A cable supporting test under impact loading based on 5G-IoT
Abstract Reliable supporting effect is of utmost important for the deep mining roadway to prevent the hazards during deep mining activities. Traditional supporting equipment are not satisfying in the absence of the energy-absorbing capacity, whereas the Constant-Resistance-Large-Deformation (CRLD) c...
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doaj-ac57ae9fc06a4d62b1a4f61a0374963a2021-05-30T11:32:24ZengSpringerOpenEURASIP Journal on Wireless Communications and Networking1687-14992021-05-012021111410.1186/s13638-021-02003-4A cable supporting test under impact loading based on 5G-IoTXiaokun Sun0Zhaohua Li1Tao Hong2School of Mechanics and Civil Engineering, China University of Mining and Technology (Beijing)Department of Civil Engineering, Yango UniversityYunnan Innovation Institute BUAAAbstract Reliable supporting effect is of utmost important for the deep mining roadway to prevent the hazards during deep mining activities. Traditional supporting equipment are not satisfying in the absence of the energy-absorbing capacity, whereas the Constant-Resistance-Large-Deformation (CRLD) cable, which can endure a large deformation of 2 m and provide a constant resistance in the meantime, would be a reasonable choice. To verify the CRLD performance of the new cable and highlight its energy-absorbing capacity under impact loading, this paper designed an in situ blasting test in a discarded deep roadway, which is divided into four sections and reinforced by the traditional and CRLD cables, respectively. Firstly, a numerical study of the blasting testis is carried out, the CRLD cable element is proposed, based on the existing one of the FLAC3D software, and a static pullout test is simulated to verify the new element, the adapted impact loading is estimated and the dynamic calculation is performed. Furthermore, under the blasting, which releases the energy of the 1st seismic magnitude, the monitored axial forces of the cables are transmitted in real time using 5G-IoT, and the supporting effects of the two types of cables are compared. According to the numerical and experimental results, the CRLD cable is proven reliable to support the deep roadway, at least shocked by the released energy corresponding to the 1st seismic magnitude.https://doi.org/10.1186/s13638-021-02003-4Energy-absorbing cableBlasting test5G-IoTNumerical analysisImpact loading |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Xiaokun Sun Zhaohua Li Tao Hong |
spellingShingle |
Xiaokun Sun Zhaohua Li Tao Hong A cable supporting test under impact loading based on 5G-IoT EURASIP Journal on Wireless Communications and Networking Energy-absorbing cable Blasting test 5G-IoT Numerical analysis Impact loading |
author_facet |
Xiaokun Sun Zhaohua Li Tao Hong |
author_sort |
Xiaokun Sun |
title |
A cable supporting test under impact loading based on 5G-IoT |
title_short |
A cable supporting test under impact loading based on 5G-IoT |
title_full |
A cable supporting test under impact loading based on 5G-IoT |
title_fullStr |
A cable supporting test under impact loading based on 5G-IoT |
title_full_unstemmed |
A cable supporting test under impact loading based on 5G-IoT |
title_sort |
cable supporting test under impact loading based on 5g-iot |
publisher |
SpringerOpen |
series |
EURASIP Journal on Wireless Communications and Networking |
issn |
1687-1499 |
publishDate |
2021-05-01 |
description |
Abstract Reliable supporting effect is of utmost important for the deep mining roadway to prevent the hazards during deep mining activities. Traditional supporting equipment are not satisfying in the absence of the energy-absorbing capacity, whereas the Constant-Resistance-Large-Deformation (CRLD) cable, which can endure a large deformation of 2 m and provide a constant resistance in the meantime, would be a reasonable choice. To verify the CRLD performance of the new cable and highlight its energy-absorbing capacity under impact loading, this paper designed an in situ blasting test in a discarded deep roadway, which is divided into four sections and reinforced by the traditional and CRLD cables, respectively. Firstly, a numerical study of the blasting testis is carried out, the CRLD cable element is proposed, based on the existing one of the FLAC3D software, and a static pullout test is simulated to verify the new element, the adapted impact loading is estimated and the dynamic calculation is performed. Furthermore, under the blasting, which releases the energy of the 1st seismic magnitude, the monitored axial forces of the cables are transmitted in real time using 5G-IoT, and the supporting effects of the two types of cables are compared. According to the numerical and experimental results, the CRLD cable is proven reliable to support the deep roadway, at least shocked by the released energy corresponding to the 1st seismic magnitude. |
topic |
Energy-absorbing cable Blasting test 5G-IoT Numerical analysis Impact loading |
url |
https://doi.org/10.1186/s13638-021-02003-4 |
work_keys_str_mv |
AT xiaokunsun acablesupportingtestunderimpactloadingbasedon5giot AT zhaohuali acablesupportingtestunderimpactloadingbasedon5giot AT taohong acablesupportingtestunderimpactloadingbasedon5giot AT xiaokunsun cablesupportingtestunderimpactloadingbasedon5giot AT zhaohuali cablesupportingtestunderimpactloadingbasedon5giot AT taohong cablesupportingtestunderimpactloadingbasedon5giot |
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