""" Lab 6.9: Cost Optimization Profile a session, identify savings, and implement cascade routing. """ # TODO 1: Define cost profiles for different models MODEL_COSTS = { "gemini-flash": {"input": 0.15, "output": 0.60}, # $/M tokens "deepseek-v3": {"input": 0.27, "output": 1.10}, "claude-sonnet": {"input": 3.00, "output": 15.00}, "claude-opus": {"input": 15.00, "output": 75.00}, } # TODO 2: Profile a real agent session SESSION_LOG = [ # (step, model, input_tokens, output_tokens, step_type) ("retrieve context", "claude-opus", 8000, 200, "retrieval"), ("analyze data", "claude-opus", 5000, 1500, "analysis"), ("make decision", "claude-opus", 3000, 800, "decision"), ("format output", "claude-opus", 2000, 400, "formatting"), ("verify result", "claude-opus", 2500, 600, "verification"), ] # TODO 3: Implement cost calculation def calculate_session_cost(session: list[tuple], model: str) -> float: """Calculate total cost of a session using given model's pricing.""" pass # TODO # TODO 4: Implement cascade routing optimization CASCADE_MAP = { "retrieval": "gemini-flash", # Cheap: simple retrieval "formatting": "gemini-flash", # Cheap: formatting "verification": "deepseek-v3", # Medium: structured checks "analysis": "claude-sonnet", # Expensive: reasoning "decision": "claude-opus", # Most expensive: critical thinking } def calculate_cascade_cost(session: list[tuple]) -> float: """Calculate session cost with cascade routing.""" pass # TODO # TODO 5: Find additional savings def find_optimizations(session: list[tuple], current_cost: float) -> list[dict]: """ Analyze the session and suggest optimizations. Look for: - Steps where cascade routing saves >50% - Steps with unusually high token counts (context waste) - Opportunities to batch small retrievals """ pass # TODO if __name__ == "__main__": print("=" * 55) print(" COST OPTIMIZATION ANALYSIS") print("=" * 55) opus_cost = calculate_session_cost(SESSION_LOG, "claude-opus") cascade_cost = calculate_cascade_cost(SESSION_LOG) print(f"\nAll Opus: ${opus_cost:.4f}") print(f"Cascade: ${cascade_cost:.4f}") print(f"Savings: {((opus_cost - cascade_cost) / opus_cost * 100):.0f}%") optimizations = find_optimizations(SESSION_LOG, opus_cost) if optimizations: print(f"\nOptimization suggestions:") for opt in optimizations: print(f" - {opt['description']}: save ${opt['savings']:.4f}")