plasmidsaurus sequencing histogram Search Results


86
Plasmidsaurus plasmidsaurus sequencing histogram
a Diagram of the source plasmid and the resulting mcDNA with excluded bacterial backbone, used in this validation edit. b Plasmidsaurus <t>sequencing</t> histogram showing the high quality of the mcDNA product. c A circular vector for the expression of gRNA for base editing targeting, using the method developed earlier in our laboratory . d Base editing (dCas9 ABE8e) A → G conversion rates in HEK293T cells for the first three sites from . e dCas9 ABE8e editing A → G conversion rates in two mESC sites. Colors: mcDNA (green) and the original plasmid (orange). Guide sequences for the sites are followed by PAM (in bold red font). In plots ( d , e ), standard deviation (SD) values are indicated with the red line range. Where not visible, the SDs fall within the spread of the data points.
Plasmidsaurus Sequencing Histogram, supplied by Plasmidsaurus, used in various techniques. Bioz Stars score: 86/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/result/plasmidsaurus sequencing histogram/product/Plasmidsaurus
Average 86 stars, based on 1 article reviews
plasmidsaurus sequencing histogram - by Bioz Stars, 2026-06
86/100 stars
  Buy from Supplier

Image Search Results


a Diagram of the source plasmid and the resulting mcDNA with excluded bacterial backbone, used in this validation edit. b Plasmidsaurus sequencing histogram showing the high quality of the mcDNA product. c A circular vector for the expression of gRNA for base editing targeting, using the method developed earlier in our laboratory . d Base editing (dCas9 ABE8e) A → G conversion rates in HEK293T cells for the first three sites from . e dCas9 ABE8e editing A → G conversion rates in two mESC sites. Colors: mcDNA (green) and the original plasmid (orange). Guide sequences for the sites are followed by PAM (in bold red font). In plots ( d , e ), standard deviation (SD) values are indicated with the red line range. Where not visible, the SDs fall within the spread of the data points.

Journal: Communications Biology

Article Title: Plasmid2MC: efficient cell-free generation of high-purity minicircle DNA for genome editing in mammalian cells

doi: 10.1038/s42003-025-09157-7

Figure Lengend Snippet: a Diagram of the source plasmid and the resulting mcDNA with excluded bacterial backbone, used in this validation edit. b Plasmidsaurus sequencing histogram showing the high quality of the mcDNA product. c A circular vector for the expression of gRNA for base editing targeting, using the method developed earlier in our laboratory . d Base editing (dCas9 ABE8e) A → G conversion rates in HEK293T cells for the first three sites from . e dCas9 ABE8e editing A → G conversion rates in two mESC sites. Colors: mcDNA (green) and the original plasmid (orange). Guide sequences for the sites are followed by PAM (in bold red font). In plots ( d , e ), standard deviation (SD) values are indicated with the red line range. Where not visible, the SDs fall within the spread of the data points.

Article Snippet: Fig. 4 Validation of mcDNA performance in ABE8e dCas9 base editing. a Diagram of the source plasmid and the resulting mcDNA with excluded bacterial backbone, used in this validation edit. b Plasmidsaurus sequencing histogram showing the high quality of the mcDNA product. c A circular vector for the expression of gRNA for base editing targeting, using the method developed earlier in our laboratory . d Base editing (dCas9 ABE8e) A → G conversion rates in HEK293T cells for the first three sites from . e dCas9 ABE8e editing A → G conversion rates in two mESC sites.

Techniques: Plasmid Preparation, Biomarker Discovery, Sequencing, Expressing, Standard Deviation

a Schematic showing the design of HITI constructs. Blue pentagon, Cas9/gRNA target sequence in the host genome and HITI mcDNA. HygR: Hygromycin-resistant gene. Black square: non-functional random DNA sequence. b Schematic of HITI experiment with antibiotic selection to enrich cells with the correct HITI-mediated integration before subsequent analysis. c Flow cytometry analysis of cells treated with HITI or control (untransfected cells). Percentage of positive population is shown within the gates. d Gel electrophoresis of PCR overlapping the mKate gene and either the ACTB or GAPDH genes. HITI - shows bands for edited samples, while no bands are visible for unedited Controls. See Supplementary Fig. for additional analysis and unprocessed gel electrophoresis photos.

Journal: Communications Biology

Article Title: Plasmid2MC: efficient cell-free generation of high-purity minicircle DNA for genome editing in mammalian cells

doi: 10.1038/s42003-025-09157-7

Figure Lengend Snippet: a Schematic showing the design of HITI constructs. Blue pentagon, Cas9/gRNA target sequence in the host genome and HITI mcDNA. HygR: Hygromycin-resistant gene. Black square: non-functional random DNA sequence. b Schematic of HITI experiment with antibiotic selection to enrich cells with the correct HITI-mediated integration before subsequent analysis. c Flow cytometry analysis of cells treated with HITI or control (untransfected cells). Percentage of positive population is shown within the gates. d Gel electrophoresis of PCR overlapping the mKate gene and either the ACTB or GAPDH genes. HITI - shows bands for edited samples, while no bands are visible for unedited Controls. See Supplementary Fig. for additional analysis and unprocessed gel electrophoresis photos.

Article Snippet: Fig. 4 Validation of mcDNA performance in ABE8e dCas9 base editing. a Diagram of the source plasmid and the resulting mcDNA with excluded bacterial backbone, used in this validation edit. b Plasmidsaurus sequencing histogram showing the high quality of the mcDNA product. c A circular vector for the expression of gRNA for base editing targeting, using the method developed earlier in our laboratory . d Base editing (dCas9 ABE8e) A → G conversion rates in HEK293T cells for the first three sites from . e dCas9 ABE8e editing A → G conversion rates in two mESC sites.

Techniques: Construct, Sequencing, Functional Assay, Selection, Flow Cytometry, Control, Nucleic Acid Electrophoresis