「Cysteine」の共起表現一覧(1語右で並び替え)
該当件数 : 195件
A | cysteine adduct is formed with the methylene group and |
Disulfide bridges in proteins are reduced and | cysteine amino acids are carboxymethylated chemically |
0-35 amino acids and 4 disulfide bonds; eight | cysteine amino acids among its total number of amino a |
uced by actinomycetes, which inhibits serine, | cysteine and threonine proteases. |
It is an intermediate in the synthesis of | cysteine and adenosine. |
It is cleaved into | cysteine and α-ketobutyrate by cystathionine gamma-lya |
cursor for serine, which, in turn, can create | cysteine and glycine through the homocysteine cycle. |
olic pathway involving the interconversion of | cysteine and homocysteine, through the intermediate cy |
dium carbonate and was first synthesized from | cysteine and β-chloroalanine. |
The N-terminal | cysteine as well as the internal cysteines are able to |
(chemical reactivity) of side chains such as | cysteine, backbone exposure to proteases, and various |
ionine is considered an essential amino acid, | cysteine becomes an essential amino acid when the tran |
Is activated by | cysteine, bisulfite salt, NaCN, H2S, Na2S and benzoate |
rdination bond to an evolutionarily-conserved | cysteine bound to the iron center of heme B. |
Other names in common use include farnesyl | cysteine C-terminal methyltransferase, farnesyl-protei |
Likewise, | cysteine can be made from homocysteine but cannot be s |
The | cysteine can be introduced using site-directed mutagen |
Cysteine cathepsins are synthesized as inactive zymoge | |
Other names in common use include | cysteine conjugate aminotransferase, and cysteine-conj |
Other names in common use include | cysteine conjugate beta-lyase, glutamine transaminase |
RI has a surprisingly high | cysteine content (~6.5%, cf. |
s aided in protein samples by the presence of | cysteine, cystine, tyrosine, and tryptophan side chain |
Cysteine deposition is most evident in the conjunctiva | |
In enzymology, a | cysteine desulfurase (EC 2.8.1.7) |
ommon use include IscS, NIFS, NifS, SufS, and | cysteine desulfurylase. |
ino transferases, and other enzymes including | cysteine desulphurase EC:4.4.1.-. |
Cysteine desulphurase related IPR011340 | |
Cysteine desulphurase IPR010240 | |
Cysteine desulphurase related, unknown function IPR010 | |
Cysteine desulphurases, SufS IPR010970 | |
It is formed by | cysteine dioxygenase. |
Homocysteine permanently degrades | cysteine disulfide bridges and lysine amino acid resid |
ds after the reduction of cystine residues to | cysteine during protein sequencing. |
It is of a family of proteases known as the | cysteine endopeptidases, a group that also includes pa |
ssulfuration pathway is critical for creating | cysteine from the essential amino acid methionine. |
hate,geranylgeranyl-diphosphate:protein-, and | cysteine geranyltransferase. |
The synthetases specific for arginine, | cysteine, glutamic acid, glutamine, isoleucine, leucin |
be converted back into methionine, SAM-e, or | cysteine, glutathione, and other useful substances. |
The key characteristic is the | cysteine group which is required for phosphorylation; |
een oxidized to an alpha-keto-acid (i.e., the | cysteine has been replaced by a pyruvate). |
In organisms that synthesize | cysteine in sulfur assimilation such as bacteria and y |
trienes due to the presence of the amino acid | cysteine in their structure. |
, by a thiolate anion derived from a reactive | cysteine in a reduced partner. |
PKS) and the thiazole ring was derived from a | cysteine incorporated by a nonribosomal peptide synthe |
where 'C' denotes a conserved | cysteine involved in a disulfide bond. |
Cysteine is an important source of sulfide in human me | |
The side chain on | cysteine is thiol, which is nonpolar and thus cysteine |
is reaction is ideal for situations where the | cysteine is located away from the desired epitope (e.g |
The nucleophilicity of the | cysteine is facilitated by an oxyanion hole formed wit |
tif suggestive of a leucine zipper in which 1 | cysteine is found instead of all leucines. |
Cysteine is named after cystine. | |
The amino acid | cysteine is produced industrially from substituted thi |
