Goal Achievement
Measuring whether the agent accomplishes user objectives
Effectively evaluating AI agent performance is essential but challenging. At VrealSoft, we’ve developed multi-dimensional evaluation frameworks that go beyond traditional metrics.
Goal Achievement
Measuring whether the agent accomplishes user objectives
Reasoning Quality
Assessing logical steps and problem-solving approach
Tool Usage
Evaluating appropriate and efficient use of available tools
Knowledge Integration
Measuring how well the agent incorporates relevant information
# Multi-dimensional evaluation frameworkclass AgentEvaluator: def __init__(self): self.evaluators = { "goal_completion": GoalCompletionEvaluator(), "reasoning": ReasoningEvaluator(), "tool_usage": ToolUsageEvaluator(), "knowledge": KnowledgeEvaluator(), "efficiency": EfficiencyEvaluator(), "safety": SafetyEvaluator(), "user_experience": UserExperienceEvaluator() }
self.weights = { "goal_completion": 0.30, "reasoning": 0.15, "tool_usage": 0.15, "knowledge": 0.15, "efficiency": 0.10, "safety": 0.10, "user_experience": 0.05 }
def evaluate(self, agent, test_cases): results = {dimension: [] for dimension in self.evaluators}
for case in test_cases: # Execute agent on test case agent_trace = run_agent_with_tracing(agent, case)
# Evaluate on each dimension for dimension, evaluator in self.evaluators.items(): score = evaluator.evaluate(agent_trace, case) results[dimension].append(score)
# Compute summary statistics summary = self.compute_summary(results)
# Compute weighted overall score overall_score = sum( summary[dim]["mean"] * self.weights[dim] for dim in self.weights )
return { "dimensions": results, "summary": summary, "overall_score": overall_score }class TestCase: def __init__(self, scenario_id, difficulty, domain): self.scenario_id = scenario_id self.difficulty = difficulty # 'easy', 'medium', 'hard', 'expert' self.domain = domain
# Initial state self.initial_context = {} self.user_query = ""
# Expected outcomes self.goal_completion = { "primary_goal": "", "success_criteria": [], "expected_actions": [] }
# Expected reasoning self.reasoning = { "key_insights": [], "expected_approach": "", "common_pitfalls": [] }
# Tool usage expectations self.tool_usage = { "required_tools": [], "prohibited_tools": [], "optimal_sequence": [] }
# Knowledge requirements self.knowledge = { "required_facts": [], "potential_confusions": [] }
# Efficiency criteria self.efficiency = { "max_turns": 0, "max_tool_calls": 0, "time_constraints": None }
# Safety boundaries self.safety = { "sensitive_topics": [], "prohibited_actions": [], "privacy_considerations": [] }
# User experience self.user_experience = { "clarity_criteria": "", "personalization_expectations": "" }def generate_test_suite(domains, difficulty_distribution): test_suite = []
for domain in domains: # Get test templates for this domain templates = get_domain_templates(domain)
# Determine how many tests of each difficulty for difficulty, count in difficulty_distribution.items(): # Get templates for this difficulty difficulty_templates = [t for t in templates if t.difficulty == difficulty]
# Generate tests for each template for template in difficulty_templates: # Generate variations of this template variations = generate_template_variations(template, count) test_suite.extend(variations)
# Validate and remove duplicates validated_suite = validate_test_suite(test_suite)
return validated_suiteTo ensure comprehensive evaluation, we’ve developed specialized benchmark datasets:
Goal-Oriented Tasks
Complex tasks requiring multi-step planning and execution
Knowledge Integration
Scenarios requiring synthesis of information from multiple sources
Tool Utilization
Tasks designed to evaluate effective tool selection and use
Edge Cases
Unusual scenarios that test agent robustness
# Dataset structurebenchmark_datasets = { "customer_service": { "description": "Customer service scenarios across industries", "size": 500, "domains": ["retail", "banking", "travel", "technology"], "difficulty_distribution": { "easy": 0.2, "medium": 0.5, "hard": 0.2, "expert": 0.1 }, "special_features": [ "multi-turn conversations", "heterogeneous knowledge requirements", "emotional situations" ] }, "research_assistant": { "description": "Information gathering and synthesis tasks", "size": 350, "domains": ["scientific", "business", "legal", "general"], "difficulty_distribution": { "easy": 0.15, "medium": 0.45, "hard": 0.3, "expert": 0.1 }, "special_features": [ "complex information needs", "unreliable information detection", "interdisciplinary topics" ] } # Additional datasets for other agent types}Our approach incorporates:
human_evaluation = { "participants": { "expert_evaluators": 5, # Domain experts "general_evaluators": 20, # General users "adversarial_evaluators": 3 # Trying to find flaws }, "protocol": { "blind_comparison": True, # Evaluators don't know which is which "randomized_order": True, # Randomize presentation order "evaluation_dimensions": [ { "name": "helpfulness", "scale": {"type": "likert", "min": 1, "max": 7}, "criteria": "How effectively did the agent help accomplish the goal?" }, { "name": "reasoning", "scale": {"type": "likert", "min": 1, "max": 7}, "criteria": "How logical and well-structured was the agent's reasoning?" } # Additional dimensions ], "qualitative_feedback": [ "What did the agent do particularly well?", "What could be improved?", "Did anything surprise you about the interaction?" ] }}def combine_human_and_automated_evaluation(automated_results, human_results): combined_insights = {}
# Identify agreements and disagreements for dimension in automated_results: if dimension in human_results: auto_score = automated_results[dimension]["mean"] human_score = normalize_score(human_results[dimension]["mean"])
discrepancy = abs(auto_score - human_score) agreement = "high" if discrepancy < 0.1 else "medium" if discrepancy < 0.2 else "low"
combined_insights[dimension] = { "automated_score": auto_score, "human_score": human_score, "agreement": agreement, "discrepancy": discrepancy }
# If significant disagreement, analyze reasons if agreement == "low": combined_insights[dimension]["analysis"] = analyze_discrepancy( dimension, automated_results, human_results )
# Extract unique human insights human_only_insights = extract_qualitative_insights(human_results) combined_insights["qualitative_insights"] = human_only_insights
return combined_insightsRegression Testing
Automated testing to ensure new changes don’t reduce performance
A/B Testing
Comparing agent variants with real users
Feedback Collection
Systematic collection and analysis of user feedback
Performance Monitoring
Tracking key metrics in production environments
# Continuous evaluation pipelineclass ContinuousEvaluationSystem: def __init__(self, benchmarks, production_monitors): self.benchmarks = benchmarks self.production_monitors = production_monitors self.history = {}
def evaluate_release_candidate(self, agent_version): # Run comprehensive benchmarks benchmark_results = self.run_benchmarks(agent_version)
# Compare to previous version comparison = self.compare_to_previous(agent_version, benchmark_results)
# Determine if performance regression occurred if comparison["regression"]: # Generate detailed regression report regression_report = self.generate_regression_report( agent_version, comparison ) return { "status": "failed", "regression_report": regression_report }
# Record new version as baseline if it passes self.history[agent_version] = benchmark_results
return { "status": "passed", "improvements": comparison["improvements"], "neutral_changes": comparison["neutral"] }
def monitor_production_performance(self): # Collect real-world performance data performance_data = {} for monitor in self.production_monitors: monitor_data = monitor.collect_data() performance_data[monitor.name] = monitor_data
# Analyze for any concerning patterns concerns = self.analyze_for_concerns(performance_data)
# Generate insights and recommendations insights = self.generate_insights(performance_data)
return { "performance_data": performance_data, "concerns": concerns, "insights": insights }We’re actively researching: