=Paper=
{{Paper
|id=Vol-2105/10000317
|storemode=property
|title=Information-Communication Technologies of IoT in the "Smart Cities"
Projects
|pdfUrl=https://ceur-ws.org/Vol-2105/10000317.pdf
|volume=Vol-2105
|authors=Oleksii Duda,Nataliia Kunanets,Oleksandr Matsiuk,Volodymyr Pasichnyk
|dblpUrl=https://dblp.org/rec/conf/icteri/DudaKMP18
}}
==Information-Communication Technologies of IoT in the "Smart Cities"
Projects==
https://ceur-ws.org/Vol-2105/10000317.pdf
Information-Communication Technologies of IoT in the
“Smart Cities” Projects
Duda O.M.1, Kunanets N.E.2, Matsiuk O.V.1, Pasichnyk V.V.2
1 Ternopil Ivan Puluj National Technical University, Ruska str., 56, Ternopil, Ukraine
2 Lviv Polytechnic National University, St. Bandera str., 12, Lviv, Ukraine
vpasichnyk@gmail.com; oleksij.duda@gmail.com
Abstract. In the computing environment of the "smart cities" projects actually a
number of complex devices are operating. They are implemented in physical ob-
jects connected to the Internet. They, in turn, support a set of diverse
communication means and protocols for data exchange. Such system integration
ensures efficient supply of a wide range of services, forming due to the
combination of both virtual and real physical devices, innovative services formed
on the basis of modern information and communication technologies.
The authors analyzed existing in modern “smart cities” projects implementa-
tions and architectures developed on the basis of the IoT,, generalized them and
defined the principles of their complex application with information technologies
of other classes such as cloud computing, Big Data, analytical data processing
technologies, as well as their integration with information models of
heterogeneous processes and systems presented in the form of databases, stores
and data spaces.
The authors designed and implemented the information-technological plat-
form for telemetric accounting of water, heat, gas and electricity consumption
focused on the implementation in the "smart cities" projects. Several generations
of digital devices for telemetry data transmission with the ability of connection
to the Internet network by means of network interfaces (LANs) and mobile
network are used in the base version of the offered platform.
The data concerning the implementation in the leading Ukraine technical uni-
versities of the specialty "Information Systems and Technologies" majoring in
"Internet of Things" with the curricula providing the study of "Internet of things
for smart cities" subject are given.
Keywords: Internet of Things, Big Data, smart city.
1 Introduction
The concept of Internet of Things (IoT) was offered by Kevin Ashton in 1999, when
the distribution of devices with intelligent sensors integrated with the appropriate com-
munication tools started. Internet of Things are defined as self-organized systems hav-
ing no conceptual limitations, being the part of the convergent systems and are designed
to increase the efficiency of processes in these systems. In its turn the IoT-applications
[1] are defined as sets of connected or integrated objects or devices into the environ-
ment. These objects or devices use the standard communication protocols for infor-
mation exchange. The results of the carried out investigations prove that at present the
number of connected Internet of Things, exceed the number of the planet population
and their variety and diversity include a lot of devices which can be used as unified
block solutions while implementing the innovative projects of the future “smart cities”.
Two areas of the “smart city” concept were clearly defined by the researchers and
experts working out the real innovative projects for implementation in modern
cities. [2]. On the one hand, it is a methodological view on the technologically concen-
trated information and communication platform effectively providing the implementa-
tion of the key computing algorithms and IT service complexes and systematically in-
tegrates numerous diverse devices built into specific city objects and urban environ-
ment as a whole. On the other hand it is more socially concentrated concept focusing
on the methods, means and ways of formation of the new knowledge-based urban so-
ciety and innovative high-tech urban economy. A reliable bridge between them are the
processes of selection and effective use of data concerning the urban activities, their
complex analysis in order to generate powerful tuples of new information services de-
signed to optimize the wide range of the processes of the modern city functioning re-
lated by specialist as hypercomplex system. Technology of Internet of Things (IoT) is
regarded by many researches and experts as one of the key information technologies
focused on effective implementation of such functions.
