations.

The rising focus on regulatory compliance and environmental sustainability is also catalyzing the adoption of Utility GIS solutions. Regulatory bodies worldwide are mandating stricter reporting and transparency standards for utility operations, especially in areas related to environmental impact and resource usage. GIS platforms enable utilities to track compliance metrics, monitor environmental risks, and generate detailed reports with spatial context. This not only helps utilities meet regulatory requirements but also supports their sustainability goals by identifying areas for efficiency improvements and resource conservation. The growing emphasis on reducing carbon footprints and enhancing water and energy conservation further underscores the strategic importance of GIS in the utility sector.

Regionally, North America continues to dominate the Utility GIS market, owing to its advanced utility infrastructure, high adoption of smart technologies, and supportive regulatory frameworks. However, Asia Pacific is emerging as the fastest-growing region, driven by rapid urbanization, significant investments in utility modernization, and increasing government initiatives to improve infrastructure resilience. Europe is also witnessing steady growth due to stringent environmental regulations and the ongoing transition towards renewable energy sources. Latin America and the Middle East & Africa are gradually catching up, supported by infrastructure development projects and the need for efficient utility management in resource-constrained environments.

Component Analysis

The Component segment of the Utility GIS market is broadly categorized into Software, Services, and Hardware. Software remains the largest contributor to market reve

GIS for Utilities Market Outlook

According to our latest research, the global GIS for Utilities market size in 2024 stands at USD 4.1 billion, and it is expected to reach USD 10.2 billion by 2033, growing at a robust CAGR of 10.7% during the forecast period. This remarkable growth is primarily driven by the increasing adoption of smart grid technologies, rising investments in infrastructure modernization, and the urgent need for efficient asset and network management across utility sectors. The integration of Geographic Information Systems (GIS) with utility operations is transforming the way utilities manage assets, optimize networks, and deliver customer-centric services, positioning GIS as a critical enabler of digital transformation in the utility industry.

One of the most significant growth factors for the GIS for Utilities market is the accelerating global shift towards smart grids and advanced metering infrastructure. Utilities are under immense pressure to modernize their aging infrastructure to enhance reliability, reduce operational costs, and meet stringent regulatory requirements. GIS solutions offer comprehensive spatial analysis and visualization capabilities, enabling utilities to monitor, control, and optimize their networks in real time. This enhances outage management, improves disaster response, and streamlines maintenance activities, resulting in significant cost savings and improved service quality. Moreover, the proliferation of Internet of Things (IoT) devices and sensors within utility networks is generating vast amounts of geospatial data, further amplifying the need for robust GIS platforms to harness this information for actionable insights.

Another key driver propelling the growth of the GIS for Utilities market is the increasing emphasis on sustainability and renewable energy integration. As utilities worldwide transition towards cleaner energy sources, the complexity of grid management escalates, necessitating advanced geospatial tools to plan, monitor, and optimize distributed energy resources. GIS supports the integration of solar, wind, and other renewables by providing detailed spatial intelligence for site selection, grid connectivity, and impact assessment. Additionally, regulatory mandates for environmental compliance and resource conservation are compelling utilities to adopt GIS-based solutions for efficient water, gas, and electricity distribution, leakage detection, and resource planning. These factors collectively drive the widespread adoption of GIS across electric, water, and gas utilities.

The digital transformation wave sweeping across the utilities sector is also fueling market expansion. Utilities are increasingly leveraging GIS for customer management, mobile workforce management, and predictive maintenance, thereby enhancing operational agility and customer satisfaction. The surge in cloud-based GIS deployments is democratizing access to powerful spatial analytics, enabling even small and medium-sized utilities to harness the benefits of GIS without significant upfront investments. Furthermore, strategic collaborations between GIS vendors and utility companies, coupled with ongoing advancements in artificial intelligence and machine learning, are unlocking new use cases and driving innovation across the industry. As a result, the GIS for Utilities market is poised for sustained growth over the coming decade.

