2018 – The Year of Smart Wastewater

By Sam Konstantinov, Research Analyst, SWAN Forum

smart wastewater

Published January 2, 2018

2017 was a transformative year for the smart wastewater sector with major industry advancements such as new ways to detect and prevent combined sewer overflows (CSOs), the advent of a smart wastewater pumping system, and the emergence of innovative business models such as data-as-a-service – all bound to gain more traction in 2018.

In 2017, SWAN conducted an Urban Sewershed Monitoring Survey on behalf CH2M and WE&RF to analyse the existing challenges, capabilities, and state of implementing sensor networks in urban sewersheds (sewer collection systems). The groundbreaking study was completed by 20 utilities and 20 technology providers, with the below chart illustrating how each group ranked the most important uses for sensor technology in wastewater networks.

SWAN Survey

Source: SWAN, CH2M and WE&RF Sewershed Monitoring Survey, 2017

These results demonstrate a growing interest in advanced sensor applications in wastewater solutions. Both utilities and technology providers indicated the most important uses for sensors were for an early warning system, followed by compliance monitoring, and real-time control.

Fueled by this increased interest, SWAN and industry leaders have identified the following smart wastewater trends likely to be at the forefront of 2018 discussions:


Detecting and Preventing CSOs

Wastewater utilities are increasingly implementing technologies to ensure compliance and addressing such challenges as inflow and infiltration (I&I) and combined sewage overflows (CSOs). During rain events, stormwater overwhelms the capacity of a combined sewer systems resulting in harmful overflow events. Companies such as SmartCover Systems and ADS provide solutions to detect and reduce overflows by utilising real-time flow and weather data, and similarly Eastech uses sensors for micro I&I detection. Data-driven solutions to address CSO’s will remain a priority for utilities in 2018, as these approaches are proven to be more effective and efficient.

Real-Time Network Control

Employing EmNet’s real-time control solution, the City of South Bend, Indiana was able to effectively leverage data analytics to automatically control valves and optimise their wastewater system. EmNet’s system intelligently and dynamically adapts to changing storm conditions to maximise storage and conveyance. This enabled South Bend to reduce overflow events from a yearly average of 27 to only 1. Digital solutions can also be used to evaluate and finance infrastructure initiatives to reduce CSOs.

Funding Green Infrastructure 

Inadequate stormwater management practices have directly contributed to higher CSO volumes. Since most infrastructure is not permeable, stormwater is often funneled through large areas into centralised locations, which then deliver large runoff volumes into combined sewer systems. In a progressive move, DC Water was able to finance its permeable surface infrastructure initiative through an Environmental Impact Bond and use data-driven flow models to evaluate the impact of permeable surface infrastructure. This allowed DC Water to avoid a $3.3 million contingent payment. In addition to reducing CSO volumes, data oriented management practices can increase energy efficiency within wastewater networks.

Maximising Pump Efficiency

In 2017, DC Water introduced Xylem’s smart wastewater pump systemThis interconnected system is expected to produce energy savings of up to 70% compared to a conventional pumping system and reduce inventory by up to 80% due to flexible performance. Emerging business models in the smart wastewater market also promise to create new partnerships and initiatives between technology providers and utilities.

Implementing the DaaS Business Model 

One of the greatest challenges in integrating new digital wastewater technologies is convincing utilities to take on the risks of emerging technology solutions. The data-as-a-service (DaaS) business model addresses this challenge by shifting project risks onto technology providers. In this scenario, utilities only pay for the final data they receive and do not incur any technology related costs. This model is already proving successful in India through s::can’s Ganges River project. Using water quality monitoring stations measuring 17 different parameters, s::can is able to register live spikes in hazardous chemicals.

Looking Towards 2018

Trend-setting, progressive utilities like the City of South Bend and DC Water are laying down the groundwork for continued integration of smart wastewater solutions in 2018. Challenges in controlling CSO events, increasing energy efficiency, and ensuring effective implementation will need to be met with new digital solutions and innovative business models.

