Our Workflow

We mitigate technical and financial risks by utilizing a strict, three-stage engineering loop. Our workflow guarantees that every concept is backed by naval physics and international regulations before it is handed over to production or basic engineering teams.

Phase 1: CONCEPT Framework

Objective: Establishing the Technical & Structural DNA

Our process begins by transforming operational requirements into a solid, compliant architectural blueprint. We eliminate spatial and regulatory errors at the earliest stage possible.

Data Synthesis: We extract and freeze the vessel's primary parameters - target speed, deadweight capacity, and cruising range - aligning them with the intended environmental criteria.
Dimensional Optimization: Using parametric optimization tools, we define the baseline hull dimensions and volumetric limits to ensure a mathematically sound buoyancy-to-resistance ratio.
Spatial & Ergonomic Zoning: We generate CAD-standard 2D layouts focused on strict watertight subdivision, proper equipment placement, structural clearance, and crew/passenger safety.
System Readiness: Preliminary verification of engine room volumes and propulsion layout requirements to ensure alignment with major manufacturer specifications.

Phase 2: MODELLING & Simulation

Objective: Creating the Hydrodynamic & Mass Digital Twin

Once the layout framework is frozen, we transition the 2D logic into a high-fidelity 3D environment to scientifically validate the vessel's efficiency.

Class-A Surface Generation: We construct mathematically clean 3D hull surfaces optimized strictly for fluid flow efficiency, dynamic lift, and minimal wave-making resistance.
Digital Mass: We build a comprehensive digital weight model, mapping the exact coordinates of the Center of Gravity (LCG, VCG, TCG) to ensure it strictly aligns with the Center of Buoyancy (LCB).
Virtual Fluid Dynamics: The 3D twin is subjected to advanced Computational Fluid Dynamics (CFD) simulations to analyze running trim, dynamic sinkage, and viscous drag across the entire speed spectrum.
Power & Performance Mapping: Compilation of definitive speed-to-power curves, validating that the chosen machinery can safely and efficiently achieve the design targets.

Phase 3: COMPLIANCE & Engineering Handover

Objective: Verification, Documentation & Total Project Readiness

The final phase translates the validated digital twin into the strict, standardized documentation required for regulatory approval and an immediate start of the basic design engineering phase.

Standardized Documentation: We generate the official technical 2D drawing packages (Lines Plans, Tank Plans, Safety Profiles, etc.) required by maritime authorities.
Hydrostatic Stability Solvers: We run rigorous simulation scenarios for various operational load cases to generate certified Intact and Damaged Stability booklets.
Data Packaging: All validated surfaces, weight matrices, and drawings are compiled into an error-free, industry-standard package, ensuring a seamless start for Basic and Detail Design teams.

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