BulkSeq Studiov0.34.0
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How-to guides

Walk through your analysis

Choose your starting data and follow a connected, route-specific sequence.

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Each step explains the action, the settings that change your result, and what to check before moving on.

The complete read-to-results route#

Prepare the environment → add public or local reads → review samples → match the reference → choose processing and design → choose optional outputs → set resources → validate → run → review and export. The diagram is a guide to this sequence; selecting a step does not launch the application or an analysis.

Read all routes without the interactive diagram

Public accessions#

Start with a public RNA-seq study and follow the read-to-results route. No read-processing stage is skipped; the workflow first retrieves the reads.

  1. Prepare the environment: Make the tools required by your route available.
  2. Fetch public metadata: Resolve the selected public study into its reads and sample records.
  3. Review sample metadata: Connect observations to biological groups and relevant covariates.
  4. Match the reference and identifiers: Choose the correct organism and annotation context.
  5. Choose read processing: Define how reads become gene-level measurements.
  6. Define the comparison: Specify the biological question and selected-gene criteria.
  7. Choose interpretation outputs: Select enrichment, custom sets and network analysis that fit the study.
  8. Set resources: Give the workflow a feasible local budget.
  9. Validate and inspect the plan: Catch inconsistent inputs before expensive work.
  10. Run and monitor: Execute the validated route.
  11. Read and export results: Interpret the outputs and preserve their provenance.

Local FASTQ#

Start with reads already available on disk. Public read download is skipped. Read QC, processing and quantification still apply.

  1. Prepare the environment: Make the tools required by your route available.
  2. Select local FASTQ: Connect reads already on disk to the project.
  3. Review sample metadata: Connect observations to biological groups and relevant covariates.
  4. Match the reference and identifiers: Choose the correct organism and annotation context.
  5. Choose read processing: Define how reads become gene-level measurements.
  6. Define the comparison: Specify the biological question and selected-gene criteria.
  7. Choose interpretation outputs: Select enrichment, custom sets and network analysis that fit the study.
  8. Set resources: Give the workflow a feasible local budget.
  9. Validate and inspect the plan: Catch inconsistent inputs before expensive work.
  10. Run and monitor: Execute the validated route.
  11. Read and export results: Interpret the outputs and preserve their provenance.

Raw count matrix#

Fit a local count model from unnormalized gene counts. Download, read QC, trimming, alignment and counting are skipped. No read-level QC is reconstructed.

  1. Prepare the environment: Make the tools required by your route available.
  2. Import raw counts: Start after read processing and counting.
  3. Review sample metadata: Connect observations to biological groups and relevant covariates.
  4. Match the reference and identifiers: Choose the correct organism and annotation context.
  5. Define the comparison: Specify the biological question and selected-gene criteria.
  6. Choose interpretation outputs: Select enrichment, custom sets and network analysis that fit the study.
  7. Set resources: Give the workflow a feasible local budget.
  8. Validate and inspect the plan: Catch inconsistent inputs before expensive work.
  9. Run and monitor: Execute the validated route.
  10. Read and export results: Interpret the outputs and preserve their provenance.

Microarray#

Analyse normalized intensities through the limma route. RNA-seq read processing and counting do not apply. Array processing and mapping checks replace those stages.

  1. Prepare the environment: Make the tools required by your route available.
  2. Import microarray intensities: Choose processed intensities or supported raw-array processing.
  3. Review sample metadata: Connect observations to biological groups and relevant covariates.
  4. Match the reference and identifiers: Choose the correct organism and annotation context.
  5. Define the comparison: Specify the biological question and selected-gene criteria.
  6. Choose interpretation outputs: Select enrichment, custom sets and network analysis that fit the study.
  7. Set resources: Give the workflow a feasible local budget.
  8. Validate and inspect the plan: Catch inconsistent inputs before expensive work.
  9. Run and monitor: Execute the validated route.
  10. Read and export results: Interpret the outputs and preserve their provenance.

Finished DE results#

Interpret an external model with its source direction preserved. Reads, alignment, counting and local model fitting are skipped. Without a sample-expression matrix there is no PCA, count heatmap or normalized-expression export.

  1. Prepare the environment: Make the tools required by your route available.
  2. Import finished statistics: Reuse a completed upstream model without fitting a local one.
  3. Match the reference and identifiers: Choose the correct organism and annotation context.
  4. Choose downstream thresholds: Select gene lists from supplied values without refitting.
  5. Choose interpretation outputs: Select enrichment, custom sets and network analysis that fit the study.
  6. Set resources: Give the workflow a feasible local budget.
  7. Validate and inspect the plan: Catch inconsistent inputs before expensive work.
  8. Run and monitor: Execute the validated route.
  9. Read and export results: Interpret the outputs and preserve their provenance.

Combining studies?#

Finish the common data and design decisions first, then read multi-study meta-analysis. That optional branch requires independent studies of the same contrast and is not equivalent to pooling every sample without study structure.

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