From 09375032b66f9f6bd2c75f77eecada73d2cc32b5 Mon Sep 17 00:00:00 2001 From: ShreyParikh07 Date: Tue, 25 Aug 2026 10:28:46 +0200 Subject: [PATCH 1/2] new readme --- README.md | 263 ++++++++++++++++++++++++++++++++++++++++++++++++++++++ 1 file changed, 263 insertions(+) diff --git a/README.md b/README.md index 752b2a4..1414a08 100644 --- a/README.md +++ b/README.md @@ -1 +1,264 @@ +<<<<<<< Updated upstream PDAC atlas code repository +======= +

Cross-species single-cell atlases of pancreatic cancer

+ +

+ Human and mouse PDAC atlases charting progression, therapy-driven remodelling and immune evasion +

+ +

+ bioRxiv + scPDAC documentation + PyPI + scPDAC repository +

+ +

+ Workflow for constructing the translational human–mouse PDAC single-cell atlases +

+ +--- + +## About the project + +Pancreatic ductal adenocarcinoma (PDAC) is usually diagnosed late, and the single-cell +data that exist are heavily skewed towards early, untreated, surgically resectable +disease. That gap makes it hard to study exactly what matters clinically: how tumours +progress, how the microenvironment is remodelled by therapy, and how the tumour escapes +immune control. + +This repository contains the analysis code behind two integrated single-cell +transcriptomic atlases — one **human**, one **mouse** — built on a shared annotation +scheme so that the two can be compared directly, cell state by cell state. Together they +span early to advanced and metastatic disease, including post-treatment samples, and +cover **more than 1.6 million cells**. + +Building them required stepping away from off-the-shelf workflows: standard highly +variable gene selection failed to align tumour and non-tumour compartments across +scRNA-seq and snRNA-seq, so feature selection combines expert-curated marker panels with +unsupervised matrix factorisation (MOFA), seven batch-correction methods were benchmarked +before settling on scANVI, malignant cells were called by inferCNV in human and by +*expressed lentiviral barcodes* in mouse, and the four-level annotation was validated by +a panel of independent PDAC experts. + +### The atlases at a glance + +| | Human | Mouse | +| ---------------------- | ---------------------------------- | -------------------------------------------- | +| **Core atlas** | 191 donors · >800,000 cells · 11 studies | 53 tumours · >390,000 cells (barcode-traced) | +| **Extended atlas** | 257 donors · >1,000,000 cells · 16 studies | 101 tumours · >600,000 cells | +| **Modalities** | scRNA-seq + snRNA-seq, Xenium spatial | scRNA-seq | +| **Sample types** | primary tumour, adjacent normal, metastasis | orthotopic syngeneic allografts, autochthonous GEMMs | +| **Integration** | scANVI on a curated gene panel | scANVI on the orthologous panel | +| **Extension** | scArches reference mapping onto the core | scArches reference mapping onto the core | + +### A shared, four-level cell-state taxonomy + +The same hierarchy is applied to both species, which is what makes the cross-species +comparison possible: + +| Level | Resolution | Examples | +| ----- | ---------- | -------- | +| **Level 1** | Major compartments (3) | epithelial · immune · stromal | +| **Level 2** | Major lineages (7) | malignant · lymphoid · myeloid · stromal · endothelial · exocrine · endocrine | +| **Level 3** | Fine cell types | CAF, macrophage, CD4⁺/CD8⁺ T cell, ductal, acinar, β cell, … | +| **Level 4** | Cell states | ten malignant programmes; T cell and macrophage substates | + +The ten malignant Level-4 states: **epithelial, EMT, mesenchymal, hypoxic, +highly-proliferative, highly-invasive, senescent, apoptotic, pit-like, acinar-like** — +in total, **more than 60 distinct cell states** across the taxonomy. + +### What the atlases show + +- **A rare CD4⁺CD8⁺ double-positive T cell population** that is poorly characterised in + PDAC, validated transcriptomically, spatially (Xenium, co-localising with TLS-like + niches) and — in mouse — at the protein level by flow cytometry, and conserved across + both species. +- **Radiotherapy is associated with a terminal EMT-persistent malignant state.