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    우리나라 단동 비닐하우스와 북미지역 하이터널의 비교 = Comparison of single-span plastic greenhouse in Korea and high tunnel in North America

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    https://www.riss.kr/link?id=A105056253

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    다국어 초록 (Multilingual Abstract) kakao i 다국어 번역

    Structural characteristics for standard models of single-span plastic greenhouse in Korea and high tunnels in North America were analyzed, and comparative analysis for greenhouse environments measuring in Korean farmhouse and Rutgers high tunnel was carried out to find structural and environmental improvements of single-span plastic greenhouses that occupy most of Korean greenhouse. Widths of high tunnels are similar to single-span plastic greenhouses but their heights are high comparatively and their side heights are fairly higher than single-span plastic greenhouses specially. Rafters, which are main frames, section sizes of high tunnels are bigger and their intervals are wider than single-span plastic greenhouses. Relative bending resistances compared with representative Korean greenhouse were analyzed by 0.92 to 1.42 in single-span plastic greenhouses, and 1.38 to 2.96 in high tunnels. Frame ratios of single-span plastic greenhouses were 6.8 to 8.6%, and those of high tunnels were 5.5 to 8.7%. We analyzed air temperatures and solar radiations measured in single-span plastic greenhouse and high tunnel on clear days in late March. There were outside temperatures in generally similar range, and judging by rise of indoor temperatures, ventilation performance of high tunnel is more excellent than single-span plastic greenhouse. Solar radiations of two areas were no big difference but light transmittance of high tunnel was a little bit higher than single-span plastic greenhouse. Single-span plastic greenhouses are disadvantageous in environmental managements such as ventilation performance and light transmittance because distance between greenhouses is too narrow and length of greenhouse is too long compared to high tunnels. To get the environmental improvement effects as well as to increase the structural resistance of single-span plastic greenhouses are achievable by widening the width of greenhouse in possible range, widening the space between rafters, and enlarging the section size of rafters. Also, we need to secure enough distance between greenhouses and to restrict the length of greenhouse by maximum 50 m in order to improve the ventilation performance and the light transmittance.
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    Structural characteristics for standard models of single-span plastic greenhouse in Korea and high tunnels in North America were analyzed, and comparative analysis for greenhouse environments measuring in Korean farmhouse and Rutgers high tunnel was c...

    Structural characteristics for standard models of single-span plastic greenhouse in Korea and high tunnels in North America were analyzed, and comparative analysis for greenhouse environments measuring in Korean farmhouse and Rutgers high tunnel was carried out to find structural and environmental improvements of single-span plastic greenhouses that occupy most of Korean greenhouse. Widths of high tunnels are similar to single-span plastic greenhouses but their heights are high comparatively and their side heights are fairly higher than single-span plastic greenhouses specially. Rafters, which are main frames, section sizes of high tunnels are bigger and their intervals are wider than single-span plastic greenhouses. Relative bending resistances compared with representative Korean greenhouse were analyzed by 0.92 to 1.42 in single-span plastic greenhouses, and 1.38 to 2.96 in high tunnels. Frame ratios of single-span plastic greenhouses were 6.8 to 8.6%, and those of high tunnels were 5.5 to 8.7%. We analyzed air temperatures and solar radiations measured in single-span plastic greenhouse and high tunnel on clear days in late March. There were outside temperatures in generally similar range, and judging by rise of indoor temperatures, ventilation performance of high tunnel is more excellent than single-span plastic greenhouse. Solar radiations of two areas were no big difference but light transmittance of high tunnel was a little bit higher than single-span plastic greenhouse. Single-span plastic greenhouses are disadvantageous in environmental managements such as ventilation performance and light transmittance because distance between greenhouses is too narrow and length of greenhouse is too long compared to high tunnels. To get the environmental improvement effects as well as to increase the structural resistance of single-span plastic greenhouses are achievable by widening the width of greenhouse in possible range, widening the space between rafters, and enlarging the section size of rafters. Also, we need to secure enough distance between greenhouses and to restrict the length of greenhouse by maximum 50 m in order to improve the ventilation performance and the light transmittance.

