Computational Biology Geometry Route

For structure-modeling geometry, start from Geometry for Structure Modeling. This page exists to route geometry questions into the right layer: pure math, geometric deep learning, or applied structure modeling.

Computational biology uses geometry when the object has coordinates, distance constraints, local frames, conformers, pockets, poses, or complexes. The same equation can mean different things depending on whether it is a math definition, a model architecture constraint, or a biological modeling claim.

Here can be atom coordinates, residue coordinates, ligand conformer coordinates, pocket points, or a protein-ligand complex. The route depends on what is being claimed about .

Use the geometry notes by layer:

QuestionGo To
What pure math rule is involved?Geometry and Symmetry
What does the structure-modeling workflow require?Geometry for Structure Modeling
What is the coordinate/frame contract?Coordinate modeling contract
Is the claim pose-specific?Pose quality

Routing Rules

If the page is aboutKeep it under
group action, metric space, distance, symmetry definitionMath
invariance, equivariance, coordinate update, message passingGeometric Deep Learning
protein, ligand, pocket, complex, conformer, docking poseComputational Biology
pose plausibility, clash, strain, RMSD, interaction geometryStructure-Based Modeling

Common Applied Questions

QuestionBetter starting point
Does a generated ligand pose satisfy chemical geometry?Pose quality
Is the model allowed to use the bound ligand to define the pocket?Pocket definition contract
Should the output rotate when the input rotates?Equivariance
Is RMSD the right metric for this claim?Pose quality
Are distances enough, or are orientation and chirality required?Geometry for Structure Modeling

Boundary

Keep protein, ligand, pocket, complex, pose, docking, and coordinate-source assumptions under Computational Biology. Keep reusable group, distance, invariance, and equivariance definitions under Math or Geometric Deep Learning. If a page depends on biological object identity or benchmark leakage risk, it belongs closer to Computational Biology than to pure Math.