** Patient + composition trajectories converge on an EMT-persistent endpoint enriched for + RT-exposed tumours, accompanied by endothelial expansion, T cell depletion, CAF + enrichment and increased laminin–CD44 signalling; the RT-associated genes *MYO1E*, + *CDK14* and *LPP* track with worse overall survival in TCGA-PAAD. +- **Mouse models map onto distinct human disease regimes.** Orthotopic allografts + resemble advanced, EMT-enriched human tumours, whereas autochthonous GEMMs align with + epithelial-like states — while malignant gene programmes and pathway activity remain + strongly conserved across species. + +--- + +## Use the atlases on your own data: `scPDAC` + +The atlases are not only a result — they are a reference. [**scPDAC**](https://github.com/theislab/scPDAC) +packages the trained models so you can annotate a new PDAC dataset against them without +rebuilding anything. + +```bash +pip install scPDAC +``` + +```python +import scpdac + +# 1. Map a query into the reference latent space (scArches surgery; returns core + query) +expanded = scpdac.tl.extend_atlas(query, atlas, species="human", max_epochs=10) + +# ...or the fast, no-surgery path: embed with the frozen model and transfer labels +query = scpdac.tl.embed_and_predict(query, "human") + +# 2. Annotate with the hierarchical classifier — no reference object needed +scpdac.tl.predict_labels(adata, species="human", layer="log_norm") +``` + +Both paths align your genes to the model's panel automatically and write results back +into your `AnnData` (`obsm["X_scANVI_emb"]`, `obs["predicted_celltype"]`, `Level_1`–`Level_4`). + +**Two workflows, pick by need** + +| | `extend_atlas` | `embed_and_predict` | `predict_labels` | +| - | - | - | - | +| What it does | scArches surgery on the reference scANVI model, fine-tuned on your query | Embeds the query with the frozen reference model and transfers labels | Hierarchical MLP: malignant vs non-malignant, then a Level-3 sub-classifier per branch | +| Returns | expanded atlas (reference + query, shared embedding) | your query, embedded and labelled | your query, labelled | +| Use when | you want to grow the atlas, or your query has genuinely new batches | you want fast labels and an embedding, reference untouched | you only want labels, no reference object | + +**Held-out benchmark** (two whole studies withheld per atlas — a cross-study transfer +estimate, not an in-distribution ceiling): + +| Stage | Human weighted-F1 | Mouse weighted-F1 | +| ----- | ----------------- | ----------------- | +| Root — malignant vs non-malignant | 0.981 | 0.982 | +| Malignant Level-3 sub-classifier | 0.953 | 0.935 | +| Non-malignant Level-3 sub-classifier | 0.929 | 0.866 | +| **Combined hierarchy (end-to-end)** | **0.921** | **0.876** | + +📚 **[Documentation](https://scpdac.readthedocs.io/en/latest/)** · +🧬 **[Atlas mapping tutorial](https://scpdac.readthedocs.io/en/latest/notebooks/mapping.html)** · +🏷️ **[Hierarchical classifier tutorial](https://scpdac.readthedocs.io/en/latest/notebooks/classifier.html)** · +📊 **[Performance & limitations](https://scpdac.readthedocs.io/en/latest/performance.html)** · +🔧 **[API reference](https://scpdac.readthedocs.io/en/latest/api.html)** + +> Per-class F1 varies a lot between abundant and rare labels. Read the +> [performance page](https://scpdac.readthedocs.io/en/latest/performance.html) before +> treating any individual call as fact — routing errors at the root are unrecoverable. + +--- + +## Repository structure + +Everything lives under `code/`, and it splits into two tiers that are worth +understanding before you go looking for a particular panel: + +> **`human/`, `mouse/` and `shared/` build the data. `figures/` turns that data into the +> figures in the paper.