Abstract
Modern artificial intelligence and hyperscale data centers increasingly face a dual resource limitation:
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high-density thermal rejection requirements,
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growing freshwater availability constraints.
Recent academic and industrial deployments demonstrate that waste-heat-driven desalination and wastewater regeneration are technically viable. However, widespread deployment remains limited due to six major barriers:
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insufficient waste-heat temperature,
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compressor energy penalties,
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membrane fouling,
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contaminant accumulation,
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cooling-loop corrosion,
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unfavorable capital economics.
This disclosure presents a unified open-hardware architecture designated CICIS-X.
CICIS-X integrates thermoacoustic thermal amplification, vortex-assisted contaminant destruction, multi-stage vacuum distillation, autonomous remineralization, structural health monitoring, thermal-hydraulic optimization, and closed-loop cooling infrastructure into a single water-positive compute facility.
Unlike conventional systems that add heat pumps, filtration membranes, and independent treatment plants, CICIS-X attempts to reduce infrastructure complexity through direct integration of thermal, hydraulic, and water-recovery functions.
The system is published as defensive prior art and released under CERN-OHL-P for unrestricted global research, testing, and deployment.
Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.
Recommended Citation
Caldwell, Michael Victor Mr., "CICIS-X: Waste-Heat Amplified Autonomous Water-Positive Data Center Infrastructure Using Thermoacoustic Heat Elevation, Non-Membrane Water Regeneration, and Integrated Thermal-Hydraulic Monitoring", Technical Disclosure Commons, ()
https://www.tdcommons.org/dpubs_series/12196