W. Hopwood , Z. Lopez-Reyes , A. Bantan , C. Vietti , D. Al-Shahrani , A. Al-Harbi , M. Qaryouti , P. Davies , M. Tester , R. Wing , R. Waller
{"title":"以炎热潮湿气候下不同技术水平温室的技术经济绩效为基准","authors":"W. Hopwood , Z. Lopez-Reyes , A. Bantan , C. Vietti , D. Al-Shahrani , A. Al-Harbi , M. Qaryouti , P. Davies , M. Tester , R. Wing , R. Waller","doi":"10.1016/j.biosystemseng.2024.06.005","DOIUrl":null,"url":null,"abstract":"<div><p>Greenhouse agriculture is expected to play a critical role in sustainable crop production in the coming decades, opening new markets in climate zones that have been traditionally unproductive for agriculture. Extreme hot and humid conditions, prevalent in rapidly growing economies including the Arabian Peninsula, present unique design and operational challenges to effective greenhouse climate control. These challenges are often poorly understood by local operators and inadequately researched in the literature. This study addresses this knowledge gap by presenting, for the first time, a comprehensive set of benchmarks for water and energy usage, CO<sub>2</sub> emissions (CO<sub>2</sub>e) contribution, and economic performance for low-, mid-, and high-tech greenhouse designs in such climates. Utilising a practical and adaptable model-based framework, the analysis reveals the high-tech design generated the best results for economic return, achieving a 4.9-year payback period with superior water efficiency compared to 5.8 years for low-tech and 7.0 years for mid-tech; however, the high-tech design used significantly more energy to operate its mechanical cooling system, corresponding with higher CO<sub>2</sub>e per unit area (8.3 and 4.0 times higher than the low- and mid-tech, respectively). These benchmarks provide new insights for greenhouse operators, researchers, and other stakeholders, facilitating the development of effective greenhouse design and operational strategies tailored to meet the challenges of hot and humid climates.</p></div>","PeriodicalId":9173,"journal":{"name":"Biosystems Engineering","volume":null,"pages":null},"PeriodicalIF":4.4000,"publicationDate":"2024-06-20","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://www.sciencedirect.com/science/article/pii/S1537511024001399/pdfft?md5=b1e9b7dd21dd504421194ea2160b0474&pid=1-s2.0-S1537511024001399-main.pdf","citationCount":"0","resultStr":"{\"title\":\"Benchmarking techno-economic performance of greenhouses with different technology levels in a hot humid climate\",\"authors\":\"W. Hopwood , Z. Lopez-Reyes , A. Bantan , C. Vietti , D. Al-Shahrani , A. Al-Harbi , M. Qaryouti , P. Davies , M. Tester , R. Wing , R. Waller\",\"doi\":\"10.1016/j.biosystemseng.2024.06.005\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"<div><p>Greenhouse agriculture is expected to play a critical role in sustainable crop production in the coming decades, opening new markets in climate zones that have been traditionally unproductive for agriculture. Extreme hot and humid conditions, prevalent in rapidly growing economies including the Arabian Peninsula, present unique design and operational challenges to effective greenhouse climate control. These challenges are often poorly understood by local operators and inadequately researched in the literature. This study addresses this knowledge gap by presenting, for the first time, a comprehensive set of benchmarks for water and energy usage, CO<sub>2</sub> emissions (CO<sub>2</sub>e) contribution, and economic performance for low-, mid-, and high-tech greenhouse designs in such climates. Utilising a practical and adaptable model-based framework, the analysis reveals the high-tech design generated the best results for economic return, achieving a 4.9-year payback period with superior water efficiency compared to 5.8 years for low-tech and 7.0 years for mid-tech; however, the high-tech design used significantly more energy to operate its mechanical cooling system, corresponding with higher CO<sub>2</sub>e per unit area (8.3 and 4.0 times higher than the low- and mid-tech, respectively). 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Benchmarking techno-economic performance of greenhouses with different technology levels in a hot humid climate
Greenhouse agriculture is expected to play a critical role in sustainable crop production in the coming decades, opening new markets in climate zones that have been traditionally unproductive for agriculture. Extreme hot and humid conditions, prevalent in rapidly growing economies including the Arabian Peninsula, present unique design and operational challenges to effective greenhouse climate control. These challenges are often poorly understood by local operators and inadequately researched in the literature. This study addresses this knowledge gap by presenting, for the first time, a comprehensive set of benchmarks for water and energy usage, CO2 emissions (CO2e) contribution, and economic performance for low-, mid-, and high-tech greenhouse designs in such climates. Utilising a practical and adaptable model-based framework, the analysis reveals the high-tech design generated the best results for economic return, achieving a 4.9-year payback period with superior water efficiency compared to 5.8 years for low-tech and 7.0 years for mid-tech; however, the high-tech design used significantly more energy to operate its mechanical cooling system, corresponding with higher CO2e per unit area (8.3 and 4.0 times higher than the low- and mid-tech, respectively). These benchmarks provide new insights for greenhouse operators, researchers, and other stakeholders, facilitating the development of effective greenhouse design and operational strategies tailored to meet the challenges of hot and humid climates.
期刊介绍:
Biosystems Engineering publishes research in engineering and the physical sciences that represent advances in understanding or modelling of the performance of biological systems for sustainable developments in land use and the environment, agriculture and amenity, bioproduction processes and the food chain. The subject matter of the journal reflects the wide range and interdisciplinary nature of research in engineering for biological systems.