To learn more about the latest smart water and wastewater trends, challenges, and solutions, SWAN invites everyone to the 2018 SWAN Annual Conference in Barcelona. Join us May 21-22 to learn about how smart water can meet tomorrow’s challenges today.

The below blog is reposted from an article which appeared in Automation World on December 21, 2017. View the original article here.

To Embrace Digital, Water Needs to Tackle Fundamentals 

By Aaron Hand, Executive Editor, Automation World

David St. Pierre, with a background in process control, moved from oil refineries to water utilities in 1986. The difference was night and day. More than 30 years later, he still sees a need for the water industry to understand the basics.


Published December 21, 2017

In the early days of David St. Pierre’s career in process control, he had plenty of exposure to old pneumatic systems and single-loop controllers—by the late 1970s in oil refining, there were banks and banks of single-loop controllers. Not unlike what control software does today in a digital format, those controllers had to be precise. “You want it to work,” St. Pierre says. “If it fails, you blow up the town.”

But since moving over to water in 1986, St. Pierre has been amazed at what is lacking in the automation of the industry. “The difference between making gasoline and controlling water is night and day. It was like taking a step back in time,” he said. Part of the reason for the difference, he contends, is that water is inherently less dangerous than oil and gas. “Water isn’t going to blow up the town. There’s just not this real urgency to get it right.”

The automation advances that had taken place in the oil and gas industry were missing in water. Now, as executive director of the Metropolitan Water Reclamation District of Greater Chicago (MWRDGC) and vice president of the National Association of Clean Water Agencies (NACWA), St. Pierre sees obstacles in three main areas as the water industry tries to make its way into the digital world: automation, system health and labor.

“We have to figure out how to implement true automation in water,” St. Pierre urged industry professionals last month. He was keynoting a day-long workshop in Chicago called Modernizing North American Water Systems in the Digital Age.“ In each city that I go into, they really aren’t applying normal control strategies, which have been tried and true for ages. I see programmers that are starting from scratch on a blank sheet of paper, trying to recreate control systems that already exist in the systems that they’re buying.”

The water industry needs to get past the idea that it has to do things differently than other industries, and instead embrace just automation fundamentals. “We think we’re unique. It’s simply not true,” St. Pierre said. “We need just simple process control implementation—using the physics that you understand and applying it to a system. We need to get to the fundamentals. We need to apply the tried and true.”

The second set of obstacles come in the area of system health. Though water utilities have a network of systems that should be able to point to problems like lost water pressure in a fire hydrant, for example, the information isn’t getting where it needs to go.

In a water system in St. Louis, St. Pierre encountered a computerized maintenance management system (CMMS) that was so complicated, it was of little use. “We must’ve had 50 different codes to tell you what we were doing out in the field,” he recalled. “All you had was garbage going in and garbage coming out. There was no way you were going to utilize that system for information management.”

They set about figuring out what information was truly valuable. “I have to get good information out so it means something to me and helps me advance forward,” St. Pierre said. “We decided we needed three resolution codes instead of 50.”

Labor management is a huge aspect of keeping water utilities running efficiently that needs to be brought under control, St. Pierre also said. “Almost 70 percent of what I spend a year is labor,” he said. “Do you think it’s kind of important to figure how to manage that labor and get value out of that labor? It probably is.”

Using St. Louis as an example again, St. Pierre referenced the pump station group, made up primarily of mechanics and instrumentation folks. “The mechanics had never worked on a pump,” he explained. “Instead, what were we doing? We were hauling out failed pumps—failures upon failures. It was a very expensive way to do business. If you drove your car that way, you wouldn’t want a car. It’s not really asset management.” So he sent the mechanics to pump school.

Many water utilities simply need to implement basic asset management, St. Pierre insisted. “The equipment we have in water is pretty simple equipment. It’s nothing unique—it’s compressors and blowers and pumps. They should have a standard timeframe reference,” he said. Utilizing predictive sensors correctly would also go a long way, he added.

