Leaves have eukaryotic cells.So they have mitochondria
Stomata are specialized cells found in plant leaves that regulate gas exchange, while mitochondria are organelles present in most eukaryotic cells, including plant cells. So, both stomata and mitochondria are not cells themselves, but rather structures found in plant cells.
During the fall, as temperatures drop and daylight decreases, the mitochondria in leaves undergo changes to support the plant's transition into dormancy. The production of chlorophyll declines, leading to the breakdown of chloroplasts, while mitochondria may shift their metabolic activities to conserve energy. This process helps the plant to manage resources more efficiently as it prepares for winter. Additionally, the stress from environmental changes can lead to increased respiration rates as the plant reabsorbs nutrients from the leaves before they fall off.
During respiration, plant and animal mitochondria release carbon dioxide, water, and energy in the form of ATP. These byproducts are the result of the breakdown of glucose and other nutrients to produce energy for cellular processes.
They contain mitochondria which stores light energy as food, also through the use of chlorophyll (a green pigment).
In a leaf, mitochondria help to convert organic molecules such as sugars into energy through the process of cellular respiration. This energy is used by the leaf for various metabolic activities and processes, including growth, maintenance, and response to environmental stimuli. Mitochondria are the powerhouses of the cell and play a crucial role in providing energy for cellular functions in all plant cells, including those in leaves.
Stomata are specialized cells found in plant leaves that regulate gas exchange, while mitochondria are organelles present in most eukaryotic cells, including plant cells. So, both stomata and mitochondria are not cells themselves, but rather structures found in plant cells.
During the fall, as temperatures drop and daylight decreases, the mitochondria in leaves undergo changes to support the plant's transition into dormancy. The production of chlorophyll declines, leading to the breakdown of chloroplasts, while mitochondria may shift their metabolic activities to conserve energy. This process helps the plant to manage resources more efficiently as it prepares for winter. Additionally, the stress from environmental changes can lead to increased respiration rates as the plant reabsorbs nutrients from the leaves before they fall off.
During respiration, plant and animal mitochondria release carbon dioxide, water, and energy in the form of ATP. These byproducts are the result of the breakdown of glucose and other nutrients to produce energy for cellular processes.
They contain mitochondria which stores light energy as food, also through the use of chlorophyll (a green pigment).
Cellular respiration occurs in the mitochondria.
In a leaf, mitochondria help to convert organic molecules such as sugars into energy through the process of cellular respiration. This energy is used by the leaf for various metabolic activities and processes, including growth, maintenance, and response to environmental stimuli. Mitochondria are the powerhouses of the cell and play a crucial role in providing energy for cellular functions in all plant cells, including those in leaves.
Glycolysis. The Krebs cycle and Electron Transport Chain or Oxidative Phosphorylation both occur in the Mitochondria. For photosynthesis, the process takes place in the chloroplasts which are in the mesophyll cells of the leaves. Don't know if this answer is going to help. And because of this i think i m going to have to do my ap bio hw tomoro. thanks a lot.
Mitochondria in a restaurant
It is an organelle called the mitochondria
Respiration in plants primarily occurs in the mitochondria within the plant cells. Oxygen is taken in through pores on the leaves called stomata and is used in the mitochondria to break down sugars and release energy for the plant's cellular processes.
The singular of mitochondria is mitochondrion.
Mitochondria and Chloroplasts are involved in energy conversion.