Kye Chung Park

Dr. Kye Chung Park

Bioprotection/Biosecurity, The New Zealand Institute for Plant and Food Research, Christchurch 8140, New Zealand
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Research Focus & Metrics

Academic Career Length

14Years (2013-Present)

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

Representative Publications

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1 December 2013 in Journal of Insect Physiology
Verified
Journal Article
Closed access
KPKye Chung Park
Kye Chung Park
MMMark McNeill
Mark McNeill
RURikard Unelius
Rikard Unelius
HOHyun-Woo Oh
Hyun-Woo Oh
DSDavid Suckling
David Suckling

31 May 2019 in Archives of Insect Biochemistry and Physiology
Verified
Journal Article
Closed access
PDF file
HOHyun‐Woo Oh
Hyun‐Woo Oh
SJSeon Ah Jeong
Seon Ah Jeong
JKJiae Kim
Jiae Kim
KPKye Chung Park
Kye Chung Park

22 October 2018 in Archives of Insect Biochemistry and Physiology
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Journal Article
Closed access
PDF file
KPKye Chung Park
Kye Chung Park
SJSeon Ah Jeong
Seon Ah Jeong
GKGimyon Kwon
Gimyon Kwon
HOHyun‐Woo Oh
Hyun‐Woo Oh

1 July 2015 in Journal of Insect Physiology
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Journal Article
Closed access
KPKye Chung Park
Kye Chung Park
TWToni M. Withers
Toni M. Withers
DSDavid Suckling
David Suckling

10 November 2023 in Environmental Research
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Journal Article
Open access
SKSeunghyun Kang
Seunghyun Kang
SKSanghee Kim
Sanghee Kim
KPKye Chung Park
Kye Chung Park
APAndrius Petrašiūnas
Andrius Petrašiūnas
HSHyung Chul Shin
Hyung Chul Shin
JKJi Hee Kim
Ji Hee Kim
Native biodiversity and ecosystems of Antarctica safeguarded from biological invasion face recent threats from non-native species, accelerated by increasing human activities and climate changes. Over two decades ago, the winter crane fly, Trichocera maculipennis, was first detected on King George Island. It has now successfully colonized several research stations across King George Island. To understand the origin, genetic diversity, and population structure of this Holarctic species, we conducted mitochondrial DNA cytochrome c oxidase subunit I (COI) sequence analysis across both its native and invasive ranges. In parallel, we performed microsatellite loci analysis within the invasive ranges, utilizing 12 polymorphic microsatellite markers. Furthermore, we compared body sizes among adult males and females collected from three different locations of King George Island. Our COI sequence analysis exhibited two different lineages present on King George Island. Lineage I was linked to Arctic Svalbard and Polish cave populations and Lineage II was related to Canadian Terra Nova National Park populations, implying multiple origins. Microsatellite analysis further exhibited high levels of genetic diversity and significant levels of genetic differentiation among invasive populations. Body sizes of adult T. maculipennis were significantly different among invasive populations but were not attributed to genetics. This significant genetic diversity likely facilitated the rapid colonization and establishment of T. maculipennis on King George Island, contributing to their successful invasion. Molecular analysis results revealed a substantial amount of genetic variation within invasive populations, which can serve as management units for invasive species control. Furthermore, the genetic markers we developed in the study will be invaluable tools for tracking impending invasion events and the travel routes of new individuals. Taken together, these findings illustrate the highly invasive and adaptable characteristics of T. maculipennis. Therefore, immediate action is necessary to mitigate their ongoing invasion and facilitate their eradication.

2 April 2018 in Physiological Entomology
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Journal Article
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KPKye Chung Park
Kye Chung Park
JLJung‐Ah Lee
Jung‐Ah Lee
DSDavid Suckling
David Suckling