|
|
Alumina Bulk Fiber Type ALBF
ZIRCAR Alumina Bulk Fiber Type ALBF consists of long aluminum oxide fibers suited for the vacuum forming of low density shapes. The high alpha alumina content and addition of a grain growth inhibitor give it extreme stability with useful properties to 1800°C (3272°F).
Alumina Bulk Fiber Type ALBF-1
Type ALBF-1 Alumina Bulk Fiber is a specially cleaned alumina fiber with relatively short fiber lengths. It is suitable for use in vacuum forming of high density rigid boards & shapes, in the reinforcement of cast ceramics and finds use to 1800°C (3272°F).
Alumina-Silica Bulk Fiber Type ASBF
Type ASBF Alumina-Silica Bulk Fiber is long alumina-silica fibers suited for the vacuum forming of low density shapes, for use as packing or as a bulk fill material. It is useful to temperatures of 1260°C (2300°F).
Alumina-Silica Bulk Fiber Type ASBF-1
Type ASBF-1 Alumina-Silica Bulk Fiber is a specially processed fiber which has low shot content and relatively short fiber length. Suitable for vacuum forming of rigid boards & shapes in a range of densities and use as bulk insulation, it has useful properties to 1260°C (2300°F). |
|
KERMEL company manufactures two types of meta aramid fibres:
- Kermel® is a highly technological meta aramid fibre, predominantly used in the manufacture of heat and flame resistant protective clothing.
- Kermel® Tech fibre is dedicated to industrial applications such as hot gas filtration. |
|
| Due to the outstanding properties in respect to heat resistance, tensile strength and cut resistance, Twaron® is increasingly used for heat and cut protective clothing. Apart of 100% Twaron® spun yarn, also blends with other high performance fibers are used. |
|
| Recently, several Twaron®-based geotextiles have been developed and proven their success. When applied in the construction business, these geotextiles provide extra rigidity to the structure, permitting construction work on a very thin foundation layer. In addition, Twaron®'s excellent properties guarantee minimum cracking of the asphalt layer throughout a road's service life. |
|
| Twaron® aramid fibers are used in all kinds of composite parts. Its unique combination of properties makes it suitable for a wide range of high performance applications. Twaron® aramid fibers combine the following properties: a high performance/low weight ratio, a high damage tolerance and a good abrasion resistance. |
|
| Twaron® and Technora® high-performance fibers are used in all kinds of composite parts. Their unique combination of properties makes them very suitable for a wide range of engineering plastics. |
|
| Different types of Twaron® pulp are used in: friction materials, sealing materials, technical paper and braided packings. |
|
| Twaron®, Technora® and Teijinconex® fibers are excellently suited for reinforcing mechanical rubber goods, such as hoses, transmission belts, and conveyor belts. Every application makes its specific demands on reinforcing materials. |
|
| Optical Fiber Cables are designed to guarantee the integrity of data transmission through the optical fibers in the cable by protecting the Optical Fibers against mechanical stress during the life of the cable. In order to do so, a peripheral reinforcement of man-made fibers like Twaron® and Technora®, is necessary. In addition to protection, other demands on the cable can be made like non-conductivity, weight or diameter limitations, and specifications concerning flexibility and handling. |
|
| Twaron® and Technora®'s unique combination of properties makes them an excellent material for the reinforcement of ropes and cables with advantages over both synthetic yarns and steel. |
|
| As the result of its superior performance/weight ration, aramid has become the first choice reinforcing material for high performance tires. Whether in car or motorcycle tires, whether optimized towards speed, handling or comfort, Twaron® is increasingly used by the major tire producers to further improve performance while minimizing tire weight. |
|
| Twaron® has excellent energy absorption properties and offers an effective and comfortable ballistic solution with an outstanding cost-performance ratio. At this moment, Twaron® in its many varieties has been implemented in numerous ballistic solutions and saving thousands of lives worldwide. |
|
| Advanced composite material technology has created a beautiful, perfectly balanced, carbon woven fabric collection. The combination of materials gives this rollerball pen a unique look and feel. |
|
MAPEWRAP C BI-AX : Balanced high strength bidirectional carbon fibre fabric. Mapewrap C BI-AX is a bidirectional carbon fibre fabric characterised by a high modulus of elasticity and very high tensile strength. Mapewrap C BI-AX is suitable for repairing concrete structures and to improve flexural and shear strength of reinforced concrete structures damaged by physical-mechanical action, for confinement of axial loaded or concrete elements subjected to compressive and bending stress and for seismic strengthening in earthquake areas.
MAPEWRAP C UNI-AX : High strength unidirectional continuous carbon fibre fabric. Mapewrap C UNI-AX is a uni-directional continuous carbon fibre fabric characterised by a high modulus of elasticity and very high tensile strength. Mapewrap C UNI-AX is suitable for repairing reinforced concrete structures damaged by physical-mechanical action, for confinement of axial loaded or concrete elements subjected to compressive and bending stress and for seismic strengthening in earthquake areas.
|
|
Product Stability:
BASALTEX Products have not been designed for full external exposure conditions and cannot be guaranteed for use in such situations. However, these BASALTEX products have considerable tolerance to damp conditions and occasional water immersion. After drying out, the product will give
the same level of performance as the original sample. |
|
Product Stability:
BASALTEX Products have not been designed for full external exposure conditions and cannot be guaranteed for use in such situations. However, these BASALTEX products have considerable tolerance to damp conditions and occasional water immersion. After drying out, the product will give the same level of performance as the original sample. |
|
3B Chopped Strands are glass fibres filaments chopped into a specified length and coated with a chemical sizing, which ensures the compatibility with the resin to reinforce.
They are generally used to reinforce thermosplastic and thermoset resins using compounding, injection-moulding or compression processes.
3B Chopped Strands are engineered to offer excellent flow ability properties, very low level of fines fibres and then to improve processing productivity.
Thermoplastic Chopped Strands
3B Thermoplastic Chopped Strands are reinforcements designed for use in thermoplastic polymer systems. They are designed to improve tensile and flexural resistance, to bring dimensional stability especially at high temperatures and to