When CO2 is Added to Water due to Cellular Respiration the Concentration of H+ Increases so it Lowers the pH.
Usually, the higher the temperature the faster enzymes react and the quicker a reaction moves forward, however, if the temperature gets too hot, it can denature the proteins involved in the reaction.
Cellular respiration would produce less energy.
Body temperature is closely related to cellular respiration because the process generates heat as a byproduct of converting glucose and oxygen into energy (ATP). Increased cellular respiration, such as during exercise, raises metabolic activity, leading to a higher body temperature. Conversely, a lower body temperature can indicate reduced metabolic activity and decreased cellular respiration. Overall, maintaining an optimal body temperature is essential for efficient cellular processes, including respiration.
plants respire during the day as well the rate of respiration is lower than the rate of photosynthesis in the day
Circulatory and Respiratory systems, I believe.Cellular respiration occurs when plant and animal cells trigger the release of energy from glucose. Cellular respiration takes place in the mitochondria (located in all plant and animal cells, not in prokaryotes). Cellular respiration occurs in all parts of the body. I would suggest you look up the Krebs Cycle for a better understanding.The answer is all body systems do cellular respiration.Cellular respiration occurs at the cellular level meaning all cells in your body need to do this to survive. The production of ATP is the main goal... without ATP your body would have no energy "fuel" and would die. So if the cells in a particular body system stopped doing cellular respiration the system would fail.(there is however fermentation which is the production of ATP without the use of oxygen... but this will only sustain your cells for a limited time because the ATP produced is much lower)
Aerobic respiration produces more energy compared to anaerobic respiration. This is because aerobic respiration utilizes oxygen to fully break down glucose, resulting in more ATP (energy) production per glucose molecule. Anaerobic respiration, on the other hand, does not require oxygen and results in lower ATP production.
Cellular respiration is a process that occurs in the presence of oxygen and results in the production of ATP (energy) from glucose. Fermentation, on the other hand, occurs in the absence of oxygen and results in the production of ATP without the need for oxygen, but at a lower efficiency compared to cellular respiration. Fermentation also produces byproducts such as alcohol or lactic acid.
Cellular respiration is the process where animals can make energy or ATP. Pyruvates( product of the first step of cellular respiration) gets transferred to the mitochondria. If there are less mitochondria, less pyruvates will be made which means less ATP.
Factors Affecting Cellular RespirationBy Sue Teresa Tan, eHow ContributorOther People Are ReadingCellular respiration is the method of transforming nutrients to energy. Some of the nutrients that go through the process of cellular respiration are fats, glucose and other acids. The process of cellular respiration results in more energy. Many factors affect the rate of cellular respiration in living things.Amount of NutrientsThe more nutrients that are available to transform, the more energy results in the cellular respiration process. The types of nutrients that can go through the cellular respiration process and transform into energy are namely fat, proteins and carbohydrates. This also includes amino acids and fatty acids. The carbohydrates converts to glucose, the fats go through the citric acid cycle and the proteins break down and go through glycolysis. The amount of nutrients available to transform into energy depend on the diet of a person. The nutrients go through three processes in cellular respiration. The processes are glycolysis, Kreb’s cycle and the cytochrome system.TemperatureAnother factor affecting the cellular respiration is the temperature of the environment. Usually, the rate of cellular respiration quickens if the temperature is warmer. The lower the temperature, the slower the rate of cellular respiration is. People who live in warmer environments find it easier to restore their energy as long as there are nutrients available to convert in the body. The reason for this is the enzymes that are present in the cellular respiration process. Enzymes break down easier and then transform into energy quicker when the temperature is higher. Although the temperature affects the rate of cellular respiration, there are no studies that prove more energy production with higher temperatures. The temperature factor just affects the rate of the cellular respiration process.State of CellThe state of a cell undergoing the cellular respiration process is a factor that affects the rate of transforming nutrients into energy. Working cells, such as neurons or roots of the human hair, have a higher cellular respiration rate compared with dormant cells like seeds. This is because working cells can store extra energy in the body while dormant cells tend to stay non-motile. For this reason, plant cells do not need to store as much energy as human cells or animal cells do. This is the reason why cellular respiration in plants is a bit different from the cellular respiration process human and animal cells go through.Read more:Factors Affecting Cellular Respiration | eHow.comhttp://www.ehow.com/list_6417883_factors-affecting-cellular-respiration.html#ixzz2Q3XFRlk5
In fermentation, the end products are typically lactic acid or ethanol, with a lower energy yield as compared to cellular respiration. Cellular respiration, on the other hand, produces carbon dioxide, water, and a much larger amount of energy in the form of ATP through the complete oxidation of glucose.
When oxygen is absent, most of the ATP produced in cellular respiration comes from anaerobic processes, primarily fermentation. In humans, this results in lactic acid fermentation, while in yeast, alcoholic fermentation occurs. Both processes regenerate NAD+ to allow glycolysis to continue, which produces a small amount of ATP. Overall, the yield of ATP in anaerobic conditions is significantly lower than in aerobic respiration.
Iron is a crucial component of enzymes involved in cellular respiration, which is the process by which bacteria generate energy. A lack of iron would impair the function of these enzymes, leading to decreased energy production in the bacterium. This can result in reduced growth and metabolism.