** + +The species directories are pipelines: they take raw counts from each contributing study +and walk them through QC, feature selection, integration, hierarchical annotation and +reference-mapping extension, ending in the atlas objects (`.h5ad` / `.zarr`) and the +trained models. Nothing in them plots a manuscript figure. `figures/` does the opposite — +it assumes those objects already exist, loads them, and produces the panels. So if you +want to know *how a number was made*, read `human/`, `mouse/` or `shared/`; if you want +to know *how a panel was drawn*, read `figures/`. + +``` +code/ +├── human/ # ── BUILD: the human atlas ── +│ ├── notebooks/ # 00–25, run in order: raw counts → extended atlas +│ │ ├── 00–05 … # per-study ingestion, filtering, RDS→h5ad, concatenation +│ │ ├── 06–08 … # sc/sn split, annotation, QC outliers, var-name harmonisation +│ │ ├── 09–11 … # inferCNV malignant calling, MOFA factors, manual gene panel +│ │ ├── 12–16 … # scPoli annotation refinement, binning, embeddings +│ │ ├── 17–22 … # scANVI integration, final 4-level annotation, expert validation +│ │ ├── 23–25 … # extension: prepare → scArches mapping → evaluation +│ │ └── README.md # per-notebook notes +│ ├── notebooks_downstream/ # analyses on the finished atlas (CellRank/DPT trajectories, +│ │ # LIANA+ cell–cell communication, TCGA survival, biomarker & DGE) +│ └── scripts/ # compute-heavy jobs, SLURM-ready +│ ├── Integration_*/ # the batch-correction benchmark: scVI, scANVI, scPoli, +│ │ # DRVI, sysVI, expiMap — plain and binned variants +│ ├── Metrics/ # scIB metrics per batch key (dataset / donor / technology / all) +│ └── classifiers/ # the MLPs shipped in scPDAC: malignant, malignant states, TME +│ +├── mouse/ # ── BUILD: the mouse atlas ── +│ ├── notebooks/ # 01–15: barcoded in-house data → public datasets → integration +│ │ # 01–03 barcoded ingestion, integration, QC + preliminary annotation +│ │ # 04–07 non-barcoded ingestion, QC, label transfer, Level-1 refinement +│ │ # 08–12 public datasets: import, merge, QC, integrate, refine +│ │ # 13–15 Level-3 and Level-4 annotation, final scANVI integration +│ └── scripts/ # integration models + scIB metrics for the mouse benchmark +│ +├── shared/ # ── BUILD + COMPARE: the two species together ── +│ └── notebooks/ # 01 harmonise metadata across atlases +│ # 02 cross-species integration (via HCOP orthologues) +│ # 03 max presence score (are human states present in mouse?) +│ # 04 compositional & transcriptomic similarity analysis +│ +└── figures/ # ── PLOT: the panels in the manuscript ── + ├── 02_figure.ipynb # Fig. 2 — human core atlas, hierarchical annotation, markers + ├── 02_figure_traj_DP.ipynb # Fig. 2 — DP T cell validation, diffusion-map densities, barplots + ├── 02_figure_spatial.ipynb # Fig. 2 & 4 — Xenium niches with CellCharter, incl. the RT sections + ├── 03_figure.ipynb # Fig. 3 — extended atlas, metadata distributions, classifiers + ├── core_vs_extension.ipynb # Fig. 3 — core vs extension coherence (neighbourhood entropy) + ├── 04_figure.ipynb # Fig. 4 — patient stratification, DRVI interpretation, LIANA+ CCC + ├── 05_figure.ipynb # Fig. 5 — integrated mouse atlas + ├── supplementary_figures/ # Extended Data figures + ├── config/ # config.yml — shared plotting defaults and the Level_1–4 palettes + └── scripts/ # atlas_plots.py, plot_spatial.py — reusable plotting helpers +``` + +Cross-species panels (**Fig. 6**) come out of `shared/notebooks/03_max_presence_score.ipynb` +and `04_similarity_analysis.ipynb`, which both compute and plot. + +One practical note on `figures/config/config.yml`: it holds the colour palettes for every +annotation level as well as the shared figure defaults (DPI, fonts, colourmaps). If you +re-plot anything, load it — that is what keeps colours consistent across the manuscript. + +### Outside `code/` + +| Path | Contents | +| ---- | -------- | +| `models/human/`, `models/mouse/` | trained scANVI, scVI, DRVI and scPoli models — including `pretrained_scanvi_extension`, the model used for reference mapping | +| `models/cell_classifiers/` | the three MLP checkpoints (malignant, malignant states, TME) that `scPDAC` ships | +| `supplementary_data/human/` | curated gene panel, MOFA factors and gene lists, annotation marker JSONs, donor metadata, and the eight expert validation votes | +| `supplementary_data/mouse/` | in-house and public sample metadata | +| `envs/` | conda environments (`preprocess.yml`, `scanpy_env.txt`, `scarches_env.txt`) | +| `references/` | placeholder for large reference files pulled in at runtime | + +Large `.h5ad`/`.zarr` objects, figures and model outputs are **not** tracked here — see +`.gitignore`. To reproduce a figure notebook you need the corresponding atlas object, +either produced by the pipelines above or obtained via `scPDAC`. + +--- + +## Citation + +If you use the atlases, the code or the models, please cite: + +> Lucarelli D, Parikh S, Jiménez S, Schneeweis C, *et al.* Cross-species single-cell +> atlases chart progression, therapy-driven remodelling and immune evasion in pancreatic +> cancer. *bioRxiv* (2026). doi:[10.64898/2026.03.19.712924](https://doi.org/10.64898/2026.03.19.712924) + +```bibtex +@article{Lucarelli2026, + author = {Lucarelli, Daniele and Parikh, Shrey and Jim{\'e}nez, Sara and others}, + title = {Cross-species single-cell atlases chart progression, therapy-driven + remodelling and immune evasion in pancreatic cancer}, + journal = {bioRxiv}, + year = {2026}, + doi = {10.64898/2026.03.19.712924}, + publisher = {Cold Spring Harbor Laboratory} +} +``` + +## Help and support + +- Questions about the **analysis code or the atlases** → [open an issue here](https://github.com/theislab/PDAC/issues) +- Questions about the **`scPDAC` package** → [open an issue on scPDAC](https://github.com/theislab/scPDAC/issues) + +## Related + +- [**scPDAC**](https://github.com/theislab/scPDAC) — map and annotate your data against these atlases ([docs](https://scpdac.readthedocs.io/en/latest/)) +- [scArches](https://github.com/theislab/scarches) — reference mapping framework used for the atlas extensions +- [scvi-tools](https://github.com/scverse/scvi-tools) — scVI / scANVI implementations +- [DRVI](https://github.com/theislab/drvi) — interpretable, disentangled integration used for the radiotherapy analysis +- [scIB](https://github.com/theislab/scib) — integration benchmarking metrics +>>>>>>> Stashed changes From 61fade3125ce495bdcdc18e2ef9303ea02cc5d23 Mon Sep 17 00:00:00 2001 From: ShreyParikh07 Date: Tue, 25 Aug 2026 10:29:50 +0200 Subject: [PATCH 2/2] new readme --- README.md | 145 +++++++++++++++++++++++++++++------------------------- 1 file changed, 79 insertions(+), 66 deletions(-) diff --git a/README.md b/README.md index 1414a08..216d299 100644 --- a/README.md +++ b/README.md @@ -1,25 +1,15 @@ -<<<<<<< Updated upstream -PDAC atlas code repository -======= -

