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Mutation frequencies of B‐DNA and H‐DNA sequences with or without oxidative damage and XPA, a key NER protein. B‐DNA‐ or H‐DNA‐forming reporter sequences were exposed to different levels of oxidative stress (−, +, or ++) and then transfected into human <t>U2OS</t> cell lines with either (A and B) wild type or (C and D) XPA knockout phenotypes to allow for DNA repair processing. Mutation frequencies were quantified (A and C) using a blue‐white screening assay. Each condition represents the average of at least three replicates (+SEM). Statistical comparisons between conditions were performed using a two‐way ANOVA with significance indicated as p < 0.05 (*), or < 0.01 (**). Mutation spectra were then determined (B and D) using Sanger sequencing, with at least 15 mutants analyzed per condition and classified as point mutations (1 bp), small deletions (< 15 bp), or large deletions (> 15 bp). Mutation spectra ratios are shown per condition as a ratio of mutation frequency.
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Mutation frequencies of B‐DNA and H‐DNA sequences with or without oxidative damage and XPA, a key NER protein. B‐DNA‐ or H‐DNA‐forming reporter sequences were exposed to different levels of oxidative stress (−, +, or ++) and then transfected into human <t>U2OS</t> cell lines with either (A and B) wild type or (C and D) XPA knockout phenotypes to allow for DNA repair processing. Mutation frequencies were quantified (A and C) using a blue‐white screening assay. Each condition represents the average of at least three replicates (+SEM). Statistical comparisons between conditions were performed using a two‐way ANOVA with significance indicated as p < 0.05 (*), or < 0.01 (**). Mutation spectra were then determined (B and D) using Sanger sequencing, with at least 15 mutants analyzed per condition and classified as point mutations (1 bp), small deletions (< 15 bp), or large deletions (> 15 bp). Mutation spectra ratios are shown per condition as a ratio of mutation frequency.
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Mutation frequencies of B‐DNA and H‐DNA sequences with or without oxidative damage and XPA, a key NER protein. B‐DNA‐ or H‐DNA‐forming reporter sequences were exposed to different levels of oxidative stress (−, +, or ++) and then transfected into human U2OS cell lines with either (A and B) wild type or (C and D) XPA knockout phenotypes to allow for DNA repair processing. Mutation frequencies were quantified (A and C) using a blue‐white screening assay. Each condition represents the average of at least three replicates (+SEM). Statistical comparisons between conditions were performed using a two‐way ANOVA with significance indicated as p < 0.05 (*), or < 0.01 (**). Mutation spectra were then determined (B and D) using Sanger sequencing, with at least 15 mutants analyzed per condition and classified as point mutations (1 bp), small deletions (< 15 bp), or large deletions (> 15 bp). Mutation spectra ratios are shown per condition as a ratio of mutation frequency.

Journal: Environmental and Molecular Mutagenesis

Article Title: Oxidative DNA Damage Exacerbates the Mutagenic Potential of Alternative DNA Structures via Altered DNA Repair Processing

doi: 10.1002/em.70059

Figure Lengend Snippet: Mutation frequencies of B‐DNA and H‐DNA sequences with or without oxidative damage and XPA, a key NER protein. B‐DNA‐ or H‐DNA‐forming reporter sequences were exposed to different levels of oxidative stress (−, +, or ++) and then transfected into human U2OS cell lines with either (A and B) wild type or (C and D) XPA knockout phenotypes to allow for DNA repair processing. Mutation frequencies were quantified (A and C) using a blue‐white screening assay. Each condition represents the average of at least three replicates (+SEM). Statistical comparisons between conditions were performed using a two‐way ANOVA with significance indicated as p < 0.05 (*), or < 0.01 (**). Mutation spectra were then determined (B and D) using Sanger sequencing, with at least 15 mutants analyzed per condition and classified as point mutations (1 bp), small deletions (< 15 bp), or large deletions (> 15 bp). Mutation spectra ratios are shown per condition as a ratio of mutation frequency.

Article Snippet: Wild‐type U2OS cells (ATCC, #HTB‐96) were used unless otherwise specified, including the CRISPR‐Cas9 knockout U2OS cell lines for either OGG1, APE1, or XPA (provided by Dr. Robert Sobol, Brown University) and previously characterized (Bordelon ).

