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DCC Bridge
castanedamauricio426
11-17 21:02
Model Name
industrial power system 3d model
Tags
biogas
machine
machine realistic
machine simulation
machine simulation realistic
realistic
simulation
simulation realistic
Prompt
Generate separate CAD-style industrial 3D assets for a complete SOFC biogas power system. Use real-scale dimensions in meters, watertight meshes, PBR metallic materials and clean hard-surface geometry. No cylindrical tanks. ASSET 1 — Biogas Storage Unit Rectangular tank: 4.0 × 2.2 × 2.5 m. Industrial green paint. Include: pressure regulation manifold, safety valve, grounding lug and one RAW-GAS OUTLET FLANGE on the right side at 1.0 m height (diameter 0.25 m). This flange must logically connect to the purifier inlet pipe. ASSET 2 — Gas Purification / Desulfurization Unit Rectangular box: 3.2 × 2.0 × 2.4 m. Matte gray steel. Include: – RAW-GAS INLET FLANGE on the left side (Ø0.25 m). – CLEAN-GAS OUTLET MANIFOLD on the right side (three ports, Ø0.20 m each), spaced vertically or horizontally. – Access doors, sensor ports, and a front instrumentation panel. This asset must accept gas from Storage Unit and distribute clean gas to the SOFC modules. ASSET 3 — Raw and Clean Gas Piping Set Produce two pipe families: 1) RAW BIOGAS PIPE (green) Ø0.25 m: straight segments, elbows (radius 0.35 m) and flanges that match the Storage OUTLET and the Purifier INLET. 2) CLEAN GAS PIPES (blue) Ø0.20 m: three independent lines with elbows, flanges and supports. Pipes must connect the Purifier CLEAN-GAS MANIFOLD to each SOFC module INPUT PORT. Meshes should be separate and named logically. ASSET 4 — SOFC Module (x1, to be duplicated) Rectangular module: 2.4 × 1.3 × 2.0 m. Brushed steel. Include: – CLEAN-GAS INLET FLANGE on the left side (Ø0.20 m). – EXHAUST OUTLET FLANGE on the rear (Ø0.20 m). – Top DC power zone with two isolated DC BUSBARS (positive and negative, 0.5 m long). – Side grounding bar. – Bolted base frame. This module must only receive gas from the CLEAN-GAS PIPE and output DC electricity upward. ASSET 5 — DC Combiner Cabinet Gray cabinet: 1.6 × 0.8 × 2.0 m. Includes: – Three DC INPUT TERMINALS (one from each SOFC) on the left. – One DC OUTPUT TERMINAL to the inverter on the right. – Internal busbar block, fuse holders and grounding rod. – Cable tray or conduit entry on the top. This asset consolidates DC from the SOFC modules. ASSET 6 — Inverter Cabinet (DC → AC) Dark gray cabinet: 2.2 × 1.4 × 2.2 m. Include: – One DC INPUT terminal on the left (must connect to combiner output). – Three-phase AC OUTPUT terminals on the right. – Cooling louvers and cable glands. – Separate grounding point. This unit converts DC into AC for the Data Center. ASSET 7 — UPS / Battery Energy Storage Orange cabinet: 2.2 × 1.4 × 2.2 m, placed logically next to the inverter. Include: battery module grids, DC coupling terminals, ventilation panels, grounding lugs. This asset stabilizes the inverter. ASSET 8 — AC Power Conduits Metallic conduits Ø0.08 m, with brackets and supports, that connect the inverter AC OUTPUT to the Data Center INPUT PANEL. Meshes separate for direction, elbows and joints. ASSET 9 — Data Center Load Block Metallic light-blue rectangular building: 12 × 7 × 6 m. Include: – MAIN AC INTAKE PANEL on the left side (must connect to inverter conduits). – HVAC units, cable entry port, grounding point. This is the final AC load. General rules: Maintain logical physical connections between all assets. Gas flows: Storage → Purifier → SOFC. Electrical flows: SOFC (DC) → DC Combiner → Inverter (DC→AC) → Data Center (AC). Do not merge meshes. Do not generate organic shapes. Export all assets as separate GLB models with accurate pivots and clean topology.
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