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SuperArray Bioscience Corporation pathwayfinder cdna array
CD4 + CD28 null T cell clones express CD158b/j, but do not express KARAP/DAP12. CD4 + CD28 null T cells were sorted from patients with RA, and clones were established by limiting dilution. Clones were analyzed by flow cytometry for expression of CD28 and CD158b/j. Four representative clones (#1 through #4) are shown. All clones expressed CD4 (unpublished data; A). RT-PCR was used to amplify transcripts for KARAP/DAP12 and β-actin from PBMCs (lane 1), Jurkat T cells (lane 2), and CD4 + CD28 null T cell clones #1–#4 (lanes 3–6, respectively). <t>cDNA</t> was omitted for the negative control (lane 7) (B). Western blotting was used to detect KARAP/DAP12 and β-actin protein (bottom panels) in Jurkat T cells (lane 1), Jurkat T cells transfected with KARAP/DAP12 + vaccinia virus (lane 2), and CD4 + CD28 null T cell clones (lanes 3–7) (C).
Pathwayfinder Cdna Array, supplied by SuperArray Bioscience Corporation, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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1) Product Images from "Selective Activation of the c-Jun NH 2 -terminal Protein Kinase Signaling Pathway by Stimulatory KIR in the Absence of KARAP/DAP12 in CD4 + T Cells"

Article Title: Selective Activation of the c-Jun NH 2 -terminal Protein Kinase Signaling Pathway by Stimulatory KIR in the Absence of KARAP/DAP12 in CD4 + T Cells

Journal: The Journal of Experimental Medicine

doi: 10.1084/jem.20020383

CD4 + CD28 null T cell clones express CD158b/j, but do not express KARAP/DAP12. CD4 + CD28 null T cells were sorted from patients with RA, and clones were established by limiting dilution. Clones were analyzed by flow cytometry for expression of CD28 and CD158b/j. Four representative clones (#1 through #4) are shown. All clones expressed CD4 (unpublished data; A). RT-PCR was used to amplify transcripts for KARAP/DAP12 and β-actin from PBMCs (lane 1), Jurkat T cells (lane 2), and CD4 + CD28 null T cell clones #1–#4 (lanes 3–6, respectively). cDNA was omitted for the negative control (lane 7) (B). Western blotting was used to detect KARAP/DAP12 and β-actin protein (bottom panels) in Jurkat T cells (lane 1), Jurkat T cells transfected with KARAP/DAP12 + vaccinia virus (lane 2), and CD4 + CD28 null T cell clones (lanes 3–7) (C).
Figure Legend Snippet: CD4 + CD28 null T cell clones express CD158b/j, but do not express KARAP/DAP12. CD4 + CD28 null T cells were sorted from patients with RA, and clones were established by limiting dilution. Clones were analyzed by flow cytometry for expression of CD28 and CD158b/j. Four representative clones (#1 through #4) are shown. All clones expressed CD4 (unpublished data; A). RT-PCR was used to amplify transcripts for KARAP/DAP12 and β-actin from PBMCs (lane 1), Jurkat T cells (lane 2), and CD4 + CD28 null T cell clones #1–#4 (lanes 3–6, respectively). cDNA was omitted for the negative control (lane 7) (B). Western blotting was used to detect KARAP/DAP12 and β-actin protein (bottom panels) in Jurkat T cells (lane 1), Jurkat T cells transfected with KARAP/DAP12 + vaccinia virus (lane 2), and CD4 + CD28 null T cell clones (lanes 3–7) (C).

