+7 (495) 957-77-43

T-Comm_Article 4_9_2020

Извините, этот техт доступен только в “Американский Английский”. For the sake of viewer convenience, the content is shown below in the alternative language. You may click the link to switch the active language.

SPECIFICS OF IMPLEMENTATION OF CONTROL SYSTEMS BASED ON LORAWAN TECHNOLOGY

DOI: 10.36724/2072-8735-2020-14-9-24-30

Vitaly G. Dovbnya, The Southwest State University, Kursk, Russia, vit_georg@mail.ru
Sergey N. Frolov, The Southwest State University, Kursk, Russia, snfrolov@bk.ru
Konstantin P. Sulima, Kursk State University, Kursk, Russia, konstanin.sulima@sulimak.com
Alexey N. Schitov, The Southwest State University, Kursk, Russia, a.n.schitov@mail.ru

Abstract
In the context of the rapid growth of various areas of the Internet of things, there is currently no unified approach to building networks based on low-power Wide-area Network (LPWAN) wireless networks, taking into account the general requirements for them as automated control systems (ACS). There are the following areas of use of the Internet of things: industry and production; transport and transportation; control of the technical condition of building structures, air quality, background noise and energy consumption; waste management; smart Parking and providing data on traffic jams; smart street lighting and use in everyday life. Networks based on LoRaWAN technology provide low-cost energy-efficient wireless communications for modern ACS in a variety of industries. It is cost-effective for designing hardware and software for telemetry and controlling, such as a system of control and monitoring engineering systems of buildings and facilities (SMES) and automated outdoor lighting control systems. The article presents a structural and functional analysis of approaches to the construction of hardware and software complex elements based on LoRаWAN, taking into account the specifics and logic of the SMES and ASUS. It also provides calculations of network bandwidth and capacity for a single LoRaWAN gateway in a different mode of operation of ACS. A parametric analysis of existing implementations was carried out to design the management server (SU), which is the main element of the LoRaWAN network. The results allowed to obtain seventeen indicators that determine the functionality of a network server (NS). Network server software development. Major structures and the mechanisms of interaction of its elements are determined during the process of designing the original implementation of NS software.

Keywords:wireless network, a computerized system for managing technological processes, hardware and software for telemetry and controlling, SMES, lighting control, LoRaWAN, network server.

References

1. Safety in emergencies. A structured system for monitoring and managing engineering systems of buildings and structures. General requirements (with Amendment No. 1). Moscow, 2005. 29 p.
2. Aristova N.I. (2011). Automated lighting control systems. Avtomatizaciya v promyshlennosti. No. 9. P. 34-42.
3. Li. P. (2019). The architecture of the Internet of things / per. from English. M.A. Reitman. Moscow: DMK Press. 454 p. P. 251.
4. Tanenbaum E., Weatherall D. (2015). Computer networks. 5th edition. Publishing House PETER. 960 p.
5. Verhulevsky K. LoRa technology in questions and answers. Technologies and standards. Wireless technologies. 1 (16) P. 18-21.
6. LoRaWAN® Specification v1.1 URL: https://lora-alliance.org/resource-hub/lorawanr-specification-v11 (date of access 15.05.2020).
7. LoRaWAN. Server. URL: http://www.lo-ra.net (date of access 20.05.2020).
8. IOT Vega Server URL: https://iotvega.com/soft/server (date of access 22.05.2020).
9. ChirpStack open source LoRaWAN® network server stack. URL: https://www.chirpstack.io (date of access 03.06.2020).

Information about authors:
Vitaly G. Dovbnya, The Southwest State University, associate Professor of the Department of Space instrumentation and communication systems, doctor of technical Sciences, Kursk, Russia
Sergey N. Frolov, The Southwest State University, leading researcher Of the center for advanced research and development, candidate of technical Sciences, Kursk, Russia
Konstantin P. Sulima, Kursk State University, postgraduate student, Kursk, Russia
Alexey N. Schitov, The Southwest State University, engineer Of the center for advanced research and development, Kursk, Russia