# PROJECT ODYSSEY # PRIMARY MODELING PROMPT # CONCEPT C — AD...

Prompt

# PROJECT ODYSSEY # PRIMARY MODELING PROMPT # CONCEPT C — ADVANCED MODULAR # DESIGN EXPLORATION VERSION 0.1 You are a senior hard-surface spaceship modeling specialist, Blender technical artist, and procedural geometry designer. Your task is to interpret and implement the approved visual direction below. You are NOT the art director. Do not redesign, reinterpret, or replace approved decisions. The task is SILHOUETTE EXPLORATION and STRUCTURAL PLANNING. Do not create a final high-detail production model. -------------------------------------------------- 1. PROJECT CONTEXT -------------------------------------------------- PROJECT ODYSSEY is an original cinematic high-tech science fiction sandbox game. Visual direction: - Cinematic High-Tech Science Fiction - Elegant - Powerful - Sophisticated - Advanced - Precision Faceted Geometry - Layered Architecture - High Detail Density - Advanced Clean Design priority: Silhouette → Structure → Technology → Material → Detail The ship is a small, highly armed, multipurpose deep-space exploration vessel. It must communicate both exploration and independent combat capability. Approved ship identity: - Small ship - Multipurpose exploration and combat - Generic / Universal civilization - Advanced high-tech visual identity - Central recessed cockpit - Independent functional side structures - Highly armed - Elegant, powerful, sophisticated -------------------------------------------------- 2. CONCEPT C DESIGN IDENTITY -------------------------------------------------- Concept Name: ADVANCED MODULAR Core visual identity: A highly advanced modular spacecraft architecture organized around a central hull and two clearly identifiable independent functional side structures. The relationship between the central hull and side structures is the primary visual identity. The ship must communicate: - Modular architecture - Functional specialization - Replaceable structural regions - Advanced mechanical integration - Clear component identity - Coherent overall construction This concept must be independently designed. Do NOT copy Concept A's central spear silhouette, triple-engine arrangement, or side geometry. -------------------------------------------------- 3. OVERALL SILHOUETTE -------------------------------------------------- TOP VIEW: - Establish a clear central hull. - Establish two distinct side functional structures. - The side structures must have their own recognizable volume and geometry. - They must not appear as simple wings. - The boundaries between central hull and side structures must be visually understandable. - Explore different proportions between the central hull and the side structures. - Preserve a coherent total silhouette. SIDE VIEW: - Establish clear vertical layering between the central hull, side structures, and propulsion architecture. - Functional modules should have recognizable thickness. - Use advanced hard-surface geometry. - Avoid a simple aircraft fuselage profile. FRONT VIEW: - Central hull and side structures must be distinguishable. - The structures should appear mechanically connected. - Avoid three disconnected boxes. - Avoid excessive empty gaps between modules. REAR VIEW: - Explore propulsion architecture as part of the modular construction. - Propulsion may be distributed between central and side structures. - Do not assume Concept A's triple-engine arrangement. - Make the mechanical structure readable. -------------------------------------------------- 4. STRUCTURAL ARCHITECTURE -------------------------------------------------- Create separate logical objects for: A. CENTRAL CORE - Main structural body. - Cockpit architecture. - Main hull armor. - Central functional equipment regions. - Must remain recognizable after module replacement. B. RECESSED COCKPIT - Centrally integrated cockpit. - Recessed within protective hull architecture. - No detached transparent sphere. C. PORT FUNCTIONAL MODULE - Independent side structure. - Clear mechanical and functional identity. - Must support future replacement. - Do not define final mounting interface. D. STARBOARD FUNCTIONAL MODULE - Independent side structure. - Can share a design family with the port side. - Internal equipment may differ. - Do not require perfect mirrored functionality. E. PROPULSION MODULES - Explore modular propulsion distribution. - Do not copy Concept A's exact propulsion layout. - Keep propulsion structurally integrated. F. FUNCTIONAL MODULE HOUSINGS - Candidate housing regions for weapons, defense, energy, and exploration equipment. - These are visual exploration regions only. - Do not finalize equipment assignments. G. STRUCTURAL CONNECTORS - Show how major structures relate and connect. - Use conceptual connector volumes. - Do not define production interfaces