BRICK CARRIER – CVN-78 is approached as an engineered system rather than a decorative object.
This page outlines the fundamental engineering logic that governs structure, modularity, interfaces, and long-term feasibility across the entire project lifecycle.
System Architecture
At the chosen scale, the aircraft carrier must be treated as a system of systems.
Structural elements, internal volumes, surface layers, and functional zones are designed as interdependent components with clearly defined responsibilities and interfaces.
Engineering Perspective
Architecture precedes detail. Without a stable system architecture, no amount of detailing can compensate for structural weakness.
Modularity & Interfaces
The carrier is segmented into discrete modules to enable construction, transport, assembly, maintenance, and potential future modification.
Each module is designed around standardized interfaces, ensuring predictable load transfer and alignment across the full length of the structure.
- Defined module boundaries
- Standardized mechanical interfaces
- Alignment and tolerance control
- Replaceability without global disassembly
Module Design Rules
– No module relies on hidden friction
– Interfaces remain accessible
– Structural continuity is explicit, not implicit
Structural Logic & Load Paths
At several meters in length, structural behavior dominates the design.
Loads are guided through intentional load paths rather than distributed randomly through cosmetic connections.
Redundancy is introduced where failure would compromise large sections of the structure.
Key Structural Principle
Load paths must be visible, understandable, and verifiable at every stage of construction.
Layered Design Model
The carrier is developed in functional layers, each serving a distinct purpose while remaining structurally coupled to adjacent layers.
ayer overview:
- Primary substructure (load-bearing core)
- Internal volumes and spacing layers
- Flight deck structure
- Island and superstructure
Tolerances & Reality Management
Large-scale brick construction introduces cumulative tolerances that must be actively managed.
The engineering approach anticipates deviation, rather than assuming perfect alignment, and incorporates adjustment zones at defined intervals.
Engineering Reality
Precision is not the absence of deviation, but the controlled management of it.
Transport, Assembly & Serviceability
From the outset, the project accounts for real-world constraints beyond static display.
Modules are designed to be transported safely, assembled predictably, and serviced without irreversible disassembly.
- Handling points and lifting logic
- Reversible connections
- Access for inspection and repair
- Long-term storage conditions
Documentation as an Engineering Tool
Documentation is not treated as a by-product, but as a core engineering artifact.
Decisions, assumptions, revisions, and lessons learned are recorded to support traceability, transparency, and future refinement.
Engineering without documentation is opinion.
Engineering with documentation becomes knowledge.