Smart Cities in Russia: Current Situation and Insights for Future Development
Abstract
:1. Introduction
2. How Life Will Be in Smart Cities
3. Related Work
4. Smart City Components
4.1. Smart Transport
- Dynamic traffic assignment: Traffic is managed in a network by dynamic traffic assignment measurements via detection, communication, information provision, and real-time control. Several algorithms have been suggested for smart traffic management [18,19]. They allow making individual route decisions based on the current road situation. Additionally, such algorithms can monitor the traffic and gather data for future use. However, these algorithms are still computationally demanding, as they require processing a lot of incoming data. Another approach is to dynamically regulate the traffic lights. In work [20], authors described how wireless sensor networks (WSN) and multiple fuzzy logic controllers can be used to make a system for smart traffic light management [20]. Parking space is managed via smart-parking systems [21,22].
- Green energy transport: Green energy transport should be a part of the smart city transport system. Governments the world over are taking measures to promote electric transport. An assessment of promotion measures in China can be found in the article [23]. Public transport is easier to switch to green energy than private because it is controlled by the government. However, this transition can be quite expensive.
- Smart public transport: Public transport in modern cities has been growing in the last few decades. It is environmentally friendly, can carry more people, and is cheaper. In a smart city, public transport must meet certain criteria. Here are some of them:
- Electronic payment speeds up the passenger flow and can be more convenient for people.
- Tracking and load balancing systems can track accidents on the road, detect unexpected delays, and measure the efficiency of the transport system [18]. Decisions about public transport stops and routes can be made based on this data.
- Self-driving buses are expected to become a major part of the public transport system of most smart cities. According to V. Nagy and B. Horvath [24], public transport and private transport will be enhanced by the appearance of self-driving vehicles. The authors claimed that the usage of unmanned public buses may result in decreased usage of personal vehicles and a decrease in the number of drivers. However, this research was conducted in Hungary, and it is not clear how well that generalizes to other countries.
4.2. Smart Communication
- Government portals: The government should provide certain services for its citizens. Such services include creating a safe environment for the mind and body and issuing various documents and certificates. To get some particular document, one often has to visit a government agency several times. In a smart city, this problem has to be solved using information technology. Allocation of papers should happen remotely and automatically. Another common problem is tax payments. In the smart city, a tax payment should be as convenient as possible. This can be solved by digitalizing the entire process. For example, there is a UK government portal which helps to manage taxes [25].
- City problem trackers: Many problems arise in daily life in a cityL road accidents, fires, power outages, and so on. In a smart city, citizens should be able to easily track such problems. That could be done via the centralized governmental source of information. The aim of this source should be to provide relevant and accurate information. In this way, citizens will be able to make adjustments to their plans according to the state of the problems.
- Emergency notifications: A system for notifications about earthquakes, fires, floods, and other natural disasters could be implemented with the use of information technology. For example, in the article [26] the authors proposed an application (android base) which can send warning alarms to people via SMS or voice call before cyclones and floods strike, or other types of natural disasters, and also can tell them about the optimal routes to the nearest shelter. Another possible solution is to use Bluetooth technology to pass instructions between people. That can be helpful if the communication systems may be disabled. The use of such systems can make the city a safer place for people.
4.3. Smart Services
- Smart healthcare: Many approaches exist to increase the operational convenience of hospitals. For example, in the article [27], the authors proposed an IoT-aware smart hospital system with the purpose of automatically monitoring and tracking personnel, patients, and biomedical devices inside hospitals. These systems are meant to reduce costs and increase the quality of service. Connecting hospitals to the smart communication system gives another vector of development for the smart city. However, healthcare is not only about the hospitals. Technology can improve many aspects of modern city healthcare. For example, personalized recommendations on food, exercises, and even vacation trips could improve health. Furthermore, remote control of key characteristics such as pulse, temperature, and unexpected falls could help to reduce the risk of injuries and serious consequences for health.
