umap plots Search Results


90
GraphPad Software Inc umap plot
Umap Plot, supplied by GraphPad Software Inc, 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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Plotly Technologies Inc umap plots
Umap Plots, supplied by Plotly Technologies Inc, 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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Plotly Technologies Inc 3d umap plot
Cell-type-specific regulatory networks and key regulators for root hair differentiation. a Mapping the information of chromatin openness revealed by snATAC-seq data into the cell clusters classified by snRNA-seq. b <t>UMAP</t> visualization of 10 cell clusters were annotated by both snRNA-seq and snATAC-seq for wheat root. Each dot represents a single cell. c High correlation between chromatin accessibility and expression of marker genes for each corresponding clusters. Left part is the open chromatin scores calculated based on snATAC-seq, Right part is the expression level calculated based on snRNA-seq. d Top5 representative TF regulons for each cluster identified by SCENIC4. The abbreviated names of TF regulons were followed with the chromosome name to indicate their location in subgenomes. e Root transections of taspl14 knock-out line and wild type. The protoxylem pores and companion cells were marked with yellow arrow and pink arrow head, respectively. Bar is 100 μm. f taspl14 knock-out line showed reduced companion cells and increased protoxylem. g BAM1 and LOB were downregulated in root of taspl14 knock-out lines. h The accessible chromatin regions (ACRs) of BAM1 homolog ( TraesCS4D02G235800 ). i Differentiated trajectories of root hair. Colors of dots are corresponding to cell clusters. Start indicates the initiation of the pseudo-time trajectory. Terminal indicates the end of the pseudo-time trajectory. j Trajectory network for root hair differentiation identified the key regulators for cell identity transition
3d Umap Plot, supplied by Plotly Technologies Inc, 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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90
ReCor Medical Inc umap plots
Cell-type-specific regulatory networks and key regulators for root hair differentiation. a Mapping the information of chromatin openness revealed by snATAC-seq data into the cell clusters classified by snRNA-seq. b <t>UMAP</t> visualization of 10 cell clusters were annotated by both snRNA-seq and snATAC-seq for wheat root. Each dot represents a single cell. c High correlation between chromatin accessibility and expression of marker genes for each corresponding clusters. Left part is the open chromatin scores calculated based on snATAC-seq, Right part is the expression level calculated based on snRNA-seq. d Top5 representative TF regulons for each cluster identified by SCENIC4. The abbreviated names of TF regulons were followed with the chromosome name to indicate their location in subgenomes. e Root transections of taspl14 knock-out line and wild type. The protoxylem pores and companion cells were marked with yellow arrow and pink arrow head, respectively. Bar is 100 μm. f taspl14 knock-out line showed reduced companion cells and increased protoxylem. g BAM1 and LOB were downregulated in root of taspl14 knock-out lines. h The accessible chromatin regions (ACRs) of BAM1 homolog ( TraesCS4D02G235800 ). i Differentiated trajectories of root hair. Colors of dots are corresponding to cell clusters. Start indicates the initiation of the pseudo-time trajectory. Terminal indicates the end of the pseudo-time trajectory. j Trajectory network for root hair differentiation identified the key regulators for cell identity transition
Umap Plots, supplied by ReCor Medical Inc, 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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RStudio umap plots and heat maps
Cell-type-specific regulatory networks and key regulators for root hair differentiation. a Mapping the information of chromatin openness revealed by snATAC-seq data into the cell clusters classified by snRNA-seq. b <t>UMAP</t> visualization of 10 cell clusters were annotated by both snRNA-seq and snATAC-seq for wheat root. Each dot represents a single cell. c High correlation between chromatin accessibility and expression of marker genes for each corresponding clusters. Left part is the open chromatin scores calculated based on snATAC-seq, Right part is the expression level calculated based on snRNA-seq. d Top5 representative TF regulons for each cluster identified by SCENIC4. The abbreviated names of TF regulons were followed with the chromosome name to indicate their location in subgenomes. e Root transections of taspl14 knock-out line and wild type. The protoxylem pores and companion cells were marked with yellow arrow and pink arrow head, respectively. Bar is 100 μm. f taspl14 knock-out line showed reduced companion cells and increased protoxylem. g BAM1 and LOB were downregulated in root of taspl14 knock-out lines. h The accessible chromatin regions (ACRs) of BAM1 homolog ( TraesCS4D02G235800 ). i Differentiated trajectories of root hair. Colors of dots are corresponding to cell clusters. Start indicates the initiation of the pseudo-time trajectory. Terminal indicates the end of the pseudo-time trajectory. j Trajectory network for root hair differentiation identified the key regulators for cell identity transition
Umap Plots And Heat Maps, supplied by RStudio, 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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CH Instruments umap plot
Immune infiltration heterogeneity of ESCC with distinct therapeutic responses. (a) <t>UMAP</t> plot showing clustering for immune cells from 10 patients with ESCC (left), expression of selected genes (middle) and distribution according to different therapeutic responses (right). (b) Dot plot showing the expression of PDCD1 and CD274 in immune cell clusters from responders and non-responders. (c) Lollipop chart showing difference of proportions of immune cell clusters in patients with different MMR status (left) and therapeutic responses (right) (scales of circles indicate the –log P value; Student's t test). (d) Expression heatmap of signature genes in distinct lymphocyte clusters. (e) UMAP plot showing <t>the</t> <t>subclustering</t> for CD4 + T cells from 10 patients with ESCC (left), expression of selected genes (middle) and distribution in different therapeutic responses (right). (f) Lollipop chart showing differences of proportions of CD4 + T cell subclusters from patients with different MMR status (left) and therapeutic responses (right) (scales of circles indicate the –log P value; Student's t test). (g) UMAP plot showing the subclustering for B cells from 10 patients with ESCC (left), expression of selected genes (middle) and distribution according to different therapeutic responses (right). (h) Lollipop and column chart showing difference of proportions of B cell subclusters from patients with different MMR status (scales of circles indicate the –log P value; Student's t test; left) and therapeutic responses (Chi-square test; right). P values are indicated in the figure.
Umap Plot, supplied by CH Instruments, 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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Average 90 stars, based on 1 article reviews
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Image Search Results


