SEOKHO PARK

Dr. SEOKHO PARK

orcid

Research Focus & Metrics

Academic Career Length

12Years (2015-Present)

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

Representative Publications

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18 February 2021 in Journal of Food Science
Verified
Journal Article
Closed access
PDF file
JKJinse Kim
Jinse Kim
DCDong Soo Choi
Dong Soo Choi
YKYong Hoon Kim
Yong Hoon Kim
JSJae Yong Son
Jae Yong Son
CPChun Wan Park
Chun Wan Park
YHYoung Hwang
Young Hwang

1 July 2020 in Protected Horticulture and Plant Factory
Verified
Journal Article
Closed access
SPSEOKHO PARK
SEOKHO PARK
JMJong Pil Moon
Jong Pil Moon
JKJin Koo Kim
Jin Koo Kim
SKSeoung Hee Kim
Seoung Hee Kim
서 론

31 October 2021 in Journal of Bio-Environment Control
Verified
Journal Article
Open access
KYKyung-Hwan Yeo
Kyung-Hwan Yeo
SPSEOKHO PARK
SEOKHO PARK
IYIn Ho Yu
In Ho Yu
HLHee Ju Lee
Hee Ju Lee
SWSeung Hwan Wi
Seung Hwan Wi
YHYun Chan Huh
Yun Chan Huh

1 February 2016 in Food Engineering Progress
Verified
Journal Article
Closed access
SPSEOKHO PARK
SEOKHO PARK
JPJong Woo Park
Jong Woo Park
DCDong Soo Choi
Dong Soo Choi
JKJin Se Kim
Jin Se Kim
YKYong Hun Kim
Yong Hun Kim
JLJin Su Lee
Jin Su Lee
This study was conducted to develop and evaluate an appropriate control device for a purge type controlled atmosphere (CA) storage in Korea. To determine ideal performance, oxygen and carbon dioxide control capability and airtightness were analyzed according to the postharvest management manual of CA storage of Fuji apples. In shortened experiments for CA storage, the condition was delayed CA at 0-0.5°C for three days and stored at 0.1-0.5% carbon dioxide levels for 3 days and then further stored 6 days under 1% carbon dioxide. As a result, the temperature control range of a developed CA container was 0.0-0.5°C, and the relative humidity was more than 90%, except for the defrosting step for the freezer during the storage period. The rate of pressure reduction for the CA container in the negative and positive pressure states was 0.45 and 0.21 mmH2O/min, respectively, and it was twofolds higher than standard airtightness for CA storage. After nitrogen injection, oxygen concentration was achieved at 2%, and carbon dioxide concentration was maintained at 0.1-0.5% for 6 days. Afterwards, carbon dioxide levels were tightly controlled between 0.1-1.0%. These results suggest that a developed purge type CA container could be effective in commercially maintaining the quality of agricultural products.

1 February 2015 in Food Engineering Progress
Verified
Journal Article
Closed access
SPSEOKHO PARK
SEOKHO PARK
HCHo Hyun Chun
Ho Hyun Chun
DCDong Soo Choi
Dong Soo Choi
SCSeung Ryul Choi
Seung Ryul Choi
JKJin Se Kim
Jin Se Kim
JLJin Su Lee
Jin Su Lee
This study was conducted to develop the domestic production of a controlled atmosphere (CA) storage system, including nitrogen generator and carbon dioxide eliminator using selective gas separation membrane and operating program. Generally, the gas composition inside general cold stores constantly changes due to the metabolic activity of the respiring vegetables and fruits and leakage of gases through doors and walls. However, the CA container developed by our research team is able to control of the level of oxygen and carbon dioxide inside the reefer, making it simple and effective in operation. The efficiency of the nitrogen generator to replace oxygen with nitrogen inside the CA container was approximately 1.33% per hour. The change in oxygen concentration inside the CA container during the operation refrigerator almost did not show any difference for 8 days. Therefore, CA storage container should be a promising approach to maintaining the high quality of agricultural products during storage.

1 February 2018 in Food Engineering Progress
Verified
Journal Article
Closed access
MKMi Na Kim
Mi Na Kim
SPSEOKHO PARK
SEOKHO PARK
CPCheon Wan Park
Cheon Wan Park
SCSeoung Young Choi
Seoung Young Choi
DCDong Soo Choi
Dong Soo Choi
SLSu Jang Lee
Su Jang Lee
This study was conducted to propose the conditions of controlled atmosphere (CA) storage suitable for the storage of winter Chinese cabbage and to investigate the maximum storage period of Chinese cabbage based on the results of the quality analysis for CA storage. The weight loss rate of Chinese cabbage stored at 194 days in low temperature storage was about 2 times higher than that in CA storage. The trimming loss rate of Chinese cabbage stored at low temperature was 1.5 times higher than that of CA storage after 83 days of storage. Bolting of Chinese cabbage was observed in only low temperature storage. The Chinese cabbage firmness of CA storage was not different in the range of 5.7-6.2 N, while low temperature storage gradually increased after 83 days of storage and was 7.5 N at 194 days. The incidence of mold occurred after 83 days in low temperature storage, while in CA storage it occurred after 153 days. In the quality evaluation, CA storage for Chinese cabbage was rated 1.5-1.9 points higher than the low temperature storage. The maximum storage period of Chinese cabbage at low temperature storage was 83 days and that at CA storage 153 days.