Delivering smart water solutions across the entire distribution network

Our smart water, source-to-tap solutions encompass flow measurement, water quality monitoring and data analytics. With products and solutions from Badger Meter, ATi and s::can, we have a comprehensive flow measurement and water quality monitoring offering that is transforming the water industry, enhancing how users manage their water systems.

With current and future communication and software technologies, we are creating robust digital solutions to help users turn data into actionable insights that drive better results, changing the way our customers collect, communicate, store and leverage data.

The below illustration shows how Badger Meter, along with ATi and s::can, can affect how you view, manage and control your distribution network. Our varied and technologically advanced product ranges allow us to have touchpoints across the entire network, including clean water and wastewater monitoring and measurement, through to Advanced Metering Analytics (AMA), cloud-based Software as a Service (SaaS) and cellular networks.

Smart Water Distribution Network

Network Solutions

Flow

Badger Meter ModMag Electromagnetic Flow Meter
Electromagnetic flow meters manage critical flow applications to improve accuracy, decrease system maintenance and meet the demands of challenging liquid conditions. This volumetric flow meter does not have any moving parts and is ideal for wastewater applications, or any dirty liquid that is conductive
or water-based.

Badger Meter Dynasonics & E-Series Ultrasonic Flow Meters
Ultrasonic flow meters are inferential meters that use ultrasonic technology to measure the velocity of an acoustically conductive liquid moving through it. There are two types of ultrasonic flow meter technologies, including Doppler & transit time. In addition to inline models, ultrasonic meters are available as clamp-on solutions, when contact with the measured fluid is not possible.

Water Quality

ATi MetriNet
Battery powered, continuous, real-time smart water quality monitoring from a choice of 16 ultra low powered, digital sensors. Delivering accurate, multi-parameter online data for proactive management of water quality in distribution networks.

ATi NephNet
NephNet online turbidity monitor is used to control both responsive flushing and controlled, planned cleaning, which helps to safeguard water quality for consumers. This technology offers a string of benefits to help water companies control their mains flushing, including continuous remote monitoring of turbidity, better accuracy at lower levels, fast connection to water mains via hydrants and wireless communications and alarms.

ATi SeptiNet
Designed specifically for applications in both wastewater treatment and sewer networks, SeptiNet generates continuous and accurate ORP and Hydrogen Sulfide (H2S) data for septicity prevention, allowing the management of odour and corrosion, whilst reducing the formation of hazardous atmospheres and negative environmental impacts.

ATi Q Series
The Q-Series range offers industry-leading monitoring solutions for over 20 parameters, trusted for the most demanding of clean and wastewater applications and used by water utilities globally. Our reagent-free water quality monitoring range offers a no-compromise approach to measurement in potable distribution, process and wastewater treatment, helping to drive down complaints, improve compliance ratings and reduce costs.

ATi FilterSmart
The FilterSmart Gravity Filter Backwash Monitor directly measures the parameters of actual interest: media expansion and turbidity. These two trends together present a clear picture of what’s going on during the backwash, allowing operators to ‘see’ into the process like never before.

During a backwash, the ultrasonic sensor tracks the level of the media and the turbidity sensor measures how clean or dirty the wash water is as it flows into the wash trough. These two measurements produce trends that together provide an extremely accurate profile of the backwash and become a powerful tool for optimising filter performance.

s::can pipe::scan
The pipe::scan is a modular sensor system for monitoring the quality of drinking water in pressurised pipes, measuring up to 10 parameters. The water quality data can be sent to any central database via almost any protocol.

s::can spectro::lyser
All spectrometer probes work according to the same principle: spectrometry. The s::can spectrometer probes are the first and only probes in the world that can measure optical spectra in the range of 190 to 720 nm directly in liquids. Substances contained in the liquid weaken a beam of light that is sent through it. A detector measures the light beam as it travels through the liquid and determines how much light has been absorbed.

s::can ammo::lyser
A multi-parameter probe for the online measurement of ammonium. A reliable device outclassing conventional analysers in terms of measurement stability and lifetime. Precision is guaranteed by real time compensation of the ammonium value, with temperature, pH and potassium and a high-performance reference electrode.

s::can micro::station
The s::can drinking water micro::station is designed for online monitoring of water quality parameters in clean media. The fully modular micro::station combines s::can instruments to a compact and versatile system. It presents a complete solution, as the user only has to connect water supply and discharge (plug & measure) to receive a previously unheard variety of immediately available information and parameters at no extra cost.

