rabbit anti adar1 primary antibody (Cell Signaling Technology Inc)
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Rabbit Anti Adar1 Primary Antibody, supplied by Cell Signaling Technology Inc, used in various techniques. Bioz Stars score: 95/100, based on 58 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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Average 95 stars, based on 58 article reviews
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1) Product Images from "Z-Form Stabilization By The Zα Domain Of Adar1p150 Has Subtle Effects On A-To-I Editing"
Article Title: Z-Form Stabilization By The Zα Domain Of Adar1p150 Has Subtle Effects On A-To-I Editing
Journal: bioRxiv
doi: 10.1101/2025.06.02.657529
Figure Legend Snippet: ( A ) The domain structure of the short (ADAR1p110) and long (ADAR1p150) isoforms of ADAR1 are shown. ADAR1p110 contains a deaminase domain which is responsible for ADAR1’s catalytic deamination activity, three double-stranded RNA binding domains (dsRBDs) which interact with the A-form structure of dsRNA, a Nuclear Localization Sequence (NLS) and a Zβ domain of unknown function. ADAR1p150 contains the same domain structure but has a ∼300 a.a. N-terminal extension which contains a Nuclear Export Sequence (NES) as well as a Zα domain. ( B ) ADAR1 deaminases adenosine to inosine in dsRNA, which replaces the amino group on the adenosine with a keto group and disrupts A-form helical structure at AU base pairs. ( C ) Cartoon model depicting editing of a dsRNA by ADAR1 and the different domains. ( D ) The Zα domain is able to stabilize the left-handed Z-conformation of dsDNA and dsRNA through key residues which stabilize the unique Z-form geometry.
Techniques Used: Activity Assay, RNA Binding Assay, Sequencing
Figure Legend Snippet: ( A ) Domain architectures and point mutant locations for the different re-integrated ADAR1p150 mutant constructs. Red stars indicated mutation sites. ( B ) Western blot (left) and quantification (right) showing doxycycline-inducible expression levels of the re-integrated ADAR1p150 mutants relative to re-integrated wild-type ADAR1p150. Quantification was from three replicates, all of which are shown in Supplemental Figures 5 and 6. ( C ) mRNA expression levels in Transcripts Per Million (TPM, on the y-axis ) of the re-integrated ADAR1p150 constructs for each cell line from RNA-seq data. For each transgene, the detected expression value is indicated for each sample. ( D ) Principal Component Analysis (PCA) of gene expression of the wild-type HEK293T cells, ADAR1 KO and ADAR1p150 KO HEK293T cells, and the ADAR1p150 re-integrated cell lines.
Techniques Used: Mutagenesis, Construct, Western Blot, Expressing, RNA Sequencing, Gene Expression
Figure Legend Snippet: ( A ) Immunofluorescence images of the wild-type, ADAR1 KO, ADAR1p150 KO, re-integrated ADAR1p150 (ADAR1p150*), the N173S mutant (ADAR1p150 N173S *), and the N173A,Y177A (ADAR1p150 N173A,Y177A *) double mutant cell lines. The red signal is of an ADAR1p150-specific rabbit monoclonal antibody visualized using an Alexa Fluor 594 nm secondary antibody. The green signal is from G3BP1 which was endogenously tagged with EGFP, and the blue signal is DAPI. ( B ) The percentage of the red signal intensity (corresponding to the anti-ADAR1p150 antibody) in the cytoplasm versus the nucleus of the cell.
Techniques Used: Immunofluorescence, Mutagenesis
Figure Legend Snippet: ( A ) The structure of the Zα domain of ADAR1 bound to Z-RNA is shown (PDB: 2GXB) highlighting the water-mediated hydrogen bond between N173 and W195. ( B ) Domain structures of the ADAR1p150 N173S and ADAR1p150 N173S NES moved constructs. ( C ) Immunofluorescence images of the re-integrated wild-type ADAR1p150*, ADAR1p150 N173S , and ADAR1p150 N173S * NES moved cell lines. ( D ) percentage of Alexa Fluor 594 signal intensity (corresponding to anti-ADAR1p150 antibody staining) measured in the cytoplasm versus the nucleus of the cell for the ADAR1p150 N173S and ADAR1p150 N173S * NES moved cell lines.
Techniques Used: Construct, Immunofluorescence, Staining
Figure Legend Snippet: ( A ) Domain structures of ADAR1p150 and ZBP1 are shown. ( B ) A cartoon depiction of the two potential models showing the effect of the Zα domain on ADAR1 function. In model 1, the Zα domain augments A-to-I editing broadly in a sequence-independent manner. In model 2, the Zα domain of ADAR1 competes with ZBP1 for binding to Z-form substrates in an editing independent manner, thereby inhibiting cell death pathways.
Techniques Used: Sequencing, Binding Assay
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Blocking Assay:Article Title: Z-Form Stabilization By The Zα Domain Of Adar1p150 Has Subtle Effects On A-To-I Editing Article Snippet: Following electrophoresis, proteins were transferred onto a nitrocellulose membrane (MilliporeSigma) using a TransBlot semi-dry transfer system (Bio-Rad) at 10 V for 2 hours. .. After blocking, the membrane was incubated overnight at 4°C with a Membrane:Article Title: Z-Form Stabilization By The Zα Domain Of Adar1p150 Has Subtle Effects On A-To-I Editing Article Snippet: Following electrophoresis, proteins were transferred onto a nitrocellulose membrane (MilliporeSigma) using a TransBlot semi-dry transfer system (Bio-Rad) at 10 V for 2 hours. .. After blocking, the membrane was incubated overnight at 4°C with a Incubation:Article Title: Z-Form Stabilization By The Zα Domain Of Adar1p150 Has Subtle Effects On A-To-I Editing Article Snippet: Following electrophoresis, proteins were transferred onto a nitrocellulose membrane (MilliporeSigma) using a TransBlot semi-dry transfer system (Bio-Rad) at 10 V for 2 hours. .. After blocking, the membrane was incubated overnight at 4°C with a |