“There is such a need in water for the fundamentals. Once you get those fundamentals down, you can start becoming the excellent agencies that we want to be,” St. Pierre concluded. “If we want to accelerate the advancement of digitalization in water, it’s really all about getting the fundamentals right.”

The below blog is reposted from an article which appeared in Water Online on July 10, 2017. View the original article here.

Smart Water Questions Answered

By Kevin Westerling, Chief Editor, Water Online and Will Maize, Senior Analyst, Bluefield Research

Published July 10, 2017

A smart-water expert details the impact of data and analytics on the water sector.

It may be time to shed the quotes around the term “smart water.” When it was the water industry’s pipedream, so to speak, the buzzword-y connotation was appropriate. But smart water technology is now fully functional and greatly effective, at least where implemented, with a trajectory that is both ascending and inevitable. Or, as market intelligence firm Bluefield Research contends, smart water is here to stay.

The prediction for profound impact comes from the many benefits, mostly geared toward improved efficiency, enabled by smart water technology. And while the transition to a proven, more-efficient water management system makes common sense, it is still far from commonplace among utilities. Smart water is here to stay, perhaps, but it nevertheless has a long way to go.

So, in these still-nascent stages of a new era, you may have a number of questions about smart water technology basics, capabilities, operation, and obstacles. The following Q&A — a conversation with Will Maize, Bluefield’s senior analyst covering smart water applications and emerging technologies — provides some answers.

How do you define smart water?

There are a lot of varying definitions out there, but we define smart water as a group of emerging technology solutions that help water managers operate more effectively. These solutions harness state-of-the-art hardware and software to provide increasing levels of system intelligence, visibility, automation and control, and customer service.

At Bluefield, we take a holistic approach to consider the entire spectrum of smart water solutions — from hardware (e.g., smart meters) to software solutions (e.g., data platforms). The aim is to improve customer and network management through new technologies, data-driven platforms, and more advanced business models.

To give you an idea of scale, Bluefield forecasts the U.S. municipal water sector’s spend to surpass $20 billion on software, data, and analytics solutions over the next decade. It’s still early, so this could scale quickly.

What is the problem that smart water solutions are attempting to solve?

Historically, utilities have been hobbled by their inability to generate actionable insights from disparate network and water usage data, but this is changing with more advanced data management and cloud-based solutions. Water utilities have been stereotyped in the past as stodgy and never-changing, but this no longer holds true; smart water is bringing the water industry into the 21st century as companies look to adopt these cutting-edge solutions.

By leveraging Big Data, analytics, and the Internet of Things (IoT), key players in the water sector are proactively innovating to help solve issues of water scarcity and address aging water infrastructure. Smart technologies help water utilities be more proactive vs reactive. For example:

  • Using imaging to inspect corroding pipes, enabling predictive maintenance;
  • Analyzing data in real time to identify leaks that would otherwise go unnoticed; and
  • Leveraging software to help utilities and consumers track their home water usage.

Why is the industry turning to data and analytics now?

There are a number of factors that are leading to somewhat of a perfect storm. First, there is more pressure than ever on utilities to do more with less. Consumers are pushing back on rising water rates and expecting better customer service.

Utilities and municipalities find themselves facing mounting financial constraints driven by falling water revenues and pressure to address aging infrastructure. Approximately 50 percent of U.S. infrastructure has been evaluated as poor to beyond planned life, according to latest EPA reports. And companies are looking for new, innovative ways to address issues such as aging pipes and leakage management. This has sparked an uptick in demand for innovative solutions to more cost-effectively manage billing and customer management, leakage rates, and energy consumption.

Water loss is a big concern, and states are attempting to increase regulations in this area. Water scarcity events have influenced the development of state-driven regulation targeting water loss.

We have seen great advancements in the areas of Big Data and IoT, leading other industries, such as energy, to adopt these technologies. With pressing issues mounting, the water industry is now taking advantage as well.

Can smart water technologies make a difference?