ch is encoded by CG13419 gene and made of two | cysteine knot subunits, Burs-α and Burs-β. |
elongs to the structural family of ‘inhibitor | cysteine knot' spider peptides. |
Glutamate | cysteine ligase is a heterodimeric enzyme composed of |
Glutamate | cysteine ligase modifier subunit (GCLM, ~31 kDa) incre |
Glutamate | cysteine ligase catalytic subunit (GCLC, ~73 kDa) poss |
ylcysteine synthetase (EC 6.3.2.2) (glutamate | cysteine ligase, GCL) is the first enzyme in the gluta |
This enzyme participates in | cysteine metabolism and sulfur metabolism. |
This enzyme participates in | cysteine metabolism and aminoacyl-trna biosynthesis. |
This enzyme participates in | cysteine metabolism and glutathione metabolism. |
enzyme participates in 3 metabolic pathways: | cysteine metabolism, selenoamino acid metabolism, and |
5 metabolic pathways: methionine metabolism, | cysteine metabolism, selenoamino acid metabolism, nitr |
4 metabolic pathways: methionine metabolism, | cysteine metabolism, selenoamino acid metabolism, and |
ys: glycine, serine and threonine metabolism, | cysteine metabolism, D-glutamine and D-glutamate metab |
Cysteine metabolism. | |
This enzyme participates in | cysteine metabolism. |
yme participates in methionine metabolism and | cysteine metabolism. |
Cysteic acid is an intermediate in | cysteine metabolism. |
fide bridges (cystines - formed from pairs of | cysteine molecules) are formed. |
ein sequence and distinguished by a conserved | cysteine motif. |
succinyl-L-homoserine succinate-lyase (adding | cysteine), O-succinylhomoserine (thiol)-lyase, homoser |
ovalent attachment of E-64 to the active site | cysteine occurs via nucleophillic attack from the thio |
When | cysteine or methionine is available in the environment |
Not to be confused with cytosine, | cysteine, or cystine. |
The most common reaction with amino acids is | cysteine oxidation. |
another thiolate from the reagent, leaves the | cysteine oxidised. |
Mechanism of irreversible inhibition of | cysteine peptidases with iodoacetate. |
Mechanism of irreversible inhibition of | cysteine peptidases with iodoacetamide. |
Mechanism of irreversible inhibition of | cysteine peptidases by E-64. |
, and has since been shown to inhibit many | cysteine peptidases (e.g. |
This group of | cysteine peptidases belong to MEROPS peptidase family |
doacetate is an irreversible inhibitor of all | cysteine peptidases, with the mechanism of inhibition |
acetamide is an irreversible inhibitor of all | cysteine peptidases, with the mechanism of inhibition |
hich can irreversibly inhibit a wide range of | cysteine peptidases. |
Cathepsin O is a | cysteine protease and a member of the cathepsin family |
Endoprotease B, isoform 2 (EP-B2) is a | cysteine protease found in barley. |
The TEV protease is a highly site-specific | cysteine protease that is found in the Tobacco Etch Vi |
e protein encoded by this gene is a lysosomal | cysteine protease involved in bone remodeling and reso |
Autophagin-1 (Atg4/Apg4) is a unique | cysteine protease responsible for the cleavage of the |
Caspase 13 is an enzyme known as a | cysteine protease that was identified in cattle that i |
lant is a hypothesised protein, most likely a | cysteine protease enzyme (EC 3.4.22.26), that occurs o |
o recruit caspase-8, and thereby activate the | cysteine protease cascade. |
e is an endogenous calpain (calcium-dependent | cysteine protease) inhibitor. |
Cathepsin C ( | cysteine protease) |
Cysteine proteases have a common catalytic mechanism t | |
Also inhibits some | cysteine proteases such as papain, bromelain or ficin. |
In humans, the group of cathepsin | cysteine proteases or cysteine cathepsins comprises 11 |
proregion is unique within the papain family | cysteine proteases in that it contains this additional |
It belongs to a family of | cysteine proteases called caspases that cleave protein |
are dependent on thiol reactivity, including | cysteine proteases such as papain and acetylcholineste |
rtic acid residue, and belongs to a family of | cysteine proteases called caspases. |
rugs to treat diseases where high levels of a | cysteine proteases are the primary cause. |
