> For the complete documentation index, see [llms.txt](https://docs.codeocean.com/user-guide/llms.txt). Markdown versions of documentation pages are available by appending `.md` to page URLs; this page is available as [Markdown](https://docs.codeocean.com/user-guide/code-ocean-apps/visualization.md).

# Visualization

<table data-full-width="true"><thead><tr><th width="366.33333333333337"></th><th width="175">Title</th><th width="201">Description</th><th>Input Data</th><th data-hidden>Description</th><th data-hidden></th></tr></thead><tbody><tr><td><img src="https://content.gitbook.com/content/IXW7wvn1GtkljhxGS08z/blobs/L4S8rrBQ3dx1bwaPVyHD/App%20library%20banners%20560x400-phase%202%20part2_Wally%20visualization.jpg" alt=""></td><td>Wally visualizations</td><td>This Capsule creates a genomic alignment plot of reads in a specified region mapped to a reference. The visualization of genomic alignments was heavily inspired by IGV, and customized to visualize structural variation and CNVs.</td><td><ul><li>Genome .fasta reference and .fai file</li><li>.bam files</li></ul></td><td>Wally creates a genomic alignment plot of reads in a specified region mapped to a reference. The visualization of genomic alignments was heavily inspired by IGV, and customized to visualize structural variation and CNVs.</td><td></td></tr><tr><td><img src="https://content.gitbook.com/content/IXW7wvn1GtkljhxGS08z/blobs/nTJ9WPuFjTjOyNSJLEHA/image.png" alt="" data-size="original"></td><td>Samplot Visualization (from coordinates)</td><td>This Capsule is a command line tool for rapid, multi-sample structural variant visualization.</td><td><p></p><ul><li>compare sheet</li><li>.bam files</li></ul></td><td></td><td></td></tr><tr><td><img src="https://content.gitbook.com/content/IXW7wvn1GtkljhxGS08z/blobs/2iC1cjjDKHooqg8tQEwk/App%20library%20banners%20560x400-phase%202_Dose%20Response%20Capsule.jpg" alt=""></td><td>Dose response</td><td>This Capsule produces dose response curves that describe the magnitude of the response as a function of exposure (dose) to a condition after a certain exposure time.</td><td><ul><li>.csv file containing gene expression and treatment dosage (see README for details)</li></ul></td><td>Produces dose response curves that describe the magnitude of the response as a function of exposure (dose) to a condition after a certain exposure time.</td><td></td></tr><tr><td><img src="https://content.gitbook.com/content/IXW7wvn1GtkljhxGS08z/blobs/Zud8gp3L0VgLMJ83c0QQ/App%20library%20banners%20560x400-phase%202_DESeq2.jpg" alt=""></td><td>DESeq2</td><td>This Capsule performs differential gene expression analysis with potential input types: 1. Transcript abundance; 2. Counts data; 3. HTseq-counts data; 4. Summarized experiment in RDS format.</td><td><ul><li>Input varies depending on the source (i.e., Seurat vs RSEM) see README for details.</li></ul></td><td>Differential gene expression analysis with potential input types: 1. Transcript abundance; 2. Counts data; 3. HTseq-counts data; 4. Summarized experiment in RDS format.</td><td></td></tr><tr><td><img src="https://content.gitbook.com/content/IXW7wvn1GtkljhxGS08z/blobs/Lx8xXVBu2dYT8Pv0LmE0/App%20library%20banners%20560x400-phase%202%20part2_MolStar%20Viewer.jpg" alt=""></td><td>Mol* Viewer for PDB Files</td><td>This Capsule allows you to view PDB files interactively on a Streamlit cloud workstation using the Mol* 3D Viewer.</td><td><ul><li>Protein structure files in .pdb format</li></ul></td><td>View PDB files interactively on a Streamlit cloud workstation using the Mol* 3D Viewer</td><td></td></tr><tr><td><img src="https://content.gitbook.com/content/IXW7wvn1GtkljhxGS08z/blobs/XySo86RHQxUIfI0WGCwY/App%20library%20banners%20560x400_Tensorboard.jpg" alt=""></td><td>TensorBoard GPU</td><td><p>This Capsules allows users to view model experiment metrics like loss and accuracy, visualizing the model graph, project embeddings to a lower dimensional space and more. This capsule shows an example from the Tensorboard website.  </p><p></p><p>This Capsule runs on GPU instances and comes preloaded with Tensorflow.</p></td><td><ul><li>None</li></ul></td><td><p>View model experiment metrics like loss and accuracy, visualizing the model graph, project embeddings to a lower dimensional space and more. This capsule shows an example from the Tensorboard website.  </p><p><br></p><p>This capsule runs on GPU instances and comes preloaded with Tensorflow.</p><p><br></p></td><td></td></tr><tr><td><img src="https://content.gitbook.com/content/IXW7wvn1GtkljhxGS08z/blobs/6VAdA4vQN9o7mJwHfRno/App%20library%20banners%20560x400_RShiny%20Cell-.jpg" alt=""></td><td>RShiny Cell</td><td>ShinyCell is an R package that allows users to create interactive Shiny-based web applications to visualize single-cell data.</td><td><ul><li>Single cell .rds inputs from Seurat (see README)</li></ul></td><td>ShinyCell is an R package that allows users to create interactive Shiny-based web applications to visualise single-cell data</td><td></td></tr><tr><td><img src="https://content.gitbook.com/content/IXW7wvn1GtkljhxGS08z/blobs/tMh00RgNNTH7ARrsEbVo/App%20library%20banners%20560x400_Scanpy.jpg" alt=""></td><td>1-3. Single Cell Analysis Tutorial (Scanpy &#x26; Seurat)</td><td><p>Tutorials to describe working with Single Cell data for Scanpy and Seurat: </p><p></p><p>1. Preprocessing and clustering 3k PBMCs </p><p>2. Core Plotting Functions </p><p>3. How to preprocess UMI count data with analytic Pearson residuals</p></td><td><ul><li>Tutorial datasets (see README for details)</li></ul></td><td><p>Tutorials to describe working with Single Cell data for Scanpy and Seurat: </p><p></p><p>1. Preprocessing and clustering 3k PBMCs </p><p>2. Core Plotting Functions </p><p>3. How to preprocess UMI count data  with analytic Pearson residu</p></td><td></td></tr><tr><td><img src="https://content.gitbook.com/content/IXW7wvn1GtkljhxGS08z/blobs/tMh00RgNNTH7ARrsEbVo/App%20library%20banners%20560x400_Scanpy.jpg" alt=""></td><td>5-6. Single Cell Analysis Tutorial (Scanpy)</td><td>Tutorials demonstrating how to regress cell cycle effect and how to simulate data using a literature-curated boolean gene regulatory network.</td><td><ul><li>Tutorial datasets (see README for details)</li></ul></td><td>utorials demonstrating how to regress cell cycle effect and how to simulate data using a literature-curated boolean gene regulatory network</td><td></td></tr><tr><td><img src="https://content.gitbook.com/content/IXW7wvn1GtkljhxGS08z/blobs/tMh00RgNNTH7ARrsEbVo/App%20library%20banners%20560x400_Scanpy.jpg" alt=""></td><td>7-10. Single Cell Analysis Tutorial (Scanpy) Advanced</td><td>Tutorials for advanced Single Cell processing.</td><td><ul><li>Tutorial datasets (see README for details)</li></ul></td><td>Tutorials for advanced Single Cell processing.</td><td></td></tr><tr><td></td><td></td><td></td><td></td><td></td><td></td></tr><tr><td><img src="https://content.gitbook.com/content/IXW7wvn1GtkljhxGS08z/blobs/ZiVlccQPXPRofuLmATQ5/App%20library%20banners%20560x400_MLFlow-.jpg" alt=""></td><td>MLflow Orchestrator Capsule</td><td>This is a central MLflow "Orchestrator" capsule that can be used to interactively view the results from multiple machine learning capsules using the same MLflow database.</td><td><ul><li>None</li></ul></td><td>This is a central MLflow "Orchestrator" capsule that can be used to interactively view the results from multiple machine learning capsules using the same MLflow database</td><td></td></tr></tbody></table>


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