Techniques: Mutagenesis, Transfection, Knock-Out, Screening Assay, Sequencing

Mutation frequencies of B‐DNA and H‐DNA sequences with or without oxidative damage and key BER proteins. B‐DNA‐ or H‐DNA‐forming reporter sequences were exposed to increasing levels of oxidative stress (−, +, or ++) and then transfected into human U2OS cell lines with either (A and B) OGG1 knockout or (C and D) APE1 knockout phenotypes to allow for DNA repair processing. Mutation frequencies were then quantified (A and C) using a blue‐white screening assay. Each condition represents the average of at least three replicates (+SEM). Statistical comparisons between conditions were performed using a two‐way ANOVA with significance indicated as p < 0.05 (*), < 0.01 (**), or < 0.001 (***). Mutation spectra were then determined (B and D) using Sanger sequencing, with at least 15 mutants analyzed per condition and classified as point mutations (1 bp), small deletions (< 15 bp), or large deletions (> 15 bp). Mutation spectra ratios are shown per condition as a ratio of mutation frequency.

Journal: Environmental and Molecular Mutagenesis

Article Title: Oxidative DNA Damage Exacerbates the Mutagenic Potential of Alternative DNA Structures via Altered DNA Repair Processing

doi: 10.1002/em.70059

Figure Lengend Snippet: Mutation frequencies of B‐DNA and H‐DNA sequences with or without oxidative damage and key BER proteins. B‐DNA‐ or H‐DNA‐forming reporter sequences were exposed to increasing levels of oxidative stress (−, +, or ++) and then transfected into human U2OS cell lines with either (A and B) OGG1 knockout or (C and D) APE1 knockout phenotypes to allow for DNA repair processing. Mutation frequencies were then quantified (A and C) using a blue‐white screening assay. Each condition represents the average of at least three replicates (+SEM). Statistical comparisons between conditions were performed using a two‐way ANOVA with significance indicated as p < 0.05 (*), < 0.01 (**), or < 0.001 (***). Mutation spectra were then determined (B and D) using Sanger sequencing, with at least 15 mutants analyzed per condition and classified as point mutations (1 bp), small deletions (< 15 bp), or large deletions (> 15 bp). Mutation spectra ratios are shown per condition as a ratio of mutation frequency.

Article Snippet: Wild‐type U2OS cells (ATCC, #HTB‐96) were used unless otherwise specified, including the CRISPR‐Cas9 knockout U2OS cell lines for either OGG1, APE1, or XPA (provided by Dr. Robert Sobol, Brown University) and previously characterized (Bordelon ).

Techniques: Mutagenesis, Transfection, Knock-Out, Screening Assay, Sequencing

Association of XPA and APE1 proteins with B‐DNA or H‐DNA sequences with or without oxidative damage and key BER or NER proteins. B‐DNA‐ or H‐DNA‐forming reporter sequences were first exposed to increasing levels of oxidative stress (−, +, or ++). Reporter sequences were then transfected into human U2OS cell lines with (A) wild‐type (previously published matched control (Zewail‐Foote et al. )), (B) XPA knockout, or (C) APE1 knockout phenotypes for DNA repair processing. Chromatin immunoprecipitation (ChIP) was then used to measure the association of XPA or APE1 proteins with B‐DNA or H‐DNA sequences. Protein association is shown as a percentage of total input DNA (% input). Each condition shows the average % input of three replicates (+SEM). Condition comparisons use a Wilcoxon rank sums approach demonstrating p < 0.05 (*), or < 0.01 (**).

Journal: Environmental and Molecular Mutagenesis

Article Title: Oxidative DNA Damage Exacerbates the Mutagenic Potential of Alternative DNA Structures via Altered DNA Repair Processing

doi: 10.1002/em.70059

Figure Lengend Snippet: Association of XPA and APE1 proteins with B‐DNA or H‐DNA sequences with or without oxidative damage and key BER or NER proteins. B‐DNA‐ or H‐DNA‐forming reporter sequences were first exposed to increasing levels of oxidative stress (−, +, or ++). Reporter sequences were then transfected into human U2OS cell lines with (A) wild‐type (previously published matched control (Zewail‐Foote et al. )), (B) XPA knockout, or (C) APE1 knockout phenotypes for DNA repair processing. Chromatin immunoprecipitation (ChIP) was then used to measure the association of XPA or APE1 proteins with B‐DNA or H‐DNA sequences. Protein association is shown as a percentage of total input DNA (% input). Each condition shows the average % input of three replicates (+SEM). Condition comparisons use a Wilcoxon rank sums approach demonstrating p < 0.05 (*), or < 0.01 (**).

Article Snippet: Wild‐type U2OS cells (ATCC, #HTB‐96) were used unless otherwise specified, including the CRISPR‐Cas9 knockout U2OS cell lines for either OGG1, APE1, or XPA (provided by Dr. Robert Sobol, Brown University) and previously characterized (Bordelon ).

Techniques: Transfection, Control, Knock-Out, Chromatin Immunoprecipitation