ライフサイエンスコーパス: cellular macromolecule

1 ts antimicrobial activity is due to damaging cellular macromolecules.

2 nd these reactive oxygen species can oxidize cellular macromolecules.

3 rcalate into membranes and promote damage to cellular macromolecules.

4 st synthesize all of the building blocks for cellular macromolecules.

5 d to be sufficient to suppress catabolism of cellular macromolecules.

6 d the vibrational contributions of the other cellular macromolecules.

7 cation of reactive aldehydes that can modify cellular macromolecules.

8 y react with vital parasite thiol-containing cellular macromolecules.

9 aerobes is the stage for biosynthesis of all cellular macromolecules.

10 s that challenge homeostasis by crosslinking cellular macromolecules.

11 without altering the functional activity of cellular macromolecules, a property defining it as a "co

12 The anti-oxidant enzyme system protects cellular macromolecules against damage from reactive oxy

13 ides are essential building blocks for major cellular macromolecules and are critical for life.

14 Covalent binding of IDAM to cellular macromolecules and depletion of cellular thiols

15 mary mode of cancer therapy, acutely damages cellular macromolecules and DNA and elicits stress respo

16 quine quinoneimine (AQQI), which can bind to cellular macromolecules and initiate hypersensitivity re

17 catabolic cellular mechanism for entrapping cellular macromolecules and organelles in intracellular

18 ainst covalent modification of DNA and other cellular macromolecules by BPDE was modeled in human T47

19 ive cell injury involves the modification of cellular macromolecules by reactive oxygen intermediates

20 Altered structure, and hence function, of cellular macromolecules caused by oxidation can contribu

21 to generate three-dimensional structures of cellular macromolecule complexes in their native environ

22 acellular localization of proteins, studying cellular macromolecule delivery vehicles, studying cell-

23 ugh reactive oxygen species (ROS) may damage cellular macromolecules directly, oxidant-induced cell d

24 roteins play an important role in protecting cellular macromolecules from damage by reactive oxygen s

25 The cellular macromolecules from the captured cells were sol

26 otypes through their interactions with other cellular macromolecules including DNA, protein, and RNA.

27 normal mitochondrial respiration can damage cellular macromolecules, including mitochondrial DNA (mt

28 We hypothesize that many modifications in cellular macromolecules, observed in cancer progression,

29 tive oxygen molecules that can interact with cellular macromolecules (proteins, lipids, nucleic acids

30 oduction of the two most abundant classes of cellular macromolecules, proteins, and nucleic acids in

31 itroimidazole EF5, which covalently binds to cellular macromolecules selectively under hypoxic condit

32 tion, can have a profound negative effect on cellular macromolecules such as DNA that may lead to a n

33 e the biases in the spatial distributions of cellular macromolecules that result from the integrated

34 Of all cellular macromolecules, the bacterial proteome is by fa

35 ing nutrient stress, macroautophagy degrades cellular macromolecules, thereby providing biosynthetic

36 Autophagy is a catabolic process that allows cellular macromolecules to be broken down and re-utilize

37 Autophagy is a catabolic process that allows cellular macromolecules to be broken down and recycled a

38 desiccation tolerance mechanisms to protect cellular macromolecules under anhydrobiosis, with second

39 ism in terms of the content and structure of cellular macromolecules under heavy metal stress.