Encode Chrombpnet DNASE ENCSR828FVZ ENCSR168TWU
As part of the ENCODE 4 Project, we trained ChromBPNet models on 1,512 ENCODE DNAse-seq and ATAC-seq across 408 biosamples. Here, we provide all models for open-source use.
Fuente del modelo
- Tipo
- Other
- Tamaño del archivo
- 2,56–25,2 MB
- Versión
- vRevision 0fea3b6
- Actualizado
- 3 oct 2026
- Publicador
- @kundajelab
- Descargas
- 0
- Fuente
- Hugging Face
Descripción de la fuente
ENCODE ChromBPNet Atlas
As part of the ENCODE 4 Project, we trained ChromBPNet models on 1,512 ENCODE DNAse-seq and ATAC-seq across 408 biosamples. Here, we provide all models for open-source use.
For more information about the models, see:
- Main ENCODE 4 Paper
- A unified lexicon of predictive DNA sequence motifs from ENCODE transcription factor binding and chromatin accessibility assays (Yun, C. M. et al., Zenodo 2026)
- ChromBPNet: bias factorized, base-resolution deep learning models of chromatin accessibility reveal cis-regulatory sequence syntax, transcription factor footprints and regulatory variants (Pampari, A. et al., bioRxiv 2024)
ChromBPNet model: DNASE in body of pancreas (ENCSR828FVZ)
- Model: ChromBPNet
- Assay: DNASE-seq
- Experiment: ENCSR828FVZ
- Model annotation: ENCSR168TWU
- Biosample: body of pancreas (Full name: Homo sapiens body of pancreas tissue female adult (53 years))
- Cell slim(s): None
- Organ slim(s): pancreas
- Developmental slim(s): endoderm
- System slim(s): None
- Assembly: hg38
Directory structure
fold_0: Model of 5-fold cross-validation: Fold 0model.chrombpnet.fold_0.encid.h5: full chrombpnet model that combines both bias and corrected model in .h5 formatmodel.chrombpnet_nobias.fold_0.encid.h5: bias-corrected accessibility model in .h5 format (Use for all biological discovery)model.bias_scaled.fold_0.encid.h5: bias model in .h5 formatmodel.chrombpnet.fold_0.encid.tar: full chrombpnet model that combines both bias and corrected model in SavedModel format. After being untarred, it results in a directory named "chrombpnet".model.chrombpnet_nobias.fold_0.encid.tar: bias-corrected accessibility model in SavedModel format (Use for all biological discovery). After being untarred, it results in a directory named "chrombpnet_wo_bias".model.bias_scaled.fold_0.encid.tar: bias model in SavedModel format. After being untarred, it results in a directory named "bias_model_scaled".logs.models.fold_0.encid: folder containing log files for training models
fold_1: Model of 5-fold coss-validation: Fold 1fold_2: Model of 5-fold cross-validation: Fold 2fold_3: Model of 5-fold cross-validation: Fold 3fold_4: Model of 5-fold cross-validation: Fold 4
Instructions
1. Pseudocode for loading models in .h5 format
(1) Use the code in python after appropriately defining model_in_h5_format and inputs.
(2) inputs is a one hot encoded sequence of shape (N,2114,4). Here N corresponds to the
number of tested sequences, 2114 is the input sequence length and 4 corresponds to [A,C,G,T].
import tensorflow as tf
from tensorflow.keras.utils import get_custom_objects
from tensorflow.keras.models import load_model
custom_objects={"tf": tf}
get_custom_objects().update(custom_objects)
model=load_model(model_in_h5_format,compile=False)
outputs = model(inputs)
The list outputs consists of two elements. The first element has a shape of (N, 1000) and
contains logit predictions for a 1000-base-pair output. The second element, with a shape of
(N, 1), contains logcount predictions. To transform these predictions into per-base signals,
follow the provided pseudo code lines below.
import numpy as np
def softmax(x, temp=1):
norm_x = x - np.mean(x,axis=1, keepdims=True)
return np.exp(temp*norm_x)/np.sum(np.exp(temp*norm_x), axis=1, keepdims=True)
predictions = softmax(outputs[0]) * (np.exp(outputs[1])-1)
2. Pseudocode for loading models in .tar format
(1) First untar the directory as follows tar -xvf model.tar.
(2) Use the code below in python after appropriately defining model_dir_untared and inputs.
(3) inputs is a one hot encoded sequence of shape (N,2114,4). Here N corresponds to the number
of tested sequences, 2114 is the input sequence length and 4 corresponds to ACGT.
