
Trained Deep Learning Models for Antimicrobial Resistance Prediction from MALDI-TOF Mass Spectrometry This archive contains trained neural network models for predicting antibiotic resistance from MALDI-TOF mass spectrometry data across three clinically important bacterial pathogens. Models Included (~6-7 GB) (Just Download rar files only) E. coli-Ceftriaxone Models: Baseline model (MSDeepAMR architecture) Attention-enhanced model (Squeeze-and-Excitation blocks) Hyperparameter-optimized model 5-model ensemble (seeds: 42, 123, 456, 789, 1024) K. pneumoniae-Ceftriaxone Models: Baseline model - Attention model (paper parameters) Species-specific optimized models (dropout 0.35) 5-model ensemble S. aureus-Oxacillin Models: Baseline model Species-specific optimized models (LR 3×10⁻⁴) 5-model ensemble Model Architecture Type: 1D Convolutional Neural Network Input: 6,000 m/z bins (2000-20000 Da, 3 Da bin width) Framework: TensorFlow 2.19 / Keras Format: HDF5 (.h5 files) Total Parameters: ~25.2M per model Performance Results Species Antibiotic AUROC Paper Target Achievement E. coli Ceftriaxone 0.901 0.87 103.6% ✅ K. pneumoniae Ceftriaxone 0.808 0.82 98.5% S. aureus Oxacillin 0.907 0.93 97.5% Usage Download models from this archive (~6-7 GB) Clone repository: git clone https://github.com/Muhammad-Lukman/MSDeepAMR_Recreation_Enhancement_project.git Extract models to models/ folder in repository root Load models in Python: from tensorflow import keras model = keras.models.load_model('models/ecoli/5_ensemble/model_seed42.h5') File Structure models/ ├── ecoli/ │ ├── 1_baseline/final_model_ecoli_ceftriaxone.h5 │ ├── 2_attention/final_attention_model.h5 │ ├── 3_optimized/final_optimized_model.h5 │ └── 5_ensemble/ │ ├── model_seed42.h5 │ ├── model_seed123.h5 │ ├── model_seed456.h5 │ ├── model_seed789.h5 │ └── model_seed1024.h5 ├── kpneumoniae/ │ ├── 1_baseline/ │ ├── 2_attention_paper_params/ │ └── 3b_optimized/ │ ├── single_best_model.h5 │ └── ensemble/ (5 models) └── saureus/ ├── baseline/ └── ensemble/ (5 models) Data Availability Preprocessed training data is available in the GitHub repository via Git LFS: Repository: MSDeepAMR_Recreation_Enhancement_project Path: data/processed/ Access: git lfs pull after cloning Raw MALDI-TOF data from DRIAMS database: Source: https://doi.org/10.5061/dryad.bzkh1899q Database: DRIAMS-A (Weis et al., 2022) Citation If you use these models, please cite: This dataset: Weis, Caroline; Cuénod, Aline; Rieck, Bastian et al. (2025). DRIAMS: Database of Resistance Information on Antimicrobials and MALDI-TOF Mass Spectra [Dataset]. Dryad. https://doi.org/10.5061/dryad.bzkh1899q GitHub repository: @software{muhammadlukman2025msdeepamr, author = {Lukman, Muhammad}, title = {Recreation and Enhancement of MSDeepAMR: A Deep Learning Approach for Antimicrobial Resistance Prediction from MALDI-TOF Mass Spectrometry Data}, year = 2025, url = {https://github.com/Muhammad-Lukman/MSDeepAMR_Recreation_Enhancement_project} } Original MSDeepAMR paper: @article{lopez2024msdeepamr, author = {López-Cortés, X. A. and Manríquez-Troncoso, J. M. and Hernández-García, R. and Peralta, D.}, title = {MSDeepAMR: antimicrobial resistance prediction based on deep neural networks and transfer learning}, journal = {Frontiers in Microbiology}, volume = {15}, pages = {1361795}, year = {2024}, doi = {10.3389/fmicb.2024.1361795} } Related Resources GitHub Repository: MSDeepAMR_Recreation_Enhancement_project Original Paper: MSDeepAMR: antimicrobial resistance prediction based on deep neural networks and transfer learning DRIAMS Database: DRIAMS: Database of Resistance Information on Antimicrobials and MALDI-TOF Mass Spectra Technical Requirements Python 3.8+ TensorFlow 2.19.0 16GB RAM recommended GPU recommended for inference (CPU compatible) Contact Email: dr.mlukmanuaf@gmail.com Issues: MSDeepAMR_Recreation_Enhancement_project/issues
Staphylococcus aureus, TensorFlow, MALDI-TOF mass spectrometry, Deep learning, Clinical decision support, Feature importance analysis, Klebsiella pneumoniae, trained models, Ensemble learning, bacterial pathogens, biomarker discovery, Escherichia coli, AMR, Convolutional neural networks, Traditional machine learning comparison, machine learning models, clinical microbiology, Attention mechanisms, Keras
Staphylococcus aureus, TensorFlow, MALDI-TOF mass spectrometry, Deep learning, Clinical decision support, Feature importance analysis, Klebsiella pneumoniae, trained models, Ensemble learning, bacterial pathogens, biomarker discovery, Escherichia coli, AMR, Convolutional neural networks, Traditional machine learning comparison, machine learning models, clinical microbiology, Attention mechanisms, Keras
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