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What Is Fiberglass? Properties, Uses, and Applications Across Industries
What Is Fiberglass? Fiberglass is one of the most versatile composite materials in use today. It's produced by drawing molten glass into extremely fine fibers, which can then be woven. Fiberglass composites are made by combining fine glass fibers or fabric with a resin matrix such as polyester, vinyl ester, or epoxy. Each combination produces a structure with a unique balance of mechanical properties, chemical resistance, and cost, giving engineers and fabricators a wide range of options to create a composite that is lightweight, strong, corrosion-resistant, and capable of being molded into complex shapes. Fiberglass is one of the most widely used reinforcement materials in the composites industry due to its balance of performance, cost, and versatility. What Is Fiberglass Used For? Fiberglass is used across a wide range of industries including marine, wind energy, automotive, construction, aerospace, and consumer products. It is commonly used for structural components, panels, enclosures, and reinforced parts where strength, durability, and corrosion resistance are required. Common applications include: Boat hulls and marine structures Wind turbine blades Automotive body panels and components Industrial tanks, piping, and grating Electrical enclosures and insulation systems Aerospace components such as radomes and fairings Key Properties and Advantages of Fiberglass Fiberglass composites are valued for several core performance characteristics: High strength-to-weight ratio Fiberglass is significantly lighter than steel while maintaining strong mechanical properties, making it ideal for performance-driven structures especially where weight reduction directly impacts performance or efficiency. Corrosion resistance Unlike metals, fiberglass does not rust or corrode when exposed to moisture, saltwater, or many chemicals, giving it a distinct advantage in harsh environments. Electrical insulation Fiberglass is non-conductive, making it suitable for electrical and electronic applications where conductivity would pose a safety or performance risk. Design flexibility Fiberglass can be molded into complex shapes, allowing for efficient manufacturing of intricate geometries that would be difficult or costly to achieve with metals. Durability and fatigue resistance Fiberglass composites hold up well under repeated stress cycles, a critical factor in long-service-life applications like wind turbine blades and marine vessels. Fiberglass vs Other Materials Fiberglass is often chosen over traditional materials like steel and advanced materials like carbon fiber due to its balance of strength, weight, corrosion resistance, and cost. It is the preferred material when: Weight reduction is important without sacrificing strength The environment involves moisture, chemicals, or corrosion Electrical insulation is required Complex shapes or molded parts are needed Cost-effective composite performance is a priority Use fiberglass instead of other materials when: For steel when corrosion resistance and weight reduction are critical For carbon fiber when cost is a primary constraint and ultra-high stiffness is not required Fiberglass vs Steel vs Carbon Fiber Comparison The table below compares fiberglass to common alternative materials: Property Fiberglass Steel Carbon Fiber Weight Low High Very Low Strength-to-weight High Moderate Very High Corrosion Resistance Excellent Poor Excellent Cost Moderate Low High How Fiberglass Works in Composite Materials Fiberglass is used as the reinforcement in a composite system. It is combined with a resin matrix, which binds the fibers together and transfers loads across the structure. A complete fiberglass composite system includes: Reinforcement: fiberglass cloth, mat, or woven roving Resin: polyester, vinyl ester, or epoxy Optional core materials for stiffness and weight reduction Learn More: Fiberglass Reinforcements Resin Systems Fiberglass Applications by Industry Fiberglass in Marine & Boat Building Fiberglass remains the dominant material in marine construction due to its durability and resistance to harsh environments. Why fiberglass is used in marine applications: Resistant to saltwater corrosion The vast majority of recreational and commercial boat hulls are built from fiberglass. Its corrosion resistance in saltwater environments gives it a significant advantage over steel and aluminum, which require ongoing maintenance to prevent degradation. A properly built fiberglass hull can last decades with minimal structural upkeep. Lightweight for improved fuel efficiency and handling For boat builders and naval architects, weight distribution is everything. Fiberglass allows engineers to build hulls that are light enough to improve fuel efficiency and handling without sacrificing