Hexcel Fiberglass 4oz / 125 gr/m2 – 80cm width


Noordzee Boardstore biedt alle materialen voor het shapen van je eigen surfboard. Zo dus ook glasvezel matten van 4oz en 80cm breed van het merk Hexcel. We hebben ook diverse polyester en epoxy, finplugs, blanks en shaping tools. Bestel het hier online of kom langs in de winkel waar we je uitgebreid kunnen adviseren. De prijs is uiteraard per strekkende meter.


In stock

SKU: HEXCELFIBER4OZ80CM Categories: , Tags: , , , , , ,


Hexcel fibers for shaping your surfboards or repairing them. 4oz (125g/m2), price per meter. Lighter than the 5.5 oz (202g/m2).


Hexcel Fiber

Glass Fiber Reinforcements The versatility of glass as a fiber makes it unique industrial textile material. Woven glass fibers offer an excellent combination of properties from high strength to fire resistance at a more affordable cost. Wide ranges of yarn sizes and weave patterns provide huge number of design potential allowing the end user to choose the best combination for material performance, economics and flexibility. Hexcel produces Glass Fiber Reinforcements in a wide variety of areal weights, from 48 to 1300 gsm. Dimensional Stability: glass fiber is a dimensionally stable engineering material that does not stretch or shrink after exposure to extremely high or low temperatures. The maximum elongation for “E” glass at break is 4.8% with a 100% elastic recovery when stressed close to its point of rupture. Moisture Resistance: glass fibers do not absorb moisture, and do not change physically or chemically when exposed to water. High Strength: the high strength-to-weight ratio of glass fiber makes it a superior material in applications where high strength and minimum weight are required. In textile form, this strength can be unidirectional or bidirectional, allowing flexibility in design and cost. Fire Resistance: glass fiber is an inorganic material and will not burn or support combustion. It retains approximately 25% of its initial strength at 1000°F (540°C). Chemical Resistance: most chemicals have little or no effect on glass fiber. The inorganic glass textile fibers will not mildew, rot or deteriorate. Glass fibers are affected by hydrofluoric, hot phosphoric acids and strong alkaline substances. Electrical Properties: glass fiber is an excellent material for electrical insulation. The combination of properties such as low moisture absorption, high strength, heat resistance and low dielectric constant makes fiber glass fabrics ideal as a reinforcement for printed circuit boards and insulating varnishes. Thermal Conductivity: a low coefficient of thermal expansion combined with high thermal conductivity properties makes glass fabric a dimensionally stable material that rapidly dissipates heat as compared to asbestos and organic fibers. History From Roger Steele’s post-war laboratory in the basement of a suburban home to the production of the lunar struts of the Apollo 11 lunar landing module, Hexcel has been synonymous with innovation throughout its history. Hexcel was ready when the defense aerospace industry needed strong lightweight materials following World War II, and our company remains a leader in delivering innovative advanced composite solutions to our customers. The House That Berkeley Built  The company that came to be known as Hexcel was born and raised in the San Francisco Bay area of Northern California, nurtured by a band of fraternity brothers from the University of California at Berkeley. The bonds that joined Hexcel’s co-founders – Roger C. Steele and Roscoe T. "Bud" Hughes – were forged on the football fields of Piedmont High School and were reinforced by their stints in the Navy together during World War II. From football contests to fraternity rites to fighting for their country, it’s little wonder that Hexcel demonstrated remarkable cohesion during its early years. Indeed, the pioneering spirit and sheer persistence that have always epitomized Hexcel – or, as it was first known, California Reinforced Plastics – were the very qualities that distinguished its early leaders -- Roger Steele (1920-2014), Bud Hughes (1920-86), Paul V. Ammen (1920-81), Ken Holland and Ed Rule (1918-2011).  As Hexcel’s first management team, these veterans from the Bay area possessed a fortuitously well-matched and diversified set of talents. Steele furnished the visionary spirit and the unrelenting conviction that “honeycomb was and is the most efficient structure that man will ever achieve.” Bud housed and helped finance this vision and brought extraordinary sales skills to the task of purveying Roger’s inventions. “Bud could sell ice to the Eskimos,” Roger said. Paul, the one member who did not attend Berkeley or study engineering, served as chief financial officer, having secured an economics degree from Stanford. A friend from Piedmont High, Paul arrived in 1948, and none too soon. “I used to go to the bank every Friday to borrow money against receivables to keep the payroll checks from bouncing,” Roger said. In addition to his economics background, Paul brought the good faith and financial skills of his mother, Vera, who financed many of Hexcel’s first offices. Ken Holland, a fraternity brother of Roger, joined the company in 1948 with Paul, bringing with him a chemist’s expertise in resin and adhesive technology. That expertise quickly proved invaluable as Roger contended with the challenges of manufacturing fiberglass honeycomb for the company’s first contract with the military. Finally, Hexcel secured the managerial and production talents of Ed Rule, “the backbone of Hexcel for decades,” Roger said. Ed Rule, a late arrival to the inner circle having met Steele after the war, took perhaps the biggest gamble on this fledgling outfit. He left a job as head engineer of an established tool and die company in 1951 to join a company that was operating on a shoestring and struggling to keep up with sales. Rule quickly took over all manufacturing responsibilities, overseeing every aspect of plant construction and production design for the next 30-plus years. When Ed retired, Hexcel had grown into a global company with more than 3,500 employees.