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    참고문헌 (Reference)

    1 남상운, "천창을 설치한 토마토 재배 단동 온실의 환기성능 분석" 한국생물환경조절학회 20 (20): 78-82, 2011

    2 Cornell University (CU), "www.hort.cornell.edu/hightunnel"

    3 Rutgers University (RU), "http://aesop. rutgers.edu/~horteng"

    4 Penn State University (PSU), "http:// plasticulture.cas.psu.edu/H-tunnels.htm"

    5 Hightunnels Organization (HO), "What is a high tunnel?"

    6 National Resources Conservation Service (NRCS), "Seasonal high tunnels funded in FY 2010"

    7 Both AJ, "Rutgers High Tunnel Research Update (2003-2005)" Rutgers, The state university of New Jersey. 2006

    8 Lee YB, "Protected Horticulture New Edition" Hyangmoonsa Pub 32-45, 2010

    9 Ledgewood Farm, "Ledgewood farm greenhouse frames"

    10 Blomgren T, "High tunnels using low-cost technology to increase yields, improve quality and extend the season" The University of Vermont Center for Sustainable Agriculture 1-22, 2007

    1 남상운, "천창을 설치한 토마토 재배 단동 온실의 환기성능 분석" 한국생물환경조절학회 20 (20): 78-82, 2011

    2 Cornell University (CU), "www.hort.cornell.edu/hightunnel"

    3 Rutgers University (RU), "http://aesop. rutgers.edu/~horteng"

    4 Penn State University (PSU), "http:// plasticulture.cas.psu.edu/H-tunnels.htm"

    5 Hightunnels Organization (HO), "What is a high tunnel?"

    6 National Resources Conservation Service (NRCS), "Seasonal high tunnels funded in FY 2010"

    7 Both AJ, "Rutgers High Tunnel Research Update (2003-2005)" Rutgers, The state university of New Jersey. 2006

    8 Lee YB, "Protected Horticulture New Edition" Hyangmoonsa Pub 32-45, 2010

    9 Ledgewood Farm, "Ledgewood farm greenhouse frames"

    10 Blomgren T, "High tunnels using low-cost technology to increase yields, improve quality and extend the season" The University of Vermont Center for Sustainable Agriculture 1-22, 2007

    11 Hanan JJ, "Greenhouses" CRC Press 1-13, 1998

    12 Cook R, "Greenhouse tomatoes change the dynamics of the North American fresh tomato industry"

    13 Ministry for Food, Agriculture, Forestry and Fisheries (MIFAFF), "Greenhouse Status for Protected Cultivation and Vegetable Productions" 2011

    14 Ministry for Food, Agriculture, Forestry and Fisheries (MIFAFF), "Designated Notice of Standards to Endure Disaster for Horticultural and Herbal Facilities" 2010

    15 Lamont WJ, "Design and construction of the Penn State high tunnel" 12 (12): 447-453, 2002

    16 Tachibana K, "Design and construction of greenhouses for protected horticulture" Ohm Pub. Tokyo 7-12, 1979

    17 Park KS, "Conversion of light unit using spectral distribution by light source" 58-59, 2010

    18 Kamp PGH, "Computerized Environmental Control in Greenhouses" IPC-Plant. Ede, The netherlands 47-48, 1996

    19 USDA, "Census of Horticultural Specialties (2009)"

    20 USDA, "Census of Agriculture (2007)"

    21 Kim YH, "Bio-Environment Control Engineering" Hayangmoonsa Pub 61-, 2003

    22 Lindley JA, "Agricultural buildings and structures" ASAE 140-463, 1996

    23 ASAE, "Agricultural building snow and wind loads"

    24 Nam SW, "A field survey on the structures and maintenance ststus of pipe framed greenhouses" 42 (42): 106-114, 2000

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    연월일 이력구분 이력상세 등재구분
    2026 평가 재인증평가 신청대상 (재인증)
    2020-01-01 등재 등재학술지 유지 (재인증) KCI등재
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    2016-03-31 학술지명변경 한글명 : 농업과학연구 -> Korean Journal of Agricultural Science
    외국어명 : JOURNAL OF AGRICULTURAL SCIENCE -> Korean Journal of Agricultural Science
    KCI등재후보
    2015-01-01 등재 등재후보학술지 선정 (신규평가) KCI등재후보
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    기준연도 WOS-KCI 통합IF(2년) KCIF(2년) KCIF(3년)
    2016 0.28 0.28 0
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