structural integrity. In high-performance powerboats and racing vessels, fiberglass layup schedules are carefully engineered to achieve specific stiffness and weight targets. Moldable into complex hull shapes One of fiberglass's greatest advantages in marine construction is moldability. Complex hull forms, decks, stringers, and interior components can all be laid up in custom tooling, enabling efficient production of identical parts at scale or one-off custom builds. Infusion processes like VARTM (Vacuum Assisted Resin Transfer Molding) have further improved the consistency and fiber volume achievable in marine laminates. Easy to repair compared to metal structures Fiberglass is not only easy to build with it’s also straight forward to repair. Damaged sections can be ground back, re-glassed, and faired to like-new condition, which is a major practical advantage over materials that require welding or specialized tooling to fix. Typical marine applications: Boat hulls and decks Stringers and structural supports Interior panels and components Fiberglass in Wind Energy Wind turbine blades represent one of the largest uses of fiberglass composites and one of the most demanding. Modern wind turbine blades are primarily constructed from fiberglass composites, often in combination with carbon fiber in the spar cap for added stiffness. The blades must simultaneously be lightweight, aerodynamically precise, and capable of withstanding decades of cyclic loading, UV exposure, and extreme weather. Fiberglass meets this challenge better than nearly any other material at its price point. Key advantages in wind energy: High fatigue resistance for repeated loading cycles Wind turbine blades flex millions of times over their operational lifespan. Fiberglass's ability to endure repeated stress cycles without crack propagation makes it the material of choice for this application. Engineers carefully design fiber orientations within the laminate to manage both flapwise and edgewise bending loads. Lightweight construction for efficiency Scalable manufacturing As turbines grow larger, onshore blade lengths now routinely exceed 60 meters (197 feet), the ability to manufacture consistent, defect-free structures becomes critical. Fiberglass composites, processed through vacuum infusion, are well-suited to the large-scale, closed-mold manufacturing methods the wind industry relies on to control quality and reduce waste. Field repair for extended service life Wind blade repairability is a significant operational advantage. Leading edge erosion, caused by rain, dust, and debris impact, is one of the most common maintenance challenges in wind energy. Fiberglass repair materials and systems allow technicians to restore blade geometry and surface integrity in the field, extending service life and protecting energy output. Fiberglass Across Industrial Applications Fiberglass is widely used across industries where corrosion resistance, strength-to-weight ratio, moldability, and durability are critical. Common industrial uses include: Aerospace: radomes, fairings, interior panels Electrical transparency and light weight are critical Automotive: body panels, hoods, structural components Particularly in commercial vehicles and specialty applications where tooling costs favor composite construction over stamped metal Construction and Infrastructure: grating, piping, structural profiles Common in corrosive environments like chemical processing plants and wastewater facilities Chemical processing: corrosion-resistant equipment Consumer products: sporting goods, electronic enclosures, medical equipment Fabrication: Tooling and Molding Fiberglass is not only used in finished parts, it is also widely used in the fabrication of molds and tooling used to produce composite components. Before a single part is ever laid up, someone has to build the mold and fiberglass is the material most commonly used to do it. In composite manufacturing, fiberglass tooling offers an accessible and cost-effective alternative to machined aluminum or steel molds, particularly for low-to-medium production volumes and prototype work. A fiberglass mold can be fabricated directly from a plug or pattern using standard laminating techniques, making it practical for shops of any size. The resulting tool is durable enough to pull hundreds or even thousands of parts when properly maintained. Fiberglass molds are also straightforward to repair — damaged surfaces can be filled, sanded, and polished back to spec without scrapping the entire tool. For many fabricators, fiberglass tooling is the foundation the entire production process is built on. Its combination of buildability, repairability, and cost makes it the default choice before more expensive tooling materials are even considered. Why Engineers and Fabricators Choose Fibre Glast Selecting the right fiberglass materials and systems