USTIFICATION OF FUNCTIONAL STRUCTURE OF THE INFORMATION AND TECHNICAL SYSTEM OF AGROBIOLOGICAL STATE OPERATIONAL MONITORING OF THE SOIL

Authors

  • A. Brovarets Kyiv Cooperative Institute of Business and Law

DOI:

https://doi.org/10.31734/agroengineering2018.01.005

Keywords:

information-technical system, operational monitorin, soil samples, variability in magnitude

Abstract

Existing methods of controlling the agrobiological state of the soil and sampling of soil using available techniques do not take into account the variability of their parameters in the area of agricultural land. In order to realize the technology of differentiated introduction of technological material, a simplified method of uniformly dispersing the field surface at the squares level is used for further diagnostics and field control using such differentiation. On the one hand, such a division is due to the convenience and simplicity of the method, on the other hand, the lack of reliable field data and, accordingly, the instrument for splitting the field according to other criteria based on the original data.

It is proposed to obtain reliable data on the agrobiological state of the soil environment by reducing the error in determining the magnitude of electrical conductive properties of the soil, providing individual stabilization of the working electrodes and the mechanism of lifting / lowering working electrodes, copying inequalities of the soil environment, reducing the intensity of the destruction of the soil structure, self-cleaning the working contact of the electrode, and ensuring stability. electric contact of the electrode with the soil, by improving the structure device. The task is achieved by using the information and technical system of operational monitoring of the soil environment of the design of Alexander Brovarеts.

The device for the determination of the conductive properties of the soil environment proposed structures are used: before the execution of the technological operation, simultaneously with the implementation of technological operations (sowing, application of mineral fertilizers, etc.); during the growing season and after harvesting.

References

Adamchuk V. V., Moiseienko V. K., Kravchuk V. I., Voitiuk D. H. Tekhnika dlia zemlerobstva maibutnoho. Mekhanizatsiia ta elektryfikatsiia silskoho hospodarstva. 2002. Vyp. 86. S. 20–32.

Brovarets O. Vid bezpluzhnoho do hlobalnoho rozumnoho zemlerobstva. Tekhnika i tekhnolohii APK. 2016. № 10 (85). S. 28–30.

Brovarets O. O. Informatsiino-tekhnichna systema operatyvnoho monitorynhu stanu gruntovoho seredovyshcha konstruktsii Oleksandra Brovartsia. Visnyk Lvivskoho natsionalnoho ahrarnoho

Vadyunina A. F. K otsenke elektroprovodnosti kak metoda opredeleniya vlazhnosti pochv. Pochvovedenie. 1937. № 3. S. 391–404.

Vorobev N. I. K voprosu konduktometricheskogo opredeleniya zasolennosti pochv i gruntov. Pochvovedenie. 1955. № 4. S. 103.

GOST 26423-85. Pochvyi. Metodyi opredeleniya udelnoy elektricheskoy provodimosti, pH i plotnogo ostatka vodnoy vyityazhki. Moskva: Standartinform, 2011. 7 s.

Gukov Ya. S., Linnik N. K., Mironenko V. G. Avtomatizirovannaya sistema lokalno-dozirovannogo vneseniya udobreniy, meliorantov i sredstv zaschityi rasteniy. Trudyi 2-y Mezhdunarodnoy nauchno-prakticheskoy konferentsii po problemam differentsialnogo primeneniya udobreniy v sisteme koordinatnogo zemledeliya. Ryazan, 2001. S. 48–50.

Kopikova L. P. Opyit primeneniya metodov elektroprovodnosti dlya sostavleniya detalnyih pochvenno-meliorativnyih kart. Byulleten VIUA. 1979. № 43. S. 21–23.

Maslo I. P., Myronenko V. H. Avtomatyzovana systema lokalno-dozovanoho vnesennia dobryv i khimichnykh zasobiv zakhystu roslyn. UAAN: rozrobky-vyrobnytstvu. Kyiv: Ahrarna nauka, 1999. S. 348–349.

Medvedev. V. V. Neodnorodnost pochv i tochnoe zemledelie. Ch. 1: Vvedenie v problemu. Harkov: 13 tipografiya, 2007. 296 s.

Ormadzhi K. S. Kontrol kachestva polevyih rabot. Moskva: Rosagropromizdat, 1991. 191 s.

Suchasni tendentsii rozvytku konstruktsii silskohospodarskoi tekhniky / za red. V. I. Kravchuka, M. I. Hrytsyshyna, S. M. Kovalia. Kyiv: Ahrarna nauka, 2004. 398 s.

Brovarets O., Chovnyuk Yu. Integrated systems of management for the performance of technological processes in agricultural production which depend on the initial and final moments of their operation time. Teka. 2017.Vol. 17, No. 2. P. 79–90.

Brovarets O., Chovnyuk Yu. Modeling and analysis of efficient electromagnetic parameters of capillary system of electrical conductivity of agricultural soils i: method of

analysis of non-stationary electromagnetic fields in dispersive and controlled environments. MOTROL. 2018. Vol. 19, No. 4. P. 13–18.

Brovarets O. Organizational and technological background of project configuration management for freighting. Teka. 2017. Vol. 17, No. 3. P. 49–53.

Brovarets O., Chovnyuk Yu. Technical-economic models of business management in the processes of agricultural production. ECONTECHMOD: An international quarterly journal. 2017. Vol. 6, No. 3. P. 61–70.

Ewart G. Y., Baver L. D. Salinity Effects on soil moisture electrical resistance relstionships. Soil Scien. Soc. Amer. J. 1950. Vol. 15. P. 56–63.

Hertz A. C., Hibbard J. D. A Preliminary assessment of the economics of variable rate technology for applying phosphorus and potassium in corn production. Farm Economics. 1993. Is. 14. P. 218–231.

Rhoades J. D., Schifgaarde J. Van. An electrical conductivity probe for determining soil salinity. Soil Scien. Soc. Amer. J. 1976. No. 5. P. 647–651.

Wilcox G. G. Determination of electrical conductivity of soil solutions. Soil Science. 1947. Vol. 63. P. 107.

Published

2018-12-01

How to Cite

Brovarets О. (2018). USTIFICATION OF FUNCTIONAL STRUCTURE OF THE INFORMATION AND TECHNICAL SYSTEM OF AGROBIOLOGICAL STATE OPERATIONAL MONITORING OF THE SOIL. Bulletin of Lviv National Environmental University. Series Agroengineering Research, (22), 5–13. https://doi.org/10.31734/agroengineering2018.01.005

Issue

Section

PHYSICAL, MECHANICAL AND TECHNOLOGICAL PROPERTIES OF SOILS, AGRICULTURAL