The short answer is yes. The results have been significant. In some cases, smart water solutions have halved nonrevenue water — leaks and billing errors — and reduced energy consumption from 20 to 40 percent. As much as 30 percent of water utility operating expenditures can be improved almost immediately through more dynamic and real-time system monitoring, according to Bluefield’s analysis.

What are the fastest-growing segments?

Often the first step in U.S. utilities’ smart water journey is through smart water meters —automatic meter reading (AMR) or advanced metering infrastructure (AMI). Meters will continue to represent the lion’s share of forecasted expenditures at 82 percent from 2017 through 2026. The challenge, however, is that the data collected from these meters — if collected at all — needs to be managed and analyzed. This is where we see big improvements and opportunity.

We are also seeing huge potential in two other areas: asset intelligence and leakage management. We predict that asset intelligence, including pipeline monitoring, asset condition inspections, and asset management will emerge as a key smart water segment as utilities seek efficiency under mounting pressure of operating and capital replacement budget stress. Over $2.7 billion will be directed towards asset condition assessment and pipeline monitoring through 2026, according to our analysis. Given the state of municipal infrastructure, there is a wealth of low-hanging opportunities for improvements.

At the same time, operating expenditures on leakage management will total $1 billion through 2025 as smart solutions for leakage management, driven by fixed-network acoustic technologies, satellite leak detection, and improved real-time network intelligence, capture increased market share.

Which companies or utilities are leading the charge?

Smart water is bringing a wide range of new companies into the water industry from multiple sectors and value chain positions, which is fitting for an industry opening itself up to the massive potential.

Seizing on this burgeoning demand for solutions is an outside group of venture-backed startups seeking to leverage their data expertise, much of which draws from other industry applications. These data and analytics companies are looking to integrate disparate sources of data to optimize networks, track water quality, and generate insights for asset performance management. Their primary challenge, however, will be overcoming a credibility gap with demonstrated pilot projects and buy-in from municipal utilities. These companies are not new to data and IoT, but many are new to the water industry.

Since 2014, 42 acquisitions in smart water have exceeded $8.2 billion, reinforcing the growing confidence larger water companies are placing on water data and analytics as growth opportunities. We are seeing more diversified players like Honeywell, Trimble, and Xylem moving deeper into the sector.

Early-adopting utilities, including American Water and East Bay Municipal Water District, are leading the shift towards smart water technology adoption. Market leaders, including Mueller and Itron, have moved downstream into communications, data management, and analytics, while recent market entries via acquisition will further reshape the competitive landscape.

As a result, more than 40 companies in the U.S. are positioning to deploy state-of-the-art solutions to enable more advanced levels of system intelligence, real-time network visibility, energy efficiency, and customer management.

We can also look to Europe as a model. European utilities are really at the forefront in driving this space — in the areas of energy efficiency, smart meters, and leakage management.

What hurdles does the water industry face in adopting smart water technologies?

Culture. This is killer to innovation and improvements. For so long, out of sight, out of mind was the modus operandi for utility operators. Today, however, a combination of drought, water quality events in Flint and Pittsburgh, and customer expectations for real-time data and knowledge are increasing the demands on the utilities.

The solutions are not new, and water utilities also face some of the hurdles that other industries are confronting when it comes to Big Data and IoT. They must address key questions such as who owns the data — the utility, the homeowner, or the technology provider? What defines a smart utility? Which of these startups will be around in the next three to five years?

There are issues to be worked out, but we are not that far off from consumers being able to see water usage alongside electricity usage — all from their smartphones.

What would you say to skeptics who say smart water is just a fad?

I would say that just a few years ago there was only a handful of hardware players. But now the market looks entirely different. We are seeing larger, diversified companies enter the fray, utilities reshaping their mindset, and Silicon Valley applying data expertise. This combination has huge potential to change the way the U.S. water industry works.

Smart water is a big deal for the water industry and is here to stay. On the one hand, we are grappling with age-old issues of water infrastructure, pipes over 100 years old. At the same time, there are major technological advances that could revolutionize the water sector.