depends on application requirements, performance expectations, and processing methods. Working with an experienced supplier can help ensure the right combination of reinforcement and resin is used for long-term performance. Since 1957, Fibre Glast has supplied industrial-grade fiberglass fabrics, resin systems, and composite materials to engineers, fabricators, and manufacturers across aerospace, marine, automotive, energy, and infrastructure markets. Our technical team works directly with customers to match reinforcement type, fabric weight, and resin system to the specific demands of each application — whether that's selecting a woven roving for a marine hull layup or specifying a fiberglass-epoxy system for a corrosive industrial environment. To support the material selection process, our Materials Calculator helps engineers and fabricators quickly estimate quantities and compare options before committing to a system. Every shipment includes a Certificate of Conformance. Our ISO 9001 and AS9120B certified quality systems ensure the material you receive meets the specifications your design depends on. Same-day shipping on orders placed before 2:30 PM ET Custom cut-to-length and small-quantity orders available Worldwide distribution Key Takeaways Fiberglass is one of the most versatile and widely used composite materials It combines strength, low weight, and corrosion resistance It is used across marine, wind energy, automotive, and many other industrial and consumer applications It works as part of a system with resin and core materials It remains a cost-effective solution for high-performance composite structures Explore Fiberglass Materials and Systems To build a complete fiberglass composite system, explore: Fiberglass Cloth Chopped Strand Mat Woven Roving Polyester, Vinyl Ester, and Epoxy Resins Vacuum Bagging and Infusion Supplies Frequently Asked Questions Is fiberglass stronger than steel?Fiberglass has a higher strength-to-weight ratio than steel, meaning it can achieve comparable strength at a much lower weight. Why is fiberglass used in boats?Fiberglass is resistant to corrosion in saltwater, lightweight, and easy to mold into complex hull shapes, making it ideal for marine environments. What is the difference between fiberglass and carbon fiber?Fiberglass is more cost-effective and easier to work with, while carbon fiber offers higher stiffness and strength at a higher cost. What resin is used with fiberglass?Common resins include polyester, vinyl ester, and epoxy, each offering different performance and cost characteristics. What is the best resin to use with fiberglass?The best resin depends on the application requirements. Epoxy resin offers the highest mechanical properties, best adhesion, and lowest moisture absorption, making it the preferred choice for high-performance structural applications. Vinyl ester resin provides excellent corrosion and water resistance at a lower cost than epoxy, making it well suited for marine and chemical environments. Polyester resin is the most economical option and is widely used in general-purpose laminating where extreme performance is not required. For most demanding applications, epoxy or vinyl ester is recommended over standard polyester. What is the difference between fiberglass cloth, mat, and woven roving?Fiberglass cloth, mat, and woven roving are three distinct reinforcement forms, each suited to different applications. Fiberglass cloth is a woven fabric that provides good strength in two directions and a smooth surface finish, making it well suited for surface layers and detail work. Chopped strand mat (CSM) consists of randomly oriented short fibers bound together with a binder, providing good resin absorption and isotropic (equal in all directions) strength — commonly used for building thickness quickly. Woven roving is a heavier, coarser woven fabric used where high strength and rapid laminate buildup are required, such as in boat hulls and structural panels. Many laminates alternate between mat and woven roving to balance strength and bond integrity between layers. How long does fiberglass last?Fiberglass composites are highly durable and can last 50 years or more in demanding environments when properly designed and maintained. Marine fiberglass structures built decades ago remain in service today. Longevity depends on resin selection, laminate quality, UV exposure, and maintenance. Epoxy and vinyl ester resin systems generally offer superior long-term moisture and chemical resistance compared to standard polyester systems. Can fiberglass be repaired?Yes. Fiberglass is one of the more repairable structural materials available. Surface damage such as gel coat cracks, scratches, or minor chips can be addressed with gel coat repair compounds and finishing materials. Structural damage including cracks, delamination, or impact damage to the laminate