Frequently Asked Questions

Product Information

What does Element 6 Composites do?

Element 6 Composites is a custom carbon fiber engineering and manufacturing company based in Elbridge, New York. The company specializes in the design, analysis, prototyping, and production of custom carbon fiber composite parts and assemblies, serving industries such as aerospace, defense, medical, robotics, and more. All work is performed in the USA under ISO 9001:2015 quality management standards. Learn more.

What products and services does Element 6 Composites offer?

Element 6 Composites offers a full suite of carbon fiber engineering services, including design, analysis (such as finite element analysis), rapid prototyping, and full-scale manufacturing. The company also provides custom solutions for industries like unmanned systems, robotics, medical devices, and defense. See all services.

Where is Element 6 Composites located?

Element 6 Composites operates out of Elbridge, New York, USA. All engineering, prototyping, and manufacturing work is performed at this facility.

How long has Element 6 Composites been in business?

Element 6 Composites has over 35 years of experience in carbon fiber engineering and manufacturing, providing innovative solutions to a wide range of industries.

Is Element 6 Composites part of a larger organization?

Yes, Element 6 Composites is a subsidiary of Allred & Associates, Inc., which also produces carbon fiber components under the DragonPlate brand.

What is the primary purpose of Element 6 Composites' products?

The primary purpose is to optimize performance, reduce development costs, provide lightweight and durable materials, deliver custom solutions, and ensure quality assurance for industries requiring advanced carbon fiber components. Learn more.

What industries does Element 6 Composites serve?

Element 6 Composites serves aerospace, defense, medical devices, robotics and automation, industrial and commercial equipment, UAV and unmanned systems, prototype and development programs, and musical instruments. See industries.

What is the process for starting a project with Element 6 Composites?

Customers can start by contacting Element 6 Composites via phone or the contact page. The company offers a free design review—customers can upload drawings or requirements for a no-obligation review. Consultations are available to discuss design, prototyping, or manufacturing needs. Contact Element 6.

What technical documentation does Element 6 Composites provide?

Element 6 Composites offers material certifications, traceability records, and process documentation to support regulated applications and ensure compliance with industry standards. Customers should discuss documentation needs early in the project. For more information, call 315-252-2559.

What certifications does Element 6 Composites hold?

Element 6 Composites is ISO 9001:2015 certified, ensuring consistent, high-quality products and rigorous adherence to compliance protocols. View certification.

Features & Capabilities

What are the key features of Element 6 Composites' products?

Key features include advanced engineering tools (finite element analysis with NEiNastran), rapid prototyping, custom solutions for specialized applications, high-performance carbon fiber materials, and ISO 9001:2015 certified quality. Learn more.

How does Element 6 Composites ensure product performance?

Element 6 Composites uses advanced tools like finite element analysis (FEA) to optimize material placement, reduce weight, and ensure components meet or exceed performance requirements. The company also engineers materials for strength, durability, and impact resistance, and is ISO 9001:2015 certified. See performance highlights.

Does Element 6 Composites offer custom solutions?

Yes, Element 6 Composites specializes in custom carbon fiber solutions tailored to the unique requirements of industries such as aerospace, robotics, medical devices, and unmanned systems. Explore custom solutions.

What engineering tools does Element 6 Composites use?

Element 6 Composites utilizes advanced engineering tools, including finite element analysis (FEA) with NEiNastran, to optimize performance and reliability for demanding applications. Learn more about analysis services.

What makes Element 6 Composites' materials unique?

The carbon fiber composites used by Element 6 Composites offer unmatched strength-to-weight ratios, high stiffness, impact resistance, and durability, making them ideal for demanding and regulated industries. Learn about materials.

Does Element 6 Composites provide rapid prototyping?

Yes, rapid prototyping services are available to help customers test and refine designs quickly, reducing development time and costs while ensuring production-level quality. Discover prototyping services.

What quality assurance processes are in place?

Element 6 Composites operates under ISO 9001:2015 quality management standards, ensuring rigorous quality assurance, traceability, and continuous improvement throughout the engineering and manufacturing process. View certification.

Does Element 6 Composites support compliance for regulated industries?

Yes, Element 6 Composites supports compliance for regulated industries such as aerospace, medical devices, and defense. The company provides material certifications, traceability, process documentation, and can select flame-retardant resin systems for fire code compliance. Learn more.

What educational resources are available?

Element 6 Composites offers resources such as The Ultimate Guide to Carbon Fiber Design and Application to help customers understand and utilize carbon fiber materials effectively. Download the guide.

Pricing & Plans

How is pricing determined for Element 6 Composites projects?

