What Companies Are at CAMX 2026?

Hexcel develops carbon fibers, prepregs, honeycomb, adhesives, and engineered composite materials used across aerospace, defense, space, automotive, wind energy, and industrial applications.

Its materials combine high strength with low weight, making Hexcel relevant wherever manufacturers are replacing conventional metallic structures with high-performance composites.

The company sits across several layers of the composite-material stack, from reinforcement fibers to finished prepreg systems.

NanoXplore develops graphene and graphene-enhanced material technologies.

Its products can be incorporated into polymers and composites to improve conductivity, mechanical performance, and other functional properties.

NanoXplore represents an emerging part of the composites market where nanomaterials are used to add functionality beyond conventional reinforcement alone.

Park Aerospace develops advanced composite materials used in aerospace structures.

Its portfolio includes prepreg and related material systems engineered for applications where weight, structural performance, temperature resistance, and manufacturing consistency are critical.

The company connects high-performance resin and reinforcement systems directly with aerospace composite production.

Albany Engineered Composites develops advanced composite components and engineered structures, particularly for aerospace applications.

The company specializes in technologies including 3D-woven reinforcement that can create complex lightweight structures with improved load paths and reduced assembly requirements.

Its work illustrates how composites are moving beyond conventional flat laminates into highly engineered structural architectures.

Axiom Materials develops prepreg and advanced composite material systems.

Its materials are used across aerospace, automotive, motorsport, industrial, and other markets where manufacturers need lightweight structures with tightly controlled mechanical and thermal properties.

Prepreg systems provide controlled fiber-to-resin ratios and repeatable material handling, helping manufacturers achieve more consistent composite performance.

China Jushi manufactures fiberglass and reinforcement materials.

Glass fiber remains one of the largest reinforcement categories in composites because it combines mechanical strength, corrosion resistance, manufacturability, and relatively economical production.

Its materials support applications across transportation, infrastructure, wind energy, construction, and industrial manufacturing.

James Cropper operates in advanced fiber and material technologies through James Cropper Advanced Materials.

At CAMX 2026, the company is showcasing UNIMAT, its aligned recycled carbon-fiber reinforcement platform.

The technology addresses a major industry challenge: recovering valuable carbon fiber and returning it to useful structural applications rather than treating composite waste as a dead end.

Magnolia Advanced Materials formulates high-performance epoxy systems for composite manufacturing.

Its products include adhesives, resin technologies, and prepreg systems used across aerospace, defense, industrial, and other demanding applications.

Resin chemistry directly influences cure behavior, mechanical performance, durability, service temperature, and the conditions under which a composite component can be manufactured.

Nouryon develops specialty chemicals used across polymer and composite manufacturing.

Its portfolio includes initiators and additives used to control polymerization, curing, and material performance.

These chemistries may sit upstream from the finished composite part, but they have a direct influence on process speed, resin behavior, and final material properties.

United Initiators produces specialty initiators for polymer and resin manufacturing.

Initiators trigger the chemical reactions that allow resin systems to cure and form their final polymer structure.

For composite manufacturers, the right cure chemistry influences cycle time, production consistency, and the properties of the finished component.

AOC Formulations develops resin systems used across composite manufacturing.

Resin systems bind reinforcement fibers together and transfer loads across a composite structure.

Their chemistry affects processing behavior, mechanical strength, corrosion resistance, thermal performance, and the environments in which a finished component can operate.

Westlake Epoxy develops epoxy-resin technology used in composites, adhesives, coatings, and industrial applications.

Epoxy systems are widely used in structural composites because of their adhesion, strength, dimensional stability, and performance across demanding environments.

The company represents the resin layer of composite production alongside reinforcement, tooling, and manufacturing-equipment providers.

Engineered Bonding Solutions develops structural adhesive technology under the Acralock brand.

Structural adhesives allow composite components to be joined without relying entirely on bolts, rivets, or other mechanical fasteners.

This can reduce weight, distribute loads more evenly, simplify assembly, and preserve the integrity of lightweight composite structures.