itself can be repaired by removing the damaged material and rebuilding the laminate with compatible fiberglass reinforcement and resin. A successful structural repair requires matching the original fiber type, resin system, and laminate thickness to restore mechanical properties. Fibre Glast supplies materials for both cosmetic and structural fiberglass repair. Is fiberglass waterproof?Fiberglass composites are highly water resistant but not entirely impermeable. The resin matrix, particularly epoxy and vinyl ester systems, provides strong resistance to water absorption, which is why fiberglass is the dominant material in marine construction. Standard polyester resin systems are more susceptible to osmotic blistering over time when in continuous water immersion. For applications involving prolonged water or moisture exposure, epoxy or vinyl ester resins are the preferred choice over polyester. How is fiberglass made?Fiberglass is produced by drawing molten glass through tiny orifices to form extremely fine continuous filaments, typically ranging from 5 to 24 microns in diameter. These filaments are gathered into strands, which can then be further processed into a variety of reinforcement forms including woven into fabric, chopped into mat, or bundled into roving. The specific glass formulation, fiber diameter, and weave architecture determine the mechanical properties of the finished reinforcement. The most common glass type used in structural composites is E-glass, valued for its balance of strength, electrical insulation, and cost. Is fiberglass stronger than aluminum?Fiberglass and aluminum have different strength characteristics, and the better choice depends on the application. Fiberglass typically has a higher strength-to-weight ratio than aluminum, meaning it can provide comparable structural strength at a lower weight. It also offers superior corrosion resistance, especially in marine and chemical environments where aluminum can degrade over time without protective coatings. However, aluminum has higher stiffness (modulus of elasticity), which means it deflects less under load and may be preferred in applications where rigidity is critical. Fiberglass can be engineered with specific fiber orientations and laminate schedules to increase stiffness, but this often adds complexity to the design. In general, fiberglass is preferred over aluminum when corrosion resistance, weight reduction, and design flexibility are priorities, while aluminum may be selected when maximum stiffness and simplicity are more important. What are the disadvantages of fiberglass?While fiberglass offers an excellent balance of strength, weight, and corrosion resistance, it does have some limitations that should be considered in design and material selection. One of the primary drawbacks is lower stiffness compared to materials like steel or carbon fiber, which can result in greater deflection under load unless the laminate is specifically engineered to compensate. Fiberglass can also be more labor-intensive to manufacture, particularly in hand layup processes where consistency depends on operator skill. In certain environments, standard polyester resin systems can be susceptible to long-term moisture absorption and osmotic blistering, especially in continuous water immersion. This can be mitigated by selecting higher-performance resin systems such as vinyl ester or epoxy. Additionally, fiberglass is not as strong or lightweight as carbon fiber, making it less suitable for ultra-high-performance applications where maximum stiffness-to-weight is required. Despite these limitations, fiberglass remains one of the most widely used composite materials due to its versatility, cost-effectiveness, and overall performance across a wide range of applications.
What Is Fiberglass? Properties, Uses, and Applications Across Industries
What Is Fiberglass? Fiberglass is one of the most versatile composite materials in use today. It's produced by drawing molten glass into extremely fine fibers, which can then be woven. ...
Gel Coat Application Guide
Gel coat is the most common surface coating used in the fabrication and repair of fiberglass reinforced products. Gel Coat is a specially formulated two-part polyester resin that is designed to be the first layer of resin applied in a mold when making a polyester or vinyl ester composite part. It is intended to create an opaque surface which will completely block glass pattern show-through. Polyester resins in general, and specifically gel coats, are naturally UV resistant, and properly cured parts can be submerged in water. Most boats are made using gel coat with polyester resin and fiberglass.
Gel Coat Application Guide
Gel coat is the most common surface coating used in the fabrication and repair of fiberglass reinforced products. Gel Coat is a specially formulated two-part polyester resin that is designed...
Carbon Fiber vs. Kevlar: Material Strength and Impact Resistance
Many engineers, designers, and buyers are often uncertain about the differences between carbon fiber and Kevlar in practical applications. This guide explains the science, strengths, and trade-offs of carbon fiber versus Kevlar, helping you make the best choice for your needs. Carbon Fiber vs Kevlar Materials? Before diving into performance, it’s important to understand what these materials are and how they’re made. What is Carbon Fiber? Carbon fiber is a lightweight, high-strength material made from thin strands of crystalline carbon atoms. It’s known for its exceptional stiffness, low weight, and high tensile strength. Typically used in aerospace, motorsports, and robotics, carbon fiber is ideal for applications where rigidity and weight savings are critical. From F1 car panels to drone frames, its structural efficiency is unmatched. Carbon Fiber Strength and Impact Resistance Carbon fiber offers superior tensile strength (3.5–6.0 GPa) and stiffness (Young’s Modulus up to 800 GPa), but is brittle under impact. It tends to crack or shatter when subjected to sudden force, making it less suitable for high-impact environments. What is Kevlar? Kevlar is a para-aramid synthetic fiber known for its toughness, flexibility, and abrasion resistance. It’s a staple in protective gear and industrial applications. Kevlar’s strength lies in its energy absorption and fracture resistance. It stretches under stress, dispersing energy rather than breaking, making it better for impact-prone applications. Kevlar Strength and Impact Resistance Kevlar has slightly lower tensile strength (3.0–3.6 GPa) than carbon fiber, but its impact resistance is significantly higher. It elongates up to 4% before breaking, allowing it to absorb and dissipate energy effectively. Kevlar vs Carbon Fiber: Material Properties and Performance Comparison Tensile Strength Carbon fiber typically offers higher tensile strength, ranging from 3.5 to 6.0 GPa. Kevlar is slightly lower, at 3.0 to 3.6 GPa, but still strong enough for most protective and industrial uses. Stiffness (Young’s Modulus) Carbon fiber is stiffer, with a modulus between 200 and 800 GPa. Kevlar is more flexible, ranging from 60 to 120 GPa. Elongation to Break Kevlar can stretch 2.5% to 4.0% before breaking. Carbon fiber only stretches about 1.5%, making it more prone to cracking under stress. Impact Resistance Kevlar effectively absorbs and disperses energy, making it ideal for high-impact applications. Carbon fiber is more prone to shattering. Density Kevlar is slightly lighter (1.44 g/cm³) than carbon fiber (1.6 g/cm³), which can be important in weight-sensitive designs. Thermal Resistance Kevlar begins to degrade above 500°C (932°F). Carbon fiber undergoes sublimation, transitioning directly from a solid to a gaseous state at high temperatures. The temperature at which this process begins is around 3,652 - 3,697°C (6,600 - 6,687°F). Abrasion Resistance Kevlar offers excellent abrasion resistance. Carbon fiber is moderate in this area. Cost Carbon fiber costs around $10–$20 per pound. Kevlar ranges from $15–$25 per pound. Carbon Fiber vs Kevlar Property Comparison Property Carbon Fiber Kevlar Tensile Strength 3.5 – 6.0 GPa 3.0 – 3.6 GPa Young’s Modulus 200 – 800 GPa 60 – 120 GPa Elongation to Break ~1.5% ~2.5 – 4.0% Impact Resistance Low Very High Density ~1.6 g/cm³ ~1.44 g/cm³ Thermal Resistance Sublimates >3652°C (6600°F) Degrades > 500°C (932°F) Abrasion Resistance Moderate Excellent Cost per lb (avg) $10–$20 $15–$25 How These Materials Behave Under Impact Carbon fiber is incredibly stiff and strong, but doesn’t handle impact well, as it tends to fracture or de-laminate when struck. On the other hand, Kevlar stretches and absorbs energy, making it far more reliable in high-impact scenarios like industrial safety gear or blast shields. Cost, Fabrication, and