FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2801872972> ?p ?o ?g. }

• W2801872972 endingPage "629" @default.
• W2801872972 startingPage "619" @default.
• W2801872972 abstract "Abstract. The microclimate and cucumber crop response in a screenhouse and in an evaporatively cooled greenhouse were studied in Oman during winter/spring and spring/summer cultivation periods. Measurements were carried out in two similarly shaped structures: (1) a greenhouse equipped with a pad-and-fan system for evaporative cooling of the greenhouse environment and (2) a screenhouse with no cooling system. Analysis of the spring/summer period climate data showed that the evaporative cooling in the greenhouse reduced the mean air temperature by about 4.5°C compared to outside and maintained the leaf temperature close to the greenhouse air temperature. The 24 h mean leaf and air temperatures in the greenhouse reached 25.8°C ±1.3°C and 25.9°C ±0.8°C, respectively. On the other hand, the 24 h mean leaf and air temperatures in the screenhouse were higher by 1.0°C and 1.3°C, respectively, compared to outside. The 24 h mean leaf and air temperatures in the screenhouse reached 32.8°C ±1.2°C and 31.8°C ±1.5°C, respectively. Furthermore, the evaporative cooling in the greenhouse maintained the 24 h mean air vapor pressure deficit (VPD) values at levels lower than 1.1 kPa, while the 24 h mean air VPD in the screenhouse reached values up to 4.5 kPa. These differences resulted in a 50% decrease in crop fruit yield during the spring/summer period. The radiation and water use efficiency (WUE) values observed in the two structures were similar during the winter/spring period but were higher in the greenhouse during the spring/summer period. However, for the greenhouse, when the water evaporated in the wet pad was also considered, the overall WUE was at the same level in both structures during summer. Furthermore, the evaporative cooling applied in the greenhouse enhanced the mean values of fruit quality characteristics measured during the spring/summer, such as fruit dry matter content (5.6%), fruit firmness (5.0 kg cm -2 ), and chroma (18.6), compared to that of the screenhouse (5.0%, 4.9 kg cm -2 and 16.3, respectively), but did not significantly affect other fruit quality characteristics, such as mean fruit weight (128 g for greenhouse and 123 g for screenhouse), total soluble solids content (3.9 °Brix for both structures), and juice pH (5.7 for greenhouse and 5.6 for screenhouse). Overall, it can be concluded that under the weather conditions of Oman, although greenhouses are still needed during spring/summer, screenhouses can be used during winter without jeopardizing crop production quantity and quality. Keywords: Evaporative cooling, Evapotranspiration, Radiation use efficiency, Water user efficiency. Total water use efficiency, Climate." @default.
• W2801872972 created "2018-05-17" @default.
• W2801872972 creator A5025330112 @default.
• W2801872972 creator A5030665480 @default.
• W2801872972 creator A5037031862 @default.
• W2801872972 creator A5046330740 @default.
• W2801872972 creator A5052684853 @default.
• W2801872972 creator A5076007121 @default.
• W2801872972 date "2018-01-01" @default.
• W2801872972 modified "2023-09-24" @default.
• W2801872972 title "Analysis of Microclimate and Cucumber Fruit Yield in a Screenhouse and an Evaporatively Cooled Greenhouse in a Semi-Arid Location" @default.
• W2801872972 cites W128162130 @default.
• W2801872972 cites W1500085065 @default.
• W2801872972 cites W1581722050 @default.
• W2801872972 cites W1587970154 @default.
• W2801872972 cites W1595193065 @default.
• W2801872972 cites W1786148185 @default.
• W2801872972 cites W1847310508 @default.
• W2801872972 cites W1949383038 @default.
• W2801872972 cites W1963590547 @default.
• W2801872972 cites W1969498114 @default.
• W2801872972 cites W1969907285 @default.
• W2801872972 cites W1973192842 @default.
• W2801872972 cites W1973969885 @default.
• W2801872972 cites W1974102622 @default.
• W2801872972 cites W1978404414 @default.
• W2801872972 cites W1978557506 @default.
• W2801872972 cites W1978865129 @default.
• W2801872972 cites W1979325376 @default.
• W2801872972 cites W1980440684 @default.
• W2801872972 cites W1981237257 @default.
• W2801872972 cites W1985304490 @default.
• W2801872972 cites W1992684794 @default.
• W2801872972 cites W2011612081 @default.
• W2801872972 cites W2012163737 @default.
• W2801872972 cites W2017517506 @default.
• W2801872972 cites W2029397310 @default.
• W2801872972 cites W2050904066 @default.
• W2801872972 cites W2053578580 @default.
• W2801872972 cites W2062972715 @default.
• W2801872972 cites W2064229623 @default.
• W2801872972 cites W2077353579 @default.
• W2801872972 cites W2080458943 @default.
• W2801872972 cites W2090106684 @default.
• W2801872972 cites W2094247398 @default.
• W2801872972 cites W2118108264 @default.
• W2801872972 cites W2125016941 @default.
• W2801872972 cites W2127398920 @default.
• W2801872972 cites W2131990727 @default.
• W2801872972 cites W2144765567 @default.
• W2801872972 cites W2151474424 @default.
• W2801872972 cites W2152239121 @default.
• W2801872972 cites W2171320244 @default.
• W2801872972 cites W2171644374 @default.
• W2801872972 cites W2241670989 @default.
• W2801872972 cites W2279581116 @default.
• W2801872972 cites W2286985835 @default.
• W2801872972 cites W2315071053 @default.
• W2801872972 cites W2319375802 @default.
• W2801872972 cites W2326934675 @default.
• W2801872972 cites W2328926434 @default.
• W2801872972 cites W2343480034 @default.
• W2801872972 cites W2589325342 @default.
• W2801872972 cites W2589388277 @default.
• W2801872972 cites W2589558510 @default.
• W2801872972 cites W2589665113 @default.
• W2801872972 cites W2590055714 @default.
• W2801872972 cites W2590128129 @default.
• W2801872972 cites W2590333762 @default.
• W2801872972 cites W2590464895 @default.
• W2801872972 cites W2590845741 @default.
• W2801872972 cites W2591169225 @default.
• W2801872972 cites W2591376667 @default.
• W2801872972 cites W2591572603 @default.
• W2801872972 cites W2698629393 @default.
• W2801872972 cites W2774278083 @default.
• W2801872972 cites W754406524 @default.
• W2801872972 doi "https://doi.org/10.13031/trans.12144" @default.
• W2801872972 hasPublicationYear "2018" @default.
• W2801872972 type Work @default.
• W2801872972 sameAs 2801872972 @default.
• W2801872972 citedByCount "8" @default.
• W2801872972 countsByYear W28018729722019 @default.
• W2801872972 countsByYear W28018729722020 @default.
• W2801872972 countsByYear W28018729722021 @default.
• W2801872972 countsByYear W28018729722022 @default.
• W2801872972 countsByYear W28018729722023 @default.
• W2801872972 crossrefType "journal-article" @default.
• W2801872972 hasAuthorship W2801872972A5025330112 @default.
• W2801872972 hasAuthorship W2801872972A5030665480 @default.
• W2801872972 hasAuthorship W2801872972A5037031862 @default.
• W2801872972 hasAuthorship W2801872972A5046330740 @default.
• W2801872972 hasAuthorship W2801872972A5052684853 @default.
• W2801872972 hasAuthorship W2801872972A5076007121 @default.
• W2801872972 hasConcept C127313418 @default.
• W2801872972 hasConcept C134121241 @default.
• W2801872972 hasConcept C14331020 @default.
• W2801872972 hasConcept C144027150 @default.

• next