Diab develops structural core materials for sandwich composites.

Core materials are placed between composite skins to increase stiffness without adding the weight associated with solid structures.

These sandwich systems are widely used in marine, wind energy, transportation, aerospace, and industrial applications where stiffness-to-weight ratio matters.

METYX Composites manufactures reinforcement fabrics and other composite materials.

Its products support applications across wind energy, marine, transportation, infrastructure, and industrial manufacturing.

Reinforcement architecture affects how loads move through a component, how easily material conforms to a mold, and how efficiently the finished part can be produced.

Ensinger develops engineering plastics and composite materials.

Its portfolio includes high-performance thermoplastics used in applications requiring mechanical strength, chemical resistance, dimensional stability, and elevated-temperature performance.

Thermoplastic composites are receiving growing attention because they can offer shorter processing cycles and new recycling possibilities compared with some traditional thermoset systems.

Blueshift Materials develops lightweight polymer aerogel materials.

Aerogels can provide high levels of thermal protection and insulation while maintaining very low density.

That makes them relevant to aerospace, space, battery systems, thermal management, and other applications where reducing both weight and heat transfer matters.

PPG develops coatings and specialty materials across aerospace, automotive, industrial, and other markets.

For composite components, coatings can provide surface protection, appearance, environmental resistance, and additional functional properties.

The company connects the structural composite with the surface system needed for real-world service conditions.

Kynol develops high-performance phenolic fibers.

The materials are designed for applications requiring properties such as flame resistance and thermal stability.

Specialty fibers extend composite design beyond standard carbon and glass systems into applications with highly specific environmental or fire-performance requirements.

TOYOBO MC Corporation develops high-performance functional materials for industrial and advanced-material applications.

Its technologies support applications requiring combinations of strength, chemical resistance, thermal performance, and specialized functionality.

The company sits within the broader materials layer that allows composites to be engineered for specific operating environments.

Weber Manufacturing Technologies develops molds and tooling for composite and advanced manufacturing.

Tool quality directly affects geometry, surface finish, dimensional repeatability, and production consistency.

For complex composite structures, high-quality tooling is essential to moving from a successful prototype to repeatable production.

RapidWings develops composite tooling using large-format additive manufacturing.

The approach can reduce the time required to move from a digital tool design to a physical production mold.

For manufacturers producing prototypes, low-volume components, or rapidly changing designs, faster tooling can remove one of the largest lead-time constraints in composite manufacturing.

Thermwood develops large-scale additive manufacturing systems and CNC equipment.

Its technology can print large composite tooling structures before machining them to their final geometry and surface finish.

This combines the speed and material efficiency of additive manufacturing with the accuracy of CNC finishing, making it particularly useful for large molds and production tools.

Roctool develops induction-heating technology for composite and plastic molding.

Its systems rapidly heat and control mold surfaces during production.

Better thermal control can reduce cycle times, improve material flow, enhance surface quality, and give manufacturers more precise control over the molding process.

C.A. Litzler develops industrial ovens, dryers, and thermal-processing systems.

Composite manufacturing often depends on tightly controlled heating during coating, impregnation, drying, and curing.

Litzler provides the thermal infrastructure required to make those processes repeatable at industrial scale.

French Oil Mill Machinery Company develops hydraulic presses used in composite molding and curing.

These systems apply controlled temperature and pressure to form composite materials into finished structures.

Press design directly affects process repeatability, cycle time, part quality, and the size of components manufacturers can produce.

Cannon Group develops equipment for composites, polyurethane, and industrial manufacturing.

Its technologies support mixing, dosing, molding, and automated production processes.

The company operates in the manufacturing layer that converts raw chemistry and reinforcement materials into repeatable finished parts.

Teubert develops machinery used in polymer and composite processing.

Its equipment helps manufacturers turn advanced material systems into repeatable components.

Production machinery becomes increasingly important as composite manufacturing moves from highly manual processes toward scalable industrial production.

Thermal Equipment Corporation develops thermal-processing systems used in advanced manufacturing.