Regionally, North America continues to dominate the GIS for Utilities market, accounting for the largest share in 2024, driven by substantial investments in grid modernization, stringent regulatory frameworks, and high adoption rates of advanced technologies. Europe follows closely, supported by ambitious renewable energy targets and smart city initiatives, while the Asia Pacific region is witnessing the fastest growth, fueled by rapid urbanization, infrastructure development, and government-led digitalization programs. Latin America and the Middle East & Africa are also emerging as attractive markets, with increasing investments in utility infrastructure and growing awareness of the benefits of GIS solutions. This regional dynamism underscores the global relevance and transformative potential of GIS in the utilities sector.

In the realm of Oil and Gas GIS, the integration of geospatial technology is proving to be a game-changer for the ind

Address Data Management can be used by mapping technicians to maintain an inventory of road centerlines, valid road names, site addresses, and related mailing addresses. It can be used by planning, public safety, or land records organizations to streamline the collection, maintenance, and use of authoritative address information.

March 2025

Polygons delineate general areas served by Washington State public water systems serving greater than 5,000 customers. Please note that the data is dependent on reporting by various governments and associations, and may not have all services included. Contact local authorities for specific services.

A feature layer of Infrastructure projects identified by project leads responsible for maintenance and improvement of public infrastructure.

Terms of UseData Limitations and DisclaimerThe user’s use of and/or reliance on the information contained in the Document shall be at the user’s own risk and expense. MassDEP disclaims any responsibility for any loss or harm that may result to the user of this data or to any other person due to the user’s use of the Document.This is an ongoing data development project. Attempts have been made to contact all PWS systems, but not all have responded with information on their service area. MassDEP will continue to collect and verify this information. Some PWS service areas included in this datalayer have not been verified by the PWS or the municipality involved, but since many of those areas are based on information published online by the municipality, the PWS, or in a publicly available report, they are included in the estimated PWS service area datalayer.Please note: All PWS service area delineations are estimates for broad planning purposes and should only be used as a guide. The data is not appropriate for site-specific or parcel-specific analysis. Not all properties within a PWS service area are necessarily served by the system, and some properties outside the mapped service areas could be served by the PWS – please contact the relevant PWS. Not all service areas have been confirmed by the systems.Please use the following citation to reference these data:MassDEP, Water Utility Resilience Program. 2025. Community and Non-Transient Non-Community Public Water System Service Area (PubV2025_3).IMPORTANT NOTICE: This MassDEP Estimated Water Service datalayer may not be complete, may contain errors, omissions, and other inaccuracies and the data are subject to change. This version is published through MassGIS. We want to learn about the data uses. If you use this dataset, please notify staff in the Water Utility Resilience Program (WURP@mass.gov).This GIS datalayer represents approximate service areas for Public Water Systems (PWS) in Massachusetts. In 2017, as part of its “Enhancing Resilience and Emergency Preparedness of Water Utilities through Improved Mapping” (Critical Infrastructure Mapping Project ), the MassDEP Water Utility Resilience Program (WURP) began to uniformly map drinking water service areas throughout Massachusetts using information collected from various sources. Along with confirming existing public water system (PWS) service area information, the project collected and verified estimated service area delineations for PWSs not previously delineated and will continue to update the information contained in the datalayers. As of the date of publication, WURP has delineated Community (COM) and Non-Transient Non-Community (NTNC) service areas. Transient non-community (TNCs) are not part of this mapping project.Layers and Tables:The MassDEP Estimated Public Water System Service Area data comprises two polygon feature classes and a supporting table. Some data fields are populated from the MassDEP Drinking Water Program’s Water Quality Testing System (WQTS) and Annual Statistical Reports (ASR).The Community Water Service Areas feature class (PWS_WATER_SERVICE_AREA_COMM_POLY) includes polygon features that represent the approximate service areas for PWS classified as Community systems.The NTNC Water Service Areas feature class (PWS_WATER_SERVICE_AREA_NTNC_POLY) includes polygon features that represent the approximate service areas for PWS classified as Non-Transient Non-Community systems.The Unlocated Sites List table (PWS_WATER_SERVICE_AREA_USL) contains a list of known, unmapped active Community and NTNC PWS services areas at the time of publication.ProductionData UniversePublic Water Systems in Massachusetts are permitted and regulated through the MassDEP Drinking Water Program. The WURP has mapped service areas for all active and inactive municipal and non-municipal Community PWSs in MassDEP’s Water Quality Testing Database (WQTS). Community PWS refers to a public water system that serves at least 15 service connections used by year-round residents or regularly serves at least 25 year-round residents.All active and inactive NTNC PWS