Techniques Used: Clone Assay, Flow Cytometry, Expressing, Reverse Transcription Polymerase Chain Reaction, Negative Control, Western Blot, Transfection, Virus

Stimulation through CD158b/j results in an up-regulation of ATF-2 and HSP27 transcripts. The PathwayFinder cDNA Array is spotted in duplicate with 23 cDNAs. Represented on the membrane are the ERK (egr-1 and c-fos), JNK (ATF-2, hsf1, HSP27, and HSP90), NF-κB (iNos, NF-κB, and IκBα), NFAT (IL-2, Fas, and CD5), TGF-β (p16, p21, and p57 Kip2 ), Wnt (c-myc), p53 (p21, gadd45, pig7, pig8, mdm2, and bax), and CREB pathways (egr-1, CYP19, and c-fos). The membrane also included a negative control (pUC18) and two positive controls (β-actin and GAPDH) (A). A CD4 + CD28 null CD158b/j + T cell clone was stimulated with control mouse IgG or anti-CD158j mAb and cross-linked with rabbit anti–mouse IgG Ab. Total RNA was harvested and used to probe the PathwayFinder cDNA Array (B).
Figure Legend Snippet: Stimulation through CD158b/j results in an up-regulation of ATF-2 and HSP27 transcripts. The PathwayFinder cDNA Array is spotted in duplicate with 23 cDNAs. Represented on the membrane are the ERK (egr-1 and c-fos), JNK (ATF-2, hsf1, HSP27, and HSP90), NF-κB (iNos, NF-κB, and IκBα), NFAT (IL-2, Fas, and CD5), TGF-β (p16, p21, and p57 Kip2 ), Wnt (c-myc), p53 (p21, gadd45, pig7, pig8, mdm2, and bax), and CREB pathways (egr-1, CYP19, and c-fos). The membrane also included a negative control (pUC18) and two positive controls (β-actin and GAPDH) (A). A CD4 + CD28 null CD158b/j + T cell clone was stimulated with control mouse IgG or anti-CD158j mAb and cross-linked with rabbit anti–mouse IgG Ab. Total RNA was harvested and used to probe the PathwayFinder cDNA Array (B).

Techniques Used: Membrane, Negative Control, Control

Phosphorylation of JNK is initiated by stimulation specifically through CD158j. Two CD4 + CD28 null CD158j + T cell clones (top panels) and a CD4 + CD28 null CD158b1 + T cell clone (bottom panels) were stimulated with anti-CD3 and/or anti-CD158b/j mAbs and cross-linked with rabbit anti–mouse IgG Ab. After SDS-PAGE and transfer to a nitrocellulose membrane, the cell lysates were analyzed for phosphorylation of JNK (left panels). The blots were then stripped and reprobed with Abs against total JNK (right panels; A). Jurkat T cells were infected with either wild-type vaccinia virus (WR) or vaccinia virus containing CD158j cDNA and were analyzed for expression of CD158j by flow cytometry (B). Jurkat T cells infected with WR vaccinia virus or CD158j + vaccinia virus were stimulated with anti-CD3 and/or anti-CD158b/j mAbs and cross-linked with rabbit anti–mouse IgG Ab. After SDS-PAGE and transfer to a nitrocellulose membrane, the cell lysates were analyzed for phosphorylation of JNK (top left panels) and MKK4 (bottom left panel). The blots were stripped and reprobed with Abs against β-actin (top right panels) or MKK4 (bottom right panel) (C).
Figure Legend Snippet: Phosphorylation of JNK is initiated by stimulation specifically through CD158j. Two CD4 + CD28 null CD158j + T cell clones (top panels) and a CD4 + CD28 null CD158b1 + T cell clone (bottom panels) were stimulated with anti-CD3 and/or anti-CD158b/j mAbs and cross-linked with rabbit anti–mouse IgG Ab. After SDS-PAGE and transfer to a nitrocellulose membrane, the cell lysates were analyzed for phosphorylation of JNK (left panels). The blots were then stripped and reprobed with Abs against total JNK (right panels; A). Jurkat T cells were infected with either wild-type vaccinia virus (WR) or vaccinia virus containing CD158j cDNA and were analyzed for expression of CD158j by flow cytometry (B). Jurkat T cells infected with WR vaccinia virus or CD158j + vaccinia virus were stimulated with anti-CD3 and/or anti-CD158b/j mAbs and cross-linked with rabbit anti–mouse IgG Ab. After SDS-PAGE and transfer to a nitrocellulose membrane, the cell lysates were analyzed for phosphorylation of JNK (top left panels) and MKK4 (bottom left panel). The blots were stripped and reprobed with Abs against β-actin (top right panels) or MKK4 (bottom right panel) (C).