Cell-type-specific regulatory networks and key regulators for root hair differentiation. a Mapping the information of chromatin openness revealed by snATAC-seq data into the cell clusters classified by snRNA-seq. b UMAP visualization of 10 cell clusters were annotated by both snRNA-seq and snATAC-seq for wheat root. Each dot represents a single cell. c High correlation between chromatin accessibility and expression of marker genes for each corresponding clusters. Left part is the open chromatin scores calculated based on snATAC-seq, Right part is the expression level calculated based on snRNA-seq. d Top5 representative TF regulons for each cluster identified by SCENIC4. The abbreviated names of TF regulons were followed with the chromosome name to indicate their location in subgenomes. e Root transections of taspl14 knock-out line and wild type. The protoxylem pores and companion cells were marked with yellow arrow and pink arrow head, respectively. Bar is 100 μm. f taspl14 knock-out line showed reduced companion cells and increased protoxylem. g BAM1 and LOB were downregulated in root of taspl14 knock-out lines. h The accessible chromatin regions (ACRs) of BAM1 homolog ( TraesCS4D02G235800 ). i Differentiated trajectories of root hair. Colors of dots are corresponding to cell clusters. Start indicates the initiation of the pseudo-time trajectory. Terminal indicates the end of the pseudo-time trajectory. j Trajectory network for root hair differentiation identified the key regulators for cell identity transition