Cross-species single-cell atlases of pancreatic cancer

- -

- Human and mouse PDAC atlases charting progression, therapy-driven remodelling and immune evasion -

- -

- bioRxiv - scPDAC documentation - PyPI - scPDAC repository -

- -

- Workflow for constructing the translational human–mouse PDAC single-cell atlases -

+# Cross-species single-cell atlases of pancreatic cancer + +*Human and mouse PDAC atlases charting progression, therapy-driven remodelling and immune evasion* + + + + --- + + ## About the project Pancreatic ductal adenocarcinoma (PDAC) is usually diagnosed late, and the single-cell @@ -44,26 +34,32 @@ a panel of independent PDAC experts. ### The atlases at a glance -| | Human | Mouse | -| ---------------------- | ---------------------------------- | -------------------------------------------- | -| **Core atlas** | 191 donors · >800,000 cells · 11 studies | 53 tumours · >390,000 cells (barcode-traced) | -| **Extended atlas** | 257 donors · >1,000,000 cells · 16 studies | 101 tumours · >600,000 cells | -| **Modalities** | scRNA-seq + snRNA-seq, Xenium spatial | scRNA-seq | -| **Sample types** | primary tumour, adjacent normal, metastasis | orthotopic syngeneic allografts, autochthonous GEMMs | -| **Integration** | scANVI on a curated gene panel | scANVI on the orthologous panel | -| **Extension** | scArches reference mapping onto the core | scArches reference mapping onto the core | + +| | Human | Mouse | +| ------------------ | ------------------------------------------- | ---------------------------------------------------- | +| **Core atlas** | 191 donors · >800,000 cells · 11 studies | 53 tumours · >390,000 cells (barcode-traced) | +| **Extended atlas** | 257 donors · >1,000,000 cells · 16 studies | 101 tumours · >600,000 cells | +| **Modalities** | scRNA-seq + snRNA-seq, Xenium spatial | scRNA-seq | +| **Sample types** | primary tumour, adjacent normal, metastasis | orthotopic syngeneic allografts, autochthonous GEMMs | +| **Integration** | scANVI on a curated gene panel | scANVI on the orthologous panel | +| **Extension** | scArches reference mapping onto the core | scArches reference mapping onto the core | + + + ### A shared, four-level cell-state taxonomy The same hierarchy is applied to both species, which is what makes the cross-species comparison possible: -| Level | Resolution | Examples | -| ----- | ---------- | -------- | -| **Level 1** | Major compartments (3) | epithelial · immune · stromal | -| **Level 2** | Major lineages (7) | malignant · lymphoid · myeloid · stromal · endothelial · exocrine · endocrine | -| **Level 3** | Fine cell types | CAF, macrophage, CD4⁺/CD8⁺ T cell, ductal, acinar, β cell, … | -| **Level 4** | Cell states | ten malignant programmes; T cell and macrophage substates | + +| Level | Resolution | Examples | +| ----------- | ---------------------- | ----------------------------------------------------------------------------- | +| **Level 1** | Major compartments (3) | epithelial · immune · stromal | +| **Level 2** | Major lineages (7) | malignant · lymphoid · myeloid · stromal · endothelial · exocrine · endocrine | +| **Level 3** | Fine cell types | CAF, macrophage, CD4⁺/CD8⁺ T cell, ductal, acinar, β cell, … | +| **Level 4** | Cell states | ten malignant programmes; T cell and macrophage substates | + The ten malignant Level-4 states: **epithelial, EMT, mesenchymal, hypoxic, highly-proliferative, highly-invasive, senescent, apoptotic, pit-like, acinar-like** — @@ -72,24 +68,26 @@ in total, **more than 60 distinct cell states** across the taxonomy. ### What the atlases show - **A rare CD4⁺CD8⁺ double-positive T cell population** that is poorly characterised in - PDAC, validated transcriptomically, spatially (Xenium, co-localising with TLS-like - niches) and — in mouse — at the protein level by flow cytometry, and conserved across - both species. +PDAC, validated transcriptomically, spatially (Xenium, co-localising with TLS-like +niches) and — in mouse — at the protein level by flow cytometry, and conserved across +both species. - **Radiotherapy is associated with a terminal EMT-persistent malignant state.