The term "Internet of Things (IoT)" in early professional publications was defined
as Іnternet Everything, Іnternet of Everything, Іnternet of People, Іnternet of Signs,
Іnternet of Services, Іnternet of Data, Іnternet of Processes [3].
In the paper [4], IoT is interpreted as a network of related physical objects. “IoT”
integrates people, processes, data and things in order to make the network connections
more relevant and valuable than ever before, transforming information into action and
creating new areas of application, wider experience and unprecedented economic op-
portunities for enterprises, individuals and countries in general.
Internet of Things have sets of characteristics formed in accordance with the set tasks
in a particular research area. Because of the incomplete formation of the terminology
base, it is reasonable to provide the basic definitions and terms characteristic to modern
innovation class of information and communication technologies. The basic concept of
Internet of Things, technology is the implementation of the paradigm according to
which "almost all Internet of Things are interconnected" transformed into the imple-
mentation of the following characteristics:
- Convergence provides the ability to process arbitrary types of data (text, photos,
video and audio, etc.) by means of any technological device.
- Connectivity - allows you to connect anywhere and anytime.
- Connection - provides the means for communication with any network in any way.
- Content - available from anywhere at any time, without content restrictions.
- Calculations – are available to everyone who has knowledge concerning the prin-
ciples of operation without limitation of duration and time of access
- Collections - are the set of services or any particular service available for solving
an arbitrary list of tasks.
In paper [5], the “Smart cities” application architecture is presented in order to man-
age the data obtained with IoT devices, and in papers [6], [7] the connection scenarios
of IoT devices using Service-Oriented Architecture (SOA) are concidered. Papers [8],
[9], [10] provide the frameworks and control system for the analytical processing of
BigData of the "Smart city", and paper [11] describes the platform for the provision of
administrative services. Information on service-oriented cyber-physical systems for
mobile applications of the "Smart city" is given in [12], and for production systems in
paper [13]. The multi-level cloud architecture model is described in [14]. In a number
of works, the service-oriented approach is actively used in the IoT architecture [15], the
integration of IoT devices into traffic monitoring systems [16] and open data from
IoT-devices [17], in the systems for monitoring environmental safety, health care and
safety (EHS) industries [18], automobiles parking [19].
Creating applications on the IoT platform in the “smart cities” projects it is reason-
able to formulate the comprehensive systemic view based on procedures of the unifica-
tion of relative architecture, innovative information-technological principles and meth-
ods of Internet of Things interaction.
2 “Smart city” – Basic Concept
Information and communication technologies are focused on solving problems con-
nected with the growing complexity of urban complexes, urban infrastructure networks,
urban population, and stimulate the implementation of the innovative "smart cities"
projects of the future. The concept of the "smart city" is intended to be implemented in
the complex urban environment including a variety of complex infrastructure systems,
the behavior of numerous urban communities, innovative advanced technologies, social
and political structures, a diversified economy, etc. The "smart cities" projects provide
for the implementation of sound management methods for urban components and sub-
systems, such as transport, health care, education, power engineering, the system of
factors affecting protection and improvement of the environment quality, etc.
Over the past few years, the unprecedented increase in the amount of various types
of information flows, which source are social networks [20] and the Internet, that in its
turn caused the emergence of the new class of information technologies such as Internet
of things technology (IoT) [21], [22]. Information flows from social and sensory net-
works can be integrated in order to search for hidden correlations and associations to
extend the diversity of information and services provided in the "smart cities". Infor-
mation-technology applications of such type are implemented in a number of innova-
tive projects such as Wiki City [23], City Sense [24], Google Latitude [25]) and in the
development of the diverse social and urban sensor networks [26], [27], [28]. The ad-
vantages of the integrated use of information resources of social networks and
information flows generated by numerous Internet applications are clearly
demonstrated in the "smart cities" projects , financially supported by the European
Community [29], [30].
