Enny Widyati , Sadino , Sugeng Budiharta , Acep Akbar , Adi Susilo , Agus Kurniawan , Asep Sadili , Diana Prameswari , Edi Mirmanto , Etik Erna Wati Hadi , Mustaid Siregar , Marfuah Wardani , Naning Yuniarti , Nina Mindawati , Parlin H.P. Pasaribu , Ragil S.B. Irianto , Ratri Ma'rifatun Nisaa’ , Sri Een Hartatik , Sri Suharti , Sutiyono , Truly Santika
{"title":"热带森林向乔木和油棕种植园转化后土壤-根-生物相互作用的变化","authors":"Enny Widyati , Sadino , Sugeng Budiharta , Acep Akbar , Adi Susilo , Agus Kurniawan , Asep Sadili , Diana Prameswari , Edi Mirmanto , Etik Erna Wati Hadi , Mustaid Siregar , Marfuah Wardani , Naning Yuniarti , Nina Mindawati , Parlin H.P. Pasaribu , Ragil S.B. Irianto , Ratri Ma'rifatun Nisaa’ , Sri Een Hartatik , Sri Suharti , Sutiyono , Truly Santika","doi":"10.1016/j.apsoil.2025.106253","DOIUrl":null,"url":null,"abstract":"<div><div>The impacts of monoculture establishment on tropical ecosystems and biodiversity have been the subject of extensive studies, yet the impact on the relationship between soil, plant root, and organism has received limited attention. We sought to assess changes in soil-root-organism interactions resulting from tropical forest conversion to monocultures. Using data from forests and multiple tree and oil palm plantations in Indonesia, we found that the conversion of forests to monocultures impacted soil ecology through direct and indirect effects on soil physicochemical properties, root exudates, and soil organisms. Land management practices and plant physiology influenced soil physicochemical properties across land use types. While root exudates of primary metabolites associated with plant growth were strongly related to soil physicochemical properties, both soil physicochemical properties and the underlying ecological differences between forests and monocultures play important roles in determining secondary metabolite exudates responsible for plant-plant interface, including competition and defence against pathogens. This demonstrates that secondary metabolites evolve through a complex mechanism involving both physical processes and interactions with other plants. Despite having superior primary and secondary metabolites responsible for competition, monoculture plantations had weaker defensive metabolites for pathogen suppression than forests. Furthermore, monocultures had a significantly higher proportion of fungi in their soil microbial profiles than forests. A weakened defence system, combined with elevated fungal presence, can increase monocultures' susceptibility to disease. Our results underscore the critical role of diverse ecosystems in ensuring ecological stability, emphasising the necessity for enhanced diversity in monocultures, whether through agroforestry or intercropping, for long-term soil health.</div></div>","PeriodicalId":8099,"journal":{"name":"Applied Soil Ecology","volume":"213 ","pages":"Article 106253"},"PeriodicalIF":4.8000,"publicationDate":"2025-06-10","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Changes in soil-root-organism interactions following tropical forest conversion to tree and oil palm plantations\",\"authors\":\"Enny Widyati , Sadino , Sugeng Budiharta , Acep Akbar , Adi Susilo , Agus Kurniawan , Asep Sadili , Diana Prameswari , Edi Mirmanto , Etik Erna Wati Hadi , Mustaid Siregar , Marfuah Wardani , Naning Yuniarti , Nina Mindawati , Parlin H.P. Pasaribu , Ragil S.B. Irianto , Ratri Ma'rifatun Nisaa’ , Sri Een Hartatik , Sri Suharti , Sutiyono , Truly Santika\",\"doi\":\"10.1016/j.apsoil.2025.106253\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"<div><div>The impacts of monoculture establishment on tropical ecosystems and biodiversity have been the subject of extensive studies, yet the impact on the relationship between soil, plant root, and organism has received limited attention. We sought to assess changes in soil-root-organism interactions resulting from tropical forest conversion to monocultures. Using data from forests and multiple tree and oil palm plantations in Indonesia, we found that the conversion of forests to monocultures impacted soil ecology through direct and indirect effects on soil physicochemical properties, root exudates, and soil organisms. Land management practices and plant physiology influenced soil physicochemical properties across land use types. While root exudates of primary metabolites associated with plant growth were strongly related to soil physicochemical properties, both soil physicochemical properties and the underlying ecological differences between forests and monocultures play important roles in determining secondary metabolite exudates responsible for plant-plant interface, including competition and defence against pathogens. This demonstrates that secondary metabolites evolve through a complex mechanism involving both physical processes and interactions with other plants. Despite having superior primary and secondary metabolites responsible for competition, monoculture plantations had weaker defensive metabolites for pathogen suppression than forests. Furthermore, monocultures had a significantly higher proportion of fungi in their soil microbial profiles than forests. A weakened defence system, combined with elevated fungal presence, can increase monocultures' susceptibility to disease. 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Changes in soil-root-organism interactions following tropical forest conversion to tree and oil palm plantations
The impacts of monoculture establishment on tropical ecosystems and biodiversity have been the subject of extensive studies, yet the impact on the relationship between soil, plant root, and organism has received limited attention. We sought to assess changes in soil-root-organism interactions resulting from tropical forest conversion to monocultures. Using data from forests and multiple tree and oil palm plantations in Indonesia, we found that the conversion of forests to monocultures impacted soil ecology through direct and indirect effects on soil physicochemical properties, root exudates, and soil organisms. Land management practices and plant physiology influenced soil physicochemical properties across land use types. While root exudates of primary metabolites associated with plant growth were strongly related to soil physicochemical properties, both soil physicochemical properties and the underlying ecological differences between forests and monocultures play important roles in determining secondary metabolite exudates responsible for plant-plant interface, including competition and defence against pathogens. This demonstrates that secondary metabolites evolve through a complex mechanism involving both physical processes and interactions with other plants. Despite having superior primary and secondary metabolites responsible for competition, monoculture plantations had weaker defensive metabolites for pathogen suppression than forests. Furthermore, monocultures had a significantly higher proportion of fungi in their soil microbial profiles than forests. A weakened defence system, combined with elevated fungal presence, can increase monocultures' susceptibility to disease. Our results underscore the critical role of diverse ecosystems in ensuring ecological stability, emphasising the necessity for enhanced diversity in monocultures, whether through agroforestry or intercropping, for long-term soil health.
期刊介绍:
Applied Soil Ecology addresses the role of soil organisms and their interactions in relation to: sustainability and productivity, nutrient cycling and other soil processes, the maintenance of soil functions, the impact of human activities on soil ecosystems and bio(techno)logical control of soil-inhabiting pests, diseases and weeds.