Stomata (stoma)
Stomata in plant leaves allow the exchange of gases with the environment. Oxygen passes out and carbon dioxide passes in. Stomata are holes in the leaf's surface layers , mostly on the underside of the leaves.
the holes in the underside of the leaf is called '' stomata''hope that helped
A leaf's thin, flat shape allows for a large surface area relative to its volume, facilitating the exchange of gases through diffusion. The presence of stomata and a network of veins ensures efficient transport of gases to and from cells within the leaf. Additionally, the presence of moist surfaces and air spaces within the leaf help facilitate diffusion of gases.
The form of a leaf is typically flat and broad to maximize surface area for photosynthesis. This shape allows the leaf to efficiently capture sunlight and absorb carbon dioxide for the process of photosynthesis. Additionally, the thinness of the leaf enables gases to easily diffuse in and out of the leaf.
The stoma (stomata)
Stomata (stoma)
stomata
Stomata in plant leaves allow the exchange of gases with the environment. Oxygen passes out and carbon dioxide passes in. Stomata are holes in the leaf's surface layers , mostly on the underside of the leaves.
The respiratory holes on the surface of a leaf are called stomata. They allow for the exchange of gases, such as oxygen and carbon dioxide, with the surrounding environment during photosynthesis and respiration.
i first thought it was stoma. but its stomata.
the holes in the underside of the leaf is called '' stomata''hope that helped
i first thought it was stoma. but its stomata.
There are small pores on the leaves of plants called stomata (singular 'stoma'). They are pea shaped, small holes seen in the epidermis of the leaves. The oxygen for breathing and Carbon Di Oxide for photosynthesis are taken in and out through the stomata.
the leaf has super little holes. The holes breathe in the carbon dioxide.
A leaf's thin, flat shape allows for a large surface area relative to its volume, facilitating the exchange of gases through diffusion. The presence of stomata and a network of veins ensures efficient transport of gases to and from cells within the leaf. Additionally, the presence of moist surfaces and air spaces within the leaf help facilitate diffusion of gases.
The spongy mesophyll in a leaf functions in gas exchange and photosynthesis. Its loosely packed cells allow for the diffusion of gases, such as carbon dioxide and oxygen, into and out of the leaf. Additionally, it contains chloroplasts that aid in photosynthesis by capturing light energy and converting it into sugars.