Silicon enhances stomatal function and protects crop yields
Lead Research Organisation:
University of Sheffield
Department Name: School of Biosciences
Abstract
In this project the student will test whether wheat and rice plants with high
capacities for silicon uptake can produce 'more crop per drop' of water.
Silicon is an abundant element long thought of as being unreactive and non-essential for plants. However, some plants accumulate very high levels of
silicon and the benefits of this for their protection against threats such as
drought and pathogen attack have now become clear. For example, we have
recently discovered that silicon accumulates in the guard cells of stomata on
plant leaves and helps them to act quickly. These cells are particularly
important as they adjust the stomatal pores to control how much carbon
dioxide enters the plant for photosynthesis, and how much water is lost.
Plants that can react more quickly to a changing environment should be able
to use water more efficiently and could have advantages under rising CO2
levels and future warmer, drier climate scenarios. The student will learn to
use molecular and physiological techniques and use these to explore the
potential role for silicon in future food security
capacities for silicon uptake can produce 'more crop per drop' of water.
Silicon is an abundant element long thought of as being unreactive and non-essential for plants. However, some plants accumulate very high levels of
silicon and the benefits of this for their protection against threats such as
drought and pathogen attack have now become clear. For example, we have
recently discovered that silicon accumulates in the guard cells of stomata on
plant leaves and helps them to act quickly. These cells are particularly
important as they adjust the stomatal pores to control how much carbon
dioxide enters the plant for photosynthesis, and how much water is lost.
Plants that can react more quickly to a changing environment should be able
to use water more efficiently and could have advantages under rising CO2
levels and future warmer, drier climate scenarios. The student will learn to
use molecular and physiological techniques and use these to explore the
potential role for silicon in future food security
Organisations
People |
ORCID iD |
Julie Gray (Primary Supervisor) |
Studentship Projects
Project Reference | Relationship | Related To | Start | End | Student Name |
---|---|---|---|---|---|
BB/T007222/1 | 30/09/2020 | 29/09/2028 | |||
2740526 | Studentship | BB/T007222/1 | 30/09/2022 | 29/09/2026 |