Practical Tradeoffs Carbon fiber is brittle and challenging to machine, while Kevlar is tough but difficult to cut or drill. Kevlar also degrades faster under UV and needs protective coatings. Carbon fiber is more stable in harsh environments but can be more expensive to repair. Kevlar may require more maintenance in exposed conditions, but its durability makes it a better long-term choice for rugged use. Common Applications: Where Each Material Excels Carbon Fiber in Automotive and Aerospace Used in F1 cars, supercars, and UAVs for its stiffness and low weight. Kevlar in Industrial and Safety Equipment It is used for safety helmets, reinforced pressure vessels and pipes due to its abrasion and impact resistance. Carbon Fiber in Drones and Robotics Provides rigidity and precision for lightweight, high-performance frames and components. Kevlar in Sports & Recreation Applications Used in kayaks and canoes and hockey sticks and tennis rackets where fatigue resistance and abrasion resistance are needed most. Use Cases and Preferred Material Industry/Application Material Rationale F1 Cars / Supercars Carbon High stiffness, low weight Canoes and Kayaks Kevlar Abrasion and impact resistant Drones / UAV Frames Carbon Stiff, lightweight, performance-driven Tactical Helmets Kevlar Flexible and impact-absorbing Robotics End Effectors Carbon Precise and weight-optimized Recommended Products for Your Project For Carbon Fiber Applications: Carbon Fiber Fabrics: Plain and Twill Weaves: Ideal for structural parts, panels, and lightweight builds. High Modulus Carbon Fiber Fabrics: Best for aerospace and precision applications. For Kevlar Applications: Kevlar® 49 Fabric: Excellent for abrasion resistance and reinforcement in high-wear environments. For Hybrid Needs: Carbon/Kevlar® Hybrid Twill Fabric: Combines stiffness and toughness in one fabric. Kevlar®/Carbon Hybrid Yellow Kit: Great for small builds or prototyping with visual appeal. Pros and Cons of Carbon Fiber vs Kevlar Recap Carbon Fiber: Lightweight and Rigid Pros: High tensile strength, ultra-light, extremely stiffCons: Brittle, expensive, poor in impact, and shear Kevlar: Tough and Impact-Resistant Pros: High energy absorption, durable, cut/abrasion resistantCons: Lower stiffness, UV degradation, harder to machine Hybrid Composites: Combining Strength and Toughness Hybrid composites combine carbon fiber’s stiffness with Kevlar’s toughness. Carbon is often used on the outside for rigidity, while Kevlar is layered inside to absorb impact. These hybrids are common in racing panels, aerospace skins, and high-performance equipment. Which Should You Choose? Carbon Fiber or Kevlar? Kevlar is a great choice if your projects require strong protection and energy absorption. Carbon Fiber is best for lightweight and structural needs. If you want the benefits of both, try a hybrid composite. When selecting between the two options, determine your performance requirements and choose the best material. Carbon Fiber vs Kevlar FAQ Is Carbon Fiber Stronger Than Kevlar? Yes, in tensile strength. But Kevlar is better at absorbing impact and resisting fracture. Why Isn’t Carbon Fiber Used in Protective Gear? It’s brittle and doesn’t absorb energy well, which is a must for protective applications. What Material Is More Durable Than Carbon Fiber? Kevlar, Dyneema, and hybrid aramids offer better toughness and abrasion resistance. What Fiber Is Stronger Than Kevlar? Dyneema, Zylon, and carbon nanotube fibers exceed Kevlar’s strength but have tradeoffs. What’s 10x Stronger Than Kevlar? Graphene and CNT-based materials may be, but they’re not yet practical at scale.Does Kevlar or Carbon Fiber Resist Compression Better? Carbon fiber performs better under compression. Kevlar excels in tension and impact. Are Hybrid Kevlar/Carbon Composites the Best of Both Worlds? Yes, especially in aerospace, motorsports, and high-performance equipment.