Techniques Used: Phospho-proteomics, Clone Assay, SDS Page, Membrane, Infection, Virus, Expressing, Flow Cytometry

Mutation of transmembrane lysine residue in CD158j abolishes ability to induce JNK phosphorylation. Jurkat T cells were transiently transfected with constructs containing the CD158j cDNA or the CD158j233I cDNA. Cell-surface expression was confirmed by flow cytometry (A). Jurkat T cells transfected with either CD158j or CD158jK233I were stimulated with anti-CD3 or anti-CD158b/j mAb and cross-linked with rabbit anti–mouse IgG Ab. After SDS-PAGE and transfer to a nitrocellulose membrane, the cell lysates were analyzed for phosphorylation of JNK (left panels). The blots were then stripped and reprobed with Abs against total JNK (right panels) (B).
Figure Legend Snippet: Mutation of transmembrane lysine residue in CD158j abolishes ability to induce JNK phosphorylation. Jurkat T cells were transiently transfected with constructs containing the CD158j cDNA or the CD158j233I cDNA. Cell-surface expression was confirmed by flow cytometry (A). Jurkat T cells transfected with either CD158j or CD158jK233I were stimulated with anti-CD3 or anti-CD158b/j mAb and cross-linked with rabbit anti–mouse IgG Ab. After SDS-PAGE and transfer to a nitrocellulose membrane, the cell lysates were analyzed for phosphorylation of JNK (left panels). The blots were then stripped and reprobed with Abs against total JNK (right panels) (B).

Techniques Used: Mutagenesis, Residue, Phospho-proteomics, Transfection, Construct, Expressing, Flow Cytometry, SDS Page, Membrane

CD158j and DAP10 do not associate. RT-PCR was used to amplify transcripts for DAP10 from PBMCs (lane 1) and CD4 + CD28 null T cell clones (lanes 2–5). cDNA was omitted for the negative control (lane 6) (A). CD4 + CD28 null CD158b/j + T cell clones were stimulated with anti-CD3 or anti-CD158b/j in the presence or absence of 2.0 μM wortmannin. After SDS-PAGE and transfer to a nitrocellulose membrane, the cell lysates were analyzed for phosphorylation of JNK (left panels). The blots were then stripped and reprobed with Abs against β-actin (right panels). Results from two T cell clones are shown (B). DAP10-expressing RBL cells (left panel) were stably transfected with CD158j alone (middle panel) or with CD158j and KARAP/DAP12 (right panel). Cell surface expression of CD158j was confirmed by flow cytometry (top panels). DAP10 or KARAP/DAP12 was immunoprecipitated from lysates of biotinylated transfected RBL cells. After SDS-PAGE and transfer to nitrocellulose membranes, coimmunoprecipitated cell-surface proteins were detected by streptavidin-HRP (middle panels). Immunoprecipitation of DAP10 and KARAP/DAP12 was confirmed by immunoblot with anti-DAP10 or anti-KARAP/DAP12 Ab (bottom panels) (C). DAP10 or KARAP/DAP12 was immunoprecipitated from Jurkat T cells (lanes 1–3) or RBL cells (lanes 4–6). After SDS-PAGE and transfer to a nitrocellulose membrane, samples (protein-G preclear, lanes 1 and 4; DAP10 immunoprecipitate, lanes 2 and 5; KARAP/DAP12 immunoprecipitate, lanes 3 and 6) were analyzed by Western blot using DAP10 Ab (D).
Figure Legend Snippet: CD158j and DAP10 do not associate. RT-PCR was used to amplify transcripts for DAP10 from PBMCs (lane 1) and CD4 + CD28 null T cell clones (lanes 2–5). cDNA was omitted for the negative control (lane 6) (A). CD4 + CD28 null CD158b/j + T cell clones were stimulated with anti-CD3 or anti-CD158b/j in the presence or absence of 2.0 μM wortmannin. After SDS-PAGE and transfer to a nitrocellulose membrane, the cell lysates were analyzed for phosphorylation of JNK (left panels). The blots were then stripped and reprobed with Abs against β-actin (right panels). Results from two T cell clones are shown (B). DAP10-expressing RBL cells (left panel) were stably transfected with CD158j alone (middle panel) or with CD158j and KARAP/DAP12 (right panel). Cell surface expression of CD158j was confirmed by flow cytometry (top panels). DAP10 or KARAP/DAP12 was immunoprecipitated from lysates of biotinylated transfected RBL cells. After SDS-PAGE and transfer to nitrocellulose membranes, coimmunoprecipitated cell-surface proteins were detected by streptavidin-HRP (middle panels). Immunoprecipitation of DAP10 and KARAP/DAP12 was confirmed by immunoblot with anti-DAP10 or anti-KARAP/DAP12 Ab (bottom panels) (C). DAP10 or KARAP/DAP12 was immunoprecipitated from Jurkat T cells (lanes 1–3) or RBL cells (lanes 4–6). After SDS-PAGE and transfer to a nitrocellulose membrane, samples (protein-G preclear, lanes 1 and 4; DAP10 immunoprecipitate, lanes 2 and 5; KARAP/DAP12 immunoprecipitate, lanes 3 and 6) were analyzed by Western blot using DAP10 Ab (D).

