The guard cells synthesize glucose through photosynthesis in the presence of light. as glucose accumulates, osmotic pressure increases and this enables them to draw water from adjacent epidermal cells by osmosis. this makes the guard cells turgid and the stomata opens. at night, there is no photosynthesis and therefore glucose levels go down leading to lowering of osmotic pressure. guard cells lose turgidity and become flaccid and therefore stomata closes. Am sure you can derive your answer from this.
To demonstrate which leaf structure regulates transpiration, you can focus on the stomata, which are small openings on the leaf surface. By using a leaf with a clear epidermis or by employing a microscope, you can observe the stomata's movement in response to environmental conditions, such as light and humidity. Additionally, you could conduct an experiment by covering some stomata with clear nail polish to prevent transpiration and comparing the water loss of treated vs. untreated leaves. This would illustrate how stomatal density and opening regulate transpiration rates in plants.
Small pores on the leaf surface are called stomata. They are responsible for regulating the exchange of gases, such as carbon dioxide and oxygen, during photosynthesis.
it gives the leaf food, carbon dioxide enters through tiny holes called stomata, Oxygen leaves plant through stomata. This is called respiration
Carbon dioxide uses stomata as its route into the leaf for photosynthesis. Stomata are small pores on the leaf surface that allow gas exchange, with carbon dioxide entering the leaf through these openings during photosynthesis.
Stomata are found on the underside of plant leaves. To prove this, you can use a microscope to observe and identify the stomata on a leaf's underside. Staining techniques can also be employed to make the stomata more visible for identification.
The guard cells open and close the stomata as needed.
To demonstrate which leaf structure regulates transpiration, you can focus on the stomata, which are small openings on the leaf surface. By using a leaf with a clear epidermis or by employing a microscope, you can observe the stomata's movement in response to environmental conditions, such as light and humidity. Additionally, you could conduct an experiment by covering some stomata with clear nail polish to prevent transpiration and comparing the water loss of treated vs. untreated leaves. This would illustrate how stomatal density and opening regulate transpiration rates in plants.
I believe stomata size will be the same after it enters the thylakoid memberane and wikapedia sucks because anyone can edit the information that is being given ight!!, it may appear small from wilt, stomata's vary in sizes from 100 to 1000 th of a millamitre in all plant species. If the stomata is reduced in size from wilt it will still function, maybe a fraction less that unwilted Lettuce. Regards Wayne Muller Barmac Industries Pty Ltd
The stomata are located on the lower surface of a leaf.
more than a desert plant as the humidity and temperature allows for this
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plant respire through there leaf but from what i know that it could be stomata so it could be leaf or stomata..
Guard cells contain chloroplasts, which are responsible for photosynthesis, and a large central vacuole that regulates the opening and closing of stomata. These organelles are absent in the skin cells of a leaf.
Yes, stomata are found in the lower epidermis of leaves in most plants. They are necessary for gas exchange, allowing the plant to take in carbon dioxide for photosynthesis and release oxygen and water vapor.