menu

products

About Us Products Factory Warehouse Related Equipment Agent Brand
About Us Factory Our Team Our History Certificate of Honor
FRP Product Solution Applications
Download
Company Exhibition Corporate News JUSHI Products
Contact Information Inquiry Form Google Maps
Fiberglass Molded Grating Fiberglass Pultruded Grating Fiberglass Handrail System Fiberglass Cover Plate Fiberglass Pultruded Profiles Plastic Grating
FRP Threader Fiberglass Yarn Fiberglass Direct Roving Fiberglass Assemble Roving Fiberglass Chopped strand Mat Fiberglass Woven Roving Fiberglass Mesh Unsaturated Polyester Resin Vinyl Ester Resin Epoxy Resin FRP Pipe FRP/GRP SMC Water Tank FRP Septic Tank FRP Counter-flow Cooling Tower FRP Rebar And Rebar Machine Molding FRP Well Lids FRP Ladder FRP Lighting Tile FRP Insulated Telescopic Fence FRP Insulation Ladders And Stools FRP Fiber Optic Cable Steel Bar Grating Chopped-Strands
Construction Equipment And Supporting Tools For FRP Grating Construction Equipment And Supporting Tools For FRP Pultruded Profiles FRP Products Major Production Equipment Installation Tools And Packing Material For FRP Products
HOMEproductsProxy ProductsUnsaturated Polyester ResinFilament Winding Resin
  • Filament Winding Resin

    Filament Winding Resin

  • Filament Winding Resin

    Filament Winding Resin

  • Filament Winding Resin

    Filament Winding Resin

  • Filament Winding Resin

    Filament Winding Resin

  • Filament Winding Resin

    Filament Winding Resin

Filament winding resin is a specialized type of resin that is used in the filament winding process to create high-performance composite materials. Filament winding is a method of manufacturing composite structures by winding continuous fibers, such as fiberglass or carbon fiber, around a rotating mandrel or mold and impregnating them with resin. The resin acts as a binding agent, holding the fibers together and providing strength and durability to the final product.

Product performance introduction

 

Filament winding resin is specifically formulated to have the right viscosity, curing time, and mechanical properties to ensure proper impregnation of the fibers and strong adhesion between the fibers and the resin matrix. It is typically a two-component system, consisting of a resin component and a hardener component that, when mixed together, initiate a chemical reaction that causes the resin to cure and harden.

 

The properties of filament winding resin can be tailored to meet specific requirements, such as high strength, stiffness, impact resistance, or temperature resistance. This makes it an ideal material for a wide range of applications, including aerospace, automotive, marine, and sporting goods industries.

 

Overall, filament winding resin plays a crucial role in the filament winding process, enabling the production of lightweight, high-strength composite structures that offer excellent performance characteristics. Its versatility and customizable properties make it a popular choice for manufacturers looking to create innovative and durable products.

 

Model Type 25℃ pa.s

Viscosity		 Min

Gel Time		 Non-volatile MPa

Tensile

Strength		 Elongation MPa

Flexural

Strength		 HDT ℃ Application&Remarks
191DC-G DC 0.20-0.45 6.0-12.0 68-74 58 2.9 93 85 Green color resin, specially for green color pipes and other products
DC191 DC 0.20-0.45 6.0-12.0 68-74 58 2.9 93 85 General FRP products and small pipes 
191 PA 0.25-0.45 9.0-17.0 61-70 60 3.5 112 70 Highly applicable resin for General FRP products  
9196 DC 0.25-0.45 5.0-18.0 68-75 50 2 90 85 Water clear GP resin for general FRP products 
196 PA 0.25-0.45 9.0-17.0 61-67 60 1.8 113 66 Hand layup normal FRP products , especially translucent products
196F PA 0.25-0.45 9.0-17.0 61-67 60 1.8 111 66 Hand layup and winding process food grade FRP products
5118F ISPA 0.35-0.80 5.0-13.0 63-71 60 2.3 110 70 Food grade container, pipes and other FRP products
199 ISPA 0.35-0.65 10.0-16.0 56-64 55 1.8 90 120 Resist to 120℃, suitable for FRP require heat-resistant property
199X PA 0.35-0.65 13.0-19.0 56-62 60 2 90 115 Resist to 115℃, suitable for FRP require heat-resistant property
3301 ABPA 0.35-0.58 5.8-10.7 56-62 55 2 105 100 Resist to 115℃, suitable for FRP require heat-resistant property
197 ABPA 0.40~0.50 10~25 47~53 60 2 90 115 CEE type, excellent corrosion resistance for FRP

 

Here are the key points about the application of resin in the filament winding process:

  1. Resin Preparation:

    • The resin, hardener, and any other additives are carefully measured and mixed according to the manufacturer's specifications.
    • The resin viscosity may be adjusted by adding solvents or thinners to achieve the desired flow and impregnation properties.
    • Proper personal protective equipment (PPE), such as gloves and respirators, should be used when handling the resin.

