π¦ MicrobELP β Microbiome Entity Recognition and Normalisation
MicrobELP is a deep learning model for Microbiome Entity Recognition and Normalisation, identifying microbial entities (bacteria, archaea, fungi) in biomedical and scientific text. It is part of the microbELP toolkit and has been optimised for CPU and GPU inference.
This model enables automated normalisation of microbiome names from extracted entities, facilitating microbiome-related text mining and literature curation.
We also provide a Named Entity Recognition model on Hugging Face:
π Quick Start (Hugging Face)
You can directly load and run the model with the Hugging Face transformers library:
import torch
import numpy as np
from transformers import AutoTokenizer, AutoModel
from sklearn.metrics.pairwise import cosine_similarity
from tqdm import tqdm
model_name = "omicsNLP/microbELP_NEN"
tokenizer = AutoTokenizer.from_pretrained(model_name)
model = AutoModel.from_pretrained(model_name)
index = {
"NCBI:txid39491": "Eubacterium rectale",
"NCBI:txid210": "Helicobacter pylori",
"NCBI:txid817": "Bacteroides fragilis"
}
taxonomy_names = list(index.values())
embeddings = []
for name in tqdm(taxonomy_names, desc="Encoding taxonomy"):
inputs = tokenizer(name, return_tensors="pt")
emb = model(**inputs).last_hidden_state.mean(dim=1).detach().numpy()
embeddings.append(emb)
index_embs = np.vstack(embeddings)
query = "Eubacterium rectale"
inputs = tokenizer(query, return_tensors="pt")
query_emb = model(**inputs).last_hidden_state.mean(dim=1).detach().numpy()
scores = cosine_similarity(query_emb, index_embs)
best_match = list(index.keys())[scores.argmax()]
print(f"Best match: {best_match} β {index[best_match]}")
Output:
Best match: NCBI:txid39491 β Eubacterium rectale
π§© Integration with the microbELP Python Package
If you prefer a high-level interface with automatic aggregation, postprocessing, and text-location mapping, you can use the microbELP package directly.
Installation:
git clone https://github.com/omicsNLP/microbELP.git
pip install ./microbELP
It is recommended to install in an isolated environment due to dependencies.
Example Usage
from microbELP import microbiome_biosyn_normalisation
input_text = 'Helicobacter pylori'
print(microbiome_biosyn_normalisation(input_text))
Output:
[{'mention': 'Helicobacter pylori', 'candidates': [
{'NCBI:txid210': 'Helicobacter pylori'},
{'NCBI:txid210': 'helicobacter pylori'},
{'NCBI:txid210': 'Campylobacter pylori'},
{'NCBI:txid210': 'campylobacter pylori'},
{'NCBI:txid210': 'campylobacter pyloridis'}
]}]
You can also process a list of entities for batch inference:
from microbELP import microbiome_biosyn_normalisation
input_list = ['bacteria', 'Eubacterium rectale', 'Helicobacter pylori'] # type list
print(microbiome_biosyn_normalisation(input_list))
Output:
[
{'mention': 'bacteria', 'candidates': [
{'NCBI:txid2': 'bacteria'},
{'NCBI:txid2': 'Bacteria'},
{'NCBI:txid1869227': 'bacteria bacterium'},
{'NCBI:txid1869227': 'Bacteria bacterium'},
{'NCBI:txid1573883': 'bacterium associated'}
]},
{'mention': 'Eubacterium rectale', 'candidates': [
{'NCBI:txid39491': 'eubacterium rectale'},
{'NCBI:txid39491': 'Eubacterium rectale'},
{'NCBI:txid39491': 'pseudobacterium rectale'},
{'NCBI:txid39491': 'Pseudobacterium rectale'},
{'NCBI:txid39491': 'e. rectale'}
]},
{'mention': 'Helicobacter pylori', 'candidates': [
{'NCBI:txid210': 'Helicobacter pylori'},
{'NCBI:txid210': 'helicobacter pylori'},
{'NCBI:txid210': 'Campylobacter pylori'},
{'NCBI:txid210': 'campylobacter pylori'},
{'NCBI:txid210': 'campylobacter pyloridis'}
]}
]
Each element in the output corresponds to one input entities, containing the top 5 identifier candidates from the most to least likely.
There are 1 mandatory and 5 optional parameters:
to_normalise<class 'str' or 'list['str']'>): Text or list of microbial names to normalise.cpu(<class 'bool'>, default=False): When set toFalse, it will run on any GPU available. The longest part for inference on the CPU is to load the vocabulary used to predict the identifier.candidates_number(<class 'int'>, default=5): Number of top candidate matches to return (from most to least likely).max_lenght(<class 'int'>, default=25): Maximum token length allowed for the model input.ontology(<class 'str'>, default=''): Path to a custom vocabulary text file in id||entity format. If left empty, the default curated NCBI Taxonomy vocabulary is used.save(<class 'bool'>, default=False): If True, saves results tomicrobiome_biosyn_normalisation_output.jsonin the current directory.
π Model Details
Find below some more information about this model.
| Property | Description |
|---|---|
| Task | Named Entity Normalisation (NEN) |
| Domain | Microbiome / Biomedical Text Mining |
| Entity Type | microbiome |
| Model Type | Transformer-based feature extraction |
| Framework | Hugging Face π€ Transformers |
| Optimised for | GPU inference |
π Citation
If you find this repository useful, please consider giving a like β€οΈ and a citation π:
@article {Patel2025.08.29.671515,
author = {Patel, Dhylan and Lain, Antoine D. and Vijayaraghavan, Avish and Mirzaei, Nazanin Faghih and Mweetwa, Monica N. and Wang, Meiqi and Beck, Tim and Posma, Joram M.},
title = {Microbial Named Entity Recognition and Normalisation for AI-assisted Literature Review and Meta-Analysis},
elocation-id = {2025.08.29.671515},
year = {2025},
doi = {10.1101/2025.08.29.671515},
publisher = {Cold Spring Harbor Laboratory},
URL = {https://www.biorxiv.org/content/early/2025/08/30/2025.08.29.671515},
eprint = {https://www.biorxiv.org/content/early/2025/08/30/2025.08.29.671515.full.pdf},
journal = {bioRxiv}
}
π Resources
Find below some more resources associated with this model.
βοΈ License
This model and code are released under the MIT License.
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