The bottom line is that the water industry has a huge need to be more efficient. And there are higher expectations than ever from customers that information networks be more sophisticated. I don’t see any of this going away. If anything, there will be more players entering the market and more investment in this space.

Where can our readers get more information on smart water?

Bluefield provides data and analysis across global water markets, and smart water is a key area of focus for us. In April, we released a new report, US Smart Water: Defining the Opportunity, Competitive Landscape, and Market Outlook, which is available for purchase and download from our website (www.bluefieldresearch.com)

Lessons from the SWAN 2017 Conference

By Shoshana R. Cohen, SWAN Research Analyst

        Published May 26, 2017                                                           

The SWAN 2017 Conference brought together smart water and wastewater industry leaders to collectively share experiences in transitioning towards a smarter and more resilient water future. In this blog, I will highlight three, important reflections I made and how they can impact the water industry. By encouraging smart water policy, multi-level coordination among key stakeholders, embracing ICT technologies, and creating a centralised vision of a community’s water consumption, global cities can ensure the resiliency of their water and wastewater systems.

Cities face numerous water governance challenges such as water scarcity, wastewater overflows, aging infrastructure, pollution, overpopulation, and catastrophic events – see OECD figured below. By adapting to changing conditions, cities can better prepare for shocks and stresses in their system in the long-term and strengthen their ability to bounce back after a disturbance.

(Source: OECD 2016 Water Governance Survey)

Based on the main insights from the Conference, here are three recommendations for improving the resilience of smart water processes.

Lesson #1:  Multi-Level Management

Coping with water risks requires the implementation of technical, financial and institutional solutions. With the increasing effects of desertification, water scarcity is proving a more prevalent stress on municipalities and utilities. Improving a city’s ability to absorb shocks requires a resiliency plan that identifies the weak points in the system. These plans represent strategic tools to increase the line of sight between day-to-day and long-term goals. Therefore, it is necessary for urban water management to have a multi-level functional approach to water functions, one that involves both national and subnational coordination. In this regard, Will Maize, Senior Research Analyst at Bluefield Research stated that “market drivers, such as water scarcity and operational efficiency, are causing utilities to turn to new technology. There is no-one-size-fits-all solution, but a need for place-based policies and overarching frameworks, strategy and rules.”

In an online poll (see above), 87% of Conference attendees selected that the adoption of data-driven technologies within water utilities is a “management,” rather than a “technological challenge.” Thus, smart water adoption is often about changing traditional mindsets to embrace digital solutions.

Lesson #2: Digital Transformation

In the past, utilities relied on acoustic listening devices and field team sweeps for leak detection. Eddy Segal, VP of Sales for Utilis Ltd, stated that instead of checking an entire area for leaks, utilities should utilise technologies, such as pressure sensors and satellites to detect the precise location of leaks. Meanwhile, innovative data analysis processes such as OSIsoft’s Process Intelligence (PI) system and SUEZ’s Internet and Communication Technologies (ICT) are revolutionising water management practices. The SUEZ diagram below displays how these technologies can effectively transform the process of infrastructure-utility communication to analyse data flows and make timely predictions.

(Source: Didier Sinapah, SUEZ)

OSIsoft’s PI System can further capture and store data to create real-time, self-learning artificial neural networks. In this way, data can be collected from numerous sources, encouraging data sharing among a community of utilities, regulatory agencies, customers, governments, and private companies with the ultimate goal of optimising water network management.

Lesson #3: Connected Customers

In order to improve their daily processes, utilities must include the customers in their water management plans by sharing the data with them. This way, customers can more closely monitor their household water use. At the same time, utilities can also have a better understanding of individual household water consumption and be able to enhance segmentation within the system. For instance, Jan Gooijer, Innovation Manager at Vitens, explained that “with the development of technology within the smart water sphere, only customer-centered companies will survive.”

One example of engaging the customers within the data collection process is the integration of digital meters and social media. George Theo, CEO of Unitywater in Australia mentioned that tapping into data is an “analytics revolution for the business and the customer. Unity has used data to create knowledge and use that knowledge to create solutions.” Utilities can further provide incentives for the households that decrease their water consumption the most in a year.

