terminal electron acceptor

Capable of using О2 as terminal electron acceptor in the respiratory chain.

可在呼吸链中利用О2做为最终电子接受者.

Dissimilatory iron reduction is a microbial anaerobic respiration, Which with Fe ( III) as the terminal electron acceptor and oxidize organic matter to gain energy.

异化铁还原是铁还原微生物以Fe（III）氧化物作为最终电子受体，通过氧化有机物质获得能量的厌氧呼吸过程。

In anoxic condition, denitrifying polyphosphate accumulating organisms ( DNPAOs) can simultaneously denitrify and excessively remove phosphorus by using nitrate as terminal electron acceptor.

反硝化聚磷菌可以在缺氧条件下，利用硝酸盐作为电子受体，实现同步反硝化和过量吸磷。

Dissimilatory Fe ( III) oxide reduction under anaerobic condition is a process which is an anaerobic respiration with Fe ( III) as the terminal electron acceptor.

厌氧条件下Fe（III）氧化物的还原，是微生物介导的、以Fe（III）氧化物为最终电子受体的厌氧呼吸过程。

In the anaerobic condition, S12 could conserve energy for growth by using Fe3+ as the terminal electron acceptor.

该菌能在厌氧条件下利用Fe3+作为末端电子受体获得能量，支持细胞生长。

Molecular oxygen is the terminal electron acceptor in the mitochondrial electron transport chain and is also the prerequisite conditions that are required by higher plants during their growth and development.

氧是线粒体电子传递链的末端受体，是高等植物正常生理代谢和生长发育必不可少的条件。

Capable of using О 2 as terminal electron acceptor in the respiratory chain.

可在呼吸链中利用О2做为最终电子接受者。

In aerobic systems, oxygen is the terminal electron acceptor and is reduced.

在需氧体系中, 氧是末端电子接受体并且被还原.

In the process of sulfide mineral bio-oxidization, molecular oxygen is the terminal electron acceptor. As a result, there must be a sufficient oxygen supply.

分子氧是硫化矿物生物氧化过程中电子转移的最终受体，因此硫化矿物的生物氧化过程必须供氧。

Thermophilic anaerobes are Archaea and Bacteria that grow optimally at temperatures of 50 ℃ or higher and do not require the use of O2 as a terminal electron acceptor for growth.

嗜热厌氧菌包括最佳生长温度在50℃以上的细菌或古菌，其生长不需要氧作为电子受体。

The electrical bistability and memory effects in the present devices are attributed to the electric-field-induced charge transfer between the carbazole electron donor and the terminal nitro or cyano electron acceptor entities, and subsequent charge trapping at the intermediate azobenzene chromophores.

电双稳态特性是由于场诱导的咔唑基团和受体分子之间的电荷转移以及偶氮苯的电荷捕获作用产生的。

Dissimilatory Fe ( III) reducing microorganisms are dominant groups widely present in variety anaerobic environments, which share the common features with the ability to use Fe ( III) as the terminal electron acceptor to gain energy.

异化Fe（III）还原微生物是厌氧环境中广泛存在的一类主要微生物类群，它们的共同特征是可以利用Fe（III）作为末端电子受体而获能。

Fe ( III) in environment undergoes reduction under anaerobic condition. And this process is a microbial dissimilatory reduction, namely an anaerobic respiration with Fe ( III) as the terminal electron acceptor.

厌氧条件下环境中的Fe（III）氧化物发生还原，并且这一过程主要是微生物介导的异化还原，即微生物以Fe（III）氧化物为最终电子受体的厌氧呼吸过程。

This result showed that phosphate-accumulating bacteria in the A~ 2 SBR could use nitrate as terminal electron acceptor instead of oxygen.

这一结果说明A2SBR反应系统中的聚磷菌能够利用硝酸根代替氧作为最终电子受体。

Dissimilatory Iron Reduction ( DIR), a kind of metabolism of microorganism, and Fe ( III) as the terminal electron acceptor was reduced to Fe ( II) in this process, coupled with the oxidation of organo/ abio electron donors.

异化Fe（III）还原作用是一种微生物代谢，该过程使有机或无机的电子供体以Fe（III）作为终端电子受体而被氧化，使Fe（III）还原为Fe（II）。