Location: Water Management and Systems Research
Title: Soil biology: Root form and functionAuthor
GARBOWSKI, M - University Of Wyoming | |
FRESCHET, G - Centre National De La Recherche Scientifique | |
BROWN, C - Colorado State University | |
JACKSON, L - University Of California, Davis | |
Comas, Louise |
Submitted to: Encyclopedia of Soils in the Environment
Publication Type: Book / Chapter Publication Acceptance Date: 2/13/2023 Publication Date: 8/16/2023 Citation: Garbowski, M., Freschet, G.T., Brown, C.S., Jackson, L.E., Comas, L.H. 2023. Soil biology: Root form and function. In: Goss, M., Oliver, M., editors. Encyclopedia of Soils in the Environment. 2nd edition. Lexington, MA: Elsevier. p. 321-331. Interpretive Summary: Research focused on root traits and functions has grown rapidly over the last several decades. Recent research has identified trade-offs associated with root traits and clarified how specific traits influence plant performance in the face of various environmental stressors including drought, soil compaction, nutrient limitation, and salinity. Data from around the world are being used to advance understanding of how roots drive numerous ecosystems functions such as productivity, water and nutrient cycling, and erosion. Studies focused on anatomy and hormonal control of root growth continue to improve our understanding of how roots respond to changing environments throughout plant development. In addition, improved methods in quantitative genetics and genomics allow researchers to better understand the genetic underpinnings of root traits and functions. In a rapidly changing world, advanced understanding of root form and function has important implications for agriculture, restoration, and land management. Technical Abstract: Research focused on root traits and functions has grown rapidly over the last several decades. Recent research has identified trade-offs associated with root traits and clarified how specific traits influence plant performance in the face of various environmental stressors including drought, soil compaction, nutrient limitation, and salinity. Data from around the world are being used to advance understanding of how roots drive numerous ecosystems functions such as productivity, water and nutrient cycling, and erosion. Studies focused on anatomy and hormonal control of root growth continue to improve our understanding of how roots respond to changing environments throughout plant development. In addition, improved methods in quantitative genetics and genomics allow researchers to better understand the genetic underpinnings of root traits and functions. In a rapidly changing world, advanced understanding of root form and function has important implications for agriculture, restoration, and land management. |