Autoclaves remain important for high-performance aerospace composites because they allow precise control of heat and pressure during cure.

That control helps manufacturers achieve consistent consolidation, lower void content, and tightly controlled structural properties.

Wisconsin Oven Corporation develops industrial ovens and thermal-processing equipment.

Composite manufacturers use controlled heating for curing, drying, post-curing, and other material-processing steps.

Consistent thermal conditions help maintain repeatable material performance from one production run to the next.

THINKY develops planetary mixing and deaeration equipment.

Its systems can mix resins, adhesives, fillers, and other materials while removing trapped air.

Reliable mixing is important because poor dispersion or entrapped air can introduce defects before the material even reaches the mold.

Virtek Vision develops laser-projection and digital manufacturing-assistance systems.

In composite layup, laser projection can show operators exactly where plies and materials should be positioned on a tool.

This reduces reliance on physical templates while improving accuracy, repeatability, and production speed.

Loop Technology develops industrial automation systems for advanced manufacturing.

Its technology can automate tasks including material handling, composite layup, inspection, and other repetitive production processes.

Automation is increasingly important as composite manufacturers try to increase output without scaling skilled manual labor at the same rate.

Weihai Gernuman Automation develops automation technology for manufacturing environments.

Its systems help reduce repetitive manual handling while improving production consistency.

For composite manufacturers, automation creates a path to scaling processes that have historically relied heavily on skilled technicians.

Luna Innovations develops fiber-optic sensing technology.

Its systems can measure strain, temperature, and structural behavior across composite components and structures.

Advanced sensing gives engineers more detailed information about how lightweight structures perform during testing and real-world use.

Thermal Wave Imaging develops thermography-based nondestructive inspection technology.

Its systems use thermal responses to identify defects beneath the surface of composite components.

This is especially valuable because delamination, voids, and bonding defects may exist internally without being visible from the outside.

XARION Laser Acoustics develops laser-based acoustic sensing and inspection technology.

Its systems enable non-contact ultrasonic measurement, reducing the need to physically couple conventional transducers to the component.

Non-contact inspection can be useful for complex geometries, delicate surfaces, and automated composite inspection.

Element Materials Technology provides testing, inspection, qualification, and certification services.

Composite materials often require mechanical, thermal, environmental, and structural testing before they can be approved for demanding applications.

Element helps manufacturers establish whether materials and components meet the performance requirements defined by engineering programs and industry standards.

ZwickRoell develops mechanical testing systems for materials and components.

Its equipment measures properties including tensile strength, compression, flexural performance, fatigue, and fracture behavior.

These measurements provide the engineering data required to compare composite systems and validate finished structures.

Trilion Quality Systems provides optical measurement and digital image correlation technology.

Its systems measure strain and deformation across components while they are being tested.

For composites, full-field measurement can show exactly where a structure begins to deform or fail instead of relying on data from only a few individual sensors.

Tinius Olsen develops materials-testing equipment.

Its systems support tensile, compression, impact, hardness, and other mechanical-testing requirements.

Reliable mechanical data is essential for comparing resin, reinforcement, laminate, and finished-component performance.

Abrasive Technology develops superabrasive cutting and machining tools.

Composite parts can be difficult to drill, trim, and machine because reinforcement fibers are abrasive and laminate structures can delaminate.

Specialized tooling helps manufacturers create clean edges and accurate holes while improving tool life and reducing damage to the component.

YG-1 develops precision cutting tools used across industrial manufacturing.

Composite components often require drilling, routing, trimming, and secondary machining after molding.

Tool geometry and cutting conditions have a major effect on edge quality, heat generation, fiber pullout, and delamination.

Alum-a-Lift develops ergonomic material-handling equipment.

Composite manufacturing often involves heavy rolls, molds, tools, and large components that need to be positioned precisely.

Handling equipment can improve production flow while reducing worker strain and the risk of material damage.

Advanced Composite Materials

Materials form the foundation of CAMX.

