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As computational biology platforms continue to evolve, our goal is to make accessing open-source code and software even more straightforward for researchers. No coding skills are required, no usage limits, and no cost involved.
We run as a collaborative learning workshop, curating cutting-edge tools such as AlphaFold, RFdiffusion, BindCraft, and Boltz. Through carefully designed interactive Python notebooks, we guide you in using these tools independently on Google Colab—empowering you with full control over your research, including data security, scalability, and accessibility.
Our mission is to help you confidently apply these tools to real-world problems, create custom code for ad-hoc questions, and bridge the gap between your domain expertise and computational methods.
A growing list of tools:
Boltz2, AlphaFold, BindCraft, RFdiffusion, Autodock Vina, ProteinMPNN, RFantibody, ThermoMPNN, PepMLM, DeepViscosity, Antibody Evolution, BoltzDesign1, molecular dynamics simulation, ESMFold, AntiFold, PepFunn, LigandMPNN, ANARCI, AFDesign, ImmuneBuilder, TNP, PLAbDab, DiffSBDD, Prodigy, MM-GBSA/MM-PBSA

Input: Small molecule in SMILES format; Protein in single-letter amino acid sequence
Output: Predicted binding affinity;3D structures of the protein–ligand complex
Mode: Batch-processing of up to 200 jobs
Software Link:
batch_processing_of_the_small_molecule_protein_interaction_using_boltz2.ipynb

Input: Protein in single-letter amino acid sequence
Output: Predicted 3D structure of a single protein or a protein complex
Mode: Single input
Software Link:

Input: A PDB file of your target protein
Output: Amino acid sequences of binders (mini-proteins or peptides) and predicted 3D structures of the target-binder complex
Mode: Iterative cycles of design
Software Link:

Input: the PDB file of your target protein
Output: Amino acid sequences of binders (mini-proteins or peptides) and predicted 3D structures of the target-binder complex
Mode: Iterative cycles of design
Software Link:

Input: Protein A and B in single-letter amino acid sequence
Output: Predicted interface quality (ipTM);3D structures of the protein–protein complex
Mode: Batch-processing of up to 200 jobs
Software Link: batch_processing_of_the_protein_protein_interaction_using_boltz2.ipynb

Input: Small molecule in SMILES format; the PBD file of your target protein to be docked
Output: Docking score and docked ligand PBD files
Mode: Batch-processing of up to 10,000 jobs
Software Link:

Input: the PDB file of your target protein
Output: Amino acid sequences of protein variants and their score
Mode: batch-processing
Software Link:

Input: Small molecule in SMILES format
Output: Predicted physicochemical properties, drug-likeness, and ADMET-related features
Mode: batch-processing of millions of molecules
Software Link: small_molecule_drug_developability_analysis.ipynb

Input: Small molecule in SMILES format
Output: Predicted similarity to the target SMILES
Mode: batch-processing of millions of molecules
Software Link:

Input: Your antigen PDB
Output: Designed antibody (CDRs)
Mode: Single input
Software Link:

Input: Your antigen PDB and nanobody framework PDB
Output: Designed nanobody
Mode: Single input
Software Link:
RFantibody(Nanobody).ipynb - Colab

Input: the PDB file
Output: Trajectory files
Mode: Single input
Software Link:

Input: Your target PDB
Output: Predicted ΔΔG caused by mutations
Mode: Single input
Software Link:

Input: Your target protein sequence
Output: Predicted peptide binders
Mode: Single input
Software Link:

Input: Your antibody sequences
Output: Predicted viscosity
Mode: Single input
Software Link:

Input: Your antibody VH/VL sequences
Output: Predicted mutations to improve affinity or developability
Mode: Single input
Software Link:

Input: Your ligand in its SMILES format
Output: Designed binder sequences
Mode: Single input
Software Link:

Input: Protein in single-letter amino acid sequence
Output: Predicted 3D structure of a single protein or a protein complex
Mode: Single input
Software Link:

Input: Your antibody PDB file
Output: Predicted structure and optimized residues
Mode: Single input
Software Link:

Input: not required
Output: Generated peptide libraries and advanced analysis
Mode: Single input
Software Link (5 links):

Input: Your PDB file
Output: New protein sequences to meet your needs
Mode: Single input
Software Link:

Input: Your antibody sequence(s)
Output: Annotation and more
Mode: Single input
Software Link:

Input: Your PDB file as the template
Output: New protein sequences that take the same fold
Mode: Single input
Software Link:

Input: Your PDB file as the target
Output: New protein sequences that bind to the target
Mode: Single input
Software Link:

Input: The protein sequence(s) of antibody, nanobody or TCR
Output: Predicted structure
Mode: Single input
Software Link:

Input: Nanobody sequence(s)
Output: Predicted developability metrics
Mode: Single input
Software Link:

Input: Antibody sequence
Output: Retrieved antibody information based on similarity of structure and sequences, and key words
Mode: Single input
Software Link:

Input: Nanobody sequence
Output: Retrieved Nanobody information based on similarity of structure and sequences, and key words
Mode: Single input
Software Link:

Input: Target protein PDB file
Output: Designed small molecule binder
Mode: Single input
Software Link:

