ライフサイエンスコーパス: electron transport system

1 in complex that links the Krebs cycle to the electron transport system.

2 t putatively monitors the redox state of the electron transport system.

3 ation and the expression of the genes of the electron transport system.

4 y that links disulfide bond formation to the electron transport system.

5 drogenase, which are integral members of the electron transport system.

6 is type of behavior is originated within the electron transport system.

7 . brasilense are triggered by changes in the electron transport system.

8 tabolism dependent and required a functional electron transport system.

9 the flow of reducing equivalents through the electron transport system.

10 stulated to interact with a component of the electron transport system.

11 located upstream of ATP synthase within the electron transport system.

12 s it is not caused by a direct effect on the electron transport system.

13 ivergence across different components of the electron transport system.

14 onferred in part by multicomponent, branched electron transport systems.

15 affects the onset but not the progression of electron transport system abnormalities, thereby, limiti

16 This review focuses on the respiratory electron transport system and its adaptive consequences

17 ance, which act as a readout of a functional electron transport system and metabolism.

18 light, redox carriers that interact with the electron transport system and metabolized carbon sources

19 erichia coli is a response to changes in the electron transport system and not oxygen per se.

20 uggest reduced activity of the mitochondrial electron transport system and reduced levels of cardiac-

21 g point for defining this organism's complex electron transport systems and metal ion-reducing capabi

22 tility responses triggered by changes in the electron transport system are collectively known as ener

23 e production by inhibiting the mitochondrial electron transport system, did not inhibit IL-1beta-indu

24 al respiration, transmembrane potential, and electron transport system enzymatic activities showed no

25 These electron transport system (ETS) abnormalities accumulate

26 restriction and aging on the accumulation of electron transport system (ETS) abnormalities was studie

27 roduced per pair of electrons donated to the electron transport system (ETS) and energy-maintenance r

28 The menaquinone pool is central to the electron transport system (ETS) and therefore provides a

29 t 24 h to measure mitochondrial respiration, electron transport system (ETS) complex activity and sub

30 The bacterial respiratory electron transport system (ETS) is branched to allow con

31 mplexes II, III, and IV of the mitochondrial electron transport system (ETS) is reduced in postmortem

32 These results suggest that electron transport system (ETS) proteins form coadapted

33 remove critical subunits that encode for the electron transport system (ETS).

34 of VL muscle fibers exhibiting mitochondrial electron-transport-system (ETS) abnormalities increased

35 The bacterial P450cin utilizes a similar electron transport system except the FAD/FMN reductase c

36 hich requires the proton motive force and/or electron transport system for signaling.

37 irment, particularly within complex I of the electron transport system, has been implicated in the pa

38 ailable, the former requiring an alternative electron transport system in a simplified mitochondrion.

39 actions of three complex III proteins of the electron transport system in F2 hybrid copepods resultin

40 c acid pathway and all five complexes of the electron transport system in mitochondria.

41 efences, and the activity of the respiratory electron transport system in organisms collected on the

42 Since utilization of menaquinone in the electron transport system is a characteristic of Gram-po

43 bacterium, Shewanella oneidensis MR-1, whose electron transport system is being investigated for rene

44 Under low energy demand, the mitochondrial electron transport system is particularly sensitive to a

45 MPTP is believed to inhibit complex I of the electron transport system leading to the generation of r

46 The fully assembled complex functions as an electron transport system, moving electrons from cytosol

47 noids that play key roles in the respiratory electron transport system of some prokaryotes by shuttli

48 As quinones play an essential role in the electron transport systems of microbes, the proposed met

49 n is a central feature of the photosynthetic electron-transport system of all oxygenic organisms.

50 n directly, Aer detects redox changes in the electron transport system or cytoplasm when the bacteria

51 ide (FAD) domain senses redox changes in the electron transport system or cytoplasm.

52 ecules can be generated endogenously via the electron transport system or may arise from a host of ex

53 late stress-responsive signal transduction, electron transport system, senescence, protein degradati

54 edox reactions within beta-oxidation and the electron transport system serve as a barometer of substr

55 ion is a byproduct of a transplasma membrane electron transport system that serves to balance the cel

56 consume oxygen through an integral membrane electron transport system, the physiological role of thi

57 Microbes employ a remarkably intricate electron transport system to extract energy from the env

58 least three different trans Plasma Membrane Electron Transport systems (tPMETs), and that four media

59 li, senses changes in the redox state of the electron transport system via an flavin adenine dinucleo

60 t monitor changes in the redox status of the electron transport system via the FAD cofactor associate

61 A number of genes encoding components of the electron transport system were also differentially expre

62 nsfer the generated electrons to the aerobic electron transport system where energy is formed by oxid

63 anella putrefaciens MR-1 possesses a complex electron transport system which facilitates its ability