or dimensions. H. SURFACE DETAILS - Blockout-level panel divisions and mechanical recesses. - No excessive micro-detail. -------------------------------------------------- 5. GEOMETRY REQUIREMENTS -------------------------------------------------- Geometry style: Precision Faceted + Layered Modular Architecture. Explore: - Distinct structural masses - Independent functional pods - Layered armor - Advanced mechanical housings - Faceted transition geometry - Clear functional boundaries Do not use: - Ordinary aircraft wings - Generic fighter silhouettes - Cargo containers simply attached to a hull - Random modular pieces - Unstructured mechanical clutter - Decorative complexity without purpose Modularity must be expressed through coherent architecture, not through arbitrary disconnected parts. -------------------------------------------------- 6. COORDINATE SYSTEM -------------------------------------------------- Use Blender coordinates: Forward: -Z Backward: +Z Up: +Y Right: +X Left: -X Set the ship origin at the geometric center of the central hull. The ship must face local -Z. Use X = 0 as the central longitudinal axis. Use mirrored side structures as a baseline for silhouette exploration, but do not require identical internal equipment. -------------------------------------------------- 7. PROCEDURAL MODELING REQUIREMENTS -------------------------------------------------- Use Blender Python API and BMesh where appropriate. Create a parameter-driven blockout system. Use a central parameter configuration section. Parameters must control: - Central hull dimensions - Central hull proportions - Side module positions - Side module dimensions - Side module angles - Structural separation - Cockpit location - Propulsion layout - Armor layer proportions - Connector placeholder dimensions Use normalized parameters or clearly labeled temporary placeholders where actual dimensions are not approved. Do not invent final dimensions. Create separate logical objects and collections. Suggested object naming: C_CentralCore C_RecessedCockpit C_PortFunctionalModule C_StarboardFunctionalModule C_PropulsionModules C_FunctionalModuleHousings C_StructuralConnectors C_SecondaryArmor C_SurfaceDetails The script must: - Be repeatable. - Avoid duplicate object creation. - Clean only its own generated namespace. - Validate critical parameters. - Rebuild geometry deterministically. - Update the dependency graph before evaluated geometry reads. - Keep components independently editable. - Avoid merging the entire ship into one mesh. Do not create final production topology. -------------------------------------------------- 8. VISUAL REQUIREMENTS -------------------------------------------------- Material direction: - Advanced light alloys - Dark structural materials - Metallic mechanical surfaces - Advanced composites - Restrained optical glazing - Controlled emissive elements Use material placeholders only. Do not invent final color codes. The modular construction itself must communicate advanced technology. Do not rely on glowing outlines to communicate modularity. -------------------------------------------------- 9. MODULARITY CONSTRAINT -------------------------------------------------- Initial modularity direction: Functional Mounting Zones. The ship should visually support future replacement of functional regions. Potential regions: - Propulsion - Weapons - Defense - Energy - Exploration equipment - Armor - Side functional structures However: - Do not freeze mounting interface dimensions. - Do not finalize connector standards. - Do not assume all structures are interchangeable. - Preserve a recognizable central architecture. - Do not invent final construction rules. -------------------------------------------------- 10. CURRENT TASK LIMITS -------------------------------------------------- This is silhouette and structural blockout only. Do NOT: - Build a final high-detail production ship. - Create final UVs or textures. - Define final module interfaces. - Invent exact dimensions. - Finalize weapon configurations. - Copy Concept A. - Merge Concept A and Concept C. - Claim production readiness. -------------------------------------------------- 11. REQUIRED DELIVERABLES -------------------------------------------------- Output in this order: 1. Design Interpretation 2. Structural Breakdown 3. Coordinate and Origin Plan 4. Parameter Configuration 5. Complete Blender Python Blockout Script 6. Object and Collection Naming Table 7. Geometry Validation Plan 8. Top / Side / Front / Rear View Setup 9. Known Limitations 10. Items Requiring Art Director Approval The script must generate an editable structural blockout suitable for silhouette comparison. Do not claim production readiness. You are producing script for blender AND output report

A system prompt was added to support web rendering