CARBON SUPERCOMPOSITE - Boston Materials · 2019-03-07 · How it Works: Z-Axis Milled Fiber...

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CARBON SUPERCOMPOSITE A Durable, Safe, and Unique Carbon Fiber Composite BOSTON MATERIALS

Transcript of CARBON SUPERCOMPOSITE - Boston Materials · 2019-03-07 · How it Works: Z-Axis Milled Fiber...

  • CARBON SUPERCOMPOSITE ™

    A Durable, Safe, and Unique Carbon Fiber Composite

    BOSTONMATERIALS

  • A New Dimension of PerformanceBoston Materials offers composite component manufacturers

    Carbon Supercomposite™, a drastically toughened carbon fiber

    composite with enhanced Z-axis properties that exhibits signs

    of plastic deformation before fracture.

    This material-level solution is made by applying a coating

    of Z-axis oriented, milled carbon fibers to standard

    carbon fiber fabrics, forming a 3D prepreg with dense

    interlaminar reinforcement. Boston Materials supplies Carbon

    Supercomposite™ as prepregs that are compatible with

    virtually all carbon fiber composite manufacturing methods.

    Performance by Design Carbon Supercomposite™ was created to overcome

    the shortcomings of traditional 2D composites with

    a patented fiber reinforcement that delivers highly

    differentiated functionality and performance.

    Durability with Stiffness

    This revolutionary material utilizes

    advanced methods to toughen

    composites without sacrificing

    strength or stiffness. Milled fiber

    reinforcement of the material’s

    Z-axis increases toughness by 300%

    and strength by 35% without any

    detriment to stiffness.

    Safety via Plastic Deformation

    With Carbon Supercomposite™, failure

    is preceded by signs of deformation

    due to delamination pinning.

    Unique Thermal and

    Electrical Properties

    Milled fibers increase the Z-axis

    thermal and electrical conductivities.

    This enables PAN-based carbon

    fiber composites to match the

    conductivity of more expensive

    pitch-based alternatives.

    300% Increase in Through-Thickness Thermal Conductivity

    Compressive Strength

    35% More Enhanced

    Traditional Carbon

    Fiber Compression

    Compressive

    Toughness

    300% More Enhanced

    2 Carbon Supercomposite™

  • How it Works: Z-Axis Milled Fiber Reinforcement

    Carbon Supercomposite™ is formed by coating a standard carbon fiber fabric with milled carbon fibers. The milled

    fibers are vertically oriented by using a proprietary process. These Z-axis milled fibers mechanically pin the layers

    of a laminated composite together, drastically increasing the interlaminar fracture toughness. This patented

    interlaminar toughening mechanism effectively distributes multi-axial loads throughout the entire composite.

    Compression

    The lack of toughness in

    carbon fiber laminates

    is exacerbated under

    compression where planar

    compressive forces manifest

    as a combination of Mode I

    and II loads. Reinforcing the

    interlaminar region with Z-axis

    milled fibers provides bulk

    toughness of over 12 MJ/m3.

    This demonstrates a 300%

    enhancement over current

    carbon fiber materials.

    3Carbon Supercomposite™

  • A Better Material for Your Applications

    Carbon Supercomposite™ brings new design

    improvements and performance benefits to

    your demanding materials applications.

    Sporting Goods:

    Protecting your users while elevating product performance is

    the ultimate goal. Carbon Supercomposite™ is a powerful tool

    that delivers a competitive edge with a new level of safety.

    Oil and Gas:

    Corrosive and abrasive environments make it challenging to deliver

    components that resist wear over a longer lifespan. Integrating Carbon

    Supercomposite™ in your products can provide a unique combination of

    compressive strength and wear resistance.

    Pressure Vessels:

    Higher energy density requirements for Type IV and V pressure

    vessels make repeatable production of durable carbon fiber

    composites a concern. Carbon Supercomposite™ allows you to

    simplify your designs and increase manufacturing productivity.

    Marine:

    Carbon Supercomposite™ withstands rolling and irregular

    forces, even under constant exposure to weather conditions.

    This makes it ideally suited for a wide range of marine

    applications from battens and hydrofoils to fins and rudders.

    Automotive:

    Safety is the top priority for crash structures and battery

    packs. The toughness of Carbon Supercomposite™ can

    enable lightweight designs that can take a hit.

    Wind Energy:

    The future is trending towards super-sized wind turbine blades

    to increase energy density and return on investment. Carbon

    Supercomposite™ can enable this trend by simplifying the layup

    process while providing tolerance to defects and damage.

    Aerospace:

    Durability of high-temperature, carbon composite (C-C)

    components like carbon seals is a critical safety issue for

    modern aircraft. Carbon Supercomposite™ can be used to

    produce tougher and more shock resistant C-C materials.

    Carbon Supercomposite™4

  • 5Carbon Supercomposite™

  • Carbon Supercomposite™ Vs. Traditional 2D Carbon Fiber

    Patented Three-Step Manufacturing Process

    Carbon Supercomposite™ utilizes

    an innovative, environmentally-

    responsible manufacturing process

    to provide new performance

    benefits while keeping costs low.

    STEP 1: FABRIC SELECTION

    Select any crimp or non-crimp fabric.

    STEP 2: Z-AXIS MILLED FIBER

    Add a coating of milled carbon

    fibers in vertical alignment.

    STEP 3: RESIN

    Apply customer preferred

    resin system.

    CARBON SUPERCOMPOSITE™

    + +X Y = XYZZ

    3

    SupercompositeTM

    bending point

    TRADITIONAL 2D CARBON FIBER

    + =X Y XY

    3

    Traditional breaking point

    6 Carbon Supercomposite™

  • Out-of-the-Box Compatibility Means Faster Time-to-Market Carbon Supercomposite™ is compatible with all layup,

    automated tape laying, and roll wrapping manufacturing

    methods. Prepregs are available with standard 250°F

    and 350°F cure epoxy resins; unique resins can be

    produced upon request. Prepregs rolls are currently

    available up to 12-inch wide and up to 50-yard lengths.

    Our Applications Team will work with you to quickly

    integrate Carbon Supercomposite™ into your

    established designs and production processes to

    decrease your technical risk and time-to-market.

    Take Your Application to the Next Generation of Performance Carbon Supercomposite™ by Boston Materials offers

    unique advantages and cost savings that makes you

    more competitive and strengthens your bottom line. To

    learn more about this technological advance in carbon

    fiber and how we can help you incorporate it into your

    durable, safer, and unique products – contact us.

    Carbon Supercomposite™ 7

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    P: (617)-227-2422 E: [email protected] W: bostonmaterials.co

    ©2019 Boston Materials, Inc.

    BOSTONMATERIALS