To build a resilient water future, we will need sound management and policy, reliable infrastructure, ICT communication, and connected customers. 

To view the SWAN 2017 Conference presentations, visit:  https://www.swan-forum.com/swan-2017/

The Need for Water Service Resilience

By Shirley Ben-Dak, SWAN Marketing Manager

Published on March 9, 2017

The need for adopting sustainable water resilience strategies is becoming more apparent than ever. By 2050, the global population living in cities will increase from 50% today to 70%. A McKinsey study on transforming water economies reveals that cities are already facing increasing water stress, with demand expanded to outstrip supply by 40% by 2030. On this note, according to Arup’s recent publication, Water Resilience for Cities, “Ensuring a resilient water supply as climate patterns change and populations grow requires cities to introduce active water resource management measures.”

With this mind, city officials and water operators will need to take into account long-term thinking and planning, support the deployment and implementation of ICT and smart water technologies, as well as collaborate with global industry stakeholders. As the Global Resilience Partnership explains in their piece on fresh water resilience, “A 21st century approach to water and to development is one that builds resilience. This means that we look for ways in which people at risk could actually thrive under recurrent water challenges – to anticipate, mitigate and rise above floods, rather than being swept away from them.”

Let’s take a closer look at what’s involved in developing a resilient water management plan.

Defining Resilience

Common definitions of “water resilience” focus mostly on climate change and mitigating the impact of natural disasters. For example, according to the UK water regulator, Ofwat, resilience is “the ability to cope with and recover from disruption, and anticipate trends and variability in order to maintain services for people and protect the natural environment, now and in the future.”

Another key component highlighted by SWAN, the Smart Water Networks Forum, relates to “water service resilience,” which can be broken down into four, key pillars and applied to both the water and wastewater sectors: (1) Safe Water – Quality; (2) Reliable Service – Customers; (3) Secure Systems – IT; and (4) Efficient Operations – O&M.

The Four Key Pillars of Water Service Resilience

The above pillars can all be optimised by transforming collected network data into actionable information using smart water and wastewater technologies, explored further below.

Pillar 1: Safe Water – Quality

Traditional water quality sampling relies on time consuming and often costly monitoring techniques such as ‘grab’ sampling and field/laboratory analysis. However, there are now online sensors, which can communicate real-time data about various quality parameters to a software platform to rapidly locate the source and spread of contamination. Such efforts help manage and avoid quality issues before customers are impacted. This is also relevant to the wastewater industry, as there are technologies preventing harmful sewage overflows through the deployment of data technologies.

Pillar 2: Reliable Service – Customers

The concept of water service resilience doesn’t only refer to the infrastructure and the network itself, but also the end users that can be impacted by water flow and quality – namely the customers themselves. More and more water utilities are already seeing the importance of improving online customer engagement and are embracing the advent of smart water meter solutions and relevant smart leak detection technologies such as fixed, acoustic sensors and remote alert systems.

Pillar 3: Secure Systems – IT

When discussing water service resilience and the transition towards smart water networks, we must consider the importance of securing our systems from an IT perspective. The move to smart water networks is supported by ICT, as automation and cybersecurity technologies and systems are helping reduce risks involved in moving towards digital water and connected grids.

Pillar 4: Efficient Operations – O&M

Improving water service resilience will require utilities to maximise their operational resilience, including making strides towards adopting robust hardware, predictive modeling systems, and making intelligence decisions that are based on data collected and analysed. These and similar efforts are essential when looking to provide for more efficient O&M of water networks.

Securing Resilience

Building a sustainable water future will require not only understanding the now, but will require planning strategies 20-25 years down the line. According to a joint Arup-Siemens report, to become resilient, cities will need to think in in terms of robustness, redundancy, diversity and flexibility, responsiveness and coordination. To help streamline the process, water utilities and policymakers should first consider defining their main water service resilience indicators and goals, and then determine which individuals and/or team members will be needed in order to meet certain milestones. As this undertaking will require both management and employee support and collaboration, it should be neither rushed nor launched from a top-down approach.

