euijun KIM

Dr. euijun KIM


Research Focus & Metrics

Academic Career Length

15Years (2012-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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4 April 2012 in Economic Geology
Verified
Journal Article
Closed access
EKeuijun KIM
euijun KIM
MPM.-E. Park
M.-E. Park
NWN. C. White
N. C. White

1 August 2022 in Ore Geology Reviews
Verified
Journal Article
Open access
JLJi–Hyun Lee
Ji–Hyun Lee
SYSeok–Jun Yang
Seok–Jun Yang
NWNoel C. White
Noel C. White
DSDongbok Shin
Dongbok Shin
EKeuijun KIM
euijun KIM

6 May 2022 in Minerals
Verified
Journal Article
Open access
PDF file
IOIlhwan Oh
Ilhwan Oh
SYSeok-Jun Yang
Seok-Jun Yang
CHChulho HEO
Chulho HEO
JLJae-Ho Lee
Jae-Ho Lee
EKeuijun KIM
euijun KIM
SCSeong-Jun Cho
Seong-Jun Cho
Recently, the demand for lithium (Li) as an energy storage element has increased, owing to the rapid increase in the number of electric vehicles. To meet this demand, Li exploration has become increasingly important. The Boam deposit is located in the Uljin area of eastern South Korea, where several rare-element pegmatites (0.24% Li) intrude the Precambrian Janggun Limestone Formation. In this study, we performed petrographical and geometrical analyses of the rare-element pegmatites recognized in the vicinity of the Boam deposit, through which the Li-mineralization process was identified and the factors controlling intrusion studied. Our results are summarized as follows: (1) the pegmatites exhibit regional and internal zoning based on their mineral assemblages; (2) Li mineralization is restricted to pegmatites; (3) the geometry and distribution of the pegmatites are strongly controlled by fracture, bed contact, and post-intrusive deformation; and (4) exploration should be concentrated in the ENE–WSW-trending zone of the upper part of the Janggun Limestone Formation. These results provide valuable understanding to guide the development of strategies for early-stage mineral exploration in the Uljin area.

20 October 2018 in Geosciences Journal
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Journal Article
Closed access
PDF file
EKeuijun KIM
euijun KIM
SYSeok-Jun Yang
Seok-Jun Yang
SSSeungwook Shin
Seungwook Shin
HNHyeong-Tae Nam
Hyeong-Tae Nam
DSDongbok Shin
Dongbok Shin
MPMaeng-Eon Park
Maeng-Eon Park

23 September 2021 in Minerals
Verified
Journal Article
Open access
PDF file
SSSeungwook Shin
Seungwook Shin
SCSeong-Jun Cho
Seong-Jun Cho
EKeuijun KIM
euijun KIM
JLjihyun Lee
jihyun Lee
Precambrian igneous rocks (851–873 Ma) occur in Pocheon City, Korea. These rocks—crystallized during magmatic differentiation—formed vanadiferous titanomagnetite (VTM) deposit. Vanadium is a crucial element in vanadium redox flow batteries that are most appropriate for large-scale energy storage systems. We investigated the VTM deposit to evaluate its size and the possible presence of a hidden orebody. We demonstrated laboratory experiments of density, susceptibility, resistivity, and chargeability of the Precambrian igneous rocks to enhance the interpretation accuracy of geophysical surveys. The rocks consisting of underground ore (UO), discovered ore (DO), gabbro (GA), monzodiorite (MD), and quartz monzodiorite (QMD) were sampled from drilling cores and outcrops. The average density values were UO: 4.57 g/cm3, DO: 3.63 g/cm3, GA: 3.26 g/cm3, MD: 3.18 g/cm3, and QMD: 2.85 g/cm3. The average susceptibility values were UO: 0.8175 SI, DO: 0.2317 SI, GA: 0.0780, MD: 0.0126 SI, and QMD: 0.0007. The average resistivity values were UO: 2 Ωm, DO: 36 Ωm, GA: 257 Ωm, MD: 4571Ωm, and QMD: 7801 Ωm. The chargeability values were UO: 143 mV/V, DO: 108 mV/V, GA: 79 mV/V, MD: 42 mV/V, and QMD: 9 mV/V. We found that the properties of the mineralized rocks are considerably different from those of the surrounding rocks. This result may facilitate the mineral exploration of VTM deposits.

23 February 2024 in Geosciences Journal
Verified
Journal Article
Closed access
PDF file
HIHeonkyung Im
Heonkyung Im
EKeuijun KIM
euijun KIM
DSDongbok Shin
Dongbok Shin