The rapid processing of Big Data of poorly structured data in the "smart cities" pro-
jects involves a wide range of activities concentrated on the selection, transmission,
transformation, storage and analytical processing of information flows concerning the
state and processes of environmental pollution, weather, accumulation and utilization
of wastes, water supply and other natural resources, heat and energy sources, sensory
of city events and incidents. At the same time, mining and transformation of data con-
cerning urban life from social networks are carried out. The technologies of data trans-
mission and selection formed by urban engineering components, are based particularly
on the use of wireless sensors integrated into numerical industrial and service infor-
mation-technological applications. The combination of data obtained from both physi-
cal sensors and social sources contributes to the formation of full picture of city-wide
processes, complexes, subsystems and structures.
Information systems of the "smart cities" on the basis of modern information and
communication technologies provide powerful, intellectual support both to the urban
population in general and to municipal authorities, in particular. [31] Figure 1 repre-
sents the basic components of the modern innovative concept the "smart city".
Smart Industry Smart transport Smart environment Smart security
Smart energy and Smart houses and
Smart waste disposal Smart mobility
resources offices
Smart city
Smart governance Smart culture Smart economy Smart tourism
Smart social
Smart people Smart education Smart health care
integration
Fig. 1. Components of the "smart city" concept
Analyzing the methodological principles of the development of the integrated infor-
mation system of the "smart city" of the future the high level of such systems complex-
ity should be taken into account. In general, the modern system of informational-tech-
nological support of the main business processes, maintenance of urban engineering
infrastructure networks, formation and maintenance of procedures for making optimal
decisions at the level of municipal management, efficient formation and functioning of
the city socio-communicative environment can be referred to the category of hyper-
complex systems. One of the most effective tools for such systems analysis is the struc-
tural functional-decomposition approach, the main subject of which is to analyze the
basic functions of the separate components of the hyper-complex system, the means
and methods providing the performance of these functions and implementing the hyper-
complex inter-component interaction of elements of a functionally separated part (sub-
system) of the general hyper-complex system. In this case the selection of such func-
tional complexes as the "sensory" subsystem of the "smart city", the network infrastruc-
ture of the IoT technologies cluster in the "smart cities", integration of IT technologies
with Big Data and Cloud computing technologies, data stores and spaces, as well as
Data mining and OLAP are concerned. Only such generalized system approach to the
construction of the comprehensive “smart city” information system of the future can
generate significant innovative energy effects from its implementation and large-scale
implementation with new qualities for its inhabitants living conditions.
3 Sensory Structure of the "Smart City".
At present the primary sensor complexes implemented in specific physical objects or
numerous smartphones of the city inhabitants and guests playing the role of socio-com-
municative mobile sensors, are the informational-technological foundations of IOT
technologies cluster in the "smart cities".
Sensors implemented in systems and domain elements of the "smart city" concept
are the main sources of generating heterogeneous information sets. Information from
sensors is collected due to IoT devices connected to the communication networks.
Smartphones connected to mobile networks GSM / 3G / 4G are used for selection and
transmission of socially oriented urban data. The data collected in such a way are pro-
cessed and analyzed in the "smart city" analytical data processing center which virtual
prototype is reasonably to deploy on the cloud platform using cloud data stores [32].
The combination and consolidation of data obtained from the sensors in complexes of
the domains of different types make it possible to improve significantly the parameters
of services and information-technology services provided by the "smart" urban pro-
gram-algorithmic applications (Fig. 2).
Smart City Data Alytical Processing Centre
Tools for analytics and
Cloud Data Storage
intelligent data processing
Mobile and network technologies
Service applications
for connecting to the Internet
GSM(3G,4G,5G) WiFi WiMAX LAN Web-interfaces Mobile
IoT
For mobile Users
For stationary devices
devices
Counters and sensors
Fig. 2. Virtual "cloud prototype" of the “smart city” analytical data processing centre
The examples of such information-technological applications formed on the basis of
functional sensors physically implemented in real objects, as well as socio-oriented
sensors such as smartphones, tablets, etc. are:
- "smart illumination" - designed to reduce energy consumption [33] accom-
plished due to IoT light sensors use [34] along with the comprehensive system
for street illuminating adaptation [35].
