It All Starts With Design
Aerodine supports composite design for customers developing high-performance parts, structures, and assemblies for demanding applications. Our team works closely with partners to refine concepts, improve efficiency, and ensure that composite designs are not only innovative but also practical to manufacture.
With experience across aerospace, defense, UAV, manned aircraft, motorsport, medical, and industrial programs, Aerodine helps customers evaluate each design with the realities of composite materials, tooling, manufacturing processes, inspection requirements, and production readiness in mind.
Our collaborative approach helps reduce development time, control costs, and support a smoother transition from early design to repeatable composite manufacturing.
Aerodine helps turn complex requirements into practical composite design strategies. We support customers developing lightweight, strong, and durable composite parts for applications where performance, weight, repeatability, and manufacturing control are critical.
For UAV composite structures, manned aircraft components, aerospace fairings, ducting, structural assemblies, and defense applications, composite design must account for more than part shape. It must consider material behavior, load paths, laminate structure, tooling requirements, cure method, assembly needs, and production scalability.
Composite design support for advanced applications
Lightweight structure and component development
Design strategies aligned with manufacturing requirements
Aerodine helps turn complex composite designs into manufacturable parts by addressing geometry, materials, tooling, and production processes early in the development cycle. By identifying potential challenges upfront, we reduce risk, improve consistency, and minimize costly redesigns later in the process. For aerospace, defense, UAV, manned aircraft, motorsport, medical, and industrial programs, design for manufacturability helps ensure that designs are evaluated with the realities of composite manufacturing, tooling, inspection, repeatability, and production scalability in mind.
Aerodine supports engineering feasibility and DFM evaluation to help customers understand whether a composite design can be manufactured efficiently, consistently, and at the required quality level. This process considers part complexity, material behavior, tooling approach, cure method, inspection requirements, and production goals. By evaluating these factors early, Aerodine helps customers reduce technical risk and improve production readiness before larger investments are made in tooling, materials, or full-rate production planning.
We provide CAD modeling for parts, tooling, and assemblies to support design, visualization, and production readiness. Our models are developed with both engineering precision and manufacturing practicality in mind, allowing for accurate simulations, clear communication between teams, and efficient tooling development. For composite parts, CAD modeling can support tooling surfaces, trim lines, assembly interfaces, bond areas, fixture planning, and controlled release to production.
Aerodine develops laminate schedules to balance strength, weight, durability, and manufacturability. By carefully selecting fiber orientations, material types, and layer configurations, we tailor each design to meet specific performance requirements. Laminate optimization is especially important for aerospace composite structures, UAV composite structures, manned aircraft components, and defense applications where strength-to-weight performance, repeatability, and production control are critical.
We use finite element analysis (FEA) to evaluate structural performance, identify potential failure points, and refine designs before production begins. This advanced simulation capability allows us to test how components will behave under real-world conditions, reducing uncertainty and improving reliability. For composite structures, FEA can help support design decisions for load paths, stiffness, deflection, laminate behavior, and structural performance in demanding aerospace, UAV, defense, motorsport, and industrial environments.
Aerodine helps select the right materials based on performance requirements, environmental conditions, and production considerations. We work with a wide range of fibers, resins, and core systems, carefully evaluating each option to ensure optimal strength, durability, and cost efficiency. Our expertise ensures that materials are well-matched to both the application and the manufacturing process. Material selection may include aerospace prepreg composites, carbon fiber epoxy systems, high-temperature composite materials, cyanate ester composites, BMI, phenolics, ceramic matrix composites, foam core, honeycomb core, and other advanced composite materials.
3D printing supports faster development by enabling early design review, fit checks, and concept validation. By producing physical models quickly, teams can better visualize designs, identify potential issues, and make informed decisions before committing to tooling. For composite design programs, 3D printed models can also support tooling visualization, assembly planning, fixture review, and early evaluation of complex composite geometry before a design moves into production.
Aerodine’s composite design process helps customers move from early development toward repeatable composite production. By reviewing manufacturability, tooling strategy, material selection, inspection points, and production requirements early, we help create a stronger path from prototype to LRIP and full-rate production. This is especially important for aerospace, defense, UAV, and manned aircraft programs where composite part traceability, configuration control, repeatability, and production scalability matter. This is especially important for aerospace, UAV, manned aircraft, and defense composite structures where production rate, process control, and consistent output matter.
At Aerodine Composites, we understand that great parts begin with great composite design. Whether you are pushing the limits of speed, flight, endurance, or aerospace production, your composite design partner should be as reliable and forward-thinking as your engineering team.
Let’s build tools that push boundaries together.
Composite design is the process of developing parts, structures, and assemblies using composite materials such as carbon fiber, fiberglass, aramid materials, prepregs, resins, and core systems. It considers performance, weight, strength, durability, geometry, manufacturability, and production requirements.
Composite design is important because material choice, fiber orientation, laminate structure, tooling, and manufacturing process all affect the final part. Good composite design helps improve performance while reducing production risk.
Yes. Aerodine supports composite design for UAV composite structures, manned aircraft composite structures, aerospace fairings, ducting, airframes, structural assemblies, and other advanced composite components.
Design for Manufacturability, or DFM, is the process of designing parts so they can be manufactured efficiently, consistently, and at the required quality level. For composite parts, this includes reviewing geometry, materials, tooling, laminate schedules, and production processes early in development.
DFM is important because composite design decisions directly affect manufacturability, tooling, inspection, repeatability, and production cost. Early DFM review helps reduce redesigns and supports a smoother development-to-production transition.
CAD modeling helps define part geometry, tooling surfaces, assemblies, interfaces, trim lines, and production details. It allows engineering and manufacturing teams to review a design clearly before the part is built.
Laminate optimization is the process of refining fiber orientation, material selection, ply count, and layer construction to achieve the right balance of strength, weight, durability, and manufacturability.
FEA, or finite element analysis, helps evaluate how a composite part may perform under real-world loads and conditions. It can identify stress points, support design improvements, and reduce uncertainty before production begins.
The right material choice affects strength, weight, durability, processing requirements, cost, and repeatability. Aerodine helps select materials that support both performance goals and practical production needs.
Composite design supports the development-to-production transition by addressing geometry, materials, laminate structure, tooling, inspection, and manufacturing requirements early. This helps create a stronger path from prototype development to repeatable composite manufacturing.