IoT

Badger Meter BEACON® Secure Cloud-Hosted Software Suite
The BEACON® Advanced Metering Analytics (AMA) cloud-based Software as a Service (SaaS) offers a utility management and consumer engagement solution to meet your meter reading, proactive exception management and reporting needs. The BEACON® AMA solution utilises our powerful ORION® endpoints to capture interval meter reading data through cellular, fixed network or mobile communication technologies.

Badger Meter ORION® Cellular Network
The ORION® Cellular endpoint is an evolution in AMI technology, strengthened by the Network as a Service (NaaS) approach. The innovative endpoint utilises existing IoT (Internet of Things) cellular infrastructure to efficiently and securely accomplish two-way communication of meter reading data via the LTE-M cellular network.

Badger Meter EyeOnWater®
EyeOnWater® web portal and native smartphone apps gives utility customers the power to manage their water use through easy-to-understand consumption graphs and configurable leak notifications, providing timely, visual access to their water usage behaviour. Personal water consumption data and the ability to create alerts for potential leaks means no need to wait for notification from the utility or a high water bill to take action.

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How can utilities meet increased summer water demands?

Each year, the summer months go hand in hand with increased water demands and decreased supplies, with the UK’s water reserves already substantially strained. ATi discusses how efficiencies and innovation can optimise water supplies during these drier months.

Historically, water conservation was limited to water-use restrictions, however, increasing water efficiency through management, preparation and technology is now recognised as the future for sustainability and resilience.  Considering the UK’s aging assets, their limits on performance and the capacity for increase at set points is an essential exercise.  Thankfully, advances in digitalisation are providing better knowledge, efficient monitoring, diagnostics and intelligent system management. 

Increasing Reservoir Supplies

Reservoirs are a key source of water supplies, therefore considering which reservoirs can be temporarily brought back into supply is vital. How many have mothballed cells shut off on multi cell/tank sites? Can these be cleaned and brought back into operation? One additional cell at a small rural reservoir could negate the need for expensive tankering.

Adjusting reservoir capacity percentage levels could be advantageous eg. increasing the higher level by 10%, or even up to 95% full, can add additional storage. Allowing the reservoir to drop to a lower percentage will also increase the volume. Operational limits and requirements must obviously be considered, but tweaking levels, pumping and filling times can help eke out more water.

Recommissioning Boreholes

When recommissioning boreholes, there are issues ensuring water quality. Often quality monitoring on site is outdated, spares are no longer available and control equipment needs repair.  Utilising smart sensor technology offers the perfect solution to quickly bringing boreholes back online.  In a recent project involving ATi’s multi-parameter, portable monitoring and emergency start-up solution, SiteBox, conductivity, turbidity and pH were monitored in the raw water via the inlet.  These were cross-checked on a separate water stream in the middle of the process, with the addition of chlorine M-Node digital sensors, then again on the final water stream prior to discharge, using dual and triple validation.  This proactive technology enabled the utility to supply 25% more water. 

Pressure Optimisation

Leakage or unaccounted water can be reduced by pressure management, including Pressure Reducing Valves (PRV). Most utilities operate around 1 Bar or more above, at what is known as the critical point, but reducing this by 0.01 to 0.05 bar can reduce overall demand, be it real, leakage or unaccounted water use. Installing flow modulators onto PRVs can reduce pressure at off-peak times and increase it during peak demand times.

Pressure controlled pumps can also be adjusted to reduced pressure to have the same effects as PRVs. Modifications to existing pumps or renewals can improve control. Variable Speed Drives can accomplish this, either retro fitted or purchased with new pumps.  In addition, ATi’s NephNet portable turbidity monitor can be utilised to monitor for any subsequent turbidity issues caused by pressure fluctuations.

Reducing Leakage & Wastage

Leakage detection has been honed over the last few decades to a fine art. Technicians, utilising smart technology, are able to review data and target high-usage areas and DMAs to determine the leakiest locations. 