- "smart noise control" - designed to detect noise sources and identify the points
of excessive noise pollution of the urban environment in real time mode [33].
- "smart surveillance cameras" - designed to monitor the security situation in or-
der to track suspicious actions that may endanger the city residents or municipal
property [36].
- Modern sensors in the "smart cities" projects are able to generate Big Data. Con-
textual analysis of data obtained from sensors for identifying hidden correlations
plays a key role in the development of "smart" urban information-technological
applications [37].
Nowadays the implementation of a large number of projects concerning the devel-
opment of multi-type monitoring systems particularly for tracking the location of bicy-
cles, cars, and free space in public parking, etc. using sensor complexes and IoT infra-
structure is carried out (Fig. 3).
Data Smart City IoT platform Network interaction
Data Smart City Applications Application Layer
Integration
Transport Layer
Data Cloud Services
Management
Computation Analytics Storage
Network Layer
Data
Processing
Addressing and Quality of Service MAC Layer
Data
Collection Sensing and Connectivity Physical Layer
Fig. 3. IoT infrastructure along with the data and communication stacks
Sensor devices and sensors, of RFID and WSN technologies are the main ones in the
given architecture at the "sensory and connection" level. RFID technology provides
automatic identification of network objects. Wireless Sensor Networks (WSN) are able
to collect, process, analyze and distribute data generated in different environments [38].
Due to the availability of compact, cheap, intelligent and widely used sensors (such as
built-in video cameras), WSN plays an important role in implementing IoT-based urban
applications.
The development of social networks and the widespread use of the smartphones de-
fined the new sensory paradigm. According to it the active participation of citizens in
the processes of primary data files formation and their use for management and inter-
action with the municipal authorities is rapidly growing.
The addressing system provides a unique identification of objects allowing to rec-
ognize hundreds of thousands of devices and providing the ability to control them re-
motely. All devices connected to the network are uniquely identified by their location
and have functional able to provide scaled addressing space. It is effective to use IPv6
protocol having the extended addressing space and providing new IoT-devices with
unique addresses. The protocol is compatible with state-of-the-art devices and commu-
nication technologies, provides versatility, stability, scalability, manageability and ease
of use when applied in the devices with limited resources [39].
For the implementation of the "smart city" comprehensive information system of the
future wide networks of stationary and mobile sensors, video cameras, street emergency
stop buttons and a number of other devices are expanded on the basis of the IoT. The
types of sensors used in the “smart city” information systems [40] and by the munici-
pality, the city residents and guests to make optimal decisions based on intelligent anal-
ysis of poorly-structured Big Data in real-time mode are shown in Fig.4.
Environmental Weather and Water
Pollution System Smart Parking Smart Home
Sulfur-di-oxide Temperature Free Slots Gas Consumption
Carbon-mono-oxide Rain Total Slots Electricity
Consumption
Carbon-di-oxide Humidity Car numbers
Temperature Water
Noise River/ Lake water Parking time
Smoke
Ozone Pressure
Pollution Data
Other Wind Speed
Surveillance and
Veshicular Traffic Router data of Safety
Sensors integrated in Smart IoT- Pedestrian movement
Auto systems Video Surveillance
Time
Emergency Help
Location Internet Buttons
Other
Data storage and processing
Data storage Analysis Intellectual processing
Fig. 4. Sensory structure of the "smart city" using IoT
In "smart houses" as the structural components of the "smart cities", telemetric data
from sensors in real-time mode are constantly controlled. Smoke and temperature sen-
sors are used to detect fires, and flowmeters of different types provide monitor pro-
cesses for electricity, water, gas and heat consumption. "Smart" cars parking places
implement the function of intelligent vehicle driving. Meteorological monitoring sys-
tems provide data concerning the state of weather, external temperature, precipitation,
humidity, atmospheric pressure, wind speed and water level in rivers, lakes and other
urban ponds. Usually, rains and melting snow cause floods, so meteorological sensors
are used to predict the level of water in reservoirs.
