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Image courtesy of Knox et al. (2024). Illustration by Diana Swantek, Lawrence Berkeley National Laboratory. Visualization of the dynamic interaction between differential carbon (C) and nutrient (N) storage and fine-root growth. A plant (left) with proportionally more fine-root will tend to have decreased carbon allocation and increased nutrient allocation, than a plant (right) with proportionally less fine-root. The algorithm presented here seeks to balance these allocations through modifying fine-root growth. *Note that in this diagram, N is representing any nutrient, including nitrogen and phosphorus.

Image courtesy of Knox et al. (2024). Illustration by Diana Swantek, Lawrence Berkeley National Laboratory. Visualization of the dynamic interaction between differential carbon (C) and nutrient (N) storage and fine-root growth. A plant (left) with proportionally more fine-root will tend to have decreased carbon allocation and increased nutrient allocation, than a plant (right) with proportionally less fine-root. The algorithm presented here seeks to balance these allocations through modifying fine-root growth. *Note that in this diagram, N is representing any nutrient, including nitrogen and phosphorus.

  • Image courtesy of Knox et al. (2024). Illustration by Diana Swantek, Lawrence Berkeley National Laboratory. Visualization of the dynamic interaction between differential carbon (C) and nutrient (N) storage and fine-root growth. A plant (left) with proportionally more fine-root will tend to have decreased carbon allocation and increased nutrient allocation, than a plant (right) with proportionally less fine-root. The algorithm presented here seeks to balance these allocations through modifying fine-root growth. *Note that in this diagram, N is representing any nutrient, including nitrogen and phosphorus.

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