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In other words, the bulk starch content keeps stomata on time, most likely through the sugars generated in the internal tissues of the leaves, which travel to the guard cells to set the local time. In some plants there is no starch present in the guard cells (e.g., allium sp.) Starch breaks down, producing sucrose and malate

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These, along with the influx of ions, increases the solute concentration inside of the guard cells, driving water into the cells. Guard cell photosynthesis hypothesis, classical starch hydrolysis theory, and malate/k+ ion pump hypothesis. In addition to the circadian clock, leaf starch is synthesized during the day and broken down at night to generate sugars for energy, thus acting as a transitory metabolic clock.

Transitory starch in these cells plays a key role in determining the velocity of stomatal opening in the light

This significantly differs from the transitory starch in the mesophyll leaves, which acts primarily as a carbohydrate reserve to sustain plant metabolism during the night. This increase in sugar concentration leads to water influx into the guard cells, causing them to swell and the stomata to open. Starch metabolism in guard cells plays a central role in regulating stomatal movement in response to light, elevated ambient co 2 and potentially other abiotic and biotic factors. Stomata open at the leaf epidermis, driven by solute accumulation in the surrounding guard cells

Transmembrane ion transport has long been recognised to contribute to this process A new study makes it clear that guard cells also metabolise starch to accelerate opening. The document summarizes the physiology of stomata, including their structure, number, location, and mechanisms of opening and closing It discusses three main theories of stomatal movement