The subsystem of data collection dealing with the state of the environment can gen-
erate from the messages about gas pollution, the level of ozone and noise in the city.
4 Generalized Architecture of the "Smart City" Information-
Technological Platform
The investigations carried out by the authors made it possible to formulate and specify
the basic requirements for the generalized architecture of the "smart city" information-
technological platform. The reference architecture model developed according to the
indicated requirements provides effective implementation of a wide range of infor-
mation-technological innovations, such as cloud computing, IoT, BigData,
Data Mining, information models of processes and systems in the form of databases,
data stores and data spaces in certain realizations. Figure 5 represents the generalized
architecture of the “smart city” information-technological platform using the IoT tech-
nology cluster roughly decomposed into 6 levels: sensory level, network level, receiv-
ing level, storage, processing and visualization level. The sensory level in its turn is
relatively divided into three components. The sensors sublevel contains water, gas,
electricity and heat consumption meters. It is supposed that both mechanical and smart
meters of consumed resources and services can be used in the system. It is predicted
that the indicators of mechanical flow meters are recorded by means of impulse con-
verters. The counters are systematic-connected to IoT devices on the basis of the indus-
trial M-BUS protocol, RS485 and RS232 interfaces, analogue and pulse inputs repre-
sented in the appropriate sub-level (Interfaces for connecting sensors).
Mobile Web-applications Data Visualization
Billing systems
applications and interfaces Layer
Smart City Cloud Platform
Processing
REST-services REST-Services
Layer
Tools for analytical
Data
for interaction for interacting Offline Real-time
Data view tools with billing with mobile
Web-servers
systems applications
processing of data Analytics Analytics
Distributed Scalable Data Warehouse
Storage
IoT
Layer
Data
Security
DB «Electric Power» DB «IoT-Devices» DB «Gaz» DB «Heat» Resource
tools DB «Water»
Mapping
REST Services for Interacting with IoT Devices
Retrieve
Layer
Data
REST-Services for REST-Services for REST-Services for Electricity REST-Services for REST-Services for Combined
Water Flow Meters Gas Flow Meters Flow Meters Heat Flow Meters Flow Meters
Internet
Network
Layer
Smart City Ubiquitous Network LAN 3G/ 4G WiFi WiMax BlueToth
IPv6 6LoWPAN Zigbee Z-Wave Thread NFC Sigfox Neul LoRaWAN
IoT Device IoT Device IoT Device IoT Device IoT Device IoT Device IoT Device IoT Device IoT Devices
SubLevel
Sensing Layer
Interfaces for connecting
M-BUS RS485 RS232 Analog input Pulse input
sensors
Sensors
Pulse Meter Pulse Meter Pulse Meter Pulse Meter SubLayer
Water Gas Electricity Gas Electricity
Water Smart Gas Smart Electricity Smart In Heat Out Heat Water Smart Smart
Counter Counter Counter Counter Counter Counter Sensor Sensor Counter Counter Counter
Fig. 5. Generalized architecture of the the "smart city" information-technological platform
At the next sublevel the IoT-devices are provided assuming that different types of IoT-
devices with connected meters can be implemented. In order to take into account heat
consumption indicators, the use of input and output heat sensors is predicted. In this
case, the amount of the consumed heat is calculated as the difference between their
indicators.
In a generalized architecture, the network layer contains a widespread urban network
of the “Smart city” which by means of LAN, 3G / 4G, WiFi, WiMax or BlueTooth and
IPv6, 6LowPAN, ZigBee, Z-Wave, Thread, NFC, Sigfox, Neul, or LoRaWAN com-
munications technologies provides access of IoT devices to the Internet network.
