Artificial Intelligence And Water Cycle Management

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Chapter
Artificial Intelligence and Water
Cycle Management
Carmine Massarelli, Claudia Campanale
and Vito Felice Uricchio
Abstract
Artificial intelligence applications play a crucial role in improving
environmental quality from all points of view. Digital technologies have
revolutionized our way of life as they are permeated to a capillary level in our daily
life. On the other hand, the data produced every second cannot be managed by
a human mind due to a certain physical and temporal impossibility, so artificial
intelligence, algorithms written by men to perform human reasoning, they can
accomplish this arduous task. In this chapter we will address the potential of
artificial intelligence to process important amounts of data and analyze existing
relationships also through a focus on the conservation capacity of one of the most
precious resources: water.
Keywords: water cycle, artificial intelligence, smart communities, collective
knowledge, big data
1. Introduction
When we talk about Artificial Intelligence, we immediately think of cutting-
edge technologies, robots capable of understanding and deciding the actions to
be taken and a futuristic world in which machines and humans coexist. In fact,
Artificial Intelligence and its use are much more real than one might imagine and
are now used in various areas of daily life. In this chapter, we want to discuss the
state of the art of the application of artificial intelligence for the management of
water resources.
The “White Paper on Artificial Intelligence - A European Approach to
Excellence and Trust”, COM (2020) 65, highlights how digital technology has
improved our lives allowing easier access to knowledge and content. Nowadays,
Europe is called to make two transformations (green and digital) which, in the
water management sector, could have common objectives: the first requires to take
actions towards more sustainable solutions, the second consists in directing the
social transformations in such a way that every citizen can take full and maximum
benefit. In line with these objectives, the applications of artificial intelligence
can contribute to preserving the environment and first of all the most precious
resource: water.
Digital and AI are an engine of change that can allow companies to expand
and consolidate their competitive positions in international markets in the name
of sustainability [1]. The challenges faced in recent months and the Commission’s

IoT Applications Computing
2
guidelines [2] aim to promote a series of initiatives, both legislative and
development programs, to guide our society towards a more modern, equitable
model that can exploit better the power of data and AI. One focus will be on
extracting hidden information from available data.
The full exploitation of the significant potential of AI in the water sector to
process important amounts of data and analyze relationships allows supporting
technical and political choices especially during the planning stage. The
management of water resources is particularly important also for the protection
of the natural biodiversity which expresses a profound complexity, which is
reflected in the extraordinary numbers of animal and plant biodiversity and the
environmental parameters that our territory records [3]; but also natural and
anthropogenic threats touch different levels of scale and complexity, causing
alterations and changes in the stability of ecosystems, reducing functionality and
resilience. Mathematical and geostatistical tools for the study of environmental
complexity represent a fundamental tool for understanding the complexity of
processes that can impact on the quality of life, but many times they are not
sufficient [4]. Understanding and analyzing the complex and often imperceptible
relationships between the environment and health are fully part of the issues
that require a joint scientific commitment which, starting from the in-depth
examination of each environmental and anthropic component in its complexity
numerical, leads to an indispensable multidisciplinary collaboration often difficult
to achieve [5]. A multitude of algorithms defined by different expertise and
formalized in Artificial Intelligence systems can contribute to overcoming these
criticalities [6]. We collectively need integrated analysis strategies of environmental
information, which take us beyond the short-term horizon of specific sectoral
knowledge, albeit specialized, aiming at the harmony of knowledge to face the
challenges of protecting the water resources that impact not positively on the
conservation of the environment and the preservation of health. The numbers
involved allow us to understand the indispensability of Big Data analysis with AI
systems: from the 1.000 billion bacterial species that populate the planet and/or our
body to the 100.000 chemical compounds that we disperse into the environment
and that they reach our organs, to the complexities that each of these elements
brings with it individually and in their interaction.
The aforementioned complexity makes the creation of an ecosystem of
excellence based on AI extremely positive, capable of introducing scientific
innovation that can be transferred to the sector of Public Administration and
Companies.
The hope is that the economic support for research can stimulate and reward
the excellences present in the territories, determining a distribution growth of the
communities on AI. I believe it is appropriate to encourage the use of technologies
based on AI in relation to the resolution of application problems in sectors based
on regional strategies designed for innovation areas such as “Human health and the
environment”, as well as “Sustainable manufacturing” with particular attention
reference to water management in production processes.
In particular, concerning the theme of “Human and environmental health”,
Artificial Intelligence can make a decisive contribution in terms of territorial
control through automatic image classification systems (CBIR - Content-Based Image
Retrieval System) that allow using mathematical models, computer implementations
of the content of an image, to simulate the principles of the human visual system
and to interpret the scenes with a semantics capable of recognizing predefined
situations. Such AI applications allow to protect the privacy (as the videos are,
in the first instance, analyzed by machines) and to recognize illegal acts such as
spills of wastewater, disposal of waste solids or liquids, picking activities unfair contract