athepsin L, and cathepsin V, all of which are | cysteine proteases. |
e protein encoded by this gene is a lysosomal | cysteine proteinase that plays a major role in intrace |
ne, a member of the peptidase C1 family, is a | cysteine proteinase that may have a specific function |
Cathepsin F ( | cysteine proteinase) |
Cathepsins are papain family | cysteine proteinases that represent a major component |
Plant | cysteine proteinases isolated from these plants have b |
tic peptides typically used as substrates for | cysteine proteinases and its proteolytic activity was |
termed a "cross-class inhibitor," as it is a | cysteine rather than a serine protease inhibitor. |
ear export sequence (NES), by glycosylating a | cysteine residue (cysteine 529 in S. pombe). |
m DNA bases and sugar-phosphate backbone to a | cysteine residue inactivating itself. |
at inhibits MurA by alkylating an active site | cysteine residue (Cys 115 in the Escherichia coli enzy |
It is composed of a | cysteine residue with an acetylated amino group linked |
and consists of a glutamic acid residue and a | cysteine residue that interact with opposite sides of |
ram of human IPP isomerase with the catalytic | cysteine residue (Cys87) in red and the catalytic glut |
ide exchange reactions; a thiolate group of a | cysteine residue attacks one of the protein's own disu |
The | cysteine residue at 302 in ALDH1 and 200 in ALDH2 is i |
minal fragment 1) and the other an N-terminal | cysteine residue (C-terminal fragment 2). |
in that AGT II transfers the alkyl group to a | cysteine residue in its own structure, thereby inactiv |
transfer on the RNR2 subunit activates a RNR1 | cysteine residue in the active site with a free radica |
from geranylgeranyl diphosphate to one or two | cysteine residue(s) at the C-terminus of specific prot |
aleimide or DTNB irreversibly blocks critical | cysteine residue(s), abolishing the ability of the enz |
MTSL is attached via a disulfide bond to a | cysteine residue, enabling site-directed spin labellin |
All these proteins contain a single | cysteine residue, located in their C-terminal section, |
with another peptide containing an N-terminal | cysteine residue, in the presence of an added thiol ca |
cin, which covalently modifies an active site | cysteine residue. |
TCEP is particularly useful when labeling | cysteine residues with maleimides. |
For example, | cysteine residues in the peptide may be temporarily bl |
The mature protein contains 8 | cysteine residues that establish 4 disulfide bridges ( |
in a common post-translational modification, | cysteine residues are converted into thiazolines. |
The primary structure contains 28 | cysteine residues forming multiple disulfide bonds. |
This sequence contains 6 | cysteine residues that form three intramolecular disul |
The two amino acid | cysteine residues in contryphans are linked by a disul |
inked glycan allows the cell to control which | cysteine residues will form disulfide bonds. |
form of disulfide bridges formed between two | cysteine residues or the formation of metal clusters. |
to the conversion of thiol groups, including | cysteine residues in proteins, to form S-nitrosothiols |
vitro, but does not hydrolyze palmitate from | cysteine residues in proteins. |
no acid residues that contains four conserved | cysteine residues involved in two disulphide bonds:. |
y acyl groups such as palmitate from modified | cysteine residues in proteins or peptides during lysos |
shown in red, the alpha carbons of the eight | cysteine residues in green, and the disulfide bridges |
a total of two geranylgeranyl groups onto two | cysteine residues at the C-terminal consensus sequence |
lmitoyl groups may be added to the Sγ atom of | cysteine residues to anchor proteins to cellular membr |
rved between these two forms is the number of | cysteine residues exposed at the surface of the enzyme |
-G-V/L 'pediocin box' motif and two conserved | cysteine residues joined by a disulfide bridge. |
nd a large extracellular loop, which has many | cysteine residues with conserved spacing. |
s, are largely acidic, contain four conserved | cysteine residues known to form two disulfide bonds, m |