Water quality monitoring has proven to offer warning dimensions for leakage and high demand, eg. turbidity spikes can indicate increasing flow due to a developing leak. Or reservoir quality monitoring can indicate if ingress is an issue as where ingress occurs, the egress can also occur. A number of large UK smart network projects are currently combining data from acoustic, flow, pressure and ATi’s MetriNet to reduce leakage.  These machine-learning ‘AI brains’ tell engineers if pipes have sprung a leak, sending alerts before developing issues.

Other areas of water wastage include lack of reservoir inlet and outlet and poor trunk main metering, plus unreported wet patches at reservoirs or pumping stations can often go unreported due to operatives not always having the knowledge to confirm or report a leak. 

Conclusion

Although these insights may not answer summer problems in full, ultimately optimum drought preparation, resilience, management and water security will provide a more sustainable and efficient water system.  Protecting supplies and meeting increased demands through efficiencies and smart sensor technology will inevitably result in more cost-effective and environmentally friendly water management, prolonging the life of assets.

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Analysing & evaluating service reservoir performance

Service reservoir performance analysis requires accurate and reliable monitoring, detailed understanding, and the expertise of a multi-disciplined team. Throughout the life of a reservoir, operators monitor water quality and performance through generated data insights. ATi’s Technical Performance and Data Analyst, Derek Leslie, discusses how the investment in analytical sensor and data resources greatly increases the ability to assess reservoir quality, whilst maximising recovery, performance and profitability.


Service reservoir analysis is routinely used to evaluate performance, diagnose characteristics, plan for future development, perform maintenance and management. The fundamental goal of service reservoir engineers is to predict the performance of the reservoirs, including the sizeable financial outlays in exploration, drilling, production demand and optimum efficiency to maximise the return on investment.


Traditionally, service reservoir performance has been judged on the results from the one-sample-per-week minimum requirements on the outlet of the reservoir, outlined by the DWI. However, it is now widely accepted that one weekly sample is no longer adequate to meet the requirements and challenges of the modern world. Instead, focused and targeted monitoring is required to understand service reservoir performance and problems. The installation of proven, accurate, reliable and continuous monitoring solutions at various points in the reservoir are now crucial, enabling water companies to extract detailed information to unlock the true picture of water quality.


Although on-site laboratory test sampling may not be possible, obtaining the key indicative samples of water quality is. Parameters such as chlorine residual, turbidity, pH and conductivity can be measured on-site continually, at intervals from as little as less than a minute apart. Utilising industry-leading, tried and tested analytical monitors, such as ATi’s Smart Water Quality and Q-Series ranges of monitoring solutions, provides all of this data to any platform, offering a clearer and more timely picture.

ATi M-Node sensors for turbidity monitoring

However, in order to generate the best results to analyse service reservoir performance, a number of questions need to be addressed, including where should the monitors be installed and are regulatory test results indicative of good reservoir content?


In short, it is wrong to assume that a regulatory sample that passes the test means all the content within the tank is the same, due to dead spots or low-to-no turnover areas in the tanks. There are inlet and outlet mains within a few feet of each other, therefore what goes in can go straight out. The hydraulic nature of ebb and flow designed reservoirs often results in a loss in disinfection, as supply water is flowing back and forth. There is also the risk that regulatory samples on common inlet and outlet mains can be taken at the wrong time, such as during filling. However, utilising ATi’s industry-leading water quality monitors provides an accurate, real-time picture of water quality and performance, allowing improved optimisation and proactive management.


Quick health checks can be achieved through ‘dip’ samples, however, this requires sufficient access to several parts of the tank, which isn’t always feasible, and also involves additional resources. For accurate daily monitoring of inlet and outlet flows, water quality monitors are crucial. In addition, the quality of the water arriving at site should also be monitored to determine if issues at the site are tank-related or delivery-related. Once the diagnosis is made, some monitors can be removed and the key sensors made permanent.

Mnode Metrinet and Smart Sensors


Other efficient methods are also available using robotic submersibles, guided to any part and depth of the reservoir, with an ambilocal tube allowing sample water to be pumped to analysers or sample bottles. ATi’s MetriNet multi-parameter smart water quality monitoring solution, along with the SiteBox portable water quality monitoring and control system, are tried and trusted aids for this method of sampling.

