Water Testing Equipment Market - Global Industry Size, Share, Trends, Opportunity, and Forecast, Segmented By Product Type (Portable, Benchtop, Online/Continuous Monitoring Systems), By Test Type (Physical Tests, Chemical Tests, Biological Tests), By Application (Industrial, Environmental, Laboratory, Municipal, Residential & Commercial), By Region & Competition, 2020-2030F

Market Overview

Global Water Testing Equipment Market was valued at USD 5.73 Billion in 2024 and is expected to reach USD 8.30 Billion by 2030 with a CAGR of 6.21% during the forecast period.

The global Water Testing Equipment Market is witnessing substantial growth, driven by increasing concerns about water pollution, stringent environmental regulations, and the rising need for safe and clean drinking water across residential, industrial, and municipal sectors. As the world grapples with challenges related to water scarcity, contamination from industrial waste, and the presence of harmful pathogens and chemicals, the demand for advanced water testing solutions has intensified. Water testing equipment plays a vital role in analyzing the quality of water by detecting contaminants, assessing physical and chemical properties, and ensuring compliance with safety standards. Government initiatives promoting wastewater treatment, environmental monitoring, and public health are further stimulating market growth, especially in developing countries where water quality issues are acute.

Technological advancements in sensor technologies, data logging, portable devices, and real-time monitoring systems are transforming the water testing landscape. These innovations are enabling more precise, efficient, and user-friendly water testing procedures in both lab-based and field applications. The shift toward digital and remote monitoring, powered by the Internet of Things (IoT) and automation, is also helping industries and municipalities to optimize operations and respond rapidly to contamination events. Moreover, the growing adoption of water testing equipment in sectors such as food & beverage, pharmaceuticals, and power generation—where water purity is critical—is further bolstering demand.

Regionally, North America and Europe hold significant shares due to strict environmental policies and the presence of established industry players. However, Asia-Pacific is emerging as the fastest-growing region, fueled by rising urbanization, industrialization, and increasing investments in water infrastructure in countries like China, India, and Southeast Asia. The region’s growing awareness about waterborne diseases and the need for clean water are encouraging the adoption of modern water testing solutions.

The market is competitive and fragmented, with major players such as Thermo Fisher Scientific, Danaher Corporation (Hach), Xylem Inc., Agilent Technologies, and Mettler-Toledo leading the way. These companies are investing in research and development to expand their product portfolios and enhance analytical accuracy and usability. Despite the positive outlook, challenges such as high initial investment costs, lack of technical expertise in certain regions, and limited infrastructure in underdeveloped areas can hinder growth. Nonetheless, with increasing environmental consciousness, regulatory enforcement, and technological progress, the global water testing equipment market is expected to grow steadily in the coming years.

Key Market Drivers

Stringent Regulatory Standards and Compliance Requirements

Regulatory bodies across the globe are mandating strict water quality standards, which is significantly driving the demand for water testing equipment. For instance, drinking water regulations in many countries require the testing of over 90 different contaminants, including lead, arsenic, nitrates, and pesticides. In some developed regions, regulatory updates have increased the number of mandatory testing parameters by 25–40% over the past decade. Additionally, more than 60 countries now have national guidelines for industrial effluent discharge, necessitating continuous monitoring solutions. Over 70% of industrial plants in urban zones are subject to regulatory water audits annually. Governments are also increasing the frequency of water sampling, with urban utilities in certain regions required to conduct daily or even hourly testing at critical points. About 80% of untreated wastewater is still released globally, and tightening rules aim to reduce this significantly. To meet these regulations, industries and municipalities are investing heavily in sensors, titrators, spectrophotometers, and multi-parameter analyzers, ensuring consistent monitoring and compliance.

Rising Environmental Pollution and Water Scarcity

The rapid degradation of water bodies due to industrial runoff, agricultural chemicals, and municipal waste is a pressing concern globally. Nearly 80% of all wastewater is discharged untreated into water bodies, leading to severe contamination of rivers, lakes, and groundwater sources. Agriculture consumes about 69% of the world’s freshwater, and improper fertilizer and pesticide use leads to nitrate and phosphate pollution in surface and underground water. Industrial wastewater contributes to 19% of global water use, often containing heavy metals and toxic chemicals. More than 2 billion people globally live in areas experiencing high water stress, where pollution further intensifies scarcity. The annual rate of freshwater use has grown by approximately 1% since the 1980s. Urban centers with over 1 million residents often report over-extraction of groundwater, with declining water tables averaging 1–2 meters per year. These issues have pushed governments and private sectors to deploy water testing kits, real-time monitoring systems, and portable analyzers to detect and manage contamination at its source.