Reference: https://www.tensorflow.org/api_docs/python/tf/saved_model/load
import tensorflow as tf
model = tf.saved_model.load('model_dir_untared')
outputs = model.signatures['serving_default'](**{'sequence':inputs.astype('float32')})
The variable outputs represents a dictionary containing two key-value pairs. The first key
is logits_profile_predictions, holding a value with a shape of (N, 1000). This value corresponds
to logit predictions for a 1000-base-pair output. The second key, named `logcount_predictions``,
is associated with a value of shape (N, 1), representing logcount predictions. To transform these
predictions into per-base signals, utilize the provided pseudo code lines mentioned below.
import numpy as np
def softmax(x, temp=1):
norm_x = x - np.mean(x,axis=1, keepdims=True)
return np.exp(temp*norm_x)/np.sum(np.exp(temp*norm_x), axis=1, keepdims=True)
predictions = softmax(outputs["logits_profile_predictions"]) * (np.exp(outputs["logcount_predictions"])-1)
Docker image to load and use the models
Code for ChromBPNet
License & citation
External data users may freely download, analyze and publish results based on any ENCODE data without restrictions.
Released under the ENCODE data-use policy. Please cite the ENCODE Project Consortium and the model software: ChromBPNet (Pampari et al., bioRxiv 2024).
Fuentes
1 fuente
Fuentes
1 fuenteVerificado 3 oct
Artefactos del modelo
15 artefactos
Artefactos del modelo
15 artefactosfold_0/model.bias_scaled.fold_0.ENCSR828FVZ.h5
h5 · 2,56 MB · SHA-256 463f0fe4bcf3…20ab · Hugging Face
Descargarfold_0/model.chrombpnet_nobias.fold_0.ENCSR828FVZ.h5
h5 · 24,4 MB · SHA-256 5786bef42162…6c97 · Hugging Face
Descargarfold_0/model.chrombpnet.fold_0.ENCSR828FVZ.h5
h5 · 25,2 MB · SHA-256 e6fd21ece84c…519e · Hugging Face
Descargarfold_1/model.bias_scaled.fold_1.ENCSR828FVZ.h5
h5 · 2,56 MB · SHA-256 42aeb3cde242…58de · Hugging Face
Descargarfold_1/model.chrombpnet_nobias.fold_1.ENCSR828FVZ.h5
h5 · 24,4 MB · SHA-256 67fb69759c09…17c4 · Hugging Face
Descargarfold_1/model.chrombpnet.fold_1.ENCSR828FVZ.h5
h5 · 25,2 MB · SHA-256 2f35d1407f1f…b1e4 · Hugging Face
Descargarfold_2/model.bias_scaled.fold_2.ENCSR828FVZ.h5
h5 · 2,56 MB · SHA-256 f61e495818ba…709d · Hugging Face
Descargarfold_2/model.chrombpnet_nobias.fold_2.ENCSR828FVZ.h5
h5 · 24,4 MB · SHA-256 e1034bb08da4…e66a · Hugging Face
Descargarfold_2/model.chrombpnet.fold_2.ENCSR828FVZ.h5
h5 · 25,2 MB · SHA-256 838eae93646a…c2f1 · Hugging Face
Descargarfold_3/model.bias_scaled.fold_3.ENCSR828FVZ.h5
h5 · 2,56 MB · SHA-256 9eed7d897d5a…0579 · Hugging Face
Descargarfold_3/model.chrombpnet_nobias.fold_3.ENCSR828FVZ.h5
h5 · 24,4 MB · SHA-256 59e5a1df2d61…ee43 · Hugging Face
Descargarfold_3/model.chrombpnet.fold_3.ENCSR828FVZ.h5
h5 · 25,2 MB · SHA-256 63b80194d343…28e6 · Hugging Face
Descargarfold_4/model.bias_scaled.fold_4.ENCSR828FVZ.h5
h5 · 2,56 MB · SHA-256 f1d7931bc83e…a085 · Hugging Face
Descargarfold_4/model.chrombpnet_nobias.fold_4.ENCSR828FVZ.h5
h5 · 24,4 MB · SHA-256 a414037a6599…d3d1 · Hugging Face
Descargarfold_4/model.chrombpnet.fold_4.ENCSR828FVZ.h5
h5 · 25,2 MB · SHA-256 b16fa7701ca9…8ff3 · Hugging Face
DescargarExtractos de fuentes
3 extractos
Extractos de fuentes
3 extractos--- license: mit library_name: chrombpnet tags: - encode - chrombpnet - chromatin-accessibility - DNASE - pancreas - hg38 --- # ENCODE ChromBPNet Atlas As part of the ENCODE 4 Project, we trained ChromBPNet models on 1,512 ENCODE DNAse-seq and ATAC-seq across 408 biosamples. Here, we provide all models for open-source use. For more information about the models, see: - Main ENCODE 4 Paper - [A unified lexicon of predictive DNA sequence motifs from ENCODE transcription factor binding and chromatin accessibility assays](https://doi.org/10.5281/zenodo.17123347) (Yun, C. M. et al., Zenodo 2026) - [ChromBPNet: bias factorized, base-resolution deep learning models of chromatin accessibility reveal cis-regulatory sequence syntax, transcription factor footprints and regulatory variants](https://doi.org/10.1101/2024.12.25.630221) (Pampari, A. et