3-Nitrotyrosine monoclonal Antibody

$Blocking buffer: 5% NFDM\/TBST\r\nPrimary ab dilution: 1:1000\r\nPrimary ab incubation condition: PTM-752, 2\r\nhours at room temperature\r\nSecondary ab: Goat Anti-Mouse IgG H&L\r\n(HRP)\r\nLysate: HeLa\u00b1peroxynitrite (3mM, 30 mins)\uff0c\r\nMEF\u00b1peroxynitrite (3mM, 30 mins)\uff0c\r\nHeLa\u00b1pervanadate(3mM, 30 mins)\r\nProtein loading quantity: 20 \u03bcg\r\nExposure time: 60 s\r\nPredicted MW: Multiple kDa\r\nObserved MW: Multiple kDa$

Blocking buffer: 5% NFDM\/TBST\r\nPrimary ab dilution: 1:1000\r\nPrimary ab incubation condition: PTM-752, 2\r\nhours at room temperature\r\nSecondary ab: Goat Anti-Mouse IgG H&L\r\n(HRP)\r\nLysate: HeLa\u00b1peroxynitrite (3mM, 30 mins)\uff0c\r\nMEF\u00b1peroxynitrite (3mM, 30 mins)\uff0c\r\nHeLa\u00b1pervanadate(3mM, 30 mins)\r\nProtein loading quantity: 20 \u03bcg\r\nExposure time: 60 s\r\nPredicted MW: Multiple kDa\r\nObserved MW: Multiple kDa

Applications

Reactivity

Human
All
Nitrotyrosine

Predicted Reactivity

Mouse
Rat

Overview
Catalog #	bsm-60011M
Product Name	3-Nitrotyrosine monoclonal Antibody
Applications	WB
Reactivity	Human, All, Nitrotyrosine
Predicted Reactivity	Mouse, Rat
Specifications
Conjugation	Unconjugated
Host	Mouse
Source	KLH conjugated Nitrotyrosine
Clonality	Monoclonal
Clone #	H11G6
Isotype	IgG
Concentration	1mg/ml
Purification	Purified by Protein A.
Storage Buffer	0.01M TBS(pH7.4) with 1% BSA, 0.02% Proclin300 and 50% Glycerol.
Storage Condition	Shipped at 4°C. Store at -20°C for one year. Avoid repeated freeze/thaw cycles.
Target
Gene ID	621-44-3
Subcellular location	Cytoplasm
Synonyms	NO tyrosine; nTyr; Nitrotyrosine; nitro-Tyrosine; nitro Tyrosine.
Background	Nitrotyrosine is a marker for inflammation and nitric oxide (NO) production and is formed in the presence of the active metabolite NO. Because nitrotyrosine is a stable product of multiple pathways, such as the formation of peroxynitrite, its plasma concentration may be a useful determinant of NO-dependent damage in vivo. Nitrotyrosine has been detected in inflammatory processes such as septic shock, rheumatoid arthritis, celiac disease, atherosclerotic plaques and chronic renal failure. Protein tyrosine nitration results in a post-translational modification that is increasingly receiving attention as an important component of nitric oxide signaling. While multiple nonenzymatic mechanisms are known to be capable of producing nitrated tyrosine residues, most tyrosine nitration events involve catalysis by metalloproteins such as myeloperoxidase, eosinophilperoxidase, myoglobin, the cytochrome P-450s, superoxide dismutase and prostacyclin synthase. Various studies have shown that protein tyrosinenitration is limited to specific proteins and that the process is selective. For example, exposure of human surfactant protein A, SP-A, to oxygen-nitrogen intermediates generated by activated alveolar macrophages resulted in specific nitration of SP-A at tyrosines 164 and 166, while addition of 1.2 mMCO 2 resulted in additional nitration at tyrosine 161. The presence of nitrotyrosine-containing proteins has shown high correlation to disease states such as atherosclerosis, Alzheimers disease, Parkinsons disease and amyotrophic lateral sclerosis.
Application Dilution
WB	=1:500-1000

Applications

Reactivity

Predicted Reactivity

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