To effectively secure resilience, forming industry partnerships and collaborative platforms will be essential. By taking into account different global perspectives and learning from best practices worldwide, cities and water utilities will be better equipped to handle the main shocks and stresses that infrastructure networks are facing due to both climate change and increasing water demand.

Gaining a Global Perspective

We encourage all those interested in learning more and exploring the topic of water resilience to join us for the upcoming SWAN 2017 Conference from 9-10 May in London. This will be the leading smart water conference of the year featuring 20 global water utility speakers from 13 different countries. Participants will have the opportunity to hear about more in depth case studies about the four key pillars of water service resilience as well as contribute their own insights on this increasingly important topic.

What are your views regarding water service resilience? Please share your thoughts: shirley@swan-forum.com.

Streamlining Innovation in the North American Water Sector

By Amir Cahn, SWAN Executive Director

Published on February 2, 2017

Last week, I had the pleasure of attending Smart Water: Tapping Technologies for Water Utilities, a joint-Workshop hosted by the SWAN North American Alliance and Cleantech San Diego at the Qualcomm headquarters in San Diego. The Workshop attracted nearly 200 attendees, several of whom were water utilities interested in learning about the vast opportunities in the smart water sector. The cross-industry panels sparked engaging discussions, particularly about the innovation processes of North American water utilities. Utility speakers highlighted the need for a “reverse pitch,” the challenges stemming from rigid RFP processes, and the idea of an “innovation lounge.”

Gary Eaton, Chief Innovation Officer at the San Diego County Water Authority, cited the importance of three “C’s.” First, creating a culture receptive to innovation in a risk-averse environment. Second, becoming agile, or building the right capabilities for staff to be innovative. Thirdly, creativity is necessary to take staff ideas from conception to implementation. Gary also stressed the idea of a “reverse pitch,” or gathering internal organisational feedback to develop a “wish list” of desired solutions. However, he stated that a significant challenge to enabling innovation is the long and arduous RFP cycle where desired technologies can become out of date or companies can even go out of business. To effectively manage the procurement process, adopting an open architecture format for other public agencies to utilise would be beneficial.

The need to be cutting-edge, not “bleeding edge” was emphasised by Joey Randall, Assistant General Manager at Olivenhain Municipal Water District. He mentioned that his utility needs to change the way they think about water to work smarter, not harder. In the end, it’s about how they do business and they must decide how their water service will change. Meanwhile, the concept of an “innovation lounge” was advocated by John Arena, Business Outreach Section Manager at the Metropolitan Water District of Southern California. Such a lounge would be an open platform for utility staff members to collaborate and suggest different projects and improvements.

Paul Gagliardo, Innovation Director at American Water further spoke in depth about their evaluation process to work with outside vendors and how they decide where to invest their resources. Below, is American Water’s seven step innovation process, which can also be applied to other utilities.

Source: Presentation by Paul Gagliardo, Innovation Manager at American Water during Smart Water Workshop, Jan. 25, 2017 in San Diego.

As the leading global hub for the smart water sector, the Smart Water Networks Forum (SWAN) brings together key players in the water industry to collaborate and share knowledge in order to accelerate the development of data-driven technologies in water and wastewater networks worldwide. For example, the SWAN North American Alliance is now free to join offering free workshops such as the recent one in San Diego, specialised webinars, as well as a soon to be centralised source for smart water resources. By joining SWAN or participating in the Alliance, utilities can leverage best practices from other global utilities and access a global innovation lounge.

View the recent Smart Water Workshop presentations: https://www.swan-forum.com/smart-water-workshop-2017/

Join the SWAN North American Alliance for free: https://www.swan-forum.com/swan-na-alliance/

7 Smart Water Trends for 2017

By Shirley Ben-Dak, SWAN Marketing Manager

Published on January 5, 2017

After waving goodbye to an exciting year for smart water, it’s time to roll up our sleeves and welcome in 2017. Given concerns related to water scarcity, reliability and security, it’s now imperative to implement digital solutions to improve operations and efficiency, as well as build the right organisation and processes to support it.

