Passive seismic monitoring in conventional tunnelling: An innovative approach for automatic process recognition using support vector machines

Publikationen: Beitrag in FachzeitschriftArtikelForschung(peer-reviewed)

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Passive seismic monitoring in conventional tunnelling: An innovative approach for automatic process recognition using support vector machines. / Hartl, Irene; Sorger, Marcel; Hartl, Karin et al.
in: Tunnelling and Underground Space Technology, Jahrgang 137.2023, Nr. July, 105149, 14.04.2023.

Publikationen: Beitrag in FachzeitschriftArtikelForschung(peer-reviewed)

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@article{1e5ad87344ab4081b194980d633e420e,
title = "Passive seismic monitoring in conventional tunnelling: An innovative approach for automatic process recognition using support vector machines",
abstract = "For the underground construction sector as in conventional tunnelling, there is still a lack of automatization and digitalization progresses, especially concerning tunnel construction monitoring. A manual documentation of the time intervals for subsequent processes by the respective employee is currently state of the art. This study addresses a cost and time effective data acquisition and evaluation method using conventional geophones for the differentiation of the processes involved in tunnel construction by analysis of elastic wave signals. The field experiments were executed at the construction site of “Zentrum am Berg” in Austria where seismic signals were recorded during the conventional tunnel excavation process. The seismic emissions induced by the respective machinery during different constructuon steps are distinguished with a machine learning approach using support vector machines, leading to the possibility of associating them with the corresponding time of the machinery in use. The semi-automatic evaluation of the gathered data should facilitate the documentation of the daily working diagrams, supplement project management and effective planning and optimize predictive maintenance possibilities in the underground construction industry.",
author = "Irene Hartl and Marcel Sorger and Karin Hartl and Benjamin Ralph and Ingrid Schl{\"o}gel",
year = "2023",
month = apr,
day = "14",
doi = "10.1016/j.tust.2023.105149",
language = "English",
volume = "137.2023",
journal = "Tunnelling and Underground Space Technology",
issn = "0886-7798",
publisher = "Elsevier",
number = "July",

}

RIS (suitable for import to EndNote) - Download

TY - JOUR

T1 - Passive seismic monitoring in conventional tunnelling

T2 - An innovative approach for automatic process recognition using support vector machines

AU - Hartl, Irene

AU - Sorger, Marcel

AU - Hartl, Karin

AU - Ralph, Benjamin

AU - Schlögel, Ingrid

PY - 2023/4/14

Y1 - 2023/4/14

N2 - For the underground construction sector as in conventional tunnelling, there is still a lack of automatization and digitalization progresses, especially concerning tunnel construction monitoring. A manual documentation of the time intervals for subsequent processes by the respective employee is currently state of the art. This study addresses a cost and time effective data acquisition and evaluation method using conventional geophones for the differentiation of the processes involved in tunnel construction by analysis of elastic wave signals. The field experiments were executed at the construction site of “Zentrum am Berg” in Austria where seismic signals were recorded during the conventional tunnel excavation process. The seismic emissions induced by the respective machinery during different constructuon steps are distinguished with a machine learning approach using support vector machines, leading to the possibility of associating them with the corresponding time of the machinery in use. The semi-automatic evaluation of the gathered data should facilitate the documentation of the daily working diagrams, supplement project management and effective planning and optimize predictive maintenance possibilities in the underground construction industry.

AB - For the underground construction sector as in conventional tunnelling, there is still a lack of automatization and digitalization progresses, especially concerning tunnel construction monitoring. A manual documentation of the time intervals for subsequent processes by the respective employee is currently state of the art. This study addresses a cost and time effective data acquisition and evaluation method using conventional geophones for the differentiation of the processes involved in tunnel construction by analysis of elastic wave signals. The field experiments were executed at the construction site of “Zentrum am Berg” in Austria where seismic signals were recorded during the conventional tunnel excavation process. The seismic emissions induced by the respective machinery during different constructuon steps are distinguished with a machine learning approach using support vector machines, leading to the possibility of associating them with the corresponding time of the machinery in use. The semi-automatic evaluation of the gathered data should facilitate the documentation of the daily working diagrams, supplement project management and effective planning and optimize predictive maintenance possibilities in the underground construction industry.

U2 - 10.1016/j.tust.2023.105149

DO - 10.1016/j.tust.2023.105149

M3 - Article

VL - 137.2023

JO - Tunnelling and Underground Space Technology

JF - Tunnelling and Underground Space Technology

SN - 0886-7798

IS - July

M1 - 105149

ER -