Atmosphere has the higher concentration of carbon dioxide. If water had a high concentration of carbon dioxide then water would be acidic because it would result the formation of carbonic acid, but water is neutral. The fact that dissolved carbon dioxide create carbonic acid is used in the manufacture of Coca-Cola. So I think it is the atmosphere.
This is an example of diffusion, where molecules naturally move from an area of higher concentration to an area of lower concentration. In this case, carbon dioxide moves from the air (higher concentration) into the plant (lower concentration) during photosynthesis.
The relationship between carbon dioxide concentration and glucose concentration is primarily observed during photosynthesis in plants. As carbon dioxide concentration increases, photosynthesis rates typically rise, leading to higher glucose production, assuming other factors like light and water are sufficient. Conversely, in the absence of adequate carbon dioxide, glucose production can be limited. Thus, there is a direct correlation between the two, where increased carbon dioxide can enhance glucose synthesis.
The concentration of gaseous pollutants is higher nearer their source than at a distance. This change in concentration is the basis for calculating the ground level concentration (glc) of pollutants when designing industrial stacks. In the case of carbon dioxide the gas originates from the industrial combustion of fuel and would be expected to be higher downwind of the source. The same logic applies to sites downwind of busy cities or roadways. The concentration eventually levels out to the approximate 380 ppm typical of the Earth's atmosphere. Interestingly there is a corresponding dip in the concentration downwind o growing crops or forests as the plants extract the carbon dioxide and replace it with oxygen.
the carbon dioxide will move into the cell due to the concentration of carbon dioxide outside of the cell being higher
The process responsible for the transport of oxygen and carbon dioxide across the alveolar membrane is called diffusion. This occurs due to the concentration gradients of these gases; oxygen diffuses from the alveoli, where its concentration is higher, into the blood in the capillaries, while carbon dioxide diffuses from the blood, where its concentration is higher, into the alveoli to be exhaled. This passive transport mechanism relies on the differences in partial pressures of the gases.
The concentration of oxygen in the lungs is higher than the concentration of carbon dioxide. In the alveoli of the lungs, oxygen diffuses into the blood from the air we breathe, while carbon dioxide diffuses out of the blood into the alveoli to be exhaled. This exchange allows for the uptake of oxygen and the removal of carbon dioxide from the body.
This is an example of diffusion, where molecules naturally move from an area of higher concentration to an area of lower concentration. In this case, carbon dioxide moves from the air (higher concentration) into the plant (lower concentration) during photosynthesis.
The concentration of carbon dioxide over an industrial site might be higher, because of the emissions, however, carbon dioxide mixes well with other gases, so it will spread out all over the world.
The relationship between carbon dioxide concentration and glucose concentration is primarily observed during photosynthesis in plants. As carbon dioxide concentration increases, photosynthesis rates typically rise, leading to higher glucose production, assuming other factors like light and water are sufficient. Conversely, in the absence of adequate carbon dioxide, glucose production can be limited. Thus, there is a direct correlation between the two, where increased carbon dioxide can enhance glucose synthesis.
When the oxygen concentration is much higher than the carbon dioxide concentration, rubisco, the enzyme responsible for carbon fixation in photosynthesis, can unintentionally bind to oxygen instead of carbon dioxide. This results in a process called photorespiration, which can reduce the efficiency of photosynthesis and waste energy.
When you exhale, you are not exhaling carbon dioxide. You are exhaling air with a slightly higher-than-normal concentration of carbon dioxide and a slightly lower-than-normal concentration of oxygen. Carbon dioxide extinguishes fire by forcing oxygen away from the fuel, but the air you exhale still has more than enough oxygen to support combustion.
No. It depends on the concentration of carbon dioxide in the alveoli and the blood. The concentration of carbon dioxide in the capillaries of the alveoli is higher than the concentration of carbon dioxide in the air, so carbon dioxide in the capillaries of the alveoli diffuses out of the capillaries into the alveoli of the lungs and is exhaled.
Exhaled breath has a higher concentration of carbon dioxide than inhaled air has. This is true whether you breathe through the nose or the mouth.
Actually carbon dioxide concentration increases at midnight and decreases at dawn At night the concentration is higher because plants take in oxygen and breathe out carbon dioxide at night so the concentration is higher. At dawn the concentration is lower because, plants breathe in oxygen at daytime and breathe out CO2 so the concentration is lower.
The concentration of gaseous pollutants is higher nearer their source than at a distance. This change in concentration is the basis for calculating the ground level concentration (glc) of pollutants when designing industrial stacks. In the case of carbon dioxide the gas originates from the industrial combustion of fuel and would be expected to be higher downwind of the source. The same logic applies to sites downwind of busy cities or roadways. The concentration eventually levels out to the approximate 380 ppm typical of the Earth's atmosphere. Interestingly there is a corresponding dip in the concentration downwind o growing crops or forests as the plants extract the carbon dioxide and replace it with oxygen.
The direction of diffusion for carbon dioxide and oxygen in the lungs and tissues is determined by their respective concentration gradients. In the lungs, carbon dioxide diffuses out of the blood into the alveoli where its concentration is lower, while oxygen diffuses into the blood from the alveoli where its concentration is higher. In the tissues, oxygen diffuses from the blood into the cells where its concentration is lower, and carbon dioxide diffuses from the cells into the blood where its concentration is higher.
the carbon dioxide will move into the cell due to the concentration of carbon dioxide outside of the cell being higher