Technological Advancements in IoT and Smart Water Monitoring

Innovations in water testing technology, particularly involving IoT, smart sensors, and digital analytics, are significantly reshaping the market. IoT-based water sensors can now transmit real-time data over wireless networks, reducing human intervention and increasing efficiency. These sensors allow continuous tracking of parameters such as pH, conductivity, turbidity, and chlorine, reducing testing intervals from hours to seconds. In some cases, response times to contamination events have decreased by 30–40% with IoT integration. AI-enabled software tools now provide over 90% accuracy in early detection of anomalies, significantly reducing operational risks in utilities and industrial plants. Portable kits, which previously took up to 20 minutes for basic tests, now deliver results within 2–5 minutes. Battery-powered, handheld testing meters with data storage and cloud connectivity have become increasingly affordable, with prices falling by over 35% in the past five years. As automation and real-time analysis become standard, more industries and municipalities are transitioning to digital water testing platforms to enhance decision-making and reduce compliance costs.

Increasing Demand from Industrial and Municipal Sectors

Industries and municipalities are among the largest consumers of water testing equipment, driven by the need for water purity in operations and public distribution. Industrial sectors such as chemicals, food and beverage, pharmaceuticals, and power generation require high-purity water for manufacturing processes, which demands constant monitoring. Around 70% of water used in manufacturing must meet stringent quality benchmarks, particularly for cooling, processing, and cleaning. Water-intensive industries contribute to approximately 20% of total global water withdrawals. Municipalities, responsible for urban drinking water supply, must frequently test for microbial, chemical, and physical parameters. In developed nations, municipal water authorities conduct more than 200,000 tests per year on average. Some cities have over 500 water sampling stations to maintain consistent quality across regions. As per environmental mandates, industrial and municipal players are required to track effluent quality every 24 hours or less, encouraging the use of online monitoring systems. This growing burden of monitoring across sectors continues to accelerate the adoption of comprehensive water testing technologies.

Growing Public Health Awareness and Consumer-Driven Testing

Awareness about the link between water quality and health has grown substantially, pushing both consumers and institutions toward more frequent water testing. Globally, unsafe drinking water contributes to an estimated 485,000 deaths annually due to diarrheal diseases. In many urban and peri-urban areas, more than 30% of water samples exceed safe thresholds for biological or chemical contamination. In some developing countries, over 50% of rural households rely on untreated groundwater, increasing the risk of exposure to pathogens and heavy metals. At-home testing kits have surged in popularity, with compact kits now available for under USD50, enabling routine testing for lead, bacteria, nitrates, and pH. In regions with recurring water quality incidents, consumer sales of testing kits have risen by 40% year-over-year. Schools, hospitals, and residential societies are increasingly using handheld water analyzers, with over 60% of urban apartment complexes in some countries conducting monthly testing. This rise in community-level vigilance is fostering a culture of proactive water quality management, reinforcing long-term market demand.

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Key Market Challenges

High Cost of Advanced Water Testing Equipment

One of the most prominent challenges in the global water testing equipment market is the high capital and maintenance costs associated with advanced testing instruments. Sophisticated devices such as spectrophotometers, gas chromatographs, ion chromatographs, and continuous online monitoring systems involve significant upfront investment, which can deter adoption—especially among small utilities and businesses in developing economies. For example, high-precision laboratory spectrometers can cost upwards of $20,000, while benchtop or portable analyzers with multi-parameter capabilities often range from $2,000 to $10,000 per unit. In addition, operational costs like reagents, calibration standards, software licenses, and periodic sensor replacements can substantially raise the total cost of ownership. Moreover, the need for trained technical staff to operate and interpret results adds another layer of cost, especially in rural and underserved areas where skilled labor is scarce. In low-income regions, many water utilities continue to rely on basic visual inspection or chemical kits due to cost limitations. This financial barrier not only affects adoption rates but also limits testing frequency and data accuracy, thereby hindering the overall goal of reliable water quality monitoring. Without substantial government subsidies or external funding, many users in municipal and agricultural sectors find it difficult to transition from manual to automated testing methods. These cost-related constraints significantly hamper market penetration, particularly in regions with limited infrastructure or budgetary support for water quality initiatives.

