Oxygen produced by chloroplasts during photosynthesis diffuses out of the chloroplasts into the cytoplasm of the plant cell. From the cytoplasm, it then moves through the cell membrane and into the surrounding environment. This process occurs primarily through diffusion, where oxygen molecules move from an area of higher concentration inside the cell to an area of lower concentration outside. Additionally, the small size and nonpolar nature of oxygen facilitate its passage through the lipid bilayer of the cell membrane.
The oxygen produced by chloroplasts during photosynthesis passes out of the cell primarily through small openings called stomata. These pores are located on the surface of leaves and allow for gas exchange, enabling oxygen to diffuse into the atmosphere while also facilitating the intake of carbon dioxide for photosynthesis. Additionally, oxygen can also diffuse directly through the cell membrane.
Oxygen produced by chloroplasts during photosynthesis passes out of the cell primarily through small openings called stomata, which are located on the surface of leaves. These stomata allow for the exchange of gases, enabling oxygen to exit the plant while also facilitating the intake of carbon dioxide for photosynthesis. Additionally, oxygen can also diffuse directly through the cell membrane into the surrounding environment.
Paramecium obtain oxygen through diffusion across their cell membrane. This process allows oxygen to pass from the surrounding water into the cell where it is used for cellular respiration to produce energy.
Nutrients and oxygen pass into body cells through a process called diffusion. This process allows these substances to move from areas of higher concentration (outside the cell) to areas of lower concentration (inside the cell) through the cell membrane. Once inside the cell, nutrients and oxygen are utilized for various cellular functions.
oxygen, carbon dioxide, and water
The oxygen produced by chloroplasts during photosynthesis passes out of the cell primarily through small openings called stomata. These pores are located on the surface of leaves and allow for gas exchange, enabling oxygen to diffuse into the atmosphere while also facilitating the intake of carbon dioxide for photosynthesis. Additionally, oxygen can also diffuse directly through the cell membrane.
Oxygen produced by chloroplasts during photosynthesis passes out of the cell primarily through small openings called stomata, which are located on the surface of leaves. These stomata allow for the exchange of gases, enabling oxygen to exit the plant while also facilitating the intake of carbon dioxide for photosynthesis. Additionally, oxygen can also diffuse directly through the cell membrane into the surrounding environment.
Cell membrane============================by johan9408Substances produced in a cell and exported outside of the cell would pass the endoplasmic reticulum and Golgi apparatus
All particles trying to get into the cell must get through the cell membrane. The cell membrane is selectively permeable, which means that it can select what goes in and what goes out. The structure of a cell membrane is called a lipid bilayer, which is two layers of phospholipids.
cell membrane
Although the cell wall is tough, many materials, including water and oxygen, can pass through easily.
Oxygen
It keeps the cell in shape, works as a protection and lets oxygen and nutrition pass into the cell
Substances produced in a cell and exported outside of the cell, such as proteins, hormones, and neurotransmitters, would pass through the Golgi apparatus. The Golgi apparatus functions to process, modify, and package these substances before they are transported to their final destination outside the cell.
Small, non-polar molecules like oxygen, carbon dioxide, and water can easily pass through a cell membrane.
Oxygen is much smaller than a protein.proteins are too largeDifference in size
Substances produced in a cell and exported outside of the cell would pass through the cell's plasma membrane via a process called exocytosis. Exocytosis involves the fusion of vesicles containing the substances with the plasma membrane, allowing the substances to be released outside the cell.