24/7 data from ATi’s water quality range can determine if modifications to internal or external pipework design is required, if valve positions need changing, or whether control valves and equipment are necessary. The data can then establish if additional disinfection would be beneficial, whether wider investigation is required or determine if adjustments to filling and emptying the tank is needed.


In summary there is huge unsaid concern for service reservoir quality. There is also apprehension that once this previously unknown data is unlocked, a can of worms could be opened, and can utilities afford the solutions? However, the real issue is, we can’t afford not to know.

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Monitor water quality with KIWA approved technology

Drinking water quality is of key importance to public health and the provision of safe drinking water has been recognised as one of the greatest technological and public health advances of the last century. Due to the strict standards set by the DWI, the quality of the UK’s drinking water is now among the best in the world.

The current system of delivering safe water to consumers in the UK is based upon significant investment in infrastructure and performs at an excellent standard at a very low cost.  However, the challenge of taking water quality monitoring into the digital transformation of smart water has created new barriers for the UK water industry, which need to be overcome.

Over the past 20 years, ATi has built up a strong reputation for providing industry-leading, innovative, fully compliant, bespoke water quality monitoring solutions and customer focused service.

Creating smaller smart sensors and flow cells, whilst maintaining high standards and reliability, is a prerequisite to meet the needs and demands of water utilities.  Historically, the industry has relied on compliance to the DWI regulations due to fast flowing samples, cool temperatures and small area contact. Monitoring water in distribution networks often means that water is being monitored in applications of lower flow, prolonged residence times and higher water temperatures. Compounding this, water in networks is very valuable to any water company, therefore allowing samples to simply run to waste is not the favoured option.

Water quality compliance

Regulation standards for potable water necessitates that sensors and flow cells meet a gold-standard of material compliance to ensure the materials used in the sensors do not contaminate the water. 

Water treatment products aim to improve the quality of water by removing unwanted elements. In this way water can be made suitable for its desired end-use purpose, such as drinking, industrial usage, irrigation or simply safe return to the environment.

Kiwa offers various certification and testing programs that help water treatment products demonstrate compliance with the highest standards. 

All potable water sensors need an audit trail to demonstrate that the materials used do not jeopardise water quality by polluting it with the residue left behind. 

Unlike Kiwa approved analytical sensor technology, lower-cost sensors will plasticise the water, leaking chemicals into the source, which inevitably breaches standards by contaminating the water.  This means that all water samples taken from the bypass to be tested are put to waste due to contamination from the sensor.

However, with Kiwa approved, smart technology, like ATi’s MetriNet, the sample can be immediately returned back to the network, resulting in zero wastage, on average saving approximately 288 litres per day per system, which is 102,528 litres per year. There is no cumulative leakage as the sampled water re-joins mains flow, meaning Kiwa compliant technology is a reliable and environmentally sustainable method for gathering data, capturing events and understanding why they occurred.

Kiwa approved MetriNet smart water quality monitoring solution

Setting standards

The fast emergence of smart water raises major challenges for both water companies and supply chain alike.  How can we drive the cost of vital sensors down, making it commercially viable to deploy sufficient numbers to gain the levels of data necessary to deliver the granularity of insight required for gains to be made? If not checked, this traditional procurement paradigm could lead to poor material standards, as manufacturers are forced to turn to lower cost-based manufacturing, with minimal material standards.

ATi’s Executive Director, Garry Tabor, believes that as the industry drives the future of smart water forward, we all have a responsibility to ensure that water quality standards are maintained.

“As the global leaders in water quality sensors for smart water and pioneers of innovative solutions, ATi is committed to upholding and delivering the highest standards for our customers.  All of ATi’s water quality sensors and flow cells meet Kiwa’s required high standards, enabling them to be deployed for use as monitors within the water treatment process, right though-out the distribution journey, source to tap. ATi does not compromise on the standard of materials, instead we innovate through research and partnership with our customers to develop better technology at lower cost, enabling us to meet the high standards that Kiwa sets.

“Whether our customers are using our water treatment works-based Q-Series range or network deployed MetriNets, we provide continued confidence that our engineered solutions deliver the most advanced water quality technology available, manufactured to the best working practice and made with fully compliant, sustainable materials.

“By pioneering the development and deployment of innovative, industry-leading, customer focused solutions, we strive to set the standards of the water we drink and the air we breathe, allowing our customers to ensure a safe, efficient and healthy environment, whilst delivering first-class customer support.”

