A higher percent of transmittance in a solution typically indicates that more light is passing through, suggesting lower absorbance by the substances present. In the context of aerobic respiration, if transmittance is measured for a product like carbon dioxide or a byproduct of respiration, a higher percent could imply more aerobic respiration is occurring. However, transmittance alone doesn't directly measure respiration; it must be considered alongside other factors like the specific substances being analyzed.
The percent transmittance grew to steadily higher numbers as the experiment progressed because the light reaction was able to occur. However, the dark cuvettes had stable levels of transmittance because light is necessary to excite electrons, which, in turn, reduces the DPIP.
Aerobic respiration likely protected early unicellular organisms from damage by providing a more efficient way to generate energy compared to anaerobic respiration. This higher energy yield allowed cells to better maintain homeostasis and withstand environmental stressors. Additionally, aerobic respiration produces less toxic byproducts than anaerobic respiration, reducing the risk of cellular damage.
Anaerobic respiration is not the same as fermentation, although it does happen in the absence of oxygen unlike aerobic respiration which is when glucose and oxygen react to create carbon dioxide, water and energy. Basically, aerobic respiration is what animals do to gain energy and it is the opposite of photosynthesis.
Under normal circumstances, aerobic respiration is favored by cells. This process involves the breakdown of glucose in the presence of oxygen to produce ATP, which is the cell's main source of energy. Aerobic respiration is more efficient and yields a higher amount of ATP compared to anaerobic respiration.
Aerobic respiration is more efficient than fermentation in terms of obtaining energy from glucose because it produces a much higher yield of ATP molecules per glucose molecule. Aerobic respiration produces up to 38 ATP molecules per glucose molecule, while fermentation produces only 2 ATP molecules per glucose molecule.
Yes, aerobic respiration is highly efficient in producing ATP compared to other forms of cellular respiration, producing up to 36-38 ATP molecules per glucose molecule. This process involves the complete breakdown of glucose in the presence of oxygen, resulting in a higher yield of ATP through the electron transport chain and oxidative phosphorylation.
Aerobic respiration produces more ATP molecules per glucose molecule compared to anaerobic respiration, providing more energy for the cell. Additionally, aerobic respiration does not produce lactic acid or ethanol as byproducts, reducing the risk of harmful acidic conditions in the cell.
The percent transmittance grew to steadily higher numbers as the experiment progressed because the light reaction was able to occur. However, the dark cuvettes had stable levels of transmittance because light is necessary to excite electrons, which, in turn, reduces the DPIP.
The lower transmittance of film would indicate a higher Optical Density (OD), or absorption, because as concentration increases, % transmittance will decrease. This is because of Beer's Law (A = 2.00 -[log (%T)]). As you can see from the equation, transmittance is directly proportional to the outcome of absorption. High %T = Lower Absorption.Low %T = Higher Absorption.
Aerobic respiration likely protected early unicellular organisms from damage by providing a more efficient way to generate energy compared to anaerobic respiration. This higher energy yield allowed cells to better maintain homeostasis and withstand environmental stressors. Additionally, aerobic respiration produces less toxic byproducts than anaerobic respiration, reducing the risk of cellular damage.
Aerobic cellular respiration produces a net gain of 36 ATP per glucose molecule. Anaerobic respiration produces a net gain of 2 ATP per glucose molecules.Aerobic cellular respiration produces 15 times more energy from sugar than anaerobic cellular respiration. :-)
Anaerobic respiration is not the same as fermentation, although it does happen in the absence of oxygen unlike aerobic respiration which is when glucose and oxygen react to create carbon dioxide, water and energy. Basically, aerobic respiration is what animals do to gain energy and it is the opposite of photosynthesis.
Under normal circumstances, aerobic respiration is favored by cells. This process involves the breakdown of glucose in the presence of oxygen to produce ATP, which is the cell's main source of energy. Aerobic respiration is more efficient and yields a higher amount of ATP compared to anaerobic respiration.
What do you mean what type, do you mean what part? The least NADH producing part is pyruvate oxidation.
Aerobic means "with oxygen" and anaerobic means "without oxygen." Cells produce energy at a might higher and faster rate with oxygen than without.
The electron transport generates the most ATP in the aerobic respiration. Higher organisms, such as reptiles, mammals, and birds, require a tremendous amount of ATP to function; therefore, the cells of higher organisms most frequently use aerobic respiration.
genetically males have a higher VO2 max that females because males have a greater muscle mass that females. Mitochondria are the site of cellular respiration and the majority of them are located within muscle tissues in the body. If there are more sites for cellular respiration than the body will be able to keep at an aerobic level of fitness for longer because the body can remove a higher volume of oxygen from the bloodstream. This would cause a person to maintain a longer state of aerobic respiration and therefore have a higher VO2 max.