were also mapped using information contained in WQTS. An NTNC or Non-transient Non-community Water System refers to a public water system that is not a community water system and that has at least 15 service connections or regularly serves at least 25 of the same persons or more approximately four or more hours per day, four or more days per week, more than six months or 180 days per year, such as a workplace providing water to its employees.These data may include declassified PWSs. Staff will work to rectify the status/water services to properties previously served by declassified PWSs and remove or incorporate these service areas as needed.Maps of service areas for these systems were collected from various online and MassDEP sources to create service areas digitally in GIS. Every PWS is assigned a unique PWSID by MassDEP that incorporates the municipal ID of the municipality it serves (or the largest municipality it serves if it serves multiple municipalities). Some municipalities contain more than one PWS, but each PWS has a unique PWSID. The Estimated PWS Service Area datalayer, therefore, contains polygons with a unique PWSID for each PWS service area.A service area for a community PWS may serve all of one municipality (e.g. Watertown Water Department), multiple municipalities (e.g. Abington-Rockland Joint Water Works), all or portions of two or more municipalities (e.g. Provincetown Water Dept which serves all of Provincetown and a portion of Truro), or a portion of a municipality (e.g. Hyannis Water System, which is one of four PWSs in the town of Barnstable).Some service areas have not been mapped but their general location is represented by a small circle which serves as a placeholder. The location of these circles are estimates based on the general location of the source wells or the general estimated location of the service area - these do not represent the actual service area.Service areas were mapped initially from 2017 to 2022 and reflect varying years for which service is implemented for that service area boundary. WURP maintains the dataset quarterly with annual data updates; however, the dataset may not include all current active PWSs. A list of unmapped PWS systems is included in the USL table PWS_WATER_SERVICE_AREA_USL available for download with the dataset. Some PWSs that are not mapped may have come online after this iteration of the mapping project; these will be reconciled and mapped during the next phase of the WURP project. PWS IDs that represent regional or joint boards with (e.g. Tri Town Water Board, Randolph/Holbrook Water Board, Upper Cape Regional Water Cooperative) will not be mapped because their individual municipal service areas are included in this datalayer.PWSs that do not have corresponding sources, may be part of consecutive systems, may have been incorporated into another PWSs, reclassified as a different type of PWS, or otherwise taken offline. PWSs that have been incorporated, reclassified, or taken offline will be reconciled during the next data update.Methodologies and Data SourcesSeveral methodologies were used to create service area boundaries using various sources, including data received from the systems in response to requests for information from the MassDEP WURP project, information on file at MassDEP, and service area maps found online at municipal and PWS websites. When provided with water line data rather than generalized areas, 300-foot buffers were created around the water lines to denote service areas and then edited to incorporate generalizations. Some municipalities submitted parcel data or address information to be used in delineating service areas.Verification ProcessSmall-scale PDF file maps with roads and other infrastructure were sent to every PWS for corrections or verifications. For small systems, such as a condominium complex or residential school, the relevant parcels were often used as the basis for the delineated service area. In towns where 97% or more of their population is served by the PWS and no other service area delineation was available, the town boundary was used as the service area boundary. Some towns responded to the request for information or verification of service areas by stating that the town boundary should be used since all or nearly all of the municipality is served by the PWS.Sources of information for estimated drinking water service areasThe following information was used to develop estimated drinking water service areas:EOEEA Water Assets Project (2005) water lines (these were buffered to create service areas)Horsely Witten Report 2008Municipal Master Plans, Open Space Plans, Facilities Plans, Water Supply System Webpages, reports and online interactive mapsGIS data received from PWSDetailed infrastructure mapping completed through the MassDEP WURP Critical Infrastructure InitiativeIn the absence of other service area information, for municipalities served by a town-wide water system serving at least 97% of the population, the municipality’s boundary was used. Determinations of which municipalities are 97% or more served by the PWS were made based on the Percent Water Service Map created in 2018 by MassDEP based on various sources of information including but not limited to:The Winter population served submitted by the PWS in the ASR submittalThe number of services from WQTS as a percent of developed parcelsTaken directly from a Master Plan, Water Department Website, Open Space Plan, etc. found onlineCalculated using information from the town on the population servedMassDEP staff estimateHorsely Witten Report 2008Calculation based on Water System Areas Mapped through MassDEP WURP Critical Infrastructure Initiative, 2017-2022Information found in publicly available PWS planning documents submitted to MassDEP or as part of infrastructure planningMaintenanceThe

