Monitoring and adaptive risk management in opencast mineral-raw material mining

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Monitoring and adaptive risk management in opencast mineral-raw material mining (en)
Мониторинг и адаптивно управљање ризиком у површинској експлоатацији минералних сировина (sr)
Monitoring i adaptivno upravljanje rizikom u površinskoj eksploataciji mineralnih sirovina (sr_RS)
Authors

Publications

Construction and calibration of a portable rain simulator designed for the in situ research of soil resistance to erosion

Živanović, Nikola; Rončević, Vukašin; Spasić, Marko; Corluka, Stevan; Polovina, Siniša

(2022)

TY  - JOUR
AU  - Živanović, Nikola
AU  - Rončević, Vukašin
AU  - Spasić, Marko
AU  - Corluka, Stevan
AU  - Polovina, Siniša
PY  - 2022
UR  - https://omorika.sfb.bg.ac.rs/handle/123456789/1367
AB  - Land degradation caused by erosion processes is a widespread global problem. Rain simulators are one of the tools often used to determine the resistance of soils to erosion processes. The aim of this publication is to present the process of the construction and calibration of a small, portable field simulator which would be implemented in research studies designed to determine the changes in the soils' shear strength parameters in forested areas (in situ) caused by a change in soil moisture content achieved by the rain simulation. The constructed simulator consists of a metal frame, sprayers (with specific nozzles), a sediment funnel/tray made of metal, water and a sediment collector unit, a water tank and pump, and a set of rubber hoses, manometer, valves, reducers, adapters and other supplementary equipment. The calibration was carried out by using the pluviometric method. The choice of nozzles was based on the criteria of low water consumption (losses), the Christiansen uniformity coefficient (CU) and the possibility of achieving specific downpour intensities for the investigated area. The further calibration of the device consisted of determining the raindrop diameter and the distribution of the rainfall when the simulator is positioned on the slopes (7 degrees and 15 degrees). The achieved rain intensity was 1.7-1.9 mm/min, with a CU of 92.23-93.70% for the raindrop diameters (D-50) equal to 1.2 mm. The kinetic energy of the simulated rain (Ke) was 2.82.10(-6) J. The constructed simulator proved itself to be in accordance with all of the given criteria, and it can successfully be implemented in research studies aimed at determining the resistance of forest soils to erosion processes, infiltration, and sediment yield.
T2  - Soil and Water Research
T1  - Construction and calibration of a portable rain simulator designed for the in situ research of soil resistance to erosion
EP  - 169
IS  - 3
SP  - 158
VL  - 17
DO  - 10.17221/148/2021-SWR
UR  - conv_1632
ER  - 
@article{
author = "Živanović, Nikola and Rončević, Vukašin and Spasić, Marko and Corluka, Stevan and Polovina, Siniša",
year = "2022",
abstract = "Land degradation caused by erosion processes is a widespread global problem. Rain simulators are one of the tools often used to determine the resistance of soils to erosion processes. The aim of this publication is to present the process of the construction and calibration of a small, portable field simulator which would be implemented in research studies designed to determine the changes in the soils' shear strength parameters in forested areas (in situ) caused by a change in soil moisture content achieved by the rain simulation. The constructed simulator consists of a metal frame, sprayers (with specific nozzles), a sediment funnel/tray made of metal, water and a sediment collector unit, a water tank and pump, and a set of rubber hoses, manometer, valves, reducers, adapters and other supplementary equipment. The calibration was carried out by using the pluviometric method. The choice of nozzles was based on the criteria of low water consumption (losses), the Christiansen uniformity coefficient (CU) and the possibility of achieving specific downpour intensities for the investigated area. The further calibration of the device consisted of determining the raindrop diameter and the distribution of the rainfall when the simulator is positioned on the slopes (7 degrees and 15 degrees). The achieved rain intensity was 1.7-1.9 mm/min, with a CU of 92.23-93.70% for the raindrop diameters (D-50) equal to 1.2 mm. The kinetic energy of the simulated rain (Ke) was 2.82.10(-6) J. The constructed simulator proved itself to be in accordance with all of the given criteria, and it can successfully be implemented in research studies aimed at determining the resistance of forest soils to erosion processes, infiltration, and sediment yield.",
journal = "Soil and Water Research",
title = "Construction and calibration of a portable rain simulator designed for the in situ research of soil resistance to erosion",
pages = "169-158",
number = "3",
volume = "17",
doi = "10.17221/148/2021-SWR",
url = "conv_1632"
}
Živanović, N., Rončević, V., Spasić, M., Corluka, S.,& Polovina, S.. (2022). Construction and calibration of a portable rain simulator designed for the in situ research of soil resistance to erosion. in Soil and Water Research, 17(3), 158-169.
https://doi.org/10.17221/148/2021-SWR
conv_1632
Živanović N, Rončević V, Spasić M, Corluka S, Polovina S. Construction and calibration of a portable rain simulator designed for the in situ research of soil resistance to erosion. in Soil and Water Research. 2022;17(3):158-169.
doi:10.17221/148/2021-SWR
conv_1632 .
Živanović, Nikola, Rončević, Vukašin, Spasić, Marko, Corluka, Stevan, Polovina, Siniša, "Construction and calibration of a portable rain simulator designed for the in situ research of soil resistance to erosion" in Soil and Water Research, 17, no. 3 (2022):158-169,
https://doi.org/10.17221/148/2021-SWR .,
conv_1632 .
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