Pricing is custom and based on factors such as part geometry, material selection, laminate schedule, tolerances, quantity, tooling requirements, finishing, secondary operations, and project timeline. Customers are encouraged to provide detailed requirements for accurate quotes. Request a quote.

Does Element 6 Composites offer free consultations or design reviews?

Yes, Element 6 Composites offers a free, no-obligation design review. Customers can upload drawings, sketches, or requirements to receive feedback and refine their project scope. Start your review.

What information is needed to get an accurate quote?

To provide an accurate quote, Element 6 Composites needs details on part geometry, material selection, laminate schedule, tolerances, quantity, tooling, finishing, secondary operations, and desired timeline. The more information provided, the more precise the quote. Submit your requirements.

Use Cases & Benefits

Who can benefit from Element 6 Composites' solutions?

Engineers, product designers, R&D specialists, and decision-makers in industries such as aerospace, defense, medical devices, robotics, industrial equipment, UAVs, and musical instruments can benefit from Element 6 Composites' tailored carbon fiber solutions. See use cases.

What business impact can customers expect from using Element 6 Composites?

Customers can expect optimized performance, cost savings through rapid prototyping, market differentiation with custom designs, lightweight and durable materials, long-term reliability, and enhanced innovation through educational resources. Learn more.

What problems does Element 6 Composites solve?

Element 6 Composites addresses complex engineering challenges, high prototyping costs, performance optimization, the need for lightweight and durable materials, custom solutions for specialized applications, and quality assurance for regulated industries. See solutions.

What are some real-world case studies of Element 6 Composites' solutions?

Case studies include developing a composite chassis for wall-climbing robots (International Climbing Machines), carbon fiber control vanes for UAVs (AAI Corporation), gondolas and tail fins for unmanned airships (Remote Aerial Tripod Specialists Inc.), and composite enclosures for marine defense systems (Frontier Electronic Systems). See case studies.

What industries are represented in Element 6 Composites' case studies?

Industries include the nuclear industry, aerospace, wind energy, robotics, defense, and industrial applications such as aerial photography and marine systems. Explore industries.

What are some of Element 6 Composites' notable customers?

Notable customers include International Climbing Machines, AAI Corporation, Remote Aerial Tripod Specialists Inc., and Frontier Electronic Systems. These clients represent diverse industries and applications. See customer stories.

How does Element 6 Composites help with performance optimization?

Element 6 Composites uses finite element analysis (FEA) and advanced engineering methodologies to ensure components meet and exceed performance requirements, minimizing risks and streamlining product development. Learn more.

What pain points does Element 6 Composites address for customers?

Element 6 Composites addresses pain points such as complex engineering challenges, high prototyping costs, the need for performance optimization, lightweight and durable materials, custom solutions for specialized applications, and the demand for quality assurance. See how we help.

Competition & Comparison

How does Element 6 Composites compare to other carbon fiber solution providers?

Element 6 Composites differentiates itself through advanced engineering tools (FEA with NEiNastran), rapid prototyping, custom solutions for specialized industries, high-performance materials, ISO 9001:2015 certification, and educational resources. These strengths make it a preferred choice for industries with demanding requirements. See differentiators.

Why choose Element 6 Composites over alternatives?

Customers choose Element 6 Composites for its ability to solve complex engineering challenges, reduce prototyping costs, optimize performance, provide lightweight and durable materials, deliver custom solutions, and ensure quality through ISO certification. Learn why.

What are the advantages of Element 6 Composites for different user segments?

Aerospace clients benefit from lightweight, durable materials; medical device companies gain biocompatible, radiolucent components; robotics firms achieve high stiffness-to-weight ratios; defense customers receive rugged, mission-critical enclosures; and industrial users get custom jigs and fixtures. See segment benefits.

How does Element 6 Composites support innovation?

Element 6 Composites fosters innovation through collaborative design, advanced simulation, rapid prototyping, and educational resources, helping customers push engineering boundaries and develop unique products. Learn more.

Support & Implementation

How long does it take to implement a project with Element 6 Composites?

Implementation timelines vary: a design review typically takes a few weeks, while a full design-prototype-production program can span several months depending on complexity and requirements. Contact for details.

How easy is it to start working with Element 6 Composites?

It is easy to get started—simply contact Element 6 Composites via phone or the website, submit your requirements, and take advantage of free design reviews and consultations. Start your project.

What support is available during the project?

Element 6 Composites provides technical support, design consultations, rapid prototyping, and access to educational materials throughout the project lifecycle to ensure successful outcomes. See support options.

How does Element 6 Composites handle security and compliance?

