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1 rmediates or undergoes hyperoxidation to the sulfinic acid.
2 on and protect against hyperoxidation to the sulfinic acid.
3 ate Cys levels through converting Cys to Cys sulfinic acid.
4 enation of cysteine by O(2) to give cysteine sulfinic acid.
5 yzes the oxidation of l-cysteine to cysteine sulfinic acid.
6 the thiol residue of the cysteine switch to sulfinic acid.
7 cysteine switch domain had been converted to sulfinic acid.
8 earing substrates to yield the corresponding sulfinic acid.
9 tions based on the unique nucleophilicity of sulfinic acids.
10 e substituted sulfinamides that hydrolyze to sulfinic acids.
11 cts; other minor products including cysteine sulfinic acid (+32 Da mass shift) and serine (-16 Da mas
12 plet-sensitized photodegradation of cysteine sulfinic acid, a (photo)degradation product of cysteine,
14 a comeback: The inefficient condensation of sulfinic acid and aryl nitroso compounds has been transf
16 competitive C-S bond cleavage giving phenyl sulfinic acid and ionization to diphenyl sulfide radical
17 rsion of amino-terminal cysteine to cysteine sulfinic acid and is related to the plant cysteine oxida
18 , C-S bond cleavage, finally leading to aryl sulfinic acid and sensitized oxidation leading to S-oxid
21 alyze decarboxylation of aspartate, cysteine sulfinic acid, and cysteic acid to beta-alanine, hypotau
22 enic acid oxoform from the thiol, disulfide, sulfinic acid, and S-nitrosated forms of cysteine while
24 dize further to the irreversibly inactivated sulfinic acid, as determined by using kinetic partitioni
25 herited parkinsonism, readily forms cysteine-sulfinic acid at a conserved cysteine residue (Cys106 in
27 e that PCO dioxygenase activity produces Cys-sulfinic acid at the N terminus of an ERF-VII peptide, w
30 ne begins with its sulfoxidation to cysteine sulfinic acid by the enzyme cysteine dioxygenase (CDO).
31 ulfinated proteins, confirming that a single sulfinic acid can react with a nitrosothiol to form a th
34 such as homocysteic acid (HCA) and cysteine sulfinic acid (CSA), which may cause seizures and excito
37 oxins (Prxs) undergo reversible oxidation to sulfinic acid (Cys-SO2H) and the reduction reaction is c
38 rx enzymes undergoes reversible oxidation to sulfinic acid (Cys-SO2H) during catalysis, and sulfiredo
40 duced Cys(34), whereas the levels of Cys(34) sulfinic acid (Cys-SO2H), Cys(34)-sulfonic acid (Cys-SO3
41 s-SOH moiety can react with H2O2 to form Cys sulfinic acid (Cys-SO2H), resulting in inactivation.
43 onally relevant reversible and irreversible (sulfinic acid; Cys to dehydroalanine) oxidations of GAPD
44 esizing enzyme in the brain, namely cysteine sulfinic acid decarboxylase (CSAD), is activated when ph
45 omics interaction revealed that the cysteine sulfinic acid decarboxylase (CSAD)-regulated taurine pat
46 enosylhomocysteine (SAH) hydrolase, cysteine sulfinic acid decarboxylase, and oxidation-reduction pat
47 ase B, sarcosine dehydrogenase, and cysteine sulfinic acid decarboxylase, are involved in carbohydrat
48 n enzyme that catalyzes the reduction of Cys-sulfinic acid derivatives of 2-Cys peroxiredoxins (2-Cys
49 d lays the groundwork for the development of sulfinic acid detection methods in biological systems.
52 ine in typical 2-Cys peroxiredoxins (Prx) to sulfinic acid during oxidative stress plays an important
53 e hydroxide (LDH) nanosheets and formamidine sulfinic acid (FAS), followed by spray-coating with a po
54 sidue can be permanently overoxidized to the sulfinic acid form, and (ii) Sec protects the body of th
56 rovides molecular evidence of N-terminal Cys-sulfinic acid formation and arginylation by N-end rule p
57 Several stimuli, including peroxide-mediated sulfinic acid formation at the active site cysteine, hav
58 homologues are likely stabilized by cysteine-sulfinic acid formation but destabilized by further oxid
60 eroxiredoxin, whose oxidative stress-induced sulfinic acid formation turns the peroxidase into a mole
61 on oxygenases that catalyze the formation of sulfinic acids from sulfhydryl-containing substrates and
64 and generation of cysteine sulfonic acid and sulfinic acid; however, the rate of oxidation is signifi
65 in DJ-1 is oxidized readily to the cysteine-sulfinic acid in both flies and humans, and this may reg
66 " is oxidized to either cysteine sulfenic or sulfinic acid in the two molecules in the asymmetric uni
67 ible-light-driven generation of a weak acid (sulfinic acid, in nitrogen-purged solutions) or a strong
70 into a chemoselective process that converts sulfinic acid into stable cyclic sulfonamide analogues (
71 therefore conclude that formation of Cys106-sulfinic acid is a key modification that regulates the p
75 olism, the oxidation of cysteine to cysteine sulfinic acid, is catalyzed by cysteine dioxygenase (CDO
76 increased oxidant stress confirmed cysteinyl sulfinic acid (m/z 435), sulfonic acid (m/z 443), and di
78 e, the scope and biological role of sulfenic/sulfinic acid modifications have been recently expanded
81 direct quantitative determination of methane sulfinic acid (MSA) produced by hydroxyl radical oxidati
82 the addition of two oxygen atoms to form the sulfinic acid of Cys106 (2O DJ-1) (no 1O oxidized state
83 as well as cysteine oxidation determined as sulfinic acid on alpha-Cys-104 and sulfonic acid on alph
88 to the sulfinic moiety of PrxI to generate a sulfinic acid phosphoryl ester (Prx-Cys-S(=O)OPO3(2-)).
89 n (18)O exchange study revealed that the Prx sulfinic acid phosphoryl ester is rapidly formed and hyd
90 s, procedures for the diversification of the sulfinic acid products into a range of medicinally relev
91 ormation between simple terminal alkynes and sulfinic acids provides access to various alpha-substitu
93 resh muscle or kidney extracts with cysteine sulfinic acid resulted in the detection of hypotaurine o
98 various other proteins are also oxidized to sulfinic acid, suggesting that formation of Cys-SO2H mig
99 rometric analysis identified the products as sulfinic acid, sulfonic acid, and a dimer containing a d
100 function of Srx is the reduction of cysteine sulfinic acid to sulfenic acid in proteins subject to ox
101 rminal cysteine of ERF-VIIs to form cysteine sulfinic acid, triggering degradation via the Cys/Arg br
105 cells, the initial formation rate of methane sulfinic acid was significantly lower in cells containin
106 ese proteins to oxidize cysteine to cysteine sulfinic acid was then compared against recombinant rat
107 duct analysis indicated cystine and cysteine sulfinic acid were the major photooxidation products.
108 alyzes the oxidation of cysteine to cysteine sulfinic acid, which is the first major step in cysteine
109 of cysteine with dioxygen to yield cysteine sulfinic acid, which lies at the branching point of cyst
110 roduct from nucleophilic addition eliminates sulfinic acid, yielding a propargylic diazene that perfo