- Smart education: According to the article [28], the focus of smart education is seamless learning aimed at promoting learners’ intelligence. This concept facilitates students’ problem-solving ability in smart environments. The use of video conferencing, progress tracking apps, and individual recommendations based on AI can improve education quality. However, making all these services work together is a challenge.
- Smart security: Security in a smart city is mainly associated with the network of video surveillance cameras. The use of such systems together with modern AI technologies can predict and prevent crimes [29], and detect criminals in a crowd. Furthermore, such systems can manage access to restricted territories. Security systems process a lot of personal data. Additionally, storing such data securely should be a prime concern for software vendors. Furthermore, automatic processing of personal data raises ethical questions. Should we track a person’s movements? Can we record the meetings of people? As a society, we should answer these and other questions which smart security systems raise.
4.4. Smart Environment
- Smart buildings: Buildings are a key component of any city. In a smart city, buildings should be energy efficient and secure. Security includes monitoring the building’s energy state and fire control system, as well as personality identification at the entrance. Energy efficiency can be achieved via the energy-saving design of the building and the use of renewable sources of energy, such as solar panels [30].
- Smart waste sorting: Waste management is an essential part of a city’s infrastructure. The growing human impact on the environment has made governments take measures to reduce harmful effects. One of the problems with waste sorting is inattentive or uninformed citizens who do not practice waste sorting. This makes the process harder, as the waste must be sorted by professionals as well. L.-p. Zhang and Z.-p. Zhu [31] discussed the problem of waste management in China. They investigated the impact of smart bins on people’s behavior and came to the conclusion that smart trash bins can assist in imposing some external pressure on residents who do not follow waste sorting regulations while also offering some financial benefits for those who do.
- Charging stations: The growing role of electric devices such as smartphones imposes on the city environment certain obligations. Mobile charging stations can be quite convenient for citizens and also affect the city’s economy. The lack of charging stations for electric cars is a stopping factor in buying one for some people. Therefore, it is important to have a system of charging stations for electric cars.
- Interactivity: The environment of the city should be interactive in terms of information technologies. Informational QR-codes, interactive public transport schedules on the bus stops, free internet access points, and audio guides through the landmarks of the city are examples of such interactivity. These features could increase the tourist potential and convenience for the city’s residents.
5. Russian Cities in Terms of the Proposed Decomposition
5.1. Smart Transport
5.2. Smart Communication
5.3. Smart Services
5.4. Smart Environment
5.5. Smart Agriculture
6. Challenges for Smart Cities in Russia
6.1. Public Transport
6.2. Smart Environment
6.3. Interoperability
6.4. Public Awareness
7. Conclusions
- Smart Transport:
- Dynamic traffic assignment;
- Green energy transport;
- Smart public transport.
- Smart Communication:
- Government portals;
- City problem trackers;
- Emergency notifications.
- Smart Services:
- Smart healthcare;
- Smart education;
- Smart security.
- Smart Environment:
- Smart buildings;
- Smart waste sorting;
- Charging stations;
- Interactivity.
Author Contributions
Funding
Data Availability Statement
Acknowledgments
Conflicts of Interest
References
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Yuloskov, A.; Bahrami, M.R.; Mazzara, M.; Kotorov, I. Smart Cities in Russia: Current Situation and Insights for Future Development. Future Internet 2021, 13, 252. https://doi.org/10.3390/fi13100252
Yuloskov A, Bahrami MR, Mazzara M, Kotorov I. Smart Cities in Russia: Current Situation and Insights for Future Development. Future Internet. 2021; 13(10):252. https://doi.org/10.3390/fi13100252
Chicago/Turabian StyleYuloskov, Artem, Mohammad Reza Bahrami, Manuel Mazzara, and Iouri Kotorov. 2021. "Smart Cities in Russia: Current Situation and Insights for Future Development" Future Internet 13, no. 10: 252. https://doi.org/10.3390/fi13100252
APA StyleYuloskov, A., Bahrami, M. R., Mazzara, M., & Kotorov, I. (2021). Smart Cities in Russia: Current Situation and Insights for Future Development. Future Internet, 13(10), 252. https://doi.org/10.3390/fi13100252