** Patient - composition trajectories converge on an EMT-persistent endpoint enriched for - RT-exposed tumours, accompanied by endothelial expansion, T cell depletion, CAF - enrichment and increased laminin–CD44 signalling; the RT-associated genes *MYO1E*, - *CDK14* and *LPP* track with worse overall survival in TCGA-PAAD. +composition trajectories converge on an EMT-persistent endpoint enriched for +RT-exposed tumours, accompanied by endothelial expansion, T cell depletion, CAF +enrichment and increased laminin–CD44 signalling; the RT-associated genes *MYO1E*, +*CDK14* and *LPP* track with worse overall survival in TCGA-PAAD. - **Mouse models map onto distinct human disease regimes.** Orthotopic allografts - resemble advanced, EMT-enriched human tumours, whereas autochthonous GEMMs align with - epithelial-like states — while malignant gene programmes and pathway activity remain - strongly conserved across species. +resemble advanced, EMT-enriched human tumours, whereas autochthonous GEMMs align with +epithelial-like states — while malignant gene programmes and pathway activity remain +strongly conserved across species. --- + + ## Use the atlases on your own data: `scPDAC` -The atlases are not only a result — they are a reference. [**scPDAC**](https://github.com/theislab/scPDAC) +The atlases are not only a result — they are a reference. **[scPDAC](https://github.com/theislab/scPDAC)** packages the trained models so you can annotate a new PDAC dataset against them without rebuilding anything. @@ -115,21 +113,25 @@ into your `AnnData` (`obsm["X_scANVI_emb"]`, `obs["predicted_celltype"]`, `Level **Two workflows, pick by need** -| | `extend_atlas` | `embed_and_predict` | `predict_labels` | -| - | - | - | - | + +| | `extend_atlas` | `embed_and_predict` | `predict_labels` | +| ------------ | ------------------------------------------------------------------------ | --------------------------------------------------------------------- | -------------------------------------------------------------------------------------- | | What it does | scArches surgery on the reference scANVI model, fine-tuned on your query | Embeds the query with the frozen reference model and transfers labels | Hierarchical MLP: malignant vs non-malignant, then a Level-3 sub-classifier per branch | -| Returns | expanded atlas (reference + query, shared embedding) | your query, embedded and labelled | your query, labelled | -| Use when | you want to grow the atlas, or your query has genuinely new batches | you want fast labels and an embedding, reference untouched | you only want labels, no reference object | +| Returns | expanded atlas (reference + query, shared embedding) | your query, embedded and labelled | your query, labelled | +| Use when | you want to grow the atlas, or your query has genuinely new batches | you want fast labels and an embedding, reference untouched | you only want labels, no reference object | + **Held-out benchmark** (two whole studies withheld per atlas — a cross-study transfer estimate, not an in-distribution ceiling): -| Stage | Human weighted-F1 | Mouse weighted-F1 | -| ----- | ----------------- | ----------------- | -| Root — malignant vs non-malignant | 0.981 | 0.982 | -| Malignant Level-3 sub-classifier | 0.953 | 0.935 | -| Non-malignant Level-3 sub-classifier | 0.929 | 0.866 | -| **Combined hierarchy (end-to-end)** | **0.921** | **0.876** | + +| Stage | Human weighted-F1 | Mouse weighted-F1 | +| ------------------------------------ | ----------------- | ----------------- | +| Root — malignant vs non-malignant | 0.981 | 0.982 | +| Malignant Level-3 sub-classifier | 0.953 | 0.935 | +| Non-malignant Level-3 sub-classifier | 0.929 | 0.866 | +| **Combined hierarchy (end-to-end)** | **0.921** | **0.876** | + 📚 **[Documentation](https://scpdac.readthedocs.io/en/latest/)** · 🧬 **[Atlas mapping tutorial](https://scpdac.readthedocs.io/en/latest/notebooks/mapping.html)** · @@ -143,12 +145,14 @@ estimate, not an in-distribution ceiling): --- + + ## Repository structure Everything lives under `code/`, and it splits into two tiers that are worth understanding before you go looking for a particular panel: -> **`human/`, `mouse/` and `shared/` build the data. `figures/` turns that data into the +> `human/`**,** `mouse/` **and** `shared/` **build the data.