It is difficult to determine how well a piece of complex data fits into a specific organized structure or category.
It compares a set of data labels against a structured map to calculate a similarity score.
It provides a clear way to measure how well information aligns with a predefined organizational framework.
It was run in the sandbox and it failed. run output shows an error/traceback — the artifact does NOT run clean.
$ python3 subgraph_ontology_similarity.py
Traceback (most recent call last):
File "/work/subgraph_ontology_similarity.py", line 69, in <module>
score = simulator.calculate_similarity_score('tyrosine kinase')
^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
File "/work/subgraph_ontology_similarity.py", line 44, in calculate_similarity_score
subgraph = self.extract_subgraph(query_node)
^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
File "/work/subgraph_ontology_similarity.py", line 27, in extract_subgraph
similar_nodes = {node: self._calculate_similarity(node_labels[node], query_node)}
^^^^
NameError: name 'node' is not defined. Did you mean: 'None'?No screenshot — there is nothing working to show. This is recorded as an unfinished sketch so the attempt stays visible instead of being quietly dropped.
All of it — 70 lines, one file, standard library only.
from collections import defaultdict
import json
from typing import Dict, List, Tuple
class SubgraphOntologySimularity:
def __init__(self, node_labels: Dict[str, str], ontology_schema: Dict):
self.node_labels = node_labels
self.ontology_schema = ontology_schema
self.hierarchy = self._build_hierarchy(ontology_schema)
self.similarity_graph = defaultdict(dict)
def _build_hierarchy(self, schema: Dict) -> Dict:
# Build ontology hierarchy from schema
hierarchy = defaultdict(list)
for class_name, class_def in schema.items():
if 'parents' in class_def:
hierarchy[class_def['parents'][0]].append(class_name)
return hierarchy
def _calculate_similarity(self, node1: str, node2: str) -> float:
# Simple string similarity (can be replaced with more advanced metrics)
common = set(node1.lower().split()).intersection(set(node2.lower().split()))
return len(common) / max(len(set(node1.lower().split())), len(set(node2.lower().split())))
def extract_subgraph(self, query_node: str) -> Dict:
# SimGRAG-inspired similarity-based subgraph extraction
similar_nodes = {node: self._calculate_similarity(node_labels[node], query_node)}
# Filter nodes with similarity > 0.5 as example threshold
subgraph = {node: label for node, label in self.node_labels.items() if similar_nodes[node] > 0.5}
return subgraph
def map_to_ontology(self, subgraph: Dict) -> Dict:
# OntologyRAG-inspired hierarchical mapping
mapped = {}
for node, label in subgraph.items():
# Find best matching class in ontology
best_match = max(self.ontology_schema.keys(), key=lambda k: self._calculate_similarity(label, k), default=None)
if best_match:
mapped[node] = best_match
return mapped
def calculate_similarity_score(self, query_node: str) -> float:
# Combine SimGRAG and OntologyRAG scores
subgraph = self.extract_subgraph(query_node)
mapped = self.map_to_ontology(subgraph)
# Simple scoring combining both aspects
structure_score = len(mapped) / len(self.node_labels)
hierarchy_score = sum(self.ontology_schema[match]['depth'] for match in mapped.values() if 'depth' in self.ontology_schema[match]) / len(mapped) if mapped else 0
return (structure_score + hierarchy_score) / 2
# Example usage
if __name__ == "__main__":
# Example inputs
node_labels = {
'n1': 'protein kinase',
'n2': 'receptor tyrosine kinase',
'n3': 'enzyme'
}
ontology_schema = {
'Protein': {'parents': ['Molecule'], 'depth': 1},
'Kinase': {'parents': ['Protein'], 'depth': 2},
'Enzyme': {'parents': ['Protein'], 'depth': 2},
'Receptor': {'parents': ['Protein'], 'depth': 2}
}
simulator = SubgraphOntologySimularity(node_labels, ontology_schema)
score = simulator.calculate_similarity_score('tyrosine kinase')
print(f'Subgraph-Ontology Similarity Score: {score:.2f}')