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  • Digital
  • Environment
  • Kiwa Approval
  • Sensors
  • Water Quality

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Embracing data for the future of smart water networks

As data analytics and collaboration are increasingly becoming key priorities within the water industry, ATi and Black & Veatch Water Europe Principle Consultant, Andy Bates, discuss embracing the power of data for the future of smart water networks. 

Across England & Wales, there are over 340,000km of water mains and over 620,000km of sewer and drain systems. These underground assets are critical to the sustainable future of the water industry, yet this infrastructure is aging and all too often its underlying condition is unknown. With many pipes dating back over 100 years, this inevitably results in leakages and costly repairs. As part of the industry’s plans to manage yesterday’s infrastructure using tomorrow’s technology, water professionals are becoming more motivated to look for intelligent, resilient and effective solutions to meet tough targets.

Until now, cash-strapped water utilities have been trying to balance priorities of time and resources. Riddled with assets that are reaching end-of-life, including deteriorating pipes and failing pumps, utilities remain plagued by aging infrastructure and old practices that are hard to change. Despite the fact that the design of new mains systems should incorporate smart technology and monitoring requirements, these new systems are still often built in traditional ways. Now, in an effort to reduce operational costs and improve asset lifespans, water utilities are putting their data to work. But while smart water offers untold solutions, utilities are still working to understand how to gather, manage and analyse this information in such a way that it can alleviate ongoing asset management challenges.

Regulation is continuing to drive change, challenging the water industry to continue improving performance, and new technologies have a major role to play. These challenges will require a ‘smart’ approach, one driven by data, new technology, collaboration and management of infrastructure. The application of Artificial Intelligence systems and data analytics, will produce actionable insights to enable the water industry to become truly ‘smart’.

However, in order to achieve this, the supply chain can no longer remain technologically isolated; instead multi-layered, strategic alliances, focused on meaningful solutions for the industry, are now vital. Transparent collaboration, with shared values to improve the industry, will become the norm. In short, if strategic partnerships are not formed, the water industry will fail.

Collective Technical Expertise

ATi believes that change is already happening, but that we need to think big, start small and act fast. “Water utilities, consultants, technology companies and hardware and software specialists are already collaborating on smart water innovations. By leveraging big data, analytics and the Internet of Things, key players in the water sector are pro-actively innovating to help solve issues of water scarcity and address the aging water infrastructure. Put simply, monitoring water quality helps identify and determine current issues and guides future investment, including predicative maintenance and analysing data in real-time to identify leaks that affect water usage. Experience shows that by using this formula, projects are completed in a shorter period of time and with significant savings, taking advantage of the collective technical expertise and knowledge of companies within the collaborative partnerships.

“In addition to the technological advancements and personnel needed to operate the equipment, skilled, technical analysts are required to be able to understand and interpret the data, with expertise in how to operate the systems accordingly to identify issues and how to resolve them. This all requires specialist training and is currently considered a unique skill set, but if smart water is to become a success, these skills need to become the norm”.

Most water companies would admit to working in silos, and can intuit that it would be better if they didn’t, but they are often unsure how to change. “If there were to be a Grand Unification Theory in the industry, as opposed to science theory, the most likely place it would start would be in data. We all have a common need for data and the best insights come from combining different data sets. In order to achieve this, collaboration between technical operators and data analysts, i.e. people at grass roots, needs to be actively encouraged to achieve skills crossover”, Black and Veatch’s Andy Bates believes.

Data Insights

The key to driving smart water is empowering companies to be bold enough to turn innovations into business-as-usual processes and streamline activities to ensure more effective collaboration. “The thinking now within the UK’s regulated industry has changed from privatisation, where it was anticipated a long-term investment programme would progressively upgrade the asset base and asset life would reach a time-averaged sustainable level.

“Having been through six of these investment cycles already, it’s very clear that the rate of entropy on such a heavily asset-dependent industry is too high for this paradigm to be correct. Add to this the evolving nature of improving standards, along with customers becoming less accepting of issues, they are more likely to complain given their easy and convenient access to social media. So what options does that leave? The only sensible option is to prolong the life of what you have, using investment in a very sparing, targeted and sustainable manner to get the very most for your money. And there’s only one way to get to this kind of new paradigm, one essential element that underpins all decision making – data”, said Andy.

Whether you are looking at physical condition data, readings from sensors or hearing the predictions of an AI system, there is an inevitability of the transition to a digital ecosystem. With the right sensing technology and analytics, asset performance can be greatly improved and life extended – but only if you have the correct focus on “data to decisions”. And this is the crux. Understanding and interpreting this data is essential if we are to achieve true smart water.

“Water utilities have always collected data, but historically that information was used to perform traditional tasks and rarely to assess asset health and predict failure,” Andy Bates observes. “Sufficient, accurate and timely data needs to feed backwards and forwards from different departments within water companies to optimise treatment, cost, protect assets and predict the future, whilst avoiding issues in the present. Systems will learn from their history analysing patterns and comparing variables in ways it’s currently hard to fathom.

“A good example of how this new norm will need to work is the provision of data from electronic equipment. Much of the modern-day technology used within the water industry will have an array of digital recordings and diagnostics running, but some of this may not be presented in a “consumable” format. In order to gain insight into these analytics, companies need to open up the data to allow sharing with partners, or risk getting deselected from the supply chain.”

By embracing this digital transformation, utilities can turn large volumes of data into actionable information. Making it available at the right time, in the right location, in the right context and with the right people, helps companies to work together and collaborate, innovate, break down silos and deliver improved performance.

“Another key principle of digital transformation is how having access to insight, based on the latest data and intelligence, can help to drive a more innovative approach to customer service, using data to make more informed, strategic decisions about asset replacements. Utilities can also prevent potential asset failures from occurring and therefore avoid the added cost and inconvenience of emergency repairs, working with layers of data to uncover hidden insights and share them across the entire organisation. Sharing experience would quickly enable the industry to foster best practice and encourage the much-needed formation of multi-layered, strategic partnerships rather than working in silo.” ATi believes.

The good news is many companies have already realised the true benefits of focusing on their core strengths and choosing strategic partners that complement these skills. Being able to approach customers and demonstrate a commitment to collaborate is fast becoming the preferred approach and will inevitably result in the continued growth of smart water. This, along with the changes, opportunities and capabilities that new technology and alliances are set to bring, will drive long-term transformational innovation in the water sector for 2020 and beyond.

“Smart water’s technological innovation also plays a crucial role in predictive and proactive understanding of pipeline activity, giving operators access to advanced, reliable and actionable insights that will change the future of the water industry. However, the problem with Big Data is that we can become overwhelmed by the amount of information we receive, creating the perception that the data is incomplete, redundant or even inconsistent. But by applying Big Data technologies, the system analyses, corrects and complements where necessary, and then extracts information so that the operator can take the most appropriate decisions, giving a full, real-time overview” said ATi.

Digital Innovation & Transformation

An example of how this multi-technology approach works better has recently been demonstrated, with a number of UK water companies working with water consultants to collect a broader cluster of data-sets from supply chain providers, all collaborating to deliver a ‘data lake’ of information, presented on one unified analytics platform.

From pressure, flow, chlorine, turbidity, PRV valves, to consumer smart meters, this project has created a truly smart distribution network. Collaborative, intelligent, networked systems like this is not only helping to identify issues such as leaks, it is also improving operational tactics, promoting conservation and helping to minimise consumption, driving the industry towards a new smart water concept.

In a nutshell, Big Data is about taking all the data we now have at our fingertips and turning it into knowledge that we can apply to operate our networks and treatment facilities better. The right data, analytics and decision framework can drive water utilities to optimal performance.

The new generation of innovative analytics tools is enabling water utilities to perform preventive maintenance on existing infrastructure, cutting maintenance costs, reducing water loss, driving down incident risk, enabling in-depth incident analysis and preventing sewer overflows.

Data analytics are allowing water utilities to unlock operational efficiencies, improve revenue collection, gain system insights, boost customer services, provide early warning and monitor quality issues affecting customers, whilst guiding long-range planning and investment strategies.

ATi believes the water industry is now on the cusp of something very exciting; “Digital innovation will be the key to success and survival, enabling organisations build a connected workforce, modernise operational processes and deliver enhanced customer service. 