Typically surfboards are measured in inches. The length is measured from the nose to the tail. Choosing the length of the surfboard is dependant on your size (weight, height), board type and waves conditions you wish to use the board for.


The widest point of the surfboard is measured from rail to rail. Generally the wider the surfboard the more stable the board, while a board with smaller width maintains better speed and performance.


Surfboard thickness is measured from the top deck to the bottom. The thickness again has a bearing on the board’s performance. Professional surfers will tend to go for the thinner boards as they are lighter and offer better performance.The thicker boards are stronger and because there is more foam under the surfer the boards are more stable.


The bottom curve of a surfboard. Generally the more rocker the surfboard has the more loose (manoeuvrable) the surfboard will be. Where the flatter rocker surfboards will be faster, although they will lack the looseness. The nose is the tip of the surfboard, the nose can vary in shapes and size. Basically the thinner the nose the more response the board will perform, while wider noses are better for stabilization.


Used to increase the strength of a surfboard, a stringer (normally made from wood) runs down the length of a surfboards (typically in the centre of the board from the tip of the nose to the tail).
Boards built with Epoxy, Carbon Fibre and soft boards generally don’t have stringers.


Generally heavier surfers require larger fins to hold the waves better. Although if you prefer to ride a looser (less hold in the waves), smaller fins would be a better option.


Fin configurations have an effect on the ways your surfboards perform.
The following are some of the more common fin configurations.


The single fin was the original fin configuration for surfboards. Based on the idea of the sailboat keel. Single fins are added stabilization and control on the powerful, larger waves, although lack manoeuvrability


Are great for small waves, being fast and manoeuvrable, but when put into tight spots on larger waves, they become hard to control. Popular with Fish surfboards.


Widely recognized as the standard fin configuration, the thruster answers the shortcomings of the single fin and the twin fins configurations.
The thrusters give you stabilization, control and manoeuvrability in all types of surfing conditions.
This concept was the brainchild of Australia’s Simon Anderson


With four fins in the water, Quads boasts an extraordinary amount of holding power in larger surf.
You may think that having four fins would sacrifice speed by creating more drag, but this is not the case.
The both sets of fins are working together on the rail, which makers believe they creates less drag than a board with a centre fin.
The manoeuvrability isn’t sacrificed either, with fins directly under your back foot, the quads are very responsive.


Similar setup to the Twin Fin, although smaller (low profile) fins are generally placed wider (closer to the rails) on the surfboard.
Popular with Fish and Egg / Retro surfboards.

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