Journal: Genome Biology

Article Title: Asymmetric gene expression and cell-type-specific regulatory networks in the root of bread wheat revealed by single-cell multiomics analysis

doi: 10.1186/s13059-023-02908-x

Figure Lengend Snippet: Cell-type-specific regulatory networks and key regulators for root hair differentiation. a Mapping the information of chromatin openness revealed by snATAC-seq data into the cell clusters classified by snRNA-seq. b UMAP visualization of 10 cell clusters were annotated by both snRNA-seq and snATAC-seq for wheat root. Each dot represents a single cell. c High correlation between chromatin accessibility and expression of marker genes for each corresponding clusters. Left part is the open chromatin scores calculated based on snATAC-seq, Right part is the expression level calculated based on snRNA-seq. d Top5 representative TF regulons for each cluster identified by SCENIC4. The abbreviated names of TF regulons were followed with the chromosome name to indicate their location in subgenomes. e Root transections of taspl14 knock-out line and wild type. The protoxylem pores and companion cells were marked with yellow arrow and pink arrow head, respectively. Bar is 100 μm. f taspl14 knock-out line showed reduced companion cells and increased protoxylem. g BAM1 and LOB were downregulated in root of taspl14 knock-out lines. h The accessible chromatin regions (ACRs) of BAM1 homolog ( TraesCS4D02G235800 ). i Differentiated trajectories of root hair. Colors of dots are corresponding to cell clusters. Start indicates the initiation of the pseudo-time trajectory. Terminal indicates the end of the pseudo-time trajectory. j Trajectory network for root hair differentiation identified the key regulators for cell identity transition

Article Snippet: The 3D UMAP plot was visualized by R with Plotly package (v4.9.4.1).

Techniques: Expressing, Marker, Knock-Out

Immune infiltration heterogeneity of ESCC with distinct therapeutic responses. (a) UMAP plot showing clustering for immune cells from 10 patients with ESCC (left), expression of selected genes (middle) and distribution according to different therapeutic responses (right). (b) Dot plot showing the expression of PDCD1 and CD274 in immune cell clusters from responders and non-responders. (c) Lollipop chart showing difference of proportions of immune cell clusters in patients with different MMR status (left) and therapeutic responses (right) (scales of circles indicate the –log P value; Student's t test). (d) Expression heatmap of signature genes in distinct lymphocyte clusters. (e) UMAP plot showing the subclustering for CD4 + T cells from 10 patients with ESCC (left), expression of selected genes (middle) and distribution in different therapeutic responses (right). (f) Lollipop chart showing differences of proportions of CD4 + T cell subclusters from patients with different MMR status (left) and therapeutic responses (right) (scales of circles indicate the –log P value; Student's t test). (g) UMAP plot showing the subclustering for B cells from 10 patients with ESCC (left), expression of selected genes (middle) and distribution according to different therapeutic responses (right). (h) Lollipop and column chart showing difference of proportions of B cell subclusters from patients with different MMR status (scales of circles indicate the –log P value; Student's t test; left) and therapeutic responses (Chi-square test; right). P values are indicated in the figure.

Journal: eBioMedicine

Article Title: Genomic profiling and associated B cell lineages delineate the efficacy of neoadjuvant anti-PD-1-based therapy in oesophageal squamous cell carcinoma

doi: 10.1016/j.ebiom.2024.104971

Figure Lengend Snippet: Immune infiltration heterogeneity of ESCC with distinct therapeutic responses. (a) UMAP plot showing clustering for immune cells from 10 patients with ESCC (left), expression of selected genes (middle) and distribution according to different therapeutic responses (right). (b) Dot plot showing the expression of PDCD1 and CD274 in immune cell clusters from responders and non-responders. (c) Lollipop chart showing difference of proportions of immune cell clusters in patients with different MMR status (left) and therapeutic responses (right) (scales of circles indicate the –log P value; Student's t test). (d) Expression heatmap of signature genes in distinct lymphocyte clusters. (e) UMAP plot showing the subclustering for CD4 + T cells from 10 patients with ESCC (left), expression of selected genes (middle) and distribution in different therapeutic responses (right). (f) Lollipop chart showing differences of proportions of CD4 + T cell subclusters from patients with different MMR status (left) and therapeutic responses (right) (scales of circles indicate the –log P value; Student's t test). (g) UMAP plot showing the subclustering for B cells from 10 patients with ESCC (left), expression of selected genes (middle) and distribution according to different therapeutic responses (right). (h) Lollipop and column chart showing difference of proportions of B cell subclusters from patients with different MMR status (scales of circles indicate the –log P value; Student's t test; left) and therapeutic responses (Chi-square test; right). P values are indicated in the figure.

