Composite Technologies

Composite technology that works on the production floor.

Nexsus Marine supports composite manufacturers, boatbuilders, shipyards, technology companies, and project owners with practical engineering that connects materials, tooling, process control, quality, schedule, and cost.

Cyan resin wetting out dry carbon fiber beneath a transparent vacuum bag
Controlled Wet-Out
Carbon Reinforcement
Vacuum Infusion
Live Process Visualization
Resin flow through reinforcement.
RESIN INLET VACUUM OUTLET
Dry reinforcementFlow frontControlled wet-out
Large marine composite hull mold prepared for vacuum infusion with bagging film, resin lines and flow media
Large-Scale Marine Tooling
Process Architecture
Production Engineering

Why vacuum infusion works for marine structures

Controlled resin flow and vacuum consolidation create lighter, cleaner, and more consistent composite structures for demanding marine applications.

Lower Structural Weight

Optimized fiber-to-resin ratios reduce unnecessary resin mass while maintaining structural performance.

Corrosion Resistance

Composite hulls and structures resist seawater corrosion and reduce dependence on protective coatings.

Efficiency and Range

Lower displacement can improve acceleration, fuel efficiency, payload capacity, and operating range.

High Structural Integrity

Vacuum pressure consolidates reinforcement and core materials into a strong, well-bonded laminate.

Complex Marine Geometry

Hull forms, decks, superstructures, and integrated details can be produced with fewer secondary joints.

Repeatable Production Quality

Defined vacuum, resin, temperature, and flow parameters improve consistency across production runs.

Composite engineering and manufacturing capabilities

Vacuum Infusion Engineering

Infusion architecture, resin-flow strategy, feed and vacuum-line planning, consumables, trials, monitoring, defect analysis, and process optimization.

Materials & Laminate Strategy

Fiber, resin, core, adhesive, laminate sequence, sandwich construction, weight targets, manufacturability, durability, and cost trade-offs.

Tooling & Process Design

Mold and tool concepts, demolding strategy, vacuum integrity, thermal behavior, production sequence, ergonomics, cycle time, and repeatability.

Production Engineering

Build strategy, station planning, work instructions, material control, workforce guidance, production readiness reviews, and supplier coordination.

Quality & Inspection Planning

Process checkpoints, acceptance criteria, traceability, vacuum records, cure records, defect classification, inspection strategy, and corrective actions.

Repair & Modification

Damage assessment, repair concepts, local reinforcement, structural modification, production instructions, and implementation support.

Vacuum infusion: designed, validated, and controlled.

Our work begins with the real part, laminate, tooling, workforce, facility, and production target. We then develop a process that can be understood, measured, repeated, and improved.

  • Part and laminate manufacturability review
  • Flow-media and permeability assumptions
  • Resin demand, gel-time, and temperature window
  • Feed-line and vacuum-line architecture
  • Leak-control and vacuum-integrity requirements
  • Trial plan, measurements, and acceptance criteria
  • Defect investigation and corrective-action support
  • Scale-up for repeat or serial production

Typical project deliverables

  • Process-development report
  • Infusion schematic and consumables plan
  • Material and laminate recommendations
  • Mold and tooling requirements
  • Manufacturing sequence and work instructions
  • Trial and validation plan
  • Quality-control and inspection plan
  • Defect and root-cause assessment
  • Production-readiness review
  • On-site or remote technical support

Need a more reliable composite process?

Bring us the part, process challenge, production target, or project requirement.