ライフサイエンスコーパス: decomposition product

1 d its N-unsubstituted 3,5-isoxazolidinedione decomposition product.

2 e was no evidence of hemosiderin, a ferritin decomposition product.

3 es, A was the sole or major (31)P-containing decomposition product.

4 ssible indole regioisomers, along with minor decomposition products.

5 Fe(VI) decay was catalyzed by Fe(VI) decomposition products.

6 pathway to the minor isomer leads instead to decomposition products.

7 r acidic or basic conditions mainly gave the decomposition products.

8 from a foaming effect during release gaseous decomposition products.

9 (2+) cluster of MutY to [4Fe-4S](3+) and its decomposition product [3Fe-4S](1+).

10 e) inhibited the catalytic effects of Fe(VI) decomposition products and stabilized Fe(VI) in natural

11 contain a carbonyl group, (2) particle-phase decomposition products, and (3) highly oxidized organosu

12 in is also degraded during bleaching, but no decomposition products are detected.

13 the anion, dihydrodithiins and metal complex decomposition products are preferred.

14 The fungus acquired N as decomposition products, because hyphae were not 13C-enri

15 t other benzoxazinoids, rather than just the decomposition products BOA or MBOA, have been reported i

16 The oxidation compounds and/or their decomposition products can modify protein components, wh

17 y surface connecting methanol with its final decomposition products, CO and hydrogen gas.

18 Desorption of decomposition products derived from the xerogel precurso

19 very low levels of TATP vapor from its acid decomposition products (e.g., H(2)O(2)) with limits of d

20 d into the medium from nonenzymatic peroxide decomposition), product formation and peroxide consumpti

21 H5 )(CHCO)Trip] (4), which is most likely a decomposition product from the putative ruthenium-substi

22 (LC-MS) methods for profiling heparin lyase decomposition products have been shown.

23 Major decomposition products identified include difluorophosph

24 y that DCAM can persist as a long-lived DCAN decomposition product in systems using free chlorine as

25 ing provides a general approach to detecting decomposition products in extracts of cellular metabolit

26 Accumulation of decomposition products in solutions of HU may explain th

27 However, thermal decomposition products in the battery reduce its lifetim

28 Its thermal decomposition products include disulfur (S2), carbon mon

29 er of more hydrophilic curcumin isoforms and decomposition products, including a compound later ident

30 drolysis via a radical intermediate, and the decomposition product is ESR silent.

31 the enzyme surface to form methylglyoxal (a decomposition product) is not affected.

32 to elevated glucose or its alpha-oxoaldehyde decomposition product methylglyoxal.

33 sition of CH and subsequent oxidation of the decomposition products, new pathways such as direct reac

34 ssulfuration pathway with H2S representing a decomposition product of Cys-SSH.

35 reaction product with 3-acetylacrylic acid (decomposition product of norbixin) was shown.

36 Because NO(3)(-) is known to be the ultimate decomposition product of OONO(-), these results suggest

37 ld not eliminate the formation of NO(2) as a decomposition product of peroxynitrite.

38 uanine in DNA by carbonate radical anions, a decomposition product of peroxynitrosocarbonate which is

39 nstituent in guano deposits, is an important decomposition product of struvite that is an increasingl

40 esence of calf thymus DNA, indicating that a decomposition product of the peroxo-vanadate, that is im

41 rm infrared (FTIR) spectroscopy to study the decomposition products of both LiBH4 and Li2B12H12 up to

42 Further reactivity of TATB toward the final decomposition products of fluid N(2) and solid carbon is

43 e disulfide S-dioxide, and GSSG as the major decomposition products of GSNO.

44 er, ion chamber, or both, induced by thermal decomposition products of inorganic salts.

45 The decomposition products of norbixin, a component of the n

46 ibution of oxenium ions as the source of the decomposition products of other O-arylhydroxylamine deri

47 lations using ReaxFF we find initial thermal decomposition products of PDMS to be CH(3) radical and t

48 anvil cell may result from these, and other, decomposition products of phosphine.

49 clarifying the origin of diborane among the decomposition products of stable borohydrides, a topic o

50 d the thermal properties and to identify the decomposition products of this substance, since it has b

51 2)O(4)) formed in these mechanisms and their decomposition product polyoxide radicals (HO(2), HO(3))

52 nce many of the detected species are thermal decomposition products rather than actual SOA molecules.

53 xide-bridged diradical, *C60-O-O-C60* or its decomposition products rather than from C60*+.

54 t and by mechanochemical treatment, with the decomposition products readily converting into LiAlH4 at

55 This problem is caused by the secondary decomposition product(s) of the reagent and is alleviate

56 Previous researchers suggested that decomposition products such as fatty acids trigger necro

57 llow release of bisphenol A, BisGMA, and the decomposition products thereof, upon exposure to water f

58 The alkylating nature of the decomposition products was further demonstrated by trapp

59 radical processes mediated by peroxynitrite decomposition products were required for triggering apop

60 2), respectively, are also inferred by their decomposition products, which are Cp'(2)CeF, CH(2), and

61 protein lysozyme by detecting their thermal decomposition products with matrix-assisted laser desorp