Computational Biology Scope

Use Computational Biology for notes where the biological or chemical object defines the problem: molecule, ligand, protein, pocket, complex, conformer, docking, structure-based modeling, and sequence-level genome objects. Use Molecular Modeling for the molecule/structure/docking-heavy subset. Use AI for method choices that remain meaningful across domains: architectures, learning signals, objectives, generative models, evaluation, and systems.

The same paper can touch both, but the page title should follow the strongest claim:

where can include object, representation, architecture, objective, benchmark, system, or agent workflow.

Naming Rule

CenterPreferAvoid
Protein, ligand, molecule, pocket, complex, genome sequenceComputational Biologyoverbroad biology label
Protein sequence, genome region, k-mer, variant-level predictionSequence-Based ModelingOpening broad omics unless needed
Molecule identity, ligand role, graph, fingerprint, conformer, propertyMolecular and Ligand ModelingUsing Molecular Modeling for every sequence task
Protein-ligand pair, target-conditioned activity, affinity, selectivityInteraction ModelingCollapsing target-assay context into molecule-only labels
Docking, pose, pocket, virtual screeningStructure-Based ModelingHiding coordinate assumptions inside generic AI
GNN, Transformer, diffusion, flow matching, SSLAIHiding the method under Molecular Modeling
Symmetry, coordinate frame, likelihood, lossMathTreating equations as paper-specific details
Split, metric, leakage, benchmark protocolEvaluationReporting only headline scores
Tool-using LLM workflowAgentsMixing agent ops into model architecture notes

Scope Layers

LayerMeaningExamples
Computational Biologymodeled biological and chemical objectsproteins, ligands, complexes, genomic regions
Objects and Entitiesvocabulary layer for objects and rolesprotein, molecule, ligand, target, pocket, assay
Sequence-Based Modelingsequence-first protein or genome tasksprotein language models, k-mers, genomic regions, variant effect prediction
Molecular and Ligand Modelingmolecule-first and ligand-preparation tasksmolecular graphs, fingerprints, conformers, property prediction
Interaction Modelingrelation-first tasksactivity, affinity, selectivity, protein-ligand pairs
Structure-Based Modelingcoordinate and complex-centered modelingdocking, pose generation, scoring, virtual screening

Use the broad name when the object family is mixed. Use the narrower name when the note is clearly about molecules, proteins, structures, or genome sequence.

Practical Routes

QuestionRoute
What is being modeled?Objects and Entities
Is the primary input a biological sequence?Sequence-based modeling
Is the primary object a molecule or ligand state?Molecular and ligand modeling
Is the example a pair, assay row, affinity, or selectivity claim?Interaction modeling
Is it docking, pose, conformer, or screening?Structure-based modeling, Docking
What model family is used?AI architectures, Learning methods
What equation explains the claim?Math, Formula intake
What evidence supports the claim?Data and evaluation, Evaluation
Is the note ready to publish?AI Computational Biology Math readiness gate

Examples

Checks

  • Does the title name the object or workflow before the model brand?
  • Does the note separate domain claims from AI method claims?
  • Are conformers, poses, and protein-bound geometries distinguished?
  • Are formulas linked to Math notes instead of left as unexplained symbols?
  • Are benchmark claims tied to split, metric, baseline, and leakage risk?