al., bioRxiv 2024) ## ChromBPNet model: DNASE in body of pancreas (ENCSR828FVZ) - Model: ChromBPNet - Assay: DNASE-seq - Experiment: [ENCSR828FVZ](https://www.encodeproject.org/experiments/ENCSR828FVZ/) - Model annotation: [ENCSR168TWU](https://www.encodeproject.org/annotations/ENCSR168TWU/) - Biosample: body of pancreas (Full name: Homo sapiens body of pancreas tissue female adult (53 years)) - Cell slim(s): None - Organ slim(s): pancreas - Developmental slim(s): endoderm - System slim(s): None - Assembly: hg38 ## Directory structure - `fold_0`: Model of 5-fold cross-validation: Fold 0 - `model.chrombpnet.fold_0.encid.h5`: full chrombpnet model that combines both bias and corrected model in .h5 format - `model.chrombpnet_nobias.fold_0.encid.h5`: bias-corrected accessibility model in .h5 format (Use for all biological discovery) - `model.bias_scaled.fold_0.encid.h5`: bias model in .h5 format - `model.chrombpnet.fold_0.encid.tar`: full chrombpnet model that combines both bias and corrected model in SavedModel format. After being untarred, it results in a directory named "chrombpnet". - `model.chrombpnet_nobias.fold_0.encid.tar`: bias-corrected accessibility model in SavedModel format (Use for all biological discovery). After being untarred, it results in a directory named "chrombpnet_wo_bias". - `model.bias_scaled.fold_0.encid.tar`: bias model in SavedModel format. After being untarred, it results in a directory named "bias_model_scaled". - `logs.models.fold_0.encid`: folder containing log files for training...
--- license: mit library_name: chrombpnet tags: - encode - chrombpnet - chromatin-accessibility - DNASE - pancreas - hg38 --- # ENCODE ChromBPNet Atlas As part of the ENCODE 4 Project, we trained ChromBPNet models on 1,512 ENCODE DNAse-seq and ATAC-seq across 408 biosamples. Here, we provide all models for open-source use. For more information about the models, see: - Main ENCODE 4 Paper - [A unified lexicon of predictive DNA sequence motifs from ENCODE transcription factor binding and chromatin accessibility assays](https://doi.org/10.5281/zenodo.17123347) (Deshpande et al., Zenodo 2025) - [ChromBPNet: bias factorized, base-resolution deep learning models of chromatin accessibility reveal cis-regulatory sequence syntax, transcription factor footprints and regulatory variants](https://doi.org/10.1101/2024.12.25.630221) (Pampari et al., bioRxiv 2024) ## ChromBPNet model: DNASE in body of pancreas (ENCSR828FVZ) - Model: ChromBPNet - Assay: DNASE-seq - Experiment: [ENCSR828FVZ](https://www.encodeproject.org/experiments/ENCSR828FVZ/) - Model annotation: [ENCSR168TWU](https://www.encodeproject.org/annotations/ENCSR168TWU/) - Biosample: body of pancreas (Full name: Homo sapiens body of pancreas tissue female adult (53 years)) - Cell slim(s): None - Organ slim(s): pancreas - Developmental slim(s): endoderm - System slim(s): None - Assembly: hg38 ## Directory structure - `fold_0`: Model of 5-fold cross-validation: Fold 0 - `model.chrombpnet.fold_0.encid.h5`: full chrombpnet model that combines both bias and corrected model in .h5 format - `model.chrombpnet_nobias.fold_0.encid.h5`: bias-corrected accessibility model in .h5 format (Use for all biological discovery) - `model.bias_scaled.fold_0.encid.h5`: bias model in .h5 format - `model.chrombpnet.fold_0.encid.tar`: full chrombpnet model that combines both bias and corrected model in SavedModel format. After being untarred, it results in a directory named "chrombpnet". - `model.chrombpnet_nobias.fold_0.encid.tar`: bias-corrected accessibility model in SavedModel format (Use for all biological discovery). After being untarred, it results in a directory named "chrombpnet_wo_bias". - `model.bias_scaled.fold_0.encid.tar`: bias model in SavedModel format. After being untarred, it results in a directory named "bias_model_scaled". - `logs.models.fold_0.encid`: folder containing log files for training model...
Source context: 0 downloads · 0 likes · Library chrombpnet · Repo kundajelab/encode-chrombpnet-DNASE-body-of-pancreas-ENCSR828FVZ-ENCSR168TWU