“ATi are working closer than ever before with customers and strategic partners to deliver the real value of smart water quality data, to offer a true Return on Intelligence. We are currently in the process of developing a new analytics control room that will house our industry-leading data hub and by utilising the NB-IoT and communications protocols with technology providers,

ATi’s smart water quality expertise and solutions will span every part of the water cycle – from source to tap”.

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A global company with a caring culture. We have a team of experts on hand to help with any product or support query you may have. Contact us and experience ATi’s exemplary customer support.

Get in touch

Analysing & evaluating service reservoir performance

Wastewater process control is increasingly complex as regulations become more stringent. The monitoring of wastewater quality plays a crucial part in identifying existing or emerging problems within sewer networks. ATi’s Director of Technical Services, Chris McTear, discusses the new technological advances transforming the future of wastewater management, offering the ultimate smart septicity solution for sewer networks.

Managing and controlling septicity in sewer networks has long been one of the greatest challenges for wastewater utilities, with high levels proving to be costly due to toxicity, corrosion and odour nuisance. Septic sewage delivered into an activated sludge plant creates considerable process complications.

Wastewater quality monitoring data is incredibly useful in helping to monitor septicity levels, although historically this has not been easy to gather. Until now, water specialists traditionally used a range of techniques, including weekly samples, analysing sediments, controlling flow and developing aerobic environments.  Controlling septicity also relied on maintaining the supply of oxygen to oxidise previously formed sulphide; minimising the emission of hydrogen sulphide gas into the atmosphere, deodorising vented air, and the use of protective coatings on pipes.

SeptiNet smart septicity monitoring solution

However, in today’s modern world, new technology has now been developed. By bringing together this technology, ATi offers a unique, unified solution for septicity monitoring and prevention in sewer networks, utilising both liquid and gas phase sensors.  ATi’s SeptiNet is an innovative breakthrough in smart, continuous and accurate wastewater septicity monitoring for sewer networks. Forming part of a pioneering range of smart sewer network solutions, including the integrated ATi and s::can revolutionary SewerNet water quality monitoring solution, SeptiNet monitors both hydrogen sulphide (H2S) gas and Oxidation-Reduction Potential (ORP), offering the ultimate smart septicity monitoring solution.

Due to ATi’s unique manufacturing base of both water and gas analytical sensors, SeptiNet allows wastewater utilities to monitor both liquid and gas in one combined solution anywhere within the sewer network.  Data generated from SeptiNet is linked directly to the customer’s preferred RTU and transferred to an intermediate cloud for analytics, integrated into the customers own Scada reporting protocol.

Septicity in Sewer Networks

Wastewater becomes septic when organic matter decomposes and forms a foul smell, due to the absence of free oxygen. This common problem occurs within sewers when low flows and long retention times combine, resulting in bacteria multiplying in the anaerobic conditions that creates septicity.

Consequent formation of H2S gas can cause a nuisance with its characteristic foul smell, leading to customer complaints.  This lethal gas also causes a hazard during entry into chambers and its reaction with moisture results in the formation of sulphuric acid, which has a corrosive and costly effect on infrastructures.

SeptiNet: Smart septicity prevention for sewer networks

To predict, prevent and control septicity of an entire sewer network is complex, however ATi’s SeptiNet removes any guess work, enabling the complete management of septicity. By combining both liquid and gas smart sensor technology, and as part of a Combined Sewer Overflow (CSO) monitoring solution, SeptiNet improves the control of assets and processes, enabling access to data for both online and offline analysis and modelling.

Designed specifically for applications in both wastewater treatment and sewer networks, SeptiNet generates continuous and accurate data for septicity prevention, allowing the management of odour and corrosion, whilst reducing the formation of hazardous atmospheres and negative environmental impacts.

SeptiNet helps to protect the wastewater treatment process, the extra sewer storage, reduces overflow and pollution to rivers and is suitable for installing anywhere within a sewer network, including:

  • Inlets to wastewater treatment works
  • Inlets to CSOs
  • Outlets/Overflows of CSOs
  • Pumping station
  • Manholes within the network

SeptiNet uses smart sensor technology, combined with data intelligence, for large scale mass deployment across sewer networks. This innovative solution has been developed using telemetry to drive sustainable use of the world’s natural resources, offering customers an end-to-end approach to manage wastewater assets in hazardous environments, whilst also reducing pollution for a better, greener world.

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