Characterization of cement-slime mixture using time domain reflectometry

被引:1
|
作者
Lee, Dongsoo [1 ]
Yoo, Younggeun [1 ]
Lee, Jong-Sub [1 ]
Byun, Yong-Hoon [2 ]
机构
[1] Korea Univ, Sch Civil Environm & Architectural Engn, 145 Anam Ro, Seoul 02841, South Korea
[2] Kyungpook Natl Univ, Dept Agr Civil Engn, 80 Daehak ro, Daegu 41566, South Korea
关键词
Apparent permittivity; Compressive strength; Electromagnetic wave; Slime; Time domain reflectometry; SOIL-WATER CONTENT; BULK ELECTRICAL-CONDUCTIVITY; END BEARING CAPACITY; PILE; TDR; STRENGTH; PROBES; CONCRETE; BEHAVIOR; PASTE;
D O I
10.1016/j.measurement.2024.115071
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
This study explores the electromagnetic characteristics of five cement-slime mixtures using two types of time domain reflectometry sensors. For 28 days of curing, compressive strength tests are conducted and electromagnetic signals are measured. The electromagnetic wave velocity and corresponding apparent permittivity are calculated, and the relationships between these properties and the compressive strengths of the mixtures are established. Results show that in the initial curing period, capturing the apparent permittivity using a conventional probe proves difficult due to the high electrical conductivity of the mixtures. In contrast, an insulated electrical wire can detect reflected signals across all slime ratios, but it exhibits less sensitivity to changes in the electromagnetic signal. The apparent permittivity decreases exponentially over the curing time, influenced by the hydration process. Strong correlations are found between the apparent permittivities derived from both sensors and between decreasing apparent permittivity and increasing compressive strength.
引用
收藏
页数:11
相关论文
共 50 条
  • [21] Characterization of low-reflectance Bragg gratings using optical time domain reflectometry
    Katcharov, N
    Rioublanc, J
    Auguste, JL
    Blondy, JM
    DiBin, P
    OPTICAL FIBER TECHNOLOGY, 1997, 3 (02) : 168 - 172
  • [22] Characterization of Aging Process in Power Converters Using Spread Spectrum Time Domain Reflectometry
    Nasrin, M. Sultana
    Khan, Faisal H.
    2012 IEEE ENERGY CONVERSION CONGRESS AND EXPOSITION (ECCE), 2012, : 2142 - 2148
  • [23] Monitoring of cement hydration by broadband time-domain-reflectometry dielectric spectroscopy
    Hager, NE
    Domszy, RC
    JOURNAL OF APPLIED PHYSICS, 2004, 96 (09) : 5117 - 5128
  • [24] A time-domain-reflectometry characterization technique for packaging substrates
    Chun, D
    Ang, SS
    Chai, TC
    Tay, AAO
    PROCEEDINGS OF 5TH ELECTRONICS PACKAGING TECHNOLOGY CONFERENCE, 2003, : 361 - 365
  • [25] Characterization of a spiral-shaped time domain reflectometry probe
    Bittelli, M
    Flury, M
    Campbell, GS
    Schulz, V
    WATER RESOURCES RESEARCH, 2004, 40 (09) : W0920501 - W0920508
  • [26] Broadband Complex Dielectric Characterization of Soils by Time Domain Reflectometry
    Ngui, Yin Jeh
    Lin, Chih-Ping
    PROCEEDINGS OF THE 8TH INTERNATIONAL CONGRESS ON ENVIRONMENTAL GEOTECHNICS, VOL 1: TOWARDS A SUSTAINABLE GEOENVIRONMENT, 2019, : 731 - 738
  • [27] Characterization of differential interconnects from time domain reflectometry measurements
    Smolyansky, DA
    Corey, SD
    MICROWAVE JOURNAL, 2000, 43 (03) : 68 - +
  • [28] Detection and characterization of corrosion of bridge cables by time domain reflectometry
    Liu, W
    Hunsperger, R
    Folliard, K
    Chajes, M
    Barot, J
    Jhaveri, D
    Kunz, E
    NONDESTRUCTIVE EVALUATION OF BRIDGES AND HIGHWAYS III, 1999, 3587 : 28 - 39
  • [29] Characterization of differential interconnects from time domain reflectometry measurements
    Smolyansky, Dima A., 1600, Horizon House, Norwood, MA, United States (43):
  • [30] CHARACTERIZATION AND MODELING OF PACKAGES BY A TIME-DOMAIN REFLECTOMETRY APPROACH
    VANHAUWERMEIREN, L
    HERREMAN, M
    BOTTE, M
    DEZUTTER, D
    IEEE TRANSACTIONS ON COMPONENTS HYBRIDS AND MANUFACTURING TECHNOLOGY, 1992, 15 (04): : 478 - 482