  2. Fiber Preparation:

    • The reinforcement fibers, such as glass, carbon, or aramid, are carefully wound onto the rotating mandrel or form.
    • The fiber tension and winding pattern are controlled to ensure the desired fiber orientation and distribution.

  3. Resin Application:

    • The resin is typically applied to the fibers using a resin bath or a metering system that dispenses the resin directly onto the fibers as they are being wound.
    • The resin application rate is carefully controlled to ensure complete impregnation of the fibers and to avoid excessive resin buildup.
    • The resin should be applied in a continuous, even flow to maintain a consistent fiber-to-resin ratio throughout the winding process.

  4. Curing:

    • The wound part is typically cured at elevated temperatures, either in an oven or using external heating sources, to accelerate the curing process.
    • The curing cycle is carefully monitored and controlled to ensure proper cross-linking of the resin and to minimize the risk of defects, such as voids or delaminations.

  5. Mandrel Removal:

    • Once the part is fully cured, the mandrel or form is carefully removed, often using a release agent or mechanical means.
    • The removal process should be done in a way that preserves the integrity of the finished part.

  6. Post-Processing:

    • The cured part may undergo additional finishing steps, such as trimming, drilling, or surface treatment, depending on the final application requirements.
    • Any excess resin or waste materials should be properly disposed of according to environmental regulations.

Effective resin application is crucial in the filament winding process, as it ensures the proper impregnation and bonding of the reinforcement fibers, which directly impacts the mechanical properties and performance of the final composite part. Careful control of the resin application and curing parameters is essential for producing high-quality filament-wound components.

 

Here are some frequently asked questions (FAQs) about the use of resin in the filament winding process:

  1. What types of resins are commonly used in filament winding?

    • The most common resins used in filament winding are thermosetting resins, such as epoxy, polyester, and vinyl ester. These resins provide good mechanical properties and chemical resistance.

  2. How does the resin viscosity affect the filament winding process?

    • The resin viscosity should be low enough to allow for proper impregnation of the fibers, but not too low, as it can lead to excessive resin buildup and dripping. The optimal viscosity range is typically between 100 and 500 centipoises (cP).

  3. What factors influence the resin-to-fiber ratio in filament winding?

    • The resin-to-fiber ratio is influenced by factors such as the fiber type, winding tension, resin application rate, and mandrel rotation speed. The target ratio is typically between 30-50% resin by volume.

  4. How is the resin curing process controlled in filament winding?

    • The curing process is controlled by adjusting parameters such as temperature, time, and the use of catalysts or accelerators. Proper curing ensures the desired mechanical properties and dimensional stability of the final part.

  5. What are the common defects associated with resin application in filament winding?

    • Potential defects include voids, resin-rich or resin-starved areas, delaminations, and poor fiber-to-resin bonding. These can be caused by improper resin mixing, application, or curing.

  6. How is the resin waste and disposal handled in filament winding?

    • Unused resin, contaminated solvents, and other waste materials should be disposed of according to local environmental regulations. Proper containment and recycling of waste materials can help minimize the environmental impact.

  7. What are the safety considerations when handling resins in filament winding?

    • Proper personal protective equipment (PPE), such as gloves, goggles, and respirators, should be used when handling resins. Adequate ventilation and spill containment measures are also important for worker safety and environmental protection.

Understanding the proper selection, application, and control of resins is crucial for ensuring the quality and performance of filament-wound composite parts. Addressing these resin-related FAQs can help operators and engineers optimize the filament winding process.

 

Filament Winding Resin

Series :

Unsaturated Polyester Resin   >

application

Filament winding is an automated process that applies resin-saturated, continuous strands of fiber reinforcements over a rotating cylindrical mold.

  • Brand name :
    Filament Winding Resin
inquiry

FAQ

Q :

Are you acting as a distributor?

A :

Yes.

Q :

What are your strengths?

A :

Cheap prices!

Other related products

This website uses cookies

We promise to respect and protect your personal information. If you agree to our collection of your user information, we will use cookie technology on our website to enhance your browsing experience. Regarding the processing of your personal data, we will ensure that it is processed in accordance with the principles of the General Data Protection Regulation (GDPR) of the European Union, with your explicit consent, in accordance with the law.