Carbon Fiber vs. Kevlar: Material Strength and Impact Resistance
Many engineers, designers, and buyers are often uncertain about the differences between carbon fiber and Kevlar in practical applications. This guide explains the science, strengths, and trade-offs of carbon fiber...
Videos
Videos
Scion FR-S Tuner Challenge
2012 SEMA Show Congratulations to Chris Basseglia and R Miller Auto for taking 1st Place in the Scion FR-S Tuner Challenge with their Minty FReSh FR-S! Fibre Glast is a proud sponsor of this award-winning car! In August 2012, Scion chose three custom car builders and gave them each a 2013 Scion FR-S, a $15,000 build budget, and 90 days to build the best FR-S they could. The three finished cars were viewed by an independent car show judging company on October 31, 2012 in the Scion Booth at the SEMA Show in Las Vegas. Chris Basseglia's Minty FReSh FR-S went home with 1st Place and a $10,000 prize. View Chris Basseglia of Lebanon, PA talk about his Minty FReSh FR-S in this video. Fibre Glast as a Sponsor Fibre Glast supplied R Miller Auto with materials to create pieces in the custom-made body kit on Chris Basseglia's Scion FR-S. R Miller Auto was able to use a vacuum infusion technique to create unique body features. Here's a video of R Miller Auto using Fibre Glast materials in a Vacuum Infusion application. What is Vacuum Infusion? Vacuum Infusion is a fabrication technique that uses vacuum pressure to drive resin into a laminate while in the mold. Dry materials are laid into the mold and the vacuum pressure is applied before resin is introduced. Once a complete vacuum is achieved, resin is forced into the laminate via vacuum tubing. The vacuum infusion process offers a better fiber-to-resin ratio than hand lay-up or vacuum bagging. Fibre Glast Materials Used by R Miller Auto #251 Continuous Strand Mat #580-A Yellow Sealant Tape #582 Nylon Release Peel Ply #891-A Vacuum Connector #893 Vacuum Tubing #1093 Unidirectional E-Glass #1401 EnkaFusion Nylon Matting #1403 Spiral Tubing #1408 Lantor Soric XF #1688 Stretchlon 800 Bagging Film The Other Scion FR-S Tuner Challengers Carbon Stealth FR-S by John Toca of Chicago, IL. 2nd Place. FR-S GT by Daniel Song of Orange County, CA. 3rd Place
Scion FR-S Tuner Challenge
2012 SEMA Show Congratulations to Chris Basseglia and R Miller Auto for taking 1st Place in the Scion FR-S Tuner Challenge with their Minty FReSh FR-S! Fibre Glast is a...
R Miller Auto - Vacuum Infusion Using Fibre Glast Materials
In this video R Miller Autobody used Fibre Glast materials in a vacuum infusion application. Vacuum Infusion is a technique that uses vacuum pressure to drive resin into a laminate. Dry materials are laid into the mold and the vacuum pressure is applied before resin is introduced. Once a complete vacuum is achieved, resin is forced into the laminate via vacuum tubing. The vacuum infusion process offers a better fiber-to-resin ratio than hand lay-up or vacuum bagging.
R Miller Auto - Vacuum Infusion Using Fibre Glast Materials
In this video R Miller Autobody used Fibre Glast materials in a vacuum infusion application. Vacuum Infusion is a technique that uses vacuum pressure to drive resin into a laminate....
Resin Infusion and Sandwich Core
Fibre Glast offers a wide selection of Resin Infusion Supplies and Equipment as well as a large variety of Sandwich Core Materials for use in vacuum bagging or resin infusion applications. The vacuum bagging technique is used to improve the resin/reinforcement ratio of a composite laminate by applying vacuum pressure on a composite laminate during the cure cycle. This results in stronger, lighter parts.
Resin Infusion and Sandwich Core
Fibre Glast offers a wide selection of Resin Infusion Supplies and Equipment as well as a large variety of Sandwich Core Materials for use in vacuum bagging or resin infusion...
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