Element 6 Composites prioritizes security and compliance by operating under ISO 9001:2015 standards, providing material certifications, traceability, process documentation, and supporting application-specific compliance for regulated industries. Learn more.

Various Carbon Fiber Composite Fabrication Processes

There are multiple processes available for producing carbon fiber parts. Some processes, such as injection molding, are used with a range of materials, while some are more specific to carbon fiber composites. Which process you choose depends on the specific composite materials involved, details of part design, and the application. The available budget and production volume should also factor into the decision.

Most carbon fiber fabrication involves some type of molding to form the carbon fiber composite into the required shape needed for the final application. The processes for composite molding can vary in both tooling and complexity.

Fabrication Methods

Open Molding

Open molding is a common process often used for fiberglass composite fabrication. Open molding can be done with hand layup, or alternatively by spray-up, a semi-automated alternative. The spray-up process involves spraying catalyzed resin and fiber into the mold, by blowing chopped fibers directly into the sprayed resin stream, so that the materials are applied to the mold simultaneously. 

Hand Layup and Vacuum Bagging

Hand layup involves placing layers, or plies, of either dry carbon fiber fabric or prepreg sheets by hand onto a mold to form a laminate stack. Resin is applied between each ply for dry fabric and then the layers are debulked with hand rollers or by using a vacuum-bagging technique. Debulking consolidates the layup and removes air trapped between the layers which can cause voids and weaken the part.

Resin-Infused Carbon Fiber Fabrication

While steps are taken in the spray-up process to reduce VOCs, increasing regulations in the US and EU limiting worker exposure to hazardous air pollutants have created a need for improvement in this area. Additionally, the demand for faster production has driven the development of more automated carbon fiber fabrication processes. There are several types of resin-infused carbon fabrication processes available.

Resin-transfer molding (RTM) Involves using a two-part, matched closed mold, typically made of either metal or composite material. Dry reinforcement is placed into the mold and the mold is closed. Low-viscosity resin is measured and mixed, then pumped into the mold under low or moderate pressure through injection ports. 

Vacuum-assisted resin transfer molding (VARTM) involves drawing the resin into the mold using only a vacuum, as opposed to being pumped under pressure. Neither high pressure nor heat are needed for this carbon fiber fabrication process. Larger, more complex parts can be created less expensively this way due to the lower cost of the tooling needed for the VARTM process.

High-Volume Molding Methods

For high production quantities, a high-volume thermoset molding process called compression molding has often been used. This process typically uses expensive but durable metal tools. Sheet molding compound (SMC), a composite material typically made of chopped fibers sandwiched between sheets of thick resin paste, is placed on a set of steel dies. Once the SMC is ready for molding, it is assembled on a heated mold, which is then closed and clamped before high pressure is applied. As the viscosity of the material lowers, the SMC flows to fill the mold cavity.

Perhaps the most commonly known molding process, injection molding, is a quick, high-pressure, low-volume, closed process. It is most often used with thermoplastics, but automated injection molding of bulk molding compounds (BMC) has become more common over the decades. The BMC injection molding process involves a ram or screw-type plunger forcing a measured amount of material through a heated barrel to inject it into a heated closed mold.

There are a number of other high-volume molding methods for carbon fabrication that involve combinations of these two processes or other, similar processes. Some examples of other high-volume molding methods include tube rolling,  filament winding, pultrusion, automated fiber placement (AFP), and automated tape laying (ATL).

Additive Manufacturing

Additive manufacturing, or 3D printing, is an automated process that creates a 3D object from a series of 2D, cross-sectional layers. Additive manufacturing techniques always begin with computer-aided drafting (CAD) solid models. Proprietary software is then used to slice the model into thin 2D cross-sectional patterns which tell the 3D printer how to stack the 2D slices to create a physical 3D part.

3D printing makes use of a number of different materials these days, based on the specifications of the 3D printer being used. Additive manufacturing methods commonly used today are stereolithography (SLA), fused deposition modeling (FDM), selective laser sintering (SLS), digital light processing (DLP), and PolyJet printing. FDM is the method most commonly used for fiber-reinforced plastics, making it the best choice for carbon fiber fabrication. Regardless of the method used, 3D printing is a method usually reserved for prototype tooling, allowing a part to be quickly available for the evaluation of form, fit, and occasionally testing.

The best method for carbon fiber fabrication for your project depends heavily on the volume of parts to be fabricated, your budget, and what the final application for your parts will be. Some carbon fiber fabrication methods lend themselves to DIY, while others require hiring a professional carbon fiber fabricator. Knowing the variety of carbon fabrication methods available makes it easier to determine the best method for your application.

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