Water Pipeline GIS Market Outlook

According to our latest research, the global Water Pipeline GIS market size reached USD 4.1 billion in 2024, demonstrating a robust growth trajectory. The market is expected to expand at a CAGR of 10.7% from 2025 to 2033, projecting a value of approximately USD 10.1 billion by 2033. This significant growth is underpinned by increasing investments in smart water infrastructure, rapid urbanization, and the pressing need for efficient water resource management. As per our analysis, technological advancements and the integration of GIS with IoT and AI are further propelling the adoption of GIS solutions across the water pipeline sector globally.

The surge in demand for Water Pipeline GIS solutions is primarily driven by the global push for sustainable water management and infrastructure modernization. Governments and municipal authorities are increasingly recognizing the importance of Geographic Information Systems (GIS) in optimizing water pipeline networks, reducing water loss, and improving service delivery. The proliferation of smart city initiatives, particularly in emerging economies, is catalyzing the deployment of GIS solutions for real-time monitoring and asset management. Moreover, the growing emphasis on reducing non-revenue water and complying with stringent regulatory mandates is compelling utilities to invest in advanced GIS technologies, thereby augmenting market growth.

Another critical growth factor for the Water Pipeline GIS market is the integration of GIS with advanced technologies such as artificial intelligence, machine learning, and the Internet of Things (IoT). These integrations enable predictive maintenance, accurate leak detection, and efficient network mapping, which are essential for minimizing downtime and operational costs. The ability of GIS platforms to provide spatial analysis and visualization tools empowers utilities to make data-driven decisions, enhancing the overall efficiency and reliability of water distribution networks. Additionally, the increasing adoption of cloud-based GIS solutions is making these technologies more accessible to small and medium-sized utilities, further expanding the market’s reach.

The rising awareness about the environmental impact of water wastage and the necessity for sustainable resource management are also contributing to the growth of the Water Pipeline GIS market. With climate change exacerbating water scarcity in several regions, utilities are under immense pressure to optimize their pipeline infrastructure. GIS technologies offer comprehensive solutions for hydraulic modeling, maintenance management, and network mapping, which are crucial for long-term sustainability. Furthermore, public-private partnerships and international funding for water infrastructure projects are creating new opportunities for market players, fostering innovation and technological advancement in the sector.

From a regional perspective, Asia Pacific is emerging as a dominant market for Water Pipeline GIS solutions, driven by rapid urbanization, substantial infrastructure investments, and supportive government policies. North America and Europe continue to hold significant market shares owing to their mature utility sectors and early adoption of advanced GIS technologies. Meanwhile, the Middle East & Africa and Latin America are witnessing accelerated growth, fueled by increasing awareness about water conservation and the need for efficient pipeline management. The regional dynamics of the market are shaped by varying levels of technological adoption, regulatory frameworks, and investment capabilities, which collectively influence the market’s growth trajectory.

Component Analysis

The Water Pipeline GIS market is segmented by component into software, services, and hardware, each playing a pivotal role in the overall ecosystem. The software segment dominates the market, accounting for the largest share in 2024, as utilities increasingly rely on advanced GIS platforms for asset management, hydraulic modeling, and leak detection. These software solutions offer robust spatial analysis, real-time data visualization, and predictive analytics, enabling operators to enhance decision-making and optimize pipeline performance. The continuous evolution of GIS software, with features such as cloud integration and AI-powered analytics, is further driving its adoption across diverse end-user segments.

