it is the stomata. it is located under the leaf and they are tiny opening in the leaves used for gas exchange
The tiny pore on a leaf that allows carbon dioxide to enter is called a stoma. Stomata are typically located on the underside of leaves and regulate gas exchange for photosynthesis.
The distinguishing feature of a plant with an unlobed leaf is that the leaf does not have any divisions or indentations along its edges.
Pinnate venation in a leaf is significant because it helps in the efficient transport of water, nutrients, and sugars throughout the leaf. This type of venation provides structural support and allows for a higher surface area for photosynthesis to occur, ultimately contributing to the overall function and health of the leaf.
Stomata allow carbon dioxide to enter the leaf for photosynthesis, while also allowing oxygen and water vapor to exit the leaf through transpiration.
One structural difference is the shape of the leaves: sea teak leaves are typically elongated and have pointed tips, while weeping willow leaves are narrow, oval-shaped, and can be pendulous or drooping.
plants maybe
Stomatal pores
A stomata, which allows for the exchange of oxygen to exit and carbon dioxide to enter.
The tiny pore on a leaf that allows carbon dioxide to enter is called a stoma. Stomata are typically located on the underside of leaves and regulate gas exchange for photosynthesis.
The distinguishing feature of a plant with an unlobed leaf is that the leaf does not have any divisions or indentations along its edges.
Pinnate venation in a leaf is significant because it helps in the efficient transport of water, nutrients, and sugars throughout the leaf. This type of venation provides structural support and allows for a higher surface area for photosynthesis to occur, ultimately contributing to the overall function and health of the leaf.
spongy layers
the leaf!
No
RUBP or PEP will absorb it. CO2 enter the leaf from air.
The stomata allows the carbon dioxide to enter.
Intercellular air in leaves allows for gas exchange between the leaf cells and the atmosphere, facilitating photosynthesis and respiration. This also helps in maintaining optimal levels of oxygen and carbon dioxide within the leaf for metabolic processes. Additionally, intercellular air spaces provide structural support and buoyancy to the leaf tissue.