3
Artificial Intelligence and Water Cycle Management
DOI: http://dx.doi.org/10.5772/intechopen.97385
and infringements environmental of any kind that can hurt the environment and in
particular on water resources. Similar paths can be used with AI approaches through
the application of semi-automatic Change detection algorithms functional to the
evaluation of territorial transformations, enhancing the significant availability of
satellite images acquired by the numerous sensors onboard satellite platforms. In
this sense, the environmental and territorial applications affecting the water sector
refer to the following areas: illicit disposal, illegal building, land-use change, forest
fragmentation, urban growth, loss of agricultural land, availability of resources water
supply in lakes and reservoirs, melting of glaciers, the evolution of watercourses, etc.
2. Materials and methods
2.1 Artificial Intelligence and integrated management of the water cycle
Water, as a primary source of life and as a natural, cultural, economic
and political resource, requires intelligent management and the same artificial
intelligence can assist in the involvement of the collective intelligence dispersed
in citizenship, now evolved into a true Smart Communities, to ensure the
protection, conservation and rational and optimal use in an Adaptive Water
Management regime.
The management of water resources requires the formulation of new paradigms
capable of combining, on the one hand, the protection of water resources, through
new systems and intelligent technologies, capable of increasing the efficiency
in the use of resources and the performances of networks and treatment plants
present in the territory and on the other hand the development of new monitoring
systems distributed and easy to access for widespread control of the quality
status. In both cases, the AI plays an extraordinarily important role, especially
in the presence of massive amounts of data: an increasingly recurring situation
due to the strengthening of water and environmental monitoring systems. The
development of interoperable technologies capable of promoting the dissemination
and exchange of large volumes of information between decision-makers, managers
and citizens, can lead to the creation of widespread knowledge capable of feeding
artificial intelligence systems and aimed at supporting better environmental
protection, ending with a direct impact on the educational and behavioral side. In
this direction, the ubiquity of water, in every declination of social and productive
life, constitutes a natural element to channel information and to consolidate a new
culture that can combine the expressions of AI favoring growth, the sharing of
structured expert knowledge and not and increasing the sense of belonging to one’s
territory and to the natural resources it expresses. The recognition of water, as a
human right, passes through the acceptance of the sense of widespread (public)
ownership and responsibility that must guide both the small daily choices and the
big planning, management, political and administrative decisions.
In line with the definitions of the Water Framework Directive 2000/60/EC and
the updates in progress, and in general with the articulated Community, national
and regional regulatory framework, it is necessary to pursue the objectives of
safeguarding, protecting and improving the environmental quality of water bodies,
as well as the prudent and rational use of natural resources based on management
that is not only sustainable but adaptable to the circumstances that arise also
as a result of global changes: all elements of high complexity that find in AI an
indispensable ally. In this vision, participatory processes that can also be activated
through AI are crucial for triggering paths that lead to the construction of the
economic and social vocation of smart cities.

