Heechul Choi

Prof. Dr. Heechul Choi

orcid

Research Focus & Metrics

Academic Career Length

25Years (2002-Present)

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

Representative Publications

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28 March 2007 in Journal of Nanoparticle Research
Verified
Journal Article
Closed access
PDF file
SKSushil Kanel
Sushil Kanel
DNDhriti Nepal
Dhriti Nepal
BMBruce Manning
Bruce Manning
HCHeechul Choi
Heechul Choi

1 April 2008 in Ultrasonics Sonochemistry
Verified
Journal Article
Closed access
BNB. Neppolian
B. Neppolian
QWQ. Wang
Q. Wang
HJH. Jung
H. Jung
HCHeechul Choi
Heechul Choi

1 April 2019 in Chemosphere
Verified
Journal Article
Closed access
YLYejin Liang
Yejin Liang
SKSoyoung Kim
Soyoung Kim
PKParashuram Kallem
Parashuram Kallem
HCHeechul Choi
Heechul Choi

1 November 2020 in Journal of Industrial and Engineering Chemistry
Verified
Journal Article
Closed access
NYNuman Yanar
Numan Yanar
PKParashuram Kallem
Parashuram Kallem
MOON SONMOON SON
MOON SON
HPHosik Park
Hosik Park
SKSeoktae Kang
Seoktae Kang
HCHeechul Choi
Heechul Choi

1 September 2016 in Water Research
Verified
Journal Article
Closed access
YKYohan Kim
Yohan Kim
JBJiyeol Bae
Jiyeol Bae
HPHosik Park
Hosik Park
JSJeong-Kwon Suh
Jeong-Kwon Suh
YYYoung-Woo You
Young-Woo You
HCHeechul Choi
Heechul Choi

1 January 2007 in Water Science & Technology
Verified
Journal Article
Closed access
PDF file
SKS.R. Kanel
S.R. Kanel
HCHeechul Choi
Heechul Choi
Highly efficient, versatile, adsorbent, nanoscale zero-valent iron (NZVI) was synthesised and encapsulated by an anionic polymer to make it a mobile delivery vehicle (DV-NZVI) for in-situ groundwater and soil remediation. NZVI was found to be highly dispersed with surfactant within a size of 1–100 nm. Laboratory column experiments were conducted by employing glass beads as a porous medium to delineate the characteristics of DV-NZVI transport as a reactive material in saturated zones under a number of conditions. It was observed that there was an optimum concentration of polymer, i.e. 6 g/L, for maximum transport of DV-NZVI, at which point, as the flow rate increases, the transport of DV-NZVI increases. Similarly, at the optimum concentration we observed that as the depth of porous media increased, the breakthrough of DV-NZVI was retarded. These results confirmed that DV-NZVI has significant potential for use as a colloidal reactive barrier material in deep groundwater systems in lieu of pump and treat approaches and conventional permeable reactive barriers (PRB).