It has two | cysteine residues on the N-terminal segment, a hydroph |
ther scorpion toxins; this unusual pairing of | cysteine residues may be mediated by the presence of a |
N-terminal section; this region includes two | cysteine residues involved in a disulfide bond. |
known as 6Ckine (because it has six conserved | cysteine residues instead of the four cysteines typica |
aryotic organisms examined, and contain seven | cysteine residues that are absolutely conserved, inclu |
It reacts with | cysteine residues in proteins. |
cid side chain (e.g., iodoacetamide to modify | cysteine residues), an isotopically coded linker, and |
It contains 4 conserved | cysteine residues, which probably form disulphide brid |
domain is characterised by a conserved set of | cysteine residues, which form four disulfide bonds to |
protein contains two free thiol groups at the | cysteine residues, whereas the oxidized form contains |
groups from the damaged DNA to one of its two | cysteine residues, rendering the protein enzymatically |
nked fatty acyl groups such as palmitate from | cysteine residues. |
coordinated by two histidine residues and two | cysteine residues. |
of the protein backbone and the side chain of | cysteine residues. |
close to the ‘long chain' family but with six | cysteine residues. |
130 and contain the WSXWS motif and preserved | cysteine residues. |
e a mature protein containing seven conserved | cysteine residues. |
uster in which two zinc ions are bound by six | cysteine residues. |
hioether bonds involving sulphydryl groups of | cysteine residues. |
common active site sequence with two reactive | cysteine residues: Cys-X-Y-Cys, where X and Y are ofte |
o 70-residue range and known to contain eight | cysteine residues; and the ‘short chain neurotoxins' ( |
domains: a FIMAC domain, a Scavenger Receptor | Cysteine Rich (SRCR) domain and two LDL-receptor Class |
ily(metalloproteinase-like, Disintegrin-like, | cysteine rich). |
arine cone snails and belong to the four-loop | cysteine scaffold structural class. |
ional groups can be added to selectively bind | cysteine side chains and this method is often used to |
J homolog subfamily C member 5, also known as | cysteine string protein or CSP is a protein, that in h |
arbon diketide is delivered by the ACP to the | cysteine sulfhydryl group at the KS active site, by th |
Cysteine sulfinic acid is an intermediate in cysteine | |
Other names in common use include alliinase, | cysteine sulfoxide lyase, alkylcysteine sulfoxide lyas |
me of this enzyme class is L-cysteine:[enzyme | cysteine] sulfurtransferase. |
In enzymology, a | cysteine synthase (EC 2.5.1.47) |
and some species have alternative pathways of | cysteine synthesis. |
ydrogen-sulfide), acetylserine sulfhydrylase, | cysteine synthetase, S-sulfocysteine synthase, 3-O-ace |
However, when administering labeled | cysteine, they found that C-4' did not contain any 13C |
disulfide exchange reactions that oxidise the | cysteine thiol groups of nascent polypeptides. |
new carboxy-terminus of the substrate to the | cysteine thiol is formed. |
xidized state, molybdenum is coordinated by a | cysteine thiolate, the dithiolene group of molybdopter |
EA5 patients have a | cysteine to phenylalanine mutation at position 104. |
e β-lactone, and hetero-conjugate addition of | cysteine to dehydroalanine. |
abstract a proton from serine, threonine, or | cysteine to activate it as a nucleophile. |
ible for the observation by conversion of the | cysteine to serine residue. |
steinyl-transfer ribonucleate synthetase, and | cysteine translase. |
on, which is then converted to the amino acid | cysteine via the transsulfuration pathway. |
clusters and in nitrogenase is extracted from | cysteine, which is converted to alanine in the process |
ally rich in the sulfur-containing amino acid | cysteine, which facilitates chemical cross-linking of |
the outer membrane by its hydrophobic head (a | cysteine with lipids attached). |
Carbocisteine is produced by alkylation of | cysteine with chloroacetic acid. |
こんにちは ゲスト さん
ログイン |
Weblio会員(無料)になると 検索履歴を保存できる! 語彙力診断の実施回数増加! |
こんにちは ゲスト さん
ログイン |
Weblio会員(無料)になると 検索履歴を保存できる! 語彙力診断の実施回数増加! |