Core Evaluation Components
- Chain-of-thought verification system
- Semantic drift tracking
- Knowledge graph infrastructure
- Temporal consistency validation
- Edit rejection analysis
Built on Research
- Evaluation methodology from "HalluEditBench" (Huang et al., 2024)
- Memory editing concepts from "Mass-Editing Memory in a Transformer" (Meng et al., 2023)
- Model editing techniques from "Locating and Editing Factual Associations in GPT" (Meng et al., 2022)
pip install -r requirements.txt
from editing_framework import EditEvaluator, EditInstance
from transformers import AutoModelForCausalLM, AutoTokenizer
# Initialize framework
model = AutoModelForCausalLM.from_pretrained("model_name")
tokenizer = AutoTokenizer.from_pretrained("model_name")
evaluator = EditEvaluator(model, tokenizer)
# Create edit instance
edit = EditInstance(
id="edit_001",
subject="OpenAI",
relation="CEO",
original_object="Sam Altman",
target_object="Emmett Shear",
domain="technology",
topic="companies"
)
# Evaluate edit
results = evaluator.evaluate_edit(edit)
ChainOfThoughtVerifier
- Validates edits using reasoning templates
- Generates verification queries
- Calculates confidence scores
verification = thought_verifier.verify_edit(edit)
SemanticDriftTracker
- Measures semantic changes post-edit
- Tracks neighborhood effects
- Provides drift severity metrics
drift_metrics = drift_tracker.track_drift(edit)
KnowledgeGraph
- Maintains fact relationships
- Enforces temporal consistency
- Checks for conflicting edits
consistency = knowledge_graph.check_consistency(entity)
The framework evaluates edits across multiple dimensions:
Consistency
- Temporal consistency: Tracks changes over time
- Relational consistency: Validates relationship logic
- Graph-based validation: Ensures knowledge graph coherence
Semantic Analysis
- Cosine drift: Measures embedding space changes
- Neighborhood effects: Analyzes impact on related concepts
- Embedding distance: Quantifies semantic shifts
Verification
- Reasoning chain validity: Evaluates logical consistency
- Confidence scoring: Assesses edit reliability
- Conflict detection: Identifies contradictions
{
'edit_id': 'edit_001',
'status': 'accepted',
'consistency': {
'temporal': [],
'relational': []
},
'semantic_drift': {
'cosine_drift': 0.82,
'neighbor_drift': 0.76,
'drift_severity': 'low'
},
'verification': {
'confidence_score': 0.89,
'reasoning_chain': [...],
'potential_conflicts': []
}
}
This framework proposes several novel theoretical contributions:
-
Chain-of-thought verification system extends the basic evaluation methods from HalluEditBench by introducing structured reasoning paths.
-
Semantic drift tracking introduces a new theoretical approach to measuring knowledge consistency through embedding space analysis.
-
The knowledge graph infrastructure proposes a theoretical model for tracking temporal and relational consistency of edits.
The actual effectiveness of these methods requires empirical validation through future research.
- Python 3.8+
- PyTorch 1.9+
- Transformers 4.20+
- NetworkX 2.6+
- Empirical validation of the proposed metrics
- Comparison with existing evaluation frameworks
- Extension to multi-modal knowledge editing
- Integration with various LLM architectures
- Development of standardized benchmarks
This is a theoretical framework open for academic discussion and improvement. Contributions that enhance the theoretical foundation or propose validation methods are welcome.
@article{huang2024hallueditbench,
title={HalluEditBench: Can Knowledge Editing Really Correct Hallucinations?},
author={Huang, Baixiang and Chen, Canyu and Xu, Xiongxiao and Payani, Ali and Shu, Kai},
journal={arXiv preprint arXiv:2410.16251},
year={2024}
}
This codebase is a theoretical proposal and should not be used in production environments without thorough testing and validation. The components and metrics proposed here are intended to spark discussion and future research in knowledge editing evaluation methods.