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Utility GIS Data Quality Services Market Outlook

According to our latest research, the global Utility GIS Data Quality Services market size reached USD 1.37 billion in 2024 and is projected to grow at a robust CAGR of 12.8% from 2025 to 2033, reaching an estimated USD 4.08 billion by 2033. The primary growth factor driving this market is the increasing demand for accurate, real-time geospatial data to optimize utility operations and comply with stringent regulatory requirements. The surge in smart grid deployments and digital transformation initiatives across the utility sector is significantly boosting the adoption of specialized GIS data quality services.

One of the core growth drivers for the Utility GIS Data Quality Services market is the accelerating shift toward digital infrastructure in the utilities sector. Utilities, including electric, water, and gas providers, are increasingly relying on Geographic Information Systems (GIS) for asset management, network optimization, and outage management. However, the effectiveness of these systems is heavily dependent on the accuracy and integrity of the underlying data. As utilities modernize their grids and expand their service offerings, the need for comprehensive data cleansing, validation, and enrichment becomes paramount. This trend is further amplified by the proliferation of IoT devices and smart meters, which generate vast volumes of spatial and operational data, necessitating advanced GIS data quality services to ensure consistency and reliability across platforms.

Another significant factor propelling market growth is the evolving regulatory landscape. Governments and regulatory bodies worldwide are imposing stricter requirements on utilities to maintain high-quality, up-to-date geospatial records for compliance, safety, and disaster response. Inaccurate or outdated GIS data can lead to costly penalties, service interruptions, and reputational damage. As a result, utility companies are investing heavily in data quality services to achieve regulatory compliance and mitigate operational risks. The integration of artificial intelligence and machine learning technologies into GIS data quality processes is also enhancing the efficiency and accuracy of data validation, migration, and integration, further supporting market expansion.

Moreover, the increasing complexity of utility networks and the growing emphasis on sustainability and resilience are driving utilities to adopt advanced GIS data quality services. Utilities are under pressure to optimize resource allocation, minimize losses, and enhance customer service, all of which require high-quality geospatial data. The rise of distributed energy resources, such as solar and wind, and the need to manage bi-directional power flows are adding new layers of complexity to utility networks. GIS data quality services enable utilities to maintain a comprehensive, accurate digital twin of their infrastructure, supporting better planning, predictive maintenance, and rapid response to outages or emergencies. These factors collectively contribute to the sustained growth of the Utility GIS Data Quality Services market.

From a regional perspective, North America currently dominates the Utility GIS Data Quality Services market, driven by large-scale investments in smart grid projects and the presence of major utility companies adopting advanced GIS solutions. However, Asia Pacific is expected to witness the fastest growth over the forecast period, fueled by rapid urbanization, infrastructure development, and government initiatives to modernize utility networks. Europe also presents significant opportunities, with increasing focus on sustainability, regulatory compliance, and cross-border energy integration. The Middle East & Africa and Latin America are gradually catching up, with investments in utility infrastructure and digital transformation initiatives gaining momentum. Overall, the global market is poised for substantial growth, underpinned by technological advancements, regulatory mandates, and the evolving needs of the utility sector.

Service Type Analysis

The Utility GIS Data Quality Services market is segmented by service type into data cleansing, data validation, data integration, data migration, data enrichment, and others. Data cleansing services form the backbone of this segment, as they address the critical need to remove inaccuracies, inconsistencies, and redundancies from utility GIS databases. Wit

DescriptionThis layer contains address point data for all of Cuyahoga County and portions of surrounding counties within the Cleveland Water Department (CWD) service area. It is maintained by the City of Cleveland Department of Public Utilities GIS staff.

Cleveland Water service may not be available to all of these addresses.
Call 216-664-2444 x75209 for specific information.



Data GlossarySee the Attributes section below for details about each column in this dataset.


Update Frequency
Maintained regularly. Changes are made as new addresses or corrections are identified.



Contact
Report errors or issues to 
jotham_hall@clevelandwater.com.