The Engineering Core will be an independent core, consumed by the CAD and other modules. A living master document, external to the CAD, connects requirements, decisions and dependencies without concentrating all intelligence in the geometric model.
Integrations plannedRequirements, assumptions, selected components, calculations, approvals, dependencies and versions will form a living data structure. Each discipline should consume the appropriate revision, return traceable results and flag impacts before release.
AI interprets, plans, compares and requests operations. Deterministic engines compute, select and validate critical rules. The engineer reviews assumptions and approves technical decisions.
Defines requirements, reviews previews and approves decisions and issuance.
Interprets and requests operations via controlled APIs.
Living master document, dependencies and validations external to CAD.
When replacing a compressor, the Core must identify affected elements: electrical current and protections, dimensions and assembly, refrigeration connections, piping, structure and documentation. Corresponding motors need to recalculate or revalidate only the affected scope.
Existing engine for technical selection and bills of materials, as reported: compressors, expansion valves, pumps, electrical components, PLCs and terminals. Integration with Unit CAD and Unit AI is planned, with technical review of the results.
Thermal calculation and existing 3D coil generation, as reported, including tubes, circuitry, bends and collectors. Conversational integration planned to compare alternatives and incorporate the approved option into the CAD.
Single-line, multi-line, power and control; main breaker and individual protections; motor breakers, contactors and inverters; PLC, expansion and I/O; sensors, pressure switches, transducers and phase monitor; terminal blocks, cables, gauges and labeling; electrical BOM, 3D panel and dimensions for assembly. Validate against standards, technical rules and manufacturer data.
Parametric modeling, assemblies and documentation form the product baseline, as reported. Advanced assembly relations and 2D detailing need improvement.
Parametric templates and placement rules as an initial strategy: maintenance, accessibility, ventilation, center of gravity, interferences, transport and space for piping. Propose structure, enclosure and sheet metal; advanced geometric optimization is a later evolution.
Smart refrigeration, hydraulic and industrial circuits. Each connection needs type, position, orientation, diameter, fluid, allowable pressure and identification. The functional circuit is created alongside selection, before routing; its graphical consolidation can occur afterwards.
Use P&ID and actual positions to propose piping respecting connections, interferences, access and manufacturability. Produce lengths, bends, fittings, BOM, isometrics and manufacturing drawings. P&ID ↔ 3D changes require controlled updates and impact review in both directions.
Consolidate manufacturing drawings, 2D engineering drawings, flat patterns, component identification, bill of materials and multidisciplinary documentation. Issuance dependent on model review and approval by the responsible engineer.
AI should not manipulate CAD files directly. The software will validate requests via authorized APIs before performing operations. Limiting the sending of confidential data and offering corporate privacy options are part of the planned architecture.
Integration of HPS and X-Coil with Unit CAD and Unit AI is planned and is not available in this presentation. Results will require technical review and approval.
The diagram shows the planned architecture. It does not demonstrate connected engines, implemented algorithms or a commercially tested integration.
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