Lack of Skilled Personnel and Technical Expertise

While water testing technologies have advanced considerably, the shortage of skilled personnel capable of operating and interpreting these systems remains a major barrier to market growth. Instruments like mass spectrometers, chromatographs, or biosensors require specialized knowledge for calibration, maintenance, and data interpretation. Many regions—especially in developing countries—lack qualified technicians or laboratory staff to consistently manage high-precision testing workflows. Even in industrialized nations, operators often require periodic training to stay updated with changing protocols, especially as software and hardware technologies evolve. This leads to underutilization of equipment, poor data quality, or incorrect assessments that can have serious regulatory and health implications. In public water systems, a misinterpreted test result can lead to unsafe water being distributed to thousands. Training programs, while available, can be expensive and time-consuming, particularly for remote operators or smaller organizations. Moreover, language barriers and lack of standardized training materials across regions often result in inconsistent test practices. Some instruments also involve complex sample preparation and multi-step testing protocols, which increase the potential for human error. In fast-growing urban centers and rural expansion areas, the lack of sufficient trained personnel becomes a bottleneck in achieving scalable water quality monitoring. This talent gap restricts not only the efficiency of existing systems but also slows down the wider adoption of newer, automated solutions—ultimately limiting the effectiveness of national and global water quality initiatives.

Infrastructure Limitations in Developing Regions

A significant hurdle to the widespread deployment of water testing equipment lies in the inadequate infrastructure found in many low- and middle-income countries. In several regions across Asia, Africa, and Latin America, there is a lack of basic water treatment and distribution networks, let alone advanced testing labs or monitoring stations. Without a reliable grid, running laboratory-grade equipment becomes difficult due to frequent power outages or voltage fluctuations. Additionally, the absence of proper water sample collection points, cold storage systems for transporting biological samples, and centralized data reporting platforms further limits effective water quality testing. In many rural areas, access to testing sites may involve hours of travel due to poor road connectivity, thereby discouraging regular testing. Moreover, municipal water systems in such regions are often fragmented and underfunded, meaning that any investment in testing equipment takes a backseat to more urgent needs like basic water supply or sewage treatment. Cloud-based data logging and IoT connectivity are also hampered by poor internet penetration in remote areas, limiting the potential for real-time monitoring solutions. Due to these systemic infrastructural gaps, even cost-effective testing tools like colorimeters or portable kits cannot be used optimally. This infrastructure gap creates a two-tiered system where urban centers benefit from regular water testing while rural and underserved regions remain vulnerable to waterborne diseases and environmental hazards. Bridging this divide requires not just product availability but also investment in broader infrastructure development, policy coordination, and public-private partnerships.

Variability and Complexity in Water Testing Standards

Water testing is governed by a range of international, national, and local standards, but these often vary widely in terms of parameters, testing frequency, acceptable limits, and methodologies. For example, acceptable nitrate levels in drinking water differ between regions—one standard may allow 10 mg/L, while another allows 50 mg/L. This lack of uniformity complicates equipment design, as manufacturers must create systems that cater to diverse regulatory frameworks. Additionally, certain testing standards may require specific methods—such as colorimetric vs. electrochemical—which means one instrument may not be usable across different jurisdictions without recalibration or modification. This results in fragmented demand, limiting the economies of scale for manufacturers and driving up product costs. Moreover, evolving standards make it difficult for end-users to keep up with required updates and certifications. Municipalities or industrial users may find themselves out of compliance simply due to a change in permissible limits or the introduction of new testing parameters such as PFAS or microplastics. This constant flux creates uncertainty in procurement planning and increases the burden on technical staff. Even within a single country, there can be variation between municipal and rural water regulations, making standardization challenging. The complexity of compliance leads to hesitation in purchasing new testing equipment and often results in a continued reliance on outdated or less accurate methods. Thus, the absence of globally harmonized testing protocols remains a barrier to scalable adoption.

Low Testing Frequency and Data Gaps in Remote Areas

In many parts of the world, particularly in rural and semi-urban areas, water testing is performed infrequently due to resource limitations, logistical challenges, or lack of awareness. Some local water bodies or groundwater sources are tested only once or twice a year, which is insufficient to monitor seasonal variations or sudden contamination events. In areas with heavy agricultural activity or mining operations, water quality can fluctuate drastically within weeks, and low testing frequency can result in undetected contamination. The data collected from these regions is often incomplete or outdated, creating large information gaps that hinder effective water resource management. Additionally, without reliable baseline data, it becomes difficult to track the impact of policy measures or environmental changes on water quality. These gaps also affect disaster preparedness—during floods or droughts, limited historical data makes it hard to predict contamination patterns. Moreover, without consistent data, it is challenging to justify investments in water testing infrastructure or technology upgrades. Governments, NGOs, and industry stakeholders require robust and continuous data streams to make informed decisions, allocate funding, and ensure accountability. However, sporadic testing leads to uncertainty and reactive responses rather than proactive interventions. Encouraging regular monitoring through subsidized kits, mobile labs, and community-based testing programs is essential to bridge this gap, but until then, low testing frequency remains a persistent challenge to the growth and effectiveness of the global water testing equipment market.

