Przykłady aerobic respiration

• Overall competitive differences between the strains can be enhanced by converting them to petites (aerobic respiration incompetent).

• We found this effect in petite (aerobic respiration incompetent) strains but not grande (respiration competent) strains.

• Biological reworking of sedimentary organic matter occurs through a sequence of redox-reactions involving aerobic respiration, nitrate, iron and sulphate reduction as well as methanogenesis.

• Aerobic respiration does not lead to side products as the pyruvate precursor is completely degenerated to carbon dioxide and water.

• The strains in which we found declining growth rates were unable to carry out aerobic respiration, while we were unable to make similar measurements on the less metabolically damaged cells.

• Anaerobic respiration is correspondingly less efficient than aerobic respiration.

• Glucose is the human body's key source of energy, through aerobic respiration, providing about 3.75 kilocalories (16 kilojoules) of food energy per gram.

• Anaerobic respiration differs from aerobic respiration in that it uses an electron acceptor other than oxygen in the electron transport chain.

• However, some aerobic mammalian cells will preferentially use lactic acid fermentation over aerobic respiration.

• This reaction is usually catalyzed by the pyruvate dehydrogenase complex as part of aerobic respiration.

• After using up glucose for fermentation, these genes get activated for aerobic respiration.

• When oxygen is present, aerobic respiration occurs, producing carbon dioxide.

• Aerobic respiration converts organic carbon into carbon dioxide and a particular type of anaerobic respiration converts it into methane.

• This process of cellular respiration, also known as aerobic respiration, is dependent on the presence of oxygen.

• Anaerobic respiration is used by some microorganisms in which neither oxygen (aerobic respiration) nor pyruvate derivatives (fermentation) is the final electron acceptor.