Automated water level monitoring system in open water
The article is devoted to the creation of automated systems for monitoring the level of water in open waters, intended primarily to control and prevent floods during natural phenomena. The existing at this time control systems are based on outdated principles and technical means and do not allow timely assessment of the real flooding catastrophic danger.
We have proposed new principles for building a semi-autonomous monitoring system for water basins based on modern achievements of high-level information systems using devices that allow obtaining an on-line accurate water level signal using laser methods, modern signal processing methods and data transmission systems over long distances. The system uses original scientific and technical solutions protected by patents.
For an automated monitoring system with a view to its practical application on a large scale of territories, including those that cover border areas of neighboring states, specific practical data of hydrometeorological conditions over a long period of observations by the relevant emergency services of Ukraine and the Republic of Belarus from measuring stations (meteorological posts) have been used.
Ultimately, the system allows transmitting from laser level gauges via cellular communication channels through measuring modules feed through Internet channels to the base station, followed by visualization and documentation of the water level measurements results, the dynamics of its change, and thus makes timely well-grounded management decisions to prevent flood disasters.
It should be noted that the principles and technical solutions on which the system is based make it possible to use it for other purposes, in particular, as a geographic information system for monitoring fluctuations of the earth’s surface over large areas, for tracking the shear processes of mountain ranges, etc.
Full Text:PDF (Русский)
Gimpilevich, Yu. B., Levin, E. A., & Savochkin, D. A. (2013). Current state and development prospects of spatial localization methods based on radio frequency identification technology. Radoitehnika, (173), 69―80 (in Russian).
Lepikh, Ya. I., Hordiyenko, YU. O., Dzyadevych, S. V., Druzhynyn, A. O., Yevtukh, A. A., Lyenkov, S. V., Melnyk, V. H., Protsenko, V. O., & Romanov, V. O. (2011a). Intelligent measuring systems based on new generation microelectronic sensors. Odessa: Astroprint, 352 p. (in Ukrainian).
Lepikh, Ya. I., Ivanchenko, I. O., Budiyanska, L. M., & Santoniy, V. I. (2014). Ways to intellectualize the optoelectronic sensor. Sensorna elektronika i mikrosystemni tekhnolohiyi, 11(2), 61―64 (in Ukrainian).
Lepikh, Ya. I., Lyenkov, S. V., Melnyk, V. H., Romanov, V. O., & Protsenko, V. O. (2011). Intelligent measuring channels of sensor systems. Nauka i oborona, (2), 36―43 (in Ukrainian).
Lepikh, Ya. I., Santoniy, V. I., Ivanchenko, I. O., & Budiyanska, L. M. (2012). Creation of a multi-parameter sensor for environmental monitoring of the environment. Proc. of the II Int. sci.-pract. conf. «Modern Resource-Conserving Technologies. Problems and Prospects» October 1―5, 2012, Ukraine (pp. 264―268). Odessa: Edition of Odessa National University (in Ukrainian).
Lepikh, Ya. I., Santoniy, V. I., Yanko, V. V., Budiyanska, L. M., & Ivanchenko, I. O. (2015a). Direct-reading phase method for measuring short distances by optical-electronic sensor in dynamic conditions. Sensorna elektronika i mikrosystemni tekhnolohiyi, 12(4), 37―43 (in Ukrainian).
Lepikh, Ya. I., Smyntyna, V. A., Santoniy, V. I., Ivanchenko, I. O., & Budiyanska, L. M. (2015b). Laser uniform device. Patent of Ukraine No 110140 dated March 18, 2014. Published in Bulletin No 22/2015 of 25.11.2015 (in Ukrainian).
Mikhaylov, V. N., Mikhaylov, M. V., Morozov, V. N., Kornilov, M. V., & Khudoleev, V. N. (2004). Disastrous flood on the Danube in August 2002. Meteorologiya i gidrologiya, (1), 81―88 (in Russian).
Kalinin, M. Yu., & Obodovskiy, A. G. (Eds.). (2003). Monitoring, use and management of water resources of the river basin Pripyat. Minsk: Belsens, 269 p. (in Russian).
Rozhdestvenina, V. N. (Ed.). (2002). Optoelectronic environmental monitoring systems. Moscow: Publ. House of Moscow State Technical University named after N. E. Bauman, 528 p. (in Russian).
Solonina, A. I., Ulakhovich, D. A., & Yakovlev, L. A. (2002). Algorithms and processors for digital signal processing. St. Petersburg: BHV-Petersburg, 446 p. (in Russian).
Timchenko, V. M. (1990). Ecological and hydrological studies of water bodies in the North-Western Black Sea region. Kiev: Naukova Dumka, 237 p. (in Russian).
Lepikh, Ya. I., Ivanchenko, I. A., & Budiyanskaya, L. M. (2012). Application of Optics-Geometrical Method in Short-Range Optical Radar. Radioelectronics and Communications Systems, 55(2), 82―88. https://doi.org/10.3103/S0735272712020045.
Zhang, D., Xia, F., Yang, Z., Yao, L., & Zhao, W. (2010). Localization technologies for indoor human tracking. 5th International Conference on Future Information Technology, 21―23 May 2010, Busan, South Korea (pp. 1―6). doi: 10.1109/ FUTURUETECH.2010.5482731.
- There are currently no refbacks.
This work is licensed under a Creative Commons Attribution 4.0 International License.
Geofizicheskiy Zhurnal is licensed under a Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License.