Techniques Used: Reverse Transcription Polymerase Chain Reaction, Clone Assay, Negative Control, SDS Page, Membrane, Phospho-proteomics, Expressing, Stable Transfection, Transfection, Flow Cytometry, Immunoprecipitation, Western Blot



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Image Search Results


The layout of the DNA microarray method module; each detection panel includes 4 detection modules, which can detect two specimens at the same time. Modules 1 and 3 are used to detect mutations in the rpoB gene, and modules 2 and 4 are used to detect mutations in the katG gene and inhA promoter. QC quality control probe; EC external control probe; BC blank control; NC negative control probe; IC internal control probe; WT wild-type.

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Article Title: Analysis of the application of a gene chip method for detecting Mycobacterium tuberculosis drug resistance in clinical specimens: a retrospective study

doi: 10.1038/s41598-021-97559-y

Figure Lengend Snippet: The layout of the DNA microarray method module; each detection panel includes 4 detection modules, which can detect two specimens at the same time. Modules 1 and 3 are used to detect mutations in the rpoB gene, and modules 2 and 4 are used to detect mutations in the katG gene and inhA promoter. QC quality control probe; EC external control probe; BC blank control; NC negative control probe; IC internal control probe; WT wild-type.

Article Snippet: The CapitalBio DNA microarray chip method is used to qualitatively detect nucleic acids in samples of Mtb isolates from clinical TB patients.

Techniques: Microarray, Negative Control

The drug susceptibility test was used as a standard method to evaluate the efficacy of the  DNA microarray  for detecting RIF and INH resistance and MDR-TB.

Journal: Scientific Reports

Article Title: Analysis of the application of a gene chip method for detecting Mycobacterium tuberculosis drug resistance in clinical specimens: a retrospective study

doi: 10.1038/s41598-021-97559-y

Figure Lengend Snippet: The drug susceptibility test was used as a standard method to evaluate the efficacy of the DNA microarray for detecting RIF and INH resistance and MDR-TB.

Article Snippet: The CapitalBio DNA microarray chip method is used to qualitatively detect nucleic acids in samples of Mtb isolates from clinical TB patients.