The next three levels are implemented on the basis of on the "smart city" cloud plat-
form. At the data acquisition level the REST-services for interacting with IoT-devices
can be implemented either as specialized (for a certain service, such as water, gas, heat
or electricity supply), or combined flow meters. The data sets collected at this level
enter the next level and are stored in the distributed scalable data store where the cor-
responding set of information entities is generated for each IoT-device. Information
entities can be grouped into thematic databases. Offline and real-time analytical pro-
cessing tools and data entries such as REST-services for interaction with billing sys-
tems, REST-services for interacting with mobile applications and web servers are
grouped on the Data Processing Layer. These tools are used to interact with billing
systems, mobile applications, web applications, and interfaces located at the visualiza-
tion level. Represented in the generalized architecture of the “smart city” information-
technology platform Security tools and the IoT Resource Mapping technologies cluster
provide security procedures, access rights differentiation and IoT-devices identifica-
tion.
On the basis of the offered generalized architecture the authors have designed and
implemented the information-technological system of telemetric recording of water,
heat, gas and electricity consumption focused on the implementation in the "smart cit-
ies" projects. Several generations of digital devices for telemetry data transmition with
the abilities to be connected to the Internet by means of network interfaces (LAN) and
mobile networks were used in the basic version of the offered system. Sensors can be
connected to the digital devices using interfaces for connecting sensors.
Newer generations of digital devices can communicate with the REST-service on
the remote web server in a dialogue mode. The received data sets concerning consumed
services are stored in the distributed scalable database. The next versions of the system
predict significant expansion of its functional possibilities using the architecture and
data exchange methods typical of IoT-technologies.
5 Educational Course "Internet of Things for Smart Cities"
The citywide information system of integrated monitoring and analysis of payments for
consumed resources along with the maintenance of production-business functions can
serve as an effective educational-methodological tool in educational processes increas-
ing the urban community "knowledge potential" dealing with the problems of econom-
ical consumption and the efficient use of the wide range of resources and services . The
processing and analysis of Big Data from sensors, meters and flow meters allows us to
develop recommendations for consumers regarding optimal time profiles, operating
modes of household equipment and predicted volumes of necessary resources.
At the same time, this system can be used as the training-laboratory stand model for
conducting classes with students of a number of specialties, implementation of real
course projects and simulation of many processes requiring the study and analysis in
the "smart cities" integrated information systems based on information-technological
IoT platform.
According to firm CISCO [41] report the IoT market by 2022 will be $ 14.4 billion
and will make it possible to:
- improve the customer experience;
- reduce the time needed from the idea of new product creation till its market
appearance (time-to-market);
- improve the ways of delivery and logistics;
- increase the employees productivity;
- use the assets effectively while reducing overhead costs.
Training new generation of specialists who are aware in the IoT field is becoming
more and more important.
New educational and professional curricula for training specialists in the field of
“Information Technologies” are developed in the Universities of Ukraine in coopera-
tion with IT-firms. New methods and approaches to the training of respective Bachelors
and Masters at the Universities are changed.
The National University “Lviv Polytechnics” implemented the joint project of the
University and the Lviv IT-cluster concerning creation of educational and professional
curricula on specializations "Internet of Things", "Artificial Intelligence Systems",
"Data Science".
In the Ukrainian Catholic University implemented the innovative Bachelor's curric-
ulum in computer sciences developed in cooperation with the IT-industry representa-
tives.
The specialists training in the educational-professional curriculum on specialty "In-
formation Systems and Technologies" was initiated by a number of leading Ukrainian
universities. One of the Master's educational program specialization for specialists
training is particularly the ‘Internet of Things”. Within the framework of the above
mentioned program, the course "Internet of Things for smart cities" was introduced to
the Master's level curriculum. It is based on the knowledge gained in such disciplines
as algorithms and data structures; object-oriented programming; database and
knowledge; distributed and parallel computing systems; data store; intelligent data anal-
ysis for business analytics; web technologies and web design; architecture of computers
and networks; information technology for monitoring and data analysis; information
systems design.
Introduction of the "Internet of Things (IOT) for the “Smart cities" course into the
curriculum makes it possible to use the offered engineering-technical solutions in the
process of Masters training in the educational professional program of "Information
Systems and Technologies" specialty.
The "Internet of Things for smart cities" course study involves carrying out the cycle
of laboratory works, the course project, as well as the development of series of analyt-
ical papers.
