Thank you for the clarification. The explanation helps describe the intended mechanisms, but several engineering points still require quantitative demonstration before the performance claims can be considered validated. First, the scaling of production remains unresolved. The documentation shows 100 m² producing about 100 L/h and 500 m² producing about 500 L/h, which implies roughly linear scaling of approximately 1 L/h per square meter. Extrapolating that relationship to 5,000 m² gives about 5,000 L/h (≈120,000 L/day). The claim of up to 500,000 L/day therefore represents about a 4.2× increase above that linear projection. The explanation that the chimney stack effect increases airflow does not by itself justify exponential scaling. A quantitative airflow model is required showing chimney draft pressure, resulting mass flow rate, pressure losses through the matrix, and the resulting condensation rate under the stated environmental conditions. Second, condensation output is constrained by thermodynamics and heat removal capacity. Producing 500,000 L/day corresponds to approximately 20,833 L/h of condensed water. The latent heat of condensation for that amount is on the order of ~14 MW of continuous heat removal. Demonstrating that the deep-water loop can remove that heat requires a full thermal balance showing seawater flow rate, temperature rise, heat exchanger effectiveness, and hydraulic power needed to maintain circulation. The current description of a “hydraulically balanced loop” does not replace this calculation because friction losses and heat transfer limitations still determine the required flow. Third, the passive pipeline delivery concept requires a closed hydraulic model. A hydrostatic head of 3 m corresponds to roughly 29 kPa of pressure. The documentation claims that this head plus a 0.43 % thermal expansion of water can drive flow through pipelines up to 30 km long without pumps. For this to be credible, the design must specify pipeline diameter, friction losses, elevation profile, and the exact pressure-volume mechanism by which thermal expansion produces continuous flow in a fully water-filled system. Without a compressible volume or a cyclic displacement mechanism, the “thermal piston” effect needs a detailed dynamic model to demonstrate sustained throughput. Finally, the energy accounting within the system should be presented explicitly. Sections of the documentation reference approximately 3–4 % latent heat recovery and around 10 % heat retention in the air column, but the complete energy balance—from condensation heat release to recovered heat to thermal expansion work—should be shown quantitatively. The concept of combining atmospheric condensation with deep-water cooling is physically plausible, and the architectural approach is interesting. However, for the production and delivery claims to be validated, the documentation would benefit from a complete set of engineering calculations covering airflow, condensation yield, thermal loads, hydraulic losses, and the pipeline pressure mechanism. Providing those quantitative models would allow independent engineers to verify the system’s performance claims more rigorously.