Hydrology objects monitoring system
https://doi.org/10.21122/2309-4923-2019-4-25-31
Abstract
The article deals with the results of the development of monitoring system of potentially dangerous hydro-objects. The formal statement of the problem, models of the monitoring scene and its participants are presented. The scene is initially focused on the gradual replacement of participants-people on systems with artificial intelligence. The models are unified and can be refined to the level of program code. On the basis of models the proactive algorithm of monitoring providing fixing of dangerous situations at an initial stage of their emergence and operational synthesis of the corresponding managing decisions is constructed. The algorithm uses a knowledge base containing formalized expert knowledge about the features of the observed objects and resources of the regional administration to combat catastrophic phenomena.
To automate the solution, a hardware and software system using domestic intelligent sensors has been developed. Programs are written in the console version, require a minimum of computing resources. The peculiarity of the system is to minimize the time of decision-making and reducing their subjectivity by reducing the role of the human factor.
The complex is intended for use in areas where possible floods of water bodies with disastrous consequences.
About the Authors
A. I. KuzmichBelarus
Kuzmich Anatoly Avanovich, PhD, Director of Innovative Technologies of the company «Gornelectronics»
O. V. Baranovski
Belarus
Baranovski Oleg Vasilievich, the applicant for the Information Management Systems Department
A. N. Valvachev
Belarus
Valvachev Alexander Nikolaevich, Ph. D., Assoc. Prof,. Associate Professor of Information Management Systems Department
References
1. The United Nations World Water Development Report 2019. Paris: UNESCO,2019.202 p.
2. Water Security, Sustainability and Resilience. WWC Strategy 2019–2021. – Marseille: World Water Council, 2018. – 24 p.
3. The water strategy of the Republic of Belarus for the period up to 2020 and its improvement in a changing climate. – Access mode: https://www.unece.org/fileadmin/DAM/env/documents/2017/WAT/04Apr_26_6SC/AZ_6SC_Korneev_RU.pdf.
4. Management of Large-scale System Development MLSD’2018. – Access mode: https://ieeexplore.ieee.org/xpl/conhome/8521469/proceeding.
5. Bullock, R. Hierarchical Interactive Theater Model (HITM): An Investigation Into the Relationship Between Strategic Effects and OODA Loops /R. Bullock– Biblioscholar, 2012. – 204 p.
6. Arp, R. Building Ontologies with Basic Formal Ontology / R. Arp, B. Smith, A. Spear. – Cambridge: The MIT Press, 2015. – 248 p.
7. Kuzmich, A. I. Remote monitoring system for mobile objects / A. I. Kuzmich, G. Shakah, A. N. Valvachev // PRIP’2011: Proceedings of The 10-th International Conference on Pattern Recognition, Minsk, May 18–20, 2011. – Minsk, 2011. – P. 272–275.
8. Baranovski, O. V. The Standardized Architecture of Intelligent Systems Based on the Brain Topology / O. V. Baranovski, A. N. Valvachev // PRIP’2019: Proceedings of The 14-th International Conference on Pattern Recognition, Minsk, May 21–23, 2019. – Minsk, 2019. – P. 324–327.
9. ETS water level sensors. – Access mode: http://ets-by.ru/datchiki-urovnya-vody-ets.
Review
For citations:
Kuzmich A.I., Baranovski O.V., Valvachev A.N. Hydrology objects monitoring system. «System analysis and applied information science». 2019;(4):25-31. (In Russ.) https://doi.org/10.21122/2309-4923-2019-4-25-31