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Kirkco provides precision metering, mixing, and dispensing solutions designed specifically for composite manufacturing environments. Our systems support consistent, repeatable processing of epoxy, polyester, and other resin systems used in reinforced composite structures. From manual and semi-automated setups to fully integrated production cells, our equipment is engineered to maintain process control, material accuracy, and production reliability. These solutions are used across aerospace, automotive, energy, and industrial composite applications.
At KirkCo Corporation, we empower composite manufacturers with turnkey metering, mixing, and dispensing systems designed for demanding composite material processes, including filament winding, vacuum infusion, RTM, and hand lay-up applications. Our solutions combine precision control with rugged industrial reliability to ensure consistent, repeatable results for epoxy, polyester, and vinyl ester resin systems reinforced with glass, carbon, or Kevlar fibers.
High-precision resin metering and mixing for complex composites
Flexible systems for both low- and high-pressure applications
Scalable solutions for lab, pilot, and full production environments
Engineering Engagement
Ready to Engineer Your New System?
Kirkco supports confidential engineering engagements under NDA. Discuss your application requirements with our team and receive a system architecture tailored to your process.
Have a process challenge that cannot be solved with off-the-shelf equipment?
Dispense & Regulate
1K & 2K Systems
Kirkco engineered a Composite Application Systems Quality Framework to govern structural and surface-engineered composite manufacturing processes. This framework establishes system-level control, material integrity, press synchronization, and lifecycle scalability across advanced composite applications.
Composite applications include RTM, HP-RTM, infusion, SMC/BMC compression molding, and surface-engineered composites utilizing in-mold coating (IMC).
Composite systems require synchronized interaction between metering units, molds, presses, and temperature control systems.
PLC-based architectures coordinate dispense timing, ratio control, press signals, and interlocks.
The architecture supports pilot systems through full-scale production.
Kirkco supports composite manufacturers through confidential engineering engagement under NDA.
Kirkco engineered RTM and resin infusion composite system architectures for structural composite manufacturing environments requiring controlled resin delivery, consistent fiber wet-out, and repeatable structural performance. These architectures are designed to support precision composite production across industrial, transportation, and marine applications.
Composite manufacturers increasingly rely on RTM and infusion processes to achieve lightweight, high-strength structures with reduced void content and improved surface quality. Uncontrolled resin flow, inconsistent vacuum management, or improper cure sequencing directly impact structural integrity, cosmetic quality, and yield.
RTM and infusion processes require precise control of resin metering, injection pressure or vacuum level, flow front progression, and cure timing. The architecture must support epoxy, polyurethane, vinyl ester, and polyester resins while maintaining consistent impregnation across complex fiber geometries.
The system integrates precision resin metering units, controlled injection or infusion manifolds, vacuum management hardware, and application-specific tooling. Flow control devices, sensors, and valves are configured to manage resin distribution and prevent dry spots or resin-rich zones.
PLC-based and process-integrated control systems manage resin flow rates, pressure differentials, vacuum stability, and cure sequencing. Validation procedures confirm fiber wet-out quality, void fraction control, laminate consistency, and repeatable mechanical performance.
This application is governed by Kirkco’s Composite Application Systems Quality Framework, which standardizes resin processing control, validation methodology, and lifecycle scalability across structural composite systems.
Implementation improves laminate quality, reduces scrap, and supports consistent production outcomes across varying part sizes and resin systems.
The architecture supports scaling from prototype and pilot molds to multi-cavity or automated production cells, accommodating changes in resin chemistry, reinforcement architecture, and throughput requirements.
Kirkco supports composite manufacturers through confidential engineering engagement under NDA, architecting RTM and resin infusion systems aligned with structural requirements, production objectives, and long-term performance goals.
Kirkco engineered an In-Mold Coating (IMC) Quality Framework to govern surface-engineered composite processes.
IMC is a precision-dispensed coating process integrated into the molding cycle.
Control systems manage shot size, injection timing, and press interlocks.
Supports multiple presses and coating chemistries.
Kirkco supports IMC implementations under NDA.
This Application Architecture defines an IMC Coatec-based system for precision in-mold coating of composite components.
The IMC Coatec platform integrates precision metering, controlled shot delivery, and press communication.
PLC-based controls synchronize coating injection with press states.
Validation confirms coating thickness uniformity and adhesion.
Governed by Composite and IMC Quality Frameworks.
Kirkco provides IMC Coatec system architectures under NDA
Kirkco engineered structural composite panel bonding architectures for load-bearing assemblies where bond-line integrity, stiffness control, and long-term durability are critical. These systems support industrial, transportation, and infrastructure applications requiring repeatable structural performance across modular composite panels.
Manufacturers increasingly emphasize lightweight structures, modular construction, and vibration isolation without sacrificing strength or service life. Structural composite panel bonding enables efficient load transfer while minimizing mechanical fasteners, reducing stress concentrations, and improving fatigue resistance.
This architecture governs bonding of composite-to-composite and composite-to-metal panels used in elevator isolation units, industrial enclosures, transportation modules, and structural composite assemblies. Applications focus on structural bonding rather than cosmetic sealing or electronic encapsulation.
Structural panel bonding utilizes epoxy, polyurethane, and hybrid structural adhesives selected for modulus control, peel resistance, and fatigue performance. Bond-line thickness, surface preparation, and cure kinetics are engineered to ensure predictable load distribution and long-term reliability.
The system integrates precision metering and mixing, controlled adhesive dispensing, panel fixturing, and cure management. Dispense strategies are selected to maintain consistent bond geometry across large-format panels and multi-axis assemblies.
Process controls manage dispense rate, bead geometry, open time, and cure sequencing. Validation procedures confirm bond strength, stiffness targets, vibration response, and repeatable structural performance.
This application is governed by Kirkco’s Composite Application Systems Quality Framework, which standardizes structural composite processing, validation methodology, and lifecycle scalability.
Framework-driven implementations reduce rework, eliminate fastener-related failure modes, and deliver consistent structural behavior across production runs.
The architecture supports additional panel formats, higher production volumes, and evolving adhesive chemistries without redesign of the core bonding platform.
This architecture reflects multiple structural composite panel deployments executed under NDA. All descriptions remain manufacturer- and customer-agnostic while preserving industry-recognizable engineering language.
Kirkco supports manufacturers through confidential engineering engagement under NDA, architecting structural composite bonding systems aligned with load requirements, production objectives, and long-term performance goals.
