https://www.avient.com/knowledge-base/article/pultruded-composites-design-and-material-engineers-guide
Here, continuous fibers, such as glass or carbon, are pulled through a thermoset resin bath, such as epoxy, polyester, or vinyl ester, and then formed into a desired shape using a die.
Carbon fiber pultrusions are exceptionally lighter than metal and other materials.
Medical: brace stiffeners and endoscopic dissectors rods.
https://www.avient.com/products/fiber-line-engineered-fiber-solutions/high-performance-synthetic-fibers/novoloid-phenolic-fiber
Novoloid fibers are composed of 76% carbon, 18% oxygen, and 6% hydrogen.
Novoloid can also be used as a precursor to carbon fiber.
Fiber-Line Fiber Selection Guide
https://www.avient.com/resource-center?document_subtype=0&document_type=59&form_id=resource_filter_form&industry=0&op=FILTER RESULTS&product_family=0&product_name=0&page=28
Complēt™ long carbon fiber reinforced nylon composite replaced aluminum to provide better fatigue resistance and reduce weight
Complēt™ long carbon fiber reinforced nylon composite replaced metal steering column supports and lowered weight by 50%
Complēt™ long carbon fiber reinforced PES composite reduced weight 40% and met FAA requirements for flammability and survivability
https://www.avient.com/resource-center?document_type=59&page=28
Complēt™ long carbon fiber reinforced nylon composite replaced aluminum to provide better fatigue resistance and reduce weight
Complēt™ long carbon fiber reinforced nylon composite replaced metal steering column supports and lowered weight by 50%
Complēt™ long carbon fiber reinforced PES composite reduced weight 40% and met FAA requirements for flammability and survivability
https://www.avient.com/knowledge-base/case-study/lighten-structural-performance-gets-upgrade?sust[]=1165
To meet the underbody brace requirements, Avient’s Glasforms™ technologies were recommended to produce continuous fiber-reinforced braces.
The automated pultrusion process fabricates continuous glass or carbon fiber-reinforced, constant cross-section profiles with consistent, uniform properties.
For the brace, Avient's engineering team developed and analyzed three options: a unidirectional, hybrid carbon and glass fiber profile; a unidirectional carbon fiber profile; and finally, a profile made with both a unidirectional carbon fiber and a transverse engineered fabric, which had the advantage of minimizing any potential cracks from propagating.
https://www.avient.com/knowledge-base/case-study/lighten-structural-performance-gets-upgrade?psfam[]=10863
To meet the underbody brace requirements, Avient’s Glasforms™ technologies were recommended to produce continuous fiber-reinforced braces.
The automated pultrusion process fabricates continuous glass or carbon fiber-reinforced, constant cross-section profiles with consistent, uniform properties.
For the brace, Avient's engineering team developed and analyzed three options: a unidirectional, hybrid carbon and glass fiber profile; a unidirectional carbon fiber profile; and finally, a profile made with both a unidirectional carbon fiber and a transverse engineered fabric, which had the advantage of minimizing any potential cracks from propagating.
https://www.avient.com/knowledge-base/case-study/lighten-structural-performance-gets-upgrade?ind[]=6601
To meet the underbody brace requirements, Avient’s Glasforms™ technologies were recommended to produce continuous fiber-reinforced braces.
The automated pultrusion process fabricates continuous glass or carbon fiber-reinforced, constant cross-section profiles with consistent, uniform properties.
For the brace, Avient's engineering team developed and analyzed three options: a unidirectional, hybrid carbon and glass fiber profile; a unidirectional carbon fiber profile; and finally, a profile made with both a unidirectional carbon fiber and a transverse engineered fabric, which had the advantage of minimizing any potential cracks from propagating.
https://www.avient.com/resource-center?document_subtype=0&document_type=59&form_id=resource_filter_form&industry=0&op=FILTER RESULTS&product_family=0&product_name=0&page=31
Complēt™ long carbon fiber reinforced composites allows deployment of injection molded material solution for design flexibility and customization
Complēt™ long carbon fiber reinforced ETPU composite reduced weight 33% and performance analysis services confirmed metal-to-thermoplastic conversion success
Injection molded Complēt™ long carbon fiber reinforced nylon composite delivered high stiffness and low weight while simplifying manufacturing
https://www.avient.com/resource-center?document_type=59&document_subtype=0&industry=0&product_family=0&product_name=0&op=FILTER RESULTS&form_id=resource_filter_form&page=31
Complēt™ long carbon fiber reinforced composites allows deployment of injection molded material solution for design flexibility and customization
Complēt™ long carbon fiber reinforced ETPU composite reduced weight 33% and performance analysis services confirmed metal-to-thermoplastic conversion success
Injection molded Complēt™ long carbon fiber reinforced nylon composite delivered high stiffness and low weight while simplifying manufacturing
https://www.avient.com/resource-center?document_type=59&page=31
Complēt™ long carbon fiber reinforced composites allows deployment of injection molded material solution for design flexibility and customization
Complēt™ long carbon fiber reinforced ETPU composite reduced weight 33% and performance analysis services confirmed metal-to-thermoplastic conversion success
Injection molded Complēt™ long carbon fiber reinforced nylon composite delivered high stiffness and low weight while simplifying manufacturing