Eiffel Structural Prover Connector for AI agents.

It forces your AI agent to provide rigorous engineering proof for your designs. Instead of giving you vague guesses, it calculates load limits, modularity, and environmental stresses to ensure your project won't fail under pressure.

It moves you from "hope-based" planning to math-backed analysis. It identifies your exact yield point where a system will break, helping you plan for real peaks rather than just normal conditions.

Yes. It can be used to ensure your software is modular. It forces the agent to design components that can be tested in isolation, preventing you from building unfixable monolithic systems.

It refers to designs where the agent assumes a system will work without calculating the actual forces. This Connector rejects those answers and demands specific data on static and dynamic loads.

The Connector requires the agent to account for wind, temperature, and seismic shifts. It treats these as critical structural forces rather than optional details.

The Connector helps your agent translate complex engineering data into business terms. It provides clear evidence of safety margins and ROI, making it easy to share with non-technical stakeholders.

Brunel validates engineering at unprecedented SCALE. what breaks at 10x/100x, innovation when precedent fails. Eiffel validates structural INTEGRITY under load. quantified forces, modular prefabrication, environmental pressures, mathematical proof, stakeholder communication. Brunel asks 'can this survive growing 10x?' Eiffel asks 'have you calculated the exact force each component must bear?' Use Brunel for scale planning, Eiffel for load-bearing structural rigor.

Not academic proofs. engineering calculations. Queuing theory for throughput depth (L = λW), Amdahl's Law for parallelism limits, capacity models (volume × avg_processing_time = concurrent_workload), cost projections (operating_cost × scale_factor), utilization ratio calculations, resource pool sizing formulas. The inputs must be MEASURED. not 'roughly estimated.' The result must be a specific number. The safety margin must quantify headroom. Eiffel predicted tower deflection to centimeters. Your capacity model should predict failure threshold to specific volumes.

Because the best engineering fails if nobody funds, approves, or operates it. When 300 prominent artists signed a petition calling the Eiffel Tower 'a dishonor to Paris,' Eiffel published his structural calculations in Le Temps. He translated iron and wind into public understanding. 'Too technical to explain' means your engineering cannot survive the organization that builds it. Bold operational decisions. restructuring a process, adopting a new methodology, replacing a legacy procedure. need business-language evidence: cost delta, timeline, risk probability, opportunity cost of not doing it.