№11|2019

WATER INTAKES

DOI 10.35776/MNP.2019.11.03
UDC 628.147.1:63

Opryshko B. A., Shvetsov V. A., Belova Ekaterina

Improving the method of monitoring groundwater levels in production wells of the Kamchatka Territory

Summary

In accordance with the Water Strategy of the Russian Federation for the period up to 2020, as well as with the Rules for the technical operation of public water supply and sanitation systems and facilities, workers of water utilities must control the static and working groundwater levels in operating water production wells. However, in practice, this control is not actually performed. The main reason is the lack of advanced measuring instruments at the enterprises, as well as specialists who could control the operation of the well. The purpose of the study is to justify the need of using advanced automated means of measuring the level of groundwater at water supply and sanitation facilities. The modes of changing the static and working groundwater levels in the water production wells of the Kamchatka Territory are studied. The research results showed that monitoring shall be carried out with automated devices that will provide for reducing the work labor input and transportation costs as well as for increasing the reliability of the measurement results.

Key words

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REFERENCES

  1. Opyshko B. A., Fironov Iu. N., Shvetsov V. A., Belavina O. A., Guz’ M. P. [On the issue of supplying the population of Milkovo village of the Kamchatka Territory with drinking water]. Vestnik KamchatGTU, 2018, no. 44, pp. 14–20. (In Russian).
  2. LTC Levelogger Edge [electronic resource]. Available at: https://www.solinst.com/products/dataloggers-and telemetry/3001-levelogger-series/levelogger-edge/ (accessed 28.02.2019).
  3. Well Watch 670. Water well management in real time using SonicSense technology [electronic resource]. Available at: http://www.enoscientific.com/ (accessed 28.02.2019).
  4. Laval underground surveys. R-CAM 1000/1300 XLT [electronic resource]. Available at: https://www. Laval underground.com (accessed 28.02.2019).
  5. Abramov S. K., Alekseev V. S. Zabor vody iz podzemnogo istochnika [Water abstraction from an underground source. Moscow, Kolos Publ., 1980. 239 p.].
  6. Belitskii A. S., Dubrovskii V. S. Proektirovanie razvedochno-ekspluatatsionnykh skvazhin dlia vodosnabzheniia [Design of exploration and production well for water supply. Moscow, Nedra Publ., 1974. 256 p.].
  7. Opryshko B. A., Shvetsov V. A., Liakh A. P., Opryshko A. V., Belavina O. A. [Pat. 164052 U1, RF. IPC Е21В 33/068. Head of an observation flowing well]. Izobreteniia. Poleznye Modeli, 2016, no. 23. (In Russian).
  8. Opryshko B. A., Shvetsov V. A., Liakh A. P., Pomazkin V. P., Kosinenko R. S., Belavina O. A. [Pat. 175833 U1, RF. IPC Е21В 33/068. Head of a flowing well.] Izobreteniia. Poleznye Modeli, 2017, no. 36. (In Russian).

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