Hexcel, China Jushi, Axiom Materials, Park Aerospace, METYX Composites, APCM, Renegade Materials, Diab, and other companies operate across fibers, prepregs, core materials, and reinforcement systems.

These technologies determine how lightweight composite structures perform under mechanical, thermal, chemical, and environmental loads.

Composite Manufacturing

CAMX also focuses heavily on how advanced materials become finished components.

Cannon Group, French Oil Mill Machinery, C.A. Litzler, Thermal Equipment Corporation, Teubert, Thermwood, Roctool, and other equipment companies address molding, curing, heating, machining, and production.

The industry is increasingly focused not only on material performance but also on manufacturing composites faster, more consistently, and at greater scale.

Automation

Composite production has historically relied heavily on skilled manual labor.

Companies including Virtek Vision, Loop Technology, Weihai Gernuman Automation, and other automation suppliers are changing that.

Laser-guided layup, automated material handling, robotics, digital work instructions, and production automation help manufacturers increase repeatability while reducing dependence on purely manual processes.

Tooling

Tooling remains one of the most important parts of composite manufacturing.

Weber Manufacturing Technologies, RapidWings, Thermwood, and Lanulfi Moulds represent both conventional and newer tooling approaches.

Large-format additive manufacturing is particularly important because it can significantly shorten the time required to produce large molds and production tools.

Testing and Inspection

Composite structures require specialized quality control because defects can occur below the surface.

Element Materials Technology, Thermal Wave Imaging, XARION Laser Acoustics, Trilion Quality Systems, Tinius Olsen, and ZwickRoell operate across material characterization, nondestructive inspection, structural measurement, and mechanical testing.

These technologies help manufacturers understand both how a material was produced and how it will perform.

Aerospace and Lightweight Structures

Aerospace remains one of the most technically demanding markets for composites.

Hexcel, Albany Engineered Composites, Park Aerospace, GracoRoberts, Silmid, Sky Mart, and other companies serve applications where reducing weight while maintaining structural performance has significant value.

The technologies developed for aerospace also influence defense, automotive, space, energy, industrial, and transportation applications.

Sustainable Composites

Sustainability is becoming a larger challenge for the composites industry.

James Cropper's recycled carbon-fiber technology represents one approach to putting high-value reinforcement back into useful material systems.

Thermoplastic composites, recycled reinforcement, lower-energy production processes, and new material chemistries are expanding the industry's options.

The focus is moving from simply creating lighter components toward considering how composite materials are manufactured, used, recovered, and reused.

What companies are at CAMX 2026?

Companies at CAMX 2026 include Hexcel, NanoXplore, China Jushi, Albany Engineered Composites, Axiom Materials, Magnolia Advanced Materials, Nouryon, PPG, Park Aerospace, James Cropper, Diab, Ensinger, METYX Composites, Thermwood, Roctool, Virtek Vision, Element Materials Technology, Westlake Epoxy, Blueshift Materials, TOYOBO MC Corporation, and many other composites and advanced materials companies.

When is CAMX 2026?

The CAMX 2026 conference takes place September 21–24, 2026. The exhibition runs September 22–24, 2026.

Where is CAMX 2026?

CAMX 2026 takes place at Georgia World Congress Center, Building C in Atlanta, Georgia.

What does CAMX stand for?

CAMX stands for The Composites and Advanced Materials Expo. It brings together manufacturers, engineers, researchers, material suppliers, equipment companies, fabricators, and technology providers working across composites and advanced materials.

What composite material companies are at CAMX 2026?

Composite material companies at CAMX 2026 include Hexcel, China Jushi, Axiom Materials, APCM, METYX Composites, Park Aerospace, Renegade Materials, Fiberglass Coatings, Pacific Coast Composites, Diab, Ensinger, James Cropper, and NanoXplore.

Which prepreg companies are at CAMX 2026?

Prepreg companies at CAMX 2026 include Axiom Materials, APCM, Park Aerospace, and Renegade Materials Corporation. Their material systems combine reinforcement fibers with pre-impregnated resin, giving composite manufacturers tighter control over resin content, material handling, cure behavior, and structural performance.