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Comparison of the diagnostic efficacy of the  DNA microarray  method when sputum smear grades were ≤ 1 + and ≥ 2 +

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Article Title: Analysis of the application of a gene chip method for detecting Mycobacterium tuberculosis drug resistance in clinical specimens: a retrospective study

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Figure Lengend Snippet: Comparison of the diagnostic efficacy of the DNA microarray method when sputum smear grades were ≤ 1 + and ≥ 2 +

Article Snippet: The CapitalBio DNA microarray chip method is used to qualitatively detect nucleic acids in samples of Mtb isolates from clinical TB patients.

Techniques: Diagnostic Assay, Microarray

Specimen processing procedure: A total of 5,911 sputum smear-positive specimens were collected. After experimental processing, 4148 specimens that were positive with the DNA microarray method and DST were finally included in the study. NTM, nontuberculous mycobacteria ; DST, drug sensitivity test.

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Article Title: Analysis of the application of a gene chip method for detecting Mycobacterium tuberculosis drug resistance in clinical specimens: a retrospective study

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Figure Lengend Snippet: Specimen processing procedure: A total of 5,911 sputum smear-positive specimens were collected. After experimental processing, 4148 specimens that were positive with the DNA microarray method and DST were finally included in the study. NTM, nontuberculous mycobacteria ; DST, drug sensitivity test.

Article Snippet: The CapitalBio DNA microarray chip method is used to qualitatively detect nucleic acids in samples of Mtb isolates from clinical TB patients.

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Pattern diagrams of several common drug-resistant gene mutations detected by the DNA microarray method. The white box is the detection site of the wild-type codon, and the red box is the site of the detected mutant codon. ( a ) rpoB gene Leu511Pro (CTG → CCG); ( b ) rpoB gene Asp516Tyr (GAC → TAC); ( c ) rpoB gene His526Tyr (CAC → TAC); ( d ) rpoB gene Ser531Trp (TCG → TGG); ( e ) rpoB gene Ser531Leu (TCG → TTG); ( f ) katG gene Ser315Thr (AGC → ACC); ( g ) katG gene Ser315Asn (AGC → AAC); ( h ) inhA gene promoter-15 (C → T).

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Article Title: Analysis of the application of a gene chip method for detecting Mycobacterium tuberculosis drug resistance in clinical specimens: a retrospective study

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Figure Lengend Snippet: Pattern diagrams of several common drug-resistant gene mutations detected by the DNA microarray method. The white box is the detection site of the wild-type codon, and the red box is the site of the detected mutant codon. ( a ) rpoB gene Leu511Pro (CTG → CCG); ( b ) rpoB gene Asp516Tyr (GAC → TAC); ( c ) rpoB gene His526Tyr (CAC → TAC); ( d ) rpoB gene Ser531Trp (TCG → TGG); ( e ) rpoB gene Ser531Leu (TCG → TTG); ( f ) katG gene Ser315Thr (AGC → ACC); ( g ) katG gene Ser315Asn (AGC → AAC); ( h ) inhA gene promoter-15 (C → T).

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Non-tuberculous species identified from 2013 to 2018 in a tertiary hospital in Beijing, China

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Article Title: Prevalence of nontuberculous mycobacteria in a tertiary hospital in Beijing, China, January 2013 to December 2018

doi: 10.1186/s12866-020-01840-5

Figure Lengend Snippet: Non-tuberculous species identified from 2013 to 2018 in a tertiary hospital in Beijing, China

Article Snippet: DNA microarray chip method (Mycobacterial Species Identification Array Kit, CapitalBio Technology Inc., Beijing, China) can accurately distinguish between M. avium and M. intracellulae , which have quite similar phenotypes.

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Specimen types among which NTM were identified in this study

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Figure Lengend Snippet: Specimen types among which NTM were identified in this study

Article Snippet: DNA microarray chip method (Mycobacterial Species Identification Array Kit, CapitalBio Technology Inc., Beijing, China) can accurately distinguish between M. avium and M. intracellulae , which have quite similar phenotypes.

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