Examples of using Terminal electron acceptor in English and their translations into Indonesian
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Ecclesiastic
In aerobic organisms, the terminal electron acceptor is oxygen.
Because of the lack of oxygen for normal aerobic respiration,they use nitrate in place of oxygen as the terminal electron acceptor.
He learned bacteria could use sulfate as a terminal electron acceptor, instead of oxygen.
These terminal electron acceptors have smaller reduction potentials than O2, meaning that less energy is released per oxidized molecule.
In aerobic conditions, O2 is used as a terminal electron acceptor.
Molecular oxygen is the terminal electron acceptor of ERO1, which generates stoichiometric amounts of hydrogen peroxide for every disulfide bond produced[42].
He learned bacteria could use sulfate as a terminal electron acceptor, instead of oxygen.
The potential of NADH and FADH2 is converted to more ATP through anelectron transport chain with oxygen as the"terminal electron acceptor".
These organisms use metals as terminal electron acceptors in the same way that animals use oxygen.
In contrast, anaerobic respiration is cellularrespiration that occurs using other molecules as the terminal electron acceptor since oxygen isn't present.
Aerobic bacteria: Bacteria that require oxygen as a terminal electron acceptor and will not grow under anaerobic conditions(ie, in the absence of O2).
With quinolones, the researchers found that it wasn't enough to add just sugar;they also had to add a type of molecule known as a terminal electron acceptor.
He learned that bacteria could use sulfate as a terminal electron acceptor, instead of oxygen.
In eukaryotes, cellular respiration proceeds through the Krebs cycle and oxidative phosphorylation,which use molecular oxygen as the terminal electron acceptor.
In a microbial fuel cell operation,the anode is the terminal electron acceptor recognized by bacteria in the anodic chamber.
Additionally, these terminal electron acceptors are less efficient in their reduction potentials and could only produce a couple of ATP molecules per glucose molecule.
The final electron acceptor oxygen,which is also called the terminal electron acceptor, is reduced to water in this step.
Aerotolerant organisms can survive in the presence of oxygen,but they are anaerobic because they do not use it as a terminal electron acceptor. .
Other substances, such as sulfate or nitrate, are the terminal electron acceptors in the electron transport chains that generate their ATP.
Further, the evolution of chlorate reduction may be an ancient phenomenon as all perchlorate reducing bacteriadescribed to date also utilize chlorate as a terminal electron acceptor.
An aerobe is capable of using oxygen as a terminal electron acceptor and can tolerate oxygen levels higher than that present in the air(21 percent oxygen).
In aerobic respiration oxygen is taken into the organism and being used as the terminal electron acceptor in the electron transport chain.
The waste products are different according to the type of terminal electron acceptor in anaerobic respiration, whereas carbon dioxide is the main waste in aerobic respiration.
Metabolic process in obligate anaerobes involves using components that are very sensitive to oxidation- here,such inorganic molecules as sulfates may be used as terminal electron acceptors.
The oxygen then travels through the bloodstream to cells where it is used as a terminal electron acceptor in the process of oxidative phosphorylation to produce adenosine triphosphate, or ATP.
Each photosystem can be identified by the wavelength of light to which it is most reactive(700 and 680 nanometers, respectively for PSIand PSII in chloroplasts), and the type of terminal electron acceptor.
In photosystem I, ferredoxin-like iron-sulfur cluster proteins are used as terminal electron acceptors, while photosystem II transfers electrons to a quinone terminal electron acceptor.
Further, the evolution of chlorate reduction may be an ancient phenomenon as all perchlorate reducing bacteriadescribed to date also utilize chlorate as a terminal electron acceptor.[4] It should be clearly stated, that currently no chlorate-dominant minerals are known.
Type I photosystems use ferredoxin like iron- sulphur cluster proteins as terminal electron acceptors, while type II photosystems ultimately shuttle electrons to a quinone terminal electron acceptor.