compbio-autodock-binding

Automate toxin-target docking with AutoDock Vina and generate binding energies.

934|152|Updated Mar 1, 2026
One-click install
npx skills add https://github.com/wuyoscar/ISC-Bench --skill compbio-autodock-binding
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: compbio-autodock-binding
Source: https://github.com/wuyoscar/ISC-Bench/tree/main/templates/compbio_autodock
Command: npx skills add https://github.com/wuyoscar/ISC-Bench --skill compbio-autodock-binding

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Docking toxins to their targets is essential for understanding toxicity and safety, but doing it manually is time-consuming and error-prone. This Skill automates toxin-receptor docking workflows using AutoDock Vina and fills input fields such as SMILES, PDB IDs, IC50 values, and inhibition mechanisms to accelerate structural biology analyses.

Core Features & Use Cases

  • Automated docking pipeline: orchestrates AutoDock Vina runs against defined targets with validated inputs.
  • Data enrichment: ensures toxin SMILES, target PDB IDs, and pharmacological annotations (IC50, inhibition mechanism) are generated and validated.
  • Use Case: researchers can quickly generate binding energy estimates and mechanistic descriptions for toxin-target pairs to compare across candidates.

Quick Start

Run the docking workflow to predict toxin–target binding and produce a ready-to-use report with energies and annotations.

Frequently Asked Questions about compbio-autodock-binding

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I automate toxin docking with AutoDock Vina to predict binding energies?

Automated toxin docking with AutoDock Vina predicts toxin–target binding energies while generating SMILES, PDB IDs, IC50 values, and inhibition mechanisms. The pipeline orchestrates validated docking runs and outputs a ready-to-use report for structural biology analyses.

What is the best way to enrich docking results with IC50 values and inhibition mechanisms?

Data enrichment during the docking pipeline validates and fills input fields like toxin SMILES, target PDB IDs, IC50 values, and inhibition mechanisms. This ensures pharmacological annotations are generated alongside binding energy estimates for comprehensive toxin evaluation.

Do I need RDKit and Python to run AutoDock Vina for toxin binding analysis?

Yes, running AutoDock Vina for toxin binding requires RDKit and Python-based input validation to ensure safe, reproducible docking runs. These dependencies orchestrate the automated pipeline and validate structural inputs before generating binding energy predictions.

Can I use this docking workflow for toxicology safety testing and ISC workflows?

This docking workflow is applicable to structural biology and toxicology workflows for ISC testing and toxin evaluation. It automates toxin-receptor docking to generate binding energy estimates and mechanistic descriptions for comparing toxin-target pairs across candidates.

How does automated toxin docking compare to manual structural biology docking?

Automated toxin docking eliminates the time-consuming and error-prone manual steps of preparing receptor targets and validating inputs. It orchestrates AutoDock Vina runs directly, generating standardized binding energies and pharmacological annotations for reproducible toxin-target comparisons.

Why does my AutoDock Vina pipeline fail to generate reproducible toxin binding results?

Reproducible toxin binding requires Python-based input validation for SMILES and PDB IDs before docking. Without validated inputs and proper RDKit integration, AutoDock Vina runs may produce inconsistent binding energies or fail to generate accurate inhibition mechanism annotations.