Key Market Trends

Integration of IoT and Smart Sensor Technologies

The integration of Internet of Things (IoT) technologies with water testing equipment is transforming the way water quality data is collected, processed, and utilized. Smart sensors embedded with wireless communication modules, cloud connectivity, and data analytics capabilities are becoming increasingly common across both urban and rural water systems. These sensors can continuously measure critical water quality parameters and transmit data in real time to a centralized dashboard or mobile device. This enables timely decision-making, reduces human error, and minimizes the need for manual sampling. Additionally, IoT-enabled devices often include predictive maintenance features, alerting operators to sensor drift or equipment failure before issues arise. For instance, some smart turbidity sensors are equipped with self-cleaning mechanisms and automated calibration, extending operational uptime by 20–30%. The use of IoT is particularly valuable in remote or large-scale water networks, where manual testing would be inefficient or impractical. Furthermore, AI-driven analytics platforms are increasingly paired with IoT systems to detect trends, anomalies, and potential contamination risks in real-time. In the agricultural sector, these technologies are being used to optimize irrigation systems by assessing water salinity and pH levels. Similarly, in urban settings, smart water meters with built-in quality sensors are contributing to more transparent and accountable water supply systems. As connectivity infrastructure improves globally, the integration of IoT into water testing systems is expected to become a standard practice, especially in large-scale municipal and industrial applications.

Rising Demand for Portable and On-Site Water Testing Kits

Another significant trend in the water testing equipment market is the rising preference for portable and on-site testing kits. As the need for immediate water quality results becomes more pressing—especially in field-based operations such as agriculture, environmental sampling, disaster relief, and rural monitoring—there is a growing shift from laboratory-based methods to compact, mobile solutions. Portable water testing kits are now capable of measuring a wide range of parameters including pH, chlorine, nitrate, ammonia, hardness, and microbial contamination. Many of these kits offer digital displays, smartphone connectivity, and app-based analytics for enhanced usability. The demand for these devices is growing rapidly among NGOs, environmental groups, schools, and small-scale utilities due to their affordability and ease of use. In disaster-prone regions or conflict zones, portable testing solutions have become indispensable for assessing water safety quickly, where delays can lead to severe public health crises. Furthermore, technological innovations have significantly improved the sensitivity and reliability of portable instruments, with some digital handheld meters achieving over 95% accuracy in field conditions. Rechargeable battery systems, waterproof casings, and Bluetooth data export features are increasingly standard, making them more adaptable to rugged environments. The push toward decentralized water management systems in many developing countries is also encouraging broader deployment of portable test kits, empowering communities to monitor their own water quality independently. This democratization of water testing is expected to continue, making portable solutions a long-term growth segment within the industry.

Growing Adoption of Advanced Analytical Instruments

The water testing industry is experiencing a surge in demand for high-performance analytical instruments such as spectrophotometers, gas chromatographs, ion-selective electrodes, and mass spectrometers. These instruments provide highly accurate, sensitive, and comprehensive analysis of contaminants including heavy metals, pesticides, volatile organic compounds, and emerging pollutants like PFAS (per- and polyfluoroalkyl substances) and microplastics. As regulatory authorities expand the list of monitored contaminants, especially in drinking water, laboratories and industries are increasingly investing in advanced instruments to stay compliant. For example, many national regulations now require the detection of contaminants at parts per billion (ppb) or even parts per trillion (ppt) levels, which only advanced technologies can achieve. Additionally, the pharmaceutical and semiconductor industries—which require ultra-pure water—are significant users of precision analytical tools. Recent innovations have focused on miniaturizing lab-grade instruments and integrating them into field-deployable units, widening their applicability. Automation features such as autosamplers, multi-channel analysis, and integrated software platforms have also improved testing throughput and accuracy while reducing operator dependency. As water quality challenges become more complex, the role of sophisticated analytical equipment is expanding beyond regulatory compliance to include research, product development, and environmental risk assessment. This trend underscores the increasing scientific rigor being applied to water testing and the growing intersection between environmental science and analytical chemistry.