** `figures/` **turns that data into the > figures in the paper.** The species directories are pipelines: they take raw counts from each contributing study @@ -214,14 +218,16 @@ re-plot anything, load it — that is what keeps colours consistent across the m ### Outside `code/` -| Path | Contents | -| ---- | -------- | -| `models/human/`, `models/mouse/` | trained scANVI, scVI, DRVI and scPoli models — including `pretrained_scanvi_extension`, the model used for reference mapping | -| `models/cell_classifiers/` | the three MLP checkpoints (malignant, malignant states, TME) that `scPDAC` ships | -| `supplementary_data/human/` | curated gene panel, MOFA factors and gene lists, annotation marker JSONs, donor metadata, and the eight expert validation votes | -| `supplementary_data/mouse/` | in-house and public sample metadata | -| `envs/` | conda environments (`preprocess.yml`, `scanpy_env.txt`, `scarches_env.txt`) | -| `references/` | placeholder for large reference files pulled in at runtime | + +| Path | Contents | +| -------------------------------- | ------------------------------------------------------------------------------------------------------------------------------- | +| `models/human/`, `models/mouse/` | trained scANVI, scVI, DRVI and scPoli models — including `pretrained_scanvi_extension`, the model used for reference mapping | +| `models/cell_classifiers/` | the three MLP checkpoints (malignant, malignant states, TME) that `scPDAC` ships | +| `supplementary_data/human/` | curated gene panel, MOFA factors and gene lists, annotation marker JSONs, donor metadata, and the eight expert validation votes | +| `supplementary_data/mouse/` | in-house and public sample metadata | +| `envs/` | conda environments (`preprocess.yml`, `scanpy_env.txt`, `scarches_env.txt`) | +| `references/` | placeholder for large reference files pulled in at runtime | + Large `.h5ad`/`.zarr` objects, figures and model outputs are **not** tracked here — see `.gitignore`. To reproduce a figure notebook you need the corresponding atlas object, @@ -229,6 +235,8 @@ either produced by the pipelines above or obtained via `scPDAC`. --- + + ## Citation If you use the atlases, the code or the models, please cite: @@ -249,16 +257,21 @@ If you use the atlases, the code or the models, please cite: } ``` + + ## Help and support - Questions about the **analysis code or the atlases** → [open an issue here](https://github.com/theislab/PDAC/issues) -- Questions about the **`scPDAC` package** → [open an issue on scPDAC](https://github.com/theislab/scPDAC/issues) +- Questions about the `scPDAC` **package** → [open an issue on scPDAC](https://github.com/theislab/scPDAC/issues) + + ## Related -- [**scPDAC**](https://github.com/theislab/scPDAC) — map and annotate your data against these atlases ([docs](https://scpdac.readthedocs.io/en/latest/)) +- **[scPDAC](https://github.com/theislab/scPDAC)** — map and annotate your data against these atlases ([docs](https://scpdac.readthedocs.io/en/latest/)) - [scArches](https://github.com/theislab/scarches) — reference mapping framework used for the atlas extensions - [scvi-tools](https://github.com/scverse/scvi-tools) — scVI / scANVI implementations - [DRVI](https://github.com/theislab/drvi) — interpretable, disentangled integration used for the radiotherapy analysis - [scIB](https://github.com/theislab/scib) — integration benchmarking metrics ->>>>>>> Stashed changes + > > > > > > > Stashed changes +