4
The keyword underlying the concept of AI is “integration” to be achieved at
various levels of knowledge: both in the management of the entire “ water supply
chain “ but also with the active involvement of citizens, management bodies,
research bodies and universities, companies, supervisory authorities, to achieve
management of water resources capable of facing complexities, in line with the
needs of environmental sustainability and reduction of impacts.
A correct understanding of the management of water resources can certainly
not be limited to the simple government of only one of the components such as,
procurement, distribution networks, purification, etc., but it requires a broader
perspective that allows the analysis and definition of coordinated and integrated
strategies that affect the entire water cycle (Figure 1).
Furthermore, even the potentially most efficient strategies have no chance of
success if they are not supported by an “awareness” of citizens who must be directly
involved as actors within a system that cannot ignore virtuous behavior at the macro
level and micro-communities.
It must be emphasized that the constantly growing demographic evolutions,
the consequent increased use of the intensification of crops, the effects of climate
change with the increase in the frequency of extreme events, determine an extreme
urgency in implementing every possible solution (including technological and
“intelligent”) that can make the resource management system as a whole more
efficient, both in quantitative and qualitative terms.
In this context, the research activities on AI that envisage water management in
the implementation of environmental policies, in close connection with the Europe
2020 strategy which has identified smart growth, sustainable growth and inclusive
growth, as engines of the relaunch of the economy.
Figure 1.
Water cycle and pressure factors and areas of application of AI [7]. Legend: 1) climatic change, 2) pollution,
3) physical alterations, 4) over exploitation.

5
The applications of AI in the water management sector, operating on huge
amounts of data, concern the monitoring and management of extreme events
also interface with the “Territory security” area, while others concern the col-
lection and storage of data, their dissemination and their interoperable using
interfaces with the “Home automation and Smart Grids” area, in particular
concerning aspects relating to the improvement of the quality of life in domestic
environments, the reduction of management costs and the transmission of
information through Power Line Communication (PLC) and their storage using
Cloud technology [8].
By way of example, a monitoring system based on AI technologies makes it
possible to more effectively target control actions on diffused loads generated as a
result of an overflow of the network and on production ones, in order to reduce the
presence of metal contaminants and organic and maximize nutrient recovery. The
AI itself, combined with innovative devices for controlling the efficiency of urban
sewers, allows immediate intervention, reducing the risk of contamination of the
unsaturated and groundwater [9]. Precisely for these reasons, these technologies
are particularly functional for achieving good ecological and chemical status in water
bodies, envisaged by the European Directive 2000/60/EC. In response to what is
strongly desired by administrators, managers and citizens, the AI itself uses early
warning indicators that make it possible to identify and suggest mitigation strategies
on a local scale of extreme events attributable to natural factors (e.g. climate change
and consequent changes in the regime rainfall) or anthropogenic (eg illicit disposal or
accidental spills).
AI can be decisive in identifying and managing adaptation guidelines in relation
to the climate changes underway. In particular, it can be useful for:
• water supply management sector:
○ control of leaks, orienting measurement strategies and priorities and the
most effective types of intervention to reduce water dispersion;
○ the definition of investments in water networks and infrastructures,
supporting a holistic water policy that takes into account an extremely large
number of technical, managerial, social and economic variables;
• water resources management sector:
○ the promotion of the natural conservation of water by orienting the areas
in which to favor it both for employment opportunities and for the reduction
of hydraulic risk;
○ the aggregation of fragmented surveillance activities between the
different management and control bodies, also in order to improve the
quality and use of information;
○ support capacities in adapting to extreme climatic events, in particular as
regards the control of floods and drought;
• transversal sectors for example in relation to climate change:
○ the efficiency of water use in all sectors and guaranteeing sustainable
withdrawal and supply of freshwater also to reduce conflicts of use and to
address water scarcity in the short, medium and long term;