What carbon fiber and fiberglass companies are at CAMX 2026?

Companies working across carbon fiber, fiberglass, and reinforcement technologies include Hexcel, China Jushi, METYX Composites, James Cropper, Kynol, and Albany Engineered Composites. Their technologies span carbon fiber, glass fiber, reinforcement fabrics, recycled carbon fiber, high-performance fibers, and engineered composite structures.

What resin and epoxy companies are at CAMX 2026?

Resin, epoxy, and chemical companies include Magnolia Advanced Materials, AOC Formulations, Westlake Epoxy, Resin Formulators, Nouryon, United Initiators, TRiiSO, and Techstorm Advanced Material. These companies provide resin systems, cure chemistry, additives, and other materials used to manufacture composite components.

Which composite core material companies are at CAMX 2026?

Diab Group is a core-material company at CAMX 2026. Diab develops structural core materials used between composite skins to create lightweight sandwich structures with high stiffness. Core materials are widely used across aerospace, marine, wind-energy, transportation, and industrial composite applications.

What composite tooling companies are at CAMX 2026?

Composite tooling companies include Weber Manufacturing Technologies, RapidWings, Thermwood, and Lanulfi Moulds. Their technologies range from conventional production molds to large-format additively manufactured tooling.

What composite manufacturing equipment companies are at CAMX 2026?

Manufacturing-equipment companies include C.A. Litzler, French Oil Mill Machinery Company, Cannon Group, Thermal Equipment Corporation, Thermwood, Teubert Maschinenbau, Wisconsin Oven Corporation, Xiamen Taitian Machinery Technology Group, and Williams, White & Company. Their equipment supports molding, curing, heating, pressing, machining, mixing, and other composite-production processes.

What automation companies are at CAMX 2026?

Automation companies at CAMX 2026 include Virtek Vision, Loop Technology, Weihai Gernuman Automation, and other advanced manufacturing technology providers. Their technologies help automate material positioning, composite layup, handling, inspection, and other production processes.

What composite testing companies are at CAMX 2026?

Testing and inspection companies include Element Materials Technology, ZwickRoell, Tinius Olsen, Trilion Quality Systems, Thermal Wave Imaging, XARION Laser Acoustics, and Luna Innovations. Their technologies cover mechanical testing, structural measurement, nondestructive inspection, fiber-optic sensing, optical measurement, and material characterization.

What aerospace composite companies are at CAMX 2026?

Aerospace-focused companies include Hexcel, Albany Engineered Composites, Park Aerospace, Axiom Materials, GracoRoberts, Silmid, Sky Mart, and other advanced-material suppliers. Their technologies support lightweight structures, high-performance prepregs, adhesives, composite components, aerospace chemicals, and manufacturing.

What technologies are showcased at CAMX 2026?

CAMX 2026 showcases carbon fiber, fiberglass, prepregs, resin systems, structural adhesives, core materials, composite tooling, molding equipment, curing technology, industrial ovens, additive manufacturing, automation, machining, materials testing, nondestructive inspection, coatings, sensing, and advanced manufacturing technologies.

Who attends CAMX?

CAMX brings together engineers, scientists, manufacturers, fabricators, researchers, technicians, material suppliers, equipment manufacturers, business leaders, and decision-makers working across composites and advanced materials.

What industries attend CAMX?

CAMX serves industries including aerospace, defense, automotive, transportation, wind energy, infrastructure, marine, industrial manufacturing, construction, space, and advanced manufacturing.

Why should sales teams track companies at CAMX?

Participation in CAMX is a useful signal of which companies are actively engaging with the composites and advanced materials market. Exhibiting, sponsoring, launching materials, demonstrating manufacturing technology, and presenting technical work create useful signals around product priorities, target industries, partnerships, manufacturing investment, and commercial expansion. For sales teams targeting advanced materials, aerospace, industrial manufacturing, chemicals, automation, testing, engineering, and manufacturing technology, these signals can help identify relevant accounts while they are actively engaging with the market.