Input: PDB files (protein complex)
Output: Predicted binding affinity
Mode: Single input
Software Link:

Input: Protein and ligand PDB files
Output: Binding energy (MM-GBSA and MM-PBSA) plus trajectories
Mode: Single input
Software Link:


Input: Antigen and antibody/nanobody PDB files
Output: Predicted epitope-specific binders
Mode: Single input
Software Link (2 links):

Input: Antibody/Nanobody sequence(s)
Output: CDR masked sequence(s)
Mode: Single input
Software Link:

Input: Antigen Uniprot ID and CDR masked nanobody sequence
Output: Predicted epitope-specific binders
Mode: Single input
Software Link:

Input: Protein sequence(s)
Output: Predicted solubility and/or usability
Mode: Single input
Software Link:
NetSolP 1.0 - DTU Health Tech - Bioinformatic Services

Input: Peptide sequence(s)
Output: Predicted binding affinity to MHCI
Mode: Single input
Software Link:

Input: Peptide sequence(s)
Output: Predicted binding affinity to MHCII
Mode: Single input
Software Link:

Input: Nanobody sequence(s)
Output: Predicted mutations to optimize nanobodies
Mode: Single input
Software Link:

Input: Nanobody sequence(s) in the Fasta format
Output: Predicted Tm
Mode: Single input
Software Link:

Input: Antibody sequence(s)
Output: Predicted paratopes
Mode: Single input
Software Link:

Input: Antibody sequence(s)
Output: Similarity assessment and predicted mutations for humanisation
Mode: Single input
Software Link (2 links):
humatch_part_2_humanisation.ipynb

Input: Protein seqeunce(s) in the fasta format
Output: Predicted Tm
Mode: Single input
Software Link:

Input: Protein PDB file
Output: Predicted ligand binding pockets
Mode: Single input
Software Link:

Input: Your protein sequence
Output: Suggested mutations and score
Mode: Single input
Software Link:

Input: Smiles of small molecules
Output: Predict up to 50 different properties related to drug developability
Mode: Single input
Software Link:

Input: PDB file
Output: Identify aggregation-prone hot spots
Mode: Single input
Software Link:
Aggrescan_wechatbio.ipynb - Colab

Input: Protein amino acid sequence
Output: Favorable mutations
Mode: Single input
Software Link:

Input: PDB file
Output: Predict ligand binding residues/pockets
Mode: Single input
Software Link:
AF2BIND_wechatbio.ipynb - Colab

Input: PDB or FASTA files of target proteins
Output: Possibility of interaction
Mode: Single input
Software Link:

Input: Compound SMILES
Output: Similar compound(s) from ChEMBL
Mode: Single input
Software Link:

Input: Antibody amino acid sequences
Output: CDR/Lv/Hv/Fv surface charge and aggregation propensity
Mode: Single input
Software Link:

Input: Antibody PDB file
Output: Predicted paratope residues
Mode: Single input
Software Link:

Input: Protein amino acid sequence
Output: Codon optimized nucleotide sequence
Mode: Single input
Software Link:

Input: PDB file of the protein-ligand complex
Output: MD trajectory summary and animation
Mode: Single input
Software Link:
easymd_wechatbio.ipynb - Colab

Input: a SMI file containing SMILES strings of small molecules
Output: Tox-score and SA score
Mode: Single input
Software Link:

Input: a SMILES string or a csv file containing many strings
Output: QEPPI score
Mode: Single input
Software Link:

Input: Protein sequence(s) in the FASTA format
Output: Predicted subcellular location
Mode: Single input
Software Link:

Input: Enzyme protein sequence and small molecule SMILES string
Output: Predicted Kcat, Km, or Ki
Mode: Single input
Software Link:
CatPred_wechatbio.ipynb - Colab

Input: Peptide sequence(s)
Output: Predicted toxicity
Mode: Single input
Software Link:

Input: Enzyme sequence(s) in the FASTA format
Output: Predicted optimal pH for enzymatic activity
Mode: Single input
Software Link:

Input: Template peptide PDB
Output: New sequence that folds into the same conformation
Mode: Single input
Software Link:

Input: Enzyme EC number
Output: Designed enzyme sequences
Mode: Single input
Software Link:
ZymCTRL_wechatbio.ipynb - Colab

Input: Target protein PDB file
Output: Designed macrocyclic peptides binding to specific sites on the target protein
Mode: Single input
Software Link:
RFdiffusion_working_cyclic.ipynb - Colab

Our AI-powered drug discovery and development platform uses machine learning and other advanced techniques to accelerate the discovery of new treatments.

Our bioengineering expertise enables us to create novel biomaterials, implants, and other medical devices, improving patient outcomes and quality of life.

We offer personalized one-on-one coaching to help beginners make the most of Google Colab. This gives you full control over the free tools listed above. If you run into any issues, we're also here to assist with troubleshooting.

We assist with deploying the software package to your local computer, allowing you to seamlessly integrate the computational pipelines into your workflow.

The computations require significant processing power and time, but we handle all of that for you. Additionally, we develop custom code tailored to your specific questions and needs.
We love our customers, so feel free to text or email us!




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