6
○ support and promote inter-sectoral, regional, national and sub-national
policies on water management and quality to increase the resilience of water
supply, treatment, storage and transport systems as well as hygiene systems,
ensuring adequate knowledge and implementation of hygiene practices;
○ support the adoption and implementation of a risk-based approach in the
water and sanitation sector (ie water safety plans, sanitation safety plans),
including management of data on diseases, the design of early warning
systems based on projections of distributions pathogens, emerging chemical
contaminants and/or subject to ordinary control;
○ support the modeling and monitoring of hazards, including algae blooms
and the production of toxins in the aquatic environment;
○ avoid the effects on water quality due to floods, etc.
As better specified below, in urban and semi-urban areas, AI can also intervene
effectively in the urban wastewater purification sector, orienting technological
applications to improve the efficiency and versatility of plants and favoring low
environmental impact technologies, in terms of occupied surfaces, production of
sludge and odor emissions, aimed at maximizing energy recovery and the recovery
of raw materials and in particular nutrients and biofuels [10].
2.2 Smart devices in the home: data source for AI applications
The availability of sensors in the home, interfaced via Wi-Fi network to routers
or smartphones and computers, allows to acquire important amounts of data that
can be used both for the benefit of the individual user, but also and above all for
the benefit of the manager, allowing responsible management of consumption,
maintenance of the plants and networks as well as the operating pressures in the
different time bands.
In addition, the intelligent management of water distribution systems allows
ample space for the introduction of innovations in the name of water-saving and
environmental sustainability, obtaining useful advantages in terms of monitoring
and optimization of resources.
Technologies based on microelectronic applications make it possible to create
multiple systems of specialized micro and nanosensors, capable of monitoring in real-
time the main physic-chemical parameters that establish the characteristics of the water.
Among the many types of sensors available or in advanced development we
remember in particular:
• selective ion field-effect transistors (ISFET) and enzyme-modified field-effect
transistors (ENFET) for the measurement of pH, concentration of nitrates and
ions of alkali metals and halides such as Ca and Cl, of surfactants anionic and
cationic, pesticides and for monitoring the level of fertilizers in the soil;
• potentiometric sensors with a polymeric membrane with selective ionic
planar electrodes used for the determination of the presence of organic ionic
pollutants;
• potentiometric sensors based on amorphous chalcogenides for the detection of
the presence of heavy metals, including Cu, Pb, Cd, Ag, Cr and Fe, even at very
low concentrations of the order of nanomoles;

7
• semiconductor/graphene/metal (SGM) thin-film devices for the detection of
traces of organic contaminants;
• laser interferometry sensors that measure the change in the refractive index
of water with respect to the reference value determined by the presence of
chemical contaminants, capable of detecting the main chemical contamination
agents at the level of one part per million and acting as localized early warning
systems;
• MEMS (Micro- Electro - Mechanical Systems) acceleration sensors consisting
of micrometric mechanical transducers to measure the variations in water
flow with an integrated wireless data transmission system with very low
consumption;
• arrays of MEMS sensors (Micro- Electro - Mechanical Systems) with
enzymatic amplification for the detection of bacterial agents by means of
amperometric techniques.
The dimensions of these sensors, all of the order of more than a few millimeters,
allow them to be installed in smart meters and, in perspective, directly in the
flow limiters of the taps according to advantages (water conservation, energy
saving) and disadvantages (initial investments, reflective surfaces and extremely
bright colors for infrared sensors) [11] also from the point of view of the loss of
transmission signals [12].
For data collection, industrial research has already developed numerous types
of computational models [13], which, however, are susceptible to important
innovations related to the measurement of consumption with quantitative
assessments. Sensors installed in the same meters have to transmit data wirelessly
to second-level data collection systems, similar to the cells of the cellular telephone
network, in turn, connected directly to the data collection and processing network
of the water network operator. Similarly, techniques borrowed from artificial
intelligence are mature that can allow data to be collected from smart meters to
transmit them (after appropriate processing) directly to the network manager,
transparently using the decentralized network made up of the smartphones of users
who are nearby. This could avoid the implementation of second-level data collection
systems, with significant benefits at the level of complexity and overall cost of the
system. Such projects, but on a much smaller scale, have already been developed
and implemented both in the Netherlands and in Singapore. A Dutch water
distributor, has implemented a“smart grid” of sensors for real-time monitoring of
water quality at a chemical and bacteriological level, considering, in particular, the
presence of pesticides, hormones and pharmaceutical products. The sensors are
developed are mounted in flow cells crossed by the distribution water. But research
continues with the development of increasingly innovative technological solutions
and increasingly providing useful information to artificial intelligence systems [14].
The chemical-bacteriological characteristics are monitored in real-time by
measuring the change in the refractive index of the water using a laser beam and
comparing it with the seasonal reference values for pure water. All this makes
it possible to build an“early warning” system capable of dealing with water
contamination events in real-time within the macroscopic grid made up of the
installed sensors. The system incorporates wireless transmission modules that allow
to automatically transmit the measured data to the operator. In Singapore, the local
water manager, the Public Utility Board (PUB), has also implemented a similar
smart grid using the same sensors [14].

