How to Use Protein Model Inference
Commercially Available Online Web Server
Run batch protein property inference with your custom fine-tuned model.
Inference means applying a trained model to new examples. Use this service after a successful Protein Model Fine-Tuning run to predict the same measured properties or categories for new proteins. The saved model determines the targets, class labels, and sequence/structure requirements automatically; you do not need to understand or repeat its training settings.
How Protein Model Inference Works
1. Select your trained model
Open the results page of a successfully completed Protein Model Fine-Tuning version 1.0 job and copy its 24-character job ID into Training Job ID. Your account must have access to that job. Choose a model trained on the properties and types of proteins relevant to your new candidates.
2. Prepare the proteins to predict
Upload a CSV with one protein per row and these required columns:
ID,Sequence
candidate_1,ACDEFGHIK
candidate_2,ACDEFGHIKA
IDs must be unique and Sequence must contain amino-acid letters without FASTA headers. You do not need target measurement columns, Group, or Split for prediction. Supports up to 100000 proteins and 100 MB per CSV, with a maximum sequence length of 2048 amino acids; some models may require shorter sequences. Sequences are not silently shortened to fit a model.
If the training job used Sequence mode, provide sequences only. If it used Structure mode, every row needs a Structure filename and Chain ID plus the corresponding uploaded structure. If it used Mixed mode, structures are optional per row; leave Structure and Chain blank for proteins without them. For example, candidate_1.pdb and A select chain A from that uploaded file. Every selected structure chain must exactly match its CSV Sequence, including resolved residues. Upload PDB or mmCIF files with unique names and one structural model per file.
3. Read the predictions
summary.csv identifies the model, input mode, protein count, and target count. predictions.csv preserves each protein ID and target name. Regression gives one numerical prediction per protein and target in the training target's original units. Classification gives a predicted category and a separate row for each possible class probability; the predicted category is repeated on those rows. For example, a binary target produces two probability rows for each protein. Observed values remain blank because these are new predictions.
The saved model supplies its class names and numerical scaling automatically. For binary targets, the positive class is the second class in the text-sorted label order used during training; labels 0 and 1 make 1 positive. A high class probability indicates model confidence, not a guarantee of correctness. Probabilities have not been calibrated against a separate calibration dataset.
Use the training job's independent test metrics to judge whether its predictions are useful for your application. Predictions may be less reliable for protein families or measurement conditions very different from the training data. This service applies the trained model; it does not retrain it or establish accuracy on the new proteins. Validate important predictions experimentally.
What is Neurosnap?
Neurosnap is the leading platform for bioinformatics and computational science focused on expanding access to powerful modeling and simulation tools. Because many state-of-the-art machine learning systems remain complex to install, configure, and scale, Neurosnap offers a clean, browser-based workspace that removes the burden of infrastructure management, dependency conflicts, and command-line tooling.
Built for biologists, chemists, and cross-disciplinary scientists, the platform enables advanced computational workflows without requiring expertise in software engineering or cloud architecture. Researchers can launch analyses through an intuitive interface, connect programmatically through a comprehensive API, and rely on automated resource management to scale workloads efficiently. By taking care of the underlying compute and operational complexity, Neurosnap allows teams to devote their energy to scientific progress and faster iteration. Security and data protection remain foundational principles, with clear safeguards outlined in our Terms of Use and Privacy Policy to ensure your work stays protected.
Advancing Discovery with Protein Model Inference on Neurosnap
Using Protein Model Inference on Neurosnap could drastically accelerate .
How to Use Protein Model Inference on Neurosnap
To harness the capabilities of Protein Model Inference, researchers can follow this streamlined workflow within Neurosnap:
- Access Neurosnap: Start by logging in to the Neurosnap website.
- Select Tool: From the list of available tools, choose Protein Model Inference.
- Provide Inputs: Provide all the inputs specified within the submission panel and optionally configure the tool as desired.
- Run Tool: Submit the Protein Model Inference job and Neurosnap will execute it in the cloud, automatically notifying you as soon as your results are ready.
- Review Output: Explore your results through rich visualizations, including figures, plots, and interactive views designed to help you analyze findings with clarity and confidence.
Citations
Please cite the original work when using Protein Model Inference in publications or research outputs.
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Amani, Keaun, and Danial Gharaie Amirabadi. 2024. Neurosnap SDK Package. Software. https://github.com/NeurosnapInc/neurosnap. |
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Neurosnap Inc. (2022). Neurosnap: An online platform for computational biology and chemistry. Available at: https://neurosnap.ai/ |
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