Emphasis on Microbiological Water Testing

There is a growing emphasis on microbiological testing in the water testing equipment market, particularly in the wake of global public health concerns. Pathogenic microorganisms such as E. coli, Cryptosporidium, Giardia, and Legionella are major causes of waterborne diseases, especially in developing regions. As urban populations rise and water sources become more vulnerable to contamination from sewage overflow, livestock waste, and agricultural runoff, the risk of microbiological contamination increases. Municipal bodies and private utilities are now required to monitor bacterial indicators more frequently, sometimes on a daily basis. Rapid microbiological testing kits, which can deliver results within 1–4 hours, are seeing increased adoption over traditional culture-based methods that can take 24–48 hours. Techniques such as membrane filtration, immunoassays, and PCR (polymerase chain reaction) are being integrated into portable and automated systems, enabling faster and more accurate detection. Advances in biosensor technology have also enabled on-site detection of microbial pathogens without the need for a lab. The food and beverage industry, in particular, is expanding its use of microbial testing to meet international quality standards. With rising awareness about waterborne outbreaks and growing consumer demand for transparency, microbiological water testing is evolving from an optional measure to a mandatory safeguard in both developed and emerging markets. This trend is expected to drive innovation in faster, cheaper, and more accessible biological testing methods.

Segmental Insights

Product Type Insights

Portable segment dominated in the Global Water Testing Equipment market in 2024 due to its versatility, ease of use, and increasing demand across a wide range of applications. As the need for rapid, on-site water quality assessment grows in both developed and developing regions, portable testing equipment offers a practical solution, especially in areas where access to full-scale laboratories is limited or unavailable. These compact, lightweight devices enable users to conduct real-time testing of key parameters such as pH, turbidity, dissolved oxygen, conductivity, chlorine, and microbial contaminants without needing advanced technical expertise.

The dominance of the portable segment is further driven by its increasing deployment in field-based applications, such as environmental monitoring, agricultural irrigation, rural water supply testing, and emergency response operations. In disaster-prone or conflict-affected regions, portable kits have become essential tools for NGOs, public health agencies, and aid organizations to ensure immediate access to clean and safe drinking water. Moreover, technological advancements have made these devices more reliable, user-friendly, and accurate. Today’s portable water testing kits feature digital displays, smartphone connectivity, Bluetooth data transfer, cloud integration, and rechargeable batteries—making them ideal for real-time data logging and remote monitoring.

Additionally, rising regulatory pressure in both urban and rural settings to monitor decentralized water sources—such as private wells, rainwater harvesting systems, and small-scale treatment plants—has bolstered the demand for on-the-go testing solutions. Educational institutions, small-scale industries, and local government bodies increasingly rely on these cost-effective tools to meet compliance standards and detect contamination early. The affordability, mobility, and reduced need for infrastructure or technical training make portable water testing equipment an attractive option across diverse geographies and end-user segments. As water quality awareness continues to rise globally, the portable segment is expected to maintain its leadership position throughout 2024 and beyond.

Test Type Insights

Physical Tests segment dominated the Global Water Testing Equipment market in 2024 due to the widespread need for basic yet essential water quality assessments such as turbidity, temperature, color, and conductivity. These parameters are critical indicators of pollution, sediment load, and overall water health, making them a routine part of testing across municipal, industrial, agricultural, and environmental applications. Physical tests are fast, cost-effective, and often required for preliminary screening before chemical or biological analysis. With increasing demand for real-time monitoring and portable solutions, physical testing remains a fundamental and high-volume segment, especially in emerging economies and decentralized water systems.

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Regional Insights

Largest Region

North America dominated the Global Water Testing Equipment market in 2024 due to a combination of stringent regulatory frameworks, advanced infrastructure, and high public awareness regarding water quality. The United States and Canada enforce some of the world’s most comprehensive water safety standards, such as the U.S. Environmental Protection Agency’s (EPA) Safe Drinking Water Act and the Clean Water Act, which mandate frequent and detailed monitoring of a wide range of contaminants. This regulatory rigor drives consistent investment in advanced water testing technologies across municipal, industrial, and environmental sectors.