8
Ultimately, these low-cost smart devices make it possible [12] to achieve
significant water savings through the active involvement of citizens. These devices,
suitably miniaturized and customized, allow total integration with the innovative
information transmission systems as well as capturing the energy necessary for
self-supply.
These low-cost sensors are born with the aim of connecting element between
the Smart Communities and the intelligent government of resources, allowing each
citizen to be an active part in the acquisition of distributed information can be used
both directly (through specific apps) and both with the mediation of interoperable
Artificial Intelligence systems that make it possible to return the information with
high added value to managers and citizens.
The implementation of low-cost sensors that can be marketed through
distribution channels of simple access, allows reaching citizens in a widespread
manner, supporting mechanisms for acquiring information useful both to users/
citizens and to public decision-makers. In this direction, AI systems capable of
reading and interpreting large amounts of data from individual users allows for
precision water management that can be commensurate with each individual user or
even aggregated by the district.
The AI System, acquiring information from individual users on a daily basis,
is able to identify any anomalies in real-time, signaling possible malfunctions
and providing alarm signals. In this direction, AI can be profitably aimed at
implementing efficient systems for controlling and reducing water losses both
in distribution networks and in the home, favoring technological convergences
between the scientific fields of electronics and hydraulics.
2.3 AI in the monitoring of urban waste
The monitoring of discharges assumes particular importance in the context of
water management, both because it is allowed to obtain useful information along
the pipeline in order to evaluate the presence of any illegal connections and illegal
discharges and both because it allows modulating the management of the plant’s
purification as a function of the monitored polluting load and other ancillary
parameters. The monitoring of the hydraulic efficiency of the drainage system,
Figure 2.
Artificial intelligence applications for the expeditious characterization of oils in water [15].