Article Snippet: Immune infiltration heterogeneity of ESCC with distinct therapeutic responses. (a) UMAP plot showing clustering for immune cells from 10 patients with ESCC (left), expression of selected genes (middle) and distribution according to different therapeutic responses (right). (b) Dot plot showing the expression of PDCD1 and CD274 in immune cell clusters from responders and non-responders. (c) Lollipop chart showing difference of proportions of immune cell clusters in patients with different MMR status (left) and therapeutic responses (right) (scales of circles indicate the –log P value; Student's t test). (d) Expression heatmap of signature genes in distinct lymphocyte clusters. (e) UMAP plot showing the subclustering for CD4 + T cells from 10 patients with ESCC (left), expression of selected genes (middle) and distribution in different therapeutic responses (right). (f) Lollipop chart showing differences of proportions of CD4 + T cell subclusters from patients with different MMR status (left) and therapeutic responses (right) (scales of circles indicate the –log P value; Student's t test). (g) UMAP plot showing the subclustering for B cells from 10 patients with ESCC (left), expression of selected genes (middle) and distribution according to different therapeutic responses (right). (h) Lollipop and column chart showing difference of proportions of B cell subclusters from patients with different MMR status (scales of circles indicate the –log P value; Student's t test; left) and therapeutic responses (Chi-square test; right).

Techniques: Expressing

Correlation of IFC features with phenotypic features (A) Correlation plot showing the correlation between IFC features and clinical phenotypes. All clinical features were converted to binary parameters (Yes = Present, No=Not present) and correlation was calculated using Spearman’s correlation. The color coding and dot size correlate with Spearman’s rho coefficient. (B) All significant correlations have been plotted as a boxplot. For the boxplots, the values of each of the five features ( <xref ref-type=Table 1 ) were normalized against the mean of the healthy control taken along within the same experiment and converted to percentages. Statistics were calculated using Welsch’s t test. The black line indicates the median value, the lower and upper hinges correspond to the 25th and 75th percentiles. The upper and lower whisker extend to 1.5∗IQR. (C) Showing the UMAP plots from Figures 2 C and A. The nodes are colored according to the presence of neuropathy (Yes, No, NA). NA means that the specific feature was not assessed in patients. Statistical significance between the two clusters was calculated using Fisher’s exact test. Neuropathy was the only clinical feature that had a significant association with one of the clusters. " width="100%" height="100%">

Journal: iScience

Article Title: Imaging flow cytometry reveals divergent mitochondrial phenotypes in mitochondrial disease patients

doi: 10.1016/j.isci.2024.111496

Figure Lengend Snippet: Correlation of IFC features with phenotypic features (A) Correlation plot showing the correlation between IFC features and clinical phenotypes. All clinical features were converted to binary parameters (Yes = Present, No=Not present) and correlation was calculated using Spearman’s correlation. The color coding and dot size correlate with Spearman’s rho coefficient. (B) All significant correlations have been plotted as a boxplot. For the boxplots, the values of each of the five features ( Table 1 ) were normalized against the mean of the healthy control taken along within the same experiment and converted to percentages. Statistics were calculated using Welsch’s t test. The black line indicates the median value, the lower and upper hinges correspond to the 25th and 75th percentiles. The upper and lower whisker extend to 1.5∗IQR. (C) Showing the UMAP plots from Figures 2 C and A. The nodes are colored according to the presence of neuropathy (Yes, No, NA). NA means that the specific feature was not assessed in patients. Statistical significance between the two clusters was calculated using Fisher’s exact test. Neuropathy was the only clinical feature that had a significant association with one of the clusters.

Article Snippet: All graphs and UMAP plots were created using R-studio, except for the line chart of A, which was created with GraphPad Prism version 6 for Windows.

Techniques: Control, Whisker Assay