The region is also home to several leading manufacturers and innovators in the water testing industry, including major players specializing in spectrometry, real-time monitoring systems, and IoT-integrated devices. This concentration of expertise and innovation has resulted in the early adoption of cutting-edge solutions, such as AI-driven analytics, continuous monitoring sensors, and smart water quality networks. Additionally, the availability of funding for infrastructure upgrades and environmental initiatives—both from public sources and private sectors—further accelerates market growth.

High levels of industrial activity, particularly in sectors such as oil & gas, pharmaceuticals, and food & beverage, also contribute to the demand for precise and regular water quality testing to meet operational and regulatory requirements. Moreover, North America faces increasing concerns related to aging water infrastructure and contamination incidents, such as lead in drinking water systems. These challenges have led to rising investment in portable testing kits, lab-based equipment, and online monitoring platforms.

Public awareness around water safety is also notably high in the region, leading to growing use of at-home testing kits and greater accountability for water service providers. Coupled with strong research capabilities, digital adoption, and environmental consciousness, North America continues to set the benchmark in water testing practices, thereby maintaining its dominance in the global market in 2024.

Emerging Region

Europe was the emerging region in the Global Water Testing Equipment market in the coming period due to increasing environmental regulations, rising concerns over emerging contaminants like microplastics and PFAS, and strong governmental support for water quality monitoring. The EU’s Water Framework Directive mandates regular testing of surface and groundwater, driving demand across industries and municipalities. Additionally, Europe’s growing focus on sustainable water management, climate resilience, and wastewater reuse is fueling adoption of advanced testing technologies. Expanding digital infrastructure and rising public health awareness are also encouraging real-time monitoring and portable solutions, positioning Europe as a rapidly advancing market in the coming period.

Recent Developments

• In November 2024, The WaTER Institute at Rice University and Yokogawa Corporation of America have entered a strategic partnership to advance modular, autonomous water treatment and reuse systems. This collaboration merges WaTER’s research in decentralized treatment technologies with Yokogawa’s expertise in system automation and control. The integrated approach aims to enable broader adoption of smart water solutions, offering scalable and efficient alternatives for water treatment across industrial, municipal, and decentralized applications.
• In October 2024, India’s Department of Drinking Water and Sanitation (DDWS) has partnered with J-PAL South Asia to accelerate the deployment of data-driven water pollution control strategies. The collaboration will leverage randomized evaluations to identify and scale scientifically validated solutions aimed at ensuring safe drinking water for rural households by 2030. J-PAL’s contextual knowledge of vulnerable communities will be central in designing and implementing impactful interventions under this initiative.
• In April 2024, AirJoule Technologies Corporation (NASDAQ: AIRJ) has partnered with Arizona State University (ASU) to evaluate its AirJoule® A250™ atmospheric water harvesting unit. The device, which produces 250 liters of distilled water daily from ambient air, will be tested under arid conditions in the Phoenix region. Backed by strong liquidity and a current ratio of 7.83, AirJoule aims to validate the unit’s performance and accelerate commercialization in water-scarce markets.

Key Market Players

• Thermo Fisher Scientific Inc.  
• Danaher Corporation
• Agilent Technologies Inc.
• Xylem Inc.
• ABB Ltd.
• Eurofins Scientific SE
• Endress+Hauser AG
• Shimadzu Corporation
• Mettler‑Toledo International Inc.
• Horiba Ltd.

Report Scope:

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

•  Water Testing Equipment Market, By Product Type:

o   Portable

o   Benchtop

o   Online/Continuous Monitoring Systems

• Water Testing Equipment Market, By Test Type:

o   Physical Tests

o   Chemical Tests

o   Biological Tests

• Water Testing Equipment Market, By Application:

o   Industrial

o   Environmental

o   Laboratory

o   Municipal

o   Residential & Commercial

• Water Testing Equipment Market, By Region:

o   North America

§  United States

§  Canada

§  Mexico

o   Europe

§  Germany

§  France

§  United Kingdom

§  Italy

§  Spain

o   South America

§  Brazil

§  Argentina

§  Colombia

o   Asia-Pacific

§  China

§  India

§  Japan

§  South Korea

§  Australia

o   Middle East & Africa

§  Saudi Arabia

§  UAE

§  South Africa

Competitive Landscape

Company Profiles: Detailed analysis of the major companies present in the Global Water Testing Equipment Market.

Available Customizations:

Global Water Testing Equipment Market report with the given market data, TechSci Research offers customizations according to a company's specific needs. The following customization options are available for the report:

Company Information

• Detailed analysis and profiling of additional market players (up to five).