9
the chemical and physical parameters and the functionality of wastewater treatment
plants is an important prerequisite for ensuring the smooth operation on environ-
mental, health, a city economic and social.
In this field too, the main applications of AI derive from the presence of sensors
and the progress of research. Engineers and chemists have made it possible to
develop devices capable of evaluating pollutants present in water such as oils,
hydrocarbons and/or derivatives from a qualitative and quantitative point of view
(Figure 2) [15].
In particular, starting from the acquisition of detailed information on the
quality and quantity of wastewater that passes through a sewer section, it is
possible to obtain useful data referring to events that characterize the functioning
of a wastewater collection system (variations in flow rates and load, anomalous
discharges, exceptional meteorological events). On the basis of the data collected
from chemical/physical monitoring, with the help of AI, it is possible to develop
useful knowledge to build a complete picture on the composition of wastewater,
also identifying the presence of inter-correlation between the different parameters
and users (private, artisanal or industrial) that contribute to the composition of the
wastewater. Elements of innovations and which contribute to confer added value to
Artificial Intelligence applications mainly relate to:
• optimization processes of qualitative-quantitative monitoring of the
wastewater collected in the sewer pipes;
• determination of primary parameters (directly measured by existing sensors)
and secondary (recognizable through specific patterns) and the definition of
their weight on the analysis of the wastewater collected in the sewer pipes;
• progressive refinement of typical artificial intelligence methodologies and
numerical resolution of complex and approximate systems of equations
to study the correlation between the data acquired by sensors and the data
derived from chemical/physical analytical monitoring;
• definition of a model the applicability on a sliding scale to the continuous
monitoring and in real-time of the wastewater in the sewage pipelines
collected;
• system realization of the alert and who cannot afford to intervene rapidly and
in a targeted manner by providing timely, useful information both on-site and
on the modalities and intervention issues.
The monitoring of sewage discharges and the intelligent management of data
with the consequent construction of scenarios, also allows the optimization of
biological purification processes also for the purpose of subsequent reuse of the
effluent of the purification plants. For example in the agricultural sector, within
a broader framework of guaranteeing food safety (ensuring quality agricultural
production), reducing hydrological stress in the summer (characterized by
scarcity of irrigation water of natural origin), reducing pollution of surface and
groundwater (reducing the excess of nutritional elements that flow into the surface
water network and decreasing the pollution of the groundwater by nitrates).
The possibility that non-authorized industrial and/or artisanal discharges
occur in the sewerage network, with high concentrations of chemical substances,
represents a criticality that often occurs and that can affect subsequent purification
processes but also of circular economy (both with reference to waters than mud).

10
In relation to the type, to the masses and concentrations of quests and chemicals, in
fact, such recovery processes may be more or less efficient or even be inhibited. The
identification and subsequent elimination of unauthorized discharges are therefore
essential for the success of nutrient recovery processes and can be carried out
through the combination of modeling and qualitative-quantitative monitoring of
the sewer network. It should be noted that these discharges have the characteristic
of being intermittent and irregular over time and can also occur in points other
than those of the production activities that generated them. Their identification is
therefore complex and is difficult to detect through ordinary sampling and analysis
methods. However, the availability of smart sensors interfaced with AI systems can
gradually refine their localization and therefore selectively organize and improve
the control activity (also by modifying the location of the sensors) until the exact
identification (even in flagrant) of the unloading operations.
Further monitoring element concerns the sediments into the sewer, which is a
very important problem because of the considerable hydraulic and environmental
uncertainties associated with the deposits. The accumulation of sediments in
the sewer can, in fact, cause considerable hydraulic problems connected to the
reduction of the flow capacity of the canals and, consequently, to the increase in the
risk of flooding in urban areas; it can also be the cause of significant environmental
and health problems, due for example to the resuspension from the bottom of the
channels of solids and associated pollutants with consequent discharge through the
overflow devices during the most intense meteoric events. In addition, phenomena
of anaerobic transformation may occur, linked to the establishment of septic
conditions within the accumulations of solid material, with the development of
corrosive phenomena, but also with the formation and release of toxic substances
and bad smells. Furthermore, the development of management methods of sewage
sediments that guarantee a regular solid flow to the treatment allows to optimize
the management of purification processes and, at the same time, to act on some
of the criticalities that are typically induced by the provision of rainwater on the
functionality of urban purification plants. Even with reference to these critical
issues, AI support can be strategic.
3. Results and discussion
3.1 The perspectives of AI in the water sector
The AI accelerate the design of systems procurement, distribution, treatment
and reuse of water, using an increasingly widespread use of computer technology
and equipment monitoring. Advanced diagnostic tools make water management
more customized and intelligent in the water sector. In addition the, in fact, a
raised will allow you to overlay information and animations on real-world images
with model projections arising from AI applications to help in activities on an daily
management and planning and to manage the resource more efficiently. The Virtual
reality (VR) can make “viewable” projections and modeling predictions on the
trend basis and patterns of use of water resources or on climatic scenarios assumed,
the augmented reality (AR), however, superimposes information generated by
a computer to the real world, in quick time. The AI facilitates the integration of
these worlds, analyses the incoming data stream, managing large information
relating to the scene and superimposes to do it with big data, images or animations
relevant, also in 3D. In the near future, we will be able to visualize the system we
are imagining to design with the possibility of visualizing the efficiency of use of
the different scenarios. Engineers, chemists, biologists, designers, etc. they will

11
have new tools to develop collaborative projects, involving expert technicians
and young professionals and evaluating the results of design choices in different
scenarios of use.
In the coming years, the offer of AI directed to researchers and companies will
be able to expand further thanks to programs that are simple to use, to be used
in the design, promoting the so-called “fourth industrial revolution”: a systemic
transformation that can have direct impacts also in the management of the waters.
The AI can determine the output of the information correct exactly at the
moment when it is needed, such as when it is necessary to make choices, reducing
the chances of error and, increases efficiency and improves the productivity.
Contextualizing to the water sector, the intervention of the AI will be able
to optimize the distribution or disposal of water, make the removal of polluted
substances more efficient [16], facilitate the reuse of purified wastewater [17],
providing real-time images of the areas in which criticalities occur.
In addition, in the last years, artificial intelligence has started to increase the
efficiency of the design and synthesis phases of new materials that can also be used
in the water sector, making applications faster, easier and more economical, for
example, by reducing the use of chemicals or sludge.
In AI, evolutionary machine learning algorithms analyze all relevant
experiments; both those that worked and those that failed, effectively preventing
further possibilities for error. On the basis of the experiments carried out and the
consequent success, the algorithms foresee potentially useful paths. There is no
machine learning tool capable of doing all this alone, but AI-based technologies are
also spreading in the design of systems and structures for water management such
as reservoirs, adductors, lifting systems, distribution, sewer networks, purification
plants, etc.
The management of the integrated water cycle is transversal to numerous
scientific fields and artificial intelligence is also expanding in all life sciences
because it helps to identify patterns in complex data sets [18]. The water sector,
in particular, allows for huge amounts of data with which to train algorithms,
offering significant development opportunities. In fact, artificial intelligence is
very successful when there is the possibility of a training set of particularly relevant
dimensions. The deep learning and artificial intelligence tools are amazingly
powerful that will provide important answers, especially when interfaced to smart
Technologies able to acquire data in multiple areas of the integrated water cycle [19].
Even more promising prospects derive from quantum computer applications,
which in a few years could greatly exceed the performance of the classical ones,
thanks to the significant work on specific hardware and algorithms, exploiting
quantum mechanics to perform the calculations and returning greater and further
the force on AI.
4. Conclusions
The AI may soon create a new form of superintelligence life. Nevertheless also in
the field of water management is useful to plan a close relationship synergy between
human and artificial intelligence so that it becomes a useful ally, using a shared
ethical approach, transparency of governance of innovation processes and the pos-
sibility to citizens to exercise their rights and express their opinions by contributing
to the growth of artificial consciousness and collective knowledge.

12
Author details
Carmine Massarelli*, Claudia Campanale and Vito Felice Uricchio
Water Research Institute,National Research Council of Italy, Bari, Italy
*Address all correspondence to: carmine.massarelli@ba.irsa.cnr.it
© 2021TheAuthor(s). LicenseeIntechOpen.Thischapterisdistributed undertheterms
of theCreativeCommonsAttributionLicense(http://creativecommons.org/licenses/
by/3.0), whichpermitsunrestricted use, distribution, and reproductioninanymedium,
provided theoriginal workisproperlycited.

13
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