# PROJECT ODYSSEY # PRIMARY MODELING PROMPT # CONCEPT A — EL...

Prompt

# PROJECT ODYSSEY # PRIMARY MODELING PROMPT # CONCEPT A — ELEGANT PREDATOR # 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 design decisions. The purpose of this task is SILHOUETTE EXPLORATION and STRUCTURAL PLANNING only. 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 capability and independent combat capability. It must NOT look like a pure fighter aircraft. 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 A DESIGN IDENTITY -------------------------------------------------- Concept Name: ELEGANT PREDATOR Core visual identity: A sharp, elegant, aggressive, highly advanced spacecraft built around a dominant central spear-shaped hull and two independent functional side structures. The design combines: - Sharp spear-like silhouette - Precision faceted armor - Continuous central armored hull - Layered structural architecture - Hybrid integrated propulsion - Integrated and exposed weapon architecture - Dedicated exploration equipment - Advanced energy architecture The ship must remain compact and recognizable as a small multipurpose vessel. -------------------------------------------------- 3. OVERALL SILHOUETTE -------------------------------------------------- TOP VIEW: - Narrow forward section. - Extremely sharp but geometrically layered prow. - The prow must not be a simple triangular point. - Use multiple precision armor facets. - Central hull expands through multiple stages. - Central body becomes wider toward the middle. - Rear architecture expands further to accommodate a powerful but compact propulsion system. - Two side structures extend outward and backward. - Side structures have compound faceted geometry. - Side structures are thick, armored, and mechanically distinct. - Their roots integrate into the central hull. - Their outer portions become independent structures. SIDE VIEW: - Sharp, low forward profile. - Armored central body with visible thickness. - Deeply recessed cockpit at the geometric center of the central hull. - Layered rear architecture. - Strong mechanical depth around propulsion. - Compact overall proportions. FRONT VIEW: - Central hull remains visually dominant. - Side structures have clear thickness and independent mechanical identity. - The three structural regions must remain integrated. - Do not create three disconnected rectangular boxes. REAR VIEW: - One dominant central main engine exterior. - Two integrated auxiliary engine exteriors. - The three propulsion units form one coherent rear architecture. - Do not use three simple circular engine nozzles. - Use layered armor, mechanical housings, and controlled geometric depth. -------------------------------------------------- 4. STRUCTURAL ARCHITECTURE -------------------------------------------------- Create separate logical objects for: A. CENTRAL CORE - Continuous armored central hull. - Multi-stage width expansion. - Precision faceted prow. - Layered armor regions. - Central visual focus. - Must remain identifiable after module replacement. B. RECESSED COCKPIT - Located at the geometric center of the central hull. - Deeply integrated into the hull. - Surrounded by protective armor. - Restrained optical glazing. - No detached transparent cockpit sphere. C. PORT FUNCTIONAL STRUCTURE - Independent armored functional side section. - Root integrated into central hull. - Outward and backward extension. - Layered hybrid geometry. - No fixed functional assignment at this stage. D. STARBOARD FUNCTIONAL STRUCTURE - Same architectural design language as port. - Its internal functional equipment does not need to be a perfect mirror of the port side. - No fixed functional assignment at this stage. E. PROPULSION EXTERIOR - One central main engine exterior. - Two auxiliary engine exteriors. - Integrated into the rear architecture. - Use layered mechanical and armored geometry. - Engine internals are outside this task. F. SECONDARY STRUCTURAL ELEMENTS - Armor layers. - Structural transitions. - Equipment housings. - Mechanical recesses. - Do not invent final mounting interfaces. G. SURFACE DETAILS - Only blockout-level panels, seams, recesses, and selected technology regions. - No excessive micro-detail. -------------------------------------------------- 5. GEOMETRY REQUIREMENTS -------------------------------------------------- Geometry style: Precision Faceted + Layered Hybrid Architecture. Primary shapes: - Angular hull masses - Faceted armor wedges - Layered armor shells - Compound side modules - Recessed cockpit geometry - Integrated engine housings Secondary shapes: - Mechanical recesses - Panel divisions - Equipment housings - Structural transitions Use: - Clean hard-surface geometry - Controlled bevels - Clear planar surfaces - Distinct structural depth - Layered armor transitions Do not use: - Random spikes - Decorative geometry without function - Excessive greebles - Smooth aircraft-like wings - Generic triangular fighter silhouettes - Unstructured mechanical clutter Complexity must come from meaningful architecture. -------------------------------------------------- 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 bounding region. Do not use the overall bounding box center if the central hull center is different. The central longitudinal axis is X = 0. The ship must face local -Z. Place port and starboard structures symmetrically as an initial silhouette baseline. Allow later asymmetric internal equipment. -------------------------------------------------- 7. PROCEDURAL MODELING REQUIREMENTS -------------------------------------------------- Use Blender Python API. Use BMesh where appropriate. Create a parameter-driven blockout system. Do not hardcode important dimensions throughout the script. Create a central parameter configuration section. Parameters must control: - Overall length and width - Central hull proportions - Forward taper - Multi-stage hull expansion - Side structure positions - Side structure proportions - Cockpit position and recess depth - Engine positions and exterior proportions - Armor layer thickness - Geometry complexity IMPORTANT: If actual dimensions have not been approved, use normalized relative parameters or clearly labeled temporary placeholders. Do not present placeholder values as approved dimensions. Use separate logical objects and collections. Suggested object naming: A_CentralCore A_RecessedCockpit A_PortFunctionalStructure A_StarboardFunctionalStructure A_MainEngineExterior A_PortAuxEngineExterior A_StarboardAuxEngineExterior A_SecondaryArmor A_EquipmentHousings A_SurfaceDetails Use consistent naming. The script must: - Be repeatable. - Avoid duplicate object creation. - Clean only objects belonging to this concept and script-generated namespace. - Validate critical parameters. - Rebuild generated geometry deterministically. - Update the dependency graph before reading evaluated geometry. - Avoid merging all components into one mesh. - Keep object transforms and local origins manageable. Do not create final production topology. -------------------------------------------------- 8. VISUAL REQUIREMENTS -------------------------------------------------- Material direction: - Light advanced alloy - Dark structural materials - Metallic mechanical surfaces - Advanced composite materials - Restrained optical glazing - Controlled emissive elements Use material placeholders only. Do not invent final color codes. Do not make emissive lighting the primary source of technological identity. The model must communicate advanced technology through structure, material, and architecture. -------------------------------------------------- 9. CURRENT MODULARITY CONSTRAINT -------------------------------------------------- Initial modularity direction: Functional Mounting Zones. The ship should visually support: - Replaceable propulsion components - Replaceable weapon components - Replaceable exploration equipment - Replaceable energy equipment - Replaceable armor components - Functional side-region replacement However: - Do not freeze interface dimensions. - Do not create final attachment standards. - Do not assume every visible structure is replaceable. - Preserve the identity of the central hull. - Keep replaceable regions logically separated. -------------------------------------------------- 10. CURRENT TASK LIMITS -------------------------------------------------- This is a silhouette and structural blockout task. Do NOT: - Build a complete high-detail ship. - Create final UVs. - Create final textures. - Create production-ready materials. - Define final weapon types or quantities. - Define final attachment interfaces. - Invent exact ship dimensions. - Redesign the ship. - Merge this concept with Concept C. -------------------------------------------------- 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 blockout representing the approved design direction. The final result must be suitable for visual silhouette evaluation and structural planning. Do not claim production readiness. You are giving my scripts for blender AND report your outputs