The topic of the laboratory work is connected with information- technological sup-
port of infrastructure engineering networks and life support systems of the city. These
are particularly the information systems for recording of gas, water, heat, electricity
consumption and other expenses.
The specified laboratory works of the cycle involves the execution of a number of
tasks, such as the construction of structural schemes of the relative subsystems, con-
sisting of four levels (measuring level, messages transmission level, data storage level
and data presentation level).
At the measuring level the selection and interpretation of the primary measuring
converters used to select data concerning the consumption of the relevant resources is
predicted. It motivates the student to give arguments about the design decisions he or
she made.
At the data transmission level the student analyses the available decisions, selects
and explains the choice of the controller, carries out the comparative analysis of cellular
network parameters.
At the data storage level the student analyzes the work of data acquisition modules,
data loads, selects certain FTP-server, Web server and DBMS.
At the presentation level the student offers solutions concerning the peculiarities of
the system web interface.
It should be noted that the topics of these laboratory works can be related to the most
diverse aspects of the city functioning.
The students are offered to develop one of the information systems as topics for
course project in "Internet of Things (IoT) for smart cities" course:
- monitoring the availability of the city car parking places;
- monitoring the measurements of vibration parameters of city buildings, bridges
and historical monuments;
- the city smart illumination;
- analysis of waste pollution levels and optimization of routes for garbage disposal
vehicles;
- control of the enterprises and automobile engines СО2 release;
- monitoring the running water quality;
- monitoring and management of the city energy consumption;
- processes of the water supply network functioning, etc.
The course projects are developed in teams of 3-5 students, and the result of their
implementation are mobile information and technological applications.
During semester the students are encouraged to make a report based on the scientific
publications in professional journals and collections of scientific papers, scientific-
technical reports and reports delivered at scientific and practical conferences. This in-
cludes particularly the development of analytical reviews concerning the state and re-
sults of scientific research and practical developments on important and perspective
research topics. As an example, we give the suggested list of analytical reports:
1. Monitoring systems of leakage and waste release into seas, river basins and ponds
in real time mode
2. Systems for monitoring changes in water levels in rivers and ponds on the example
of Lviv, Transcarpatia, Ivano-Frankivsk, Odesa, Mykolaiv, Kherson regions
3. Monitoring systems for radiation level measuring in the cities located in the areas
of the nuclear power plants influence
4. Monitoring systems for the detection of gas leakage in industrial environments
5. Systems for monitoring the products storage conditions
6. Monitoring systems for toxic levels of gas and oxygen at chemical plants.
7. Detection and monitoring of penetrations into the "Smart House" system
8. Systems for monitoring climatic conditions in museums, libraries, archives.
6 Conclusions
The materials given in this paper were developed by the authors according to the results
of investigations carried out during two years in the virtual scientific-research labora-
tory "The smart city of Ternopil" at Ternopil Ivan Puluj National Technical University.
According to the results of the investigation we can confirm that:
- first, the use of information and communication technologies relating to the inno-
vation technological Internet of things cluster in projects of the "smart cities" of
the future is an important scientific task;
- second, the implementation of the "smart cities" information-technological pro-
jects should take place in the context of the most comprehensive use of the meth-
odology of the system approach to hyper-complex systems, one of which is the
system complex of the modern city;
- third, the information-technological platform for implementing the “smart cities”
projects of the future should provide the integrated use of a number of modern
technologies such as Cloud computing, Big Data, IoT, Data mining GIS, OLAP,
Data Base, Data Weryhaus, Data Space, etc.;
- fourth, certain and almost the most important component of the “smart city” com-
plex information system should be the IoT technologies serving as a methodolog-
ical basis for the creation of sensory component of the innovation information-
technological complex;
- fifth, the "smart cities" information-technological projects should be implemented
on the basis of reference architecture model with the previous development of the
models and prototypes complex on which industrial technology solutions are
worked out;
- sixth, the large-scale design and deployment of the "smart cities" information-
technological projects requires creative specialists training in relevant IT special-
ties and specializations.
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