For water utilities, the emergence of smart water tech providers and Internet of Things (IoT)-related devices offers ample opportunities to increase resilience and streamline operational performance. According to Deloitte, data-driven insights “have great potential to transform the way consumers, the government and utilities think about water as a resource and how the industry plans, invests and manages water infrastructure for the future.”

While there are many exciting developments in the water sector, here are 7 smart water trends to look out for in 2017 based on insider and SWAN expert analysis:

1.   Online Customer Engagement

Today, water utilities are coming to understand and embrace the advantages of customer engagement. Through the advent of AMI solutions, utilities can now utilise direct two-way communications from customer meters to the utility, then back to customer web portals and smartphone apps. This allows utilities to deliver high quality service by alerting customers about possible leaks, blockages, pollution, etc. Customers can also proactively track their water consumption and monitor their monthly bills. In 2017, customer engagement technologies will play an even more crucial role as customers seek increased transparency and available solutions become more personalised.

2.   Smart Irrigation

The global irrigation industry is undergoing a transformation with the help of technology, widely known as precision or “smart” irrigation. The irrigation industry faces significant challenges due to water scarcity, increasing crop production, and climate change. By adopting smart irrigation technologies, farmers can maximise yield rates by pinpointing where and when to irrigate through sensors or water flow controllers. This current $8.34 billion market will likely generate increased interest in the coming year.

3.   Smart Wastewater Management

With increased environmental regulation, climate change, aging infrastructure, and the need to improve customer service, cities are now turning to “smart,” data-driven solutions to improve their wastewater systems. These solutions allow operators to detect infiltration and inflow, prioritise actions, quickly respond to system failures, and apply predicative modeling. In 2017, there will be a growing shift towards smart wastewater solutions. For instance, the latest SWAN research report shows how four U.S. cities are already preventing harmful sewage overflows through data technologies.

4.   Real-Time Water Quality Monitoring

The ability to effectively manage problems associated with water networks, both at the source and at the distribution level, is related to detection capabilities. Contamination events such as the Flint water crisis in Michigan and the recent incident in Corpus Christi, Texas, drew global attention to water quality issues in developed countries. Utilities can proactively manage and avoid potential threats through real-time water quality monitoring. In 2017, an increased emphasis will be placed on the need for such solutions to ensure water network security.

5.   Mergers and Acquisitions

2016 was highlighted by “game changing” deals, which consolidated the industry and formed strategic partnerships. Xylem acquired Sensus and Visenti. GE Water & Process Technologies signed multiple cooperation agreements with WaterSmart Software and Smart Earth Technologies. Also, Belkin, a leading consumer electronics company, announced a joint venture with Uponor to “bring water up to speed with the rest of the smart home.” 2017 will likely produce similar partnerships to offer integrated solutions.

6.    An Automated Future 

Automated solutions for the water sector are evolving and being rapidly deployed. For instance, today, drones can collect data and inspect operations and a wastewater pumping system has integrated intelligence. The industry is changing with the development of cloud computing, big data analysis, and machine learning through remote control systems. These sophisticated systems include technology devices which can interact with one another and feed information in an optimised process. 2017 will continue to see the emergence of new automated solutions which will likely change the face of the water sector.

7.   Industry Collaboration

The importance of the smart water sector will require key industry stakeholders to collaborate and leverage best industry practices. Such synergy will be needed in 2017 in order to best explore ways to address global water sector challenges. To help facilitate and expand these relationships, SWAN, the Smart Water Networks Forum, invites all smart water professionals and enthusiasts to join the upcoming 7th Annual SWAN Conference to be held May 9-10, 2017 in London. This year’s Conference will focus on creating smart, resilient water and wastewater systems from an IT and service perspective. Register today to reserve your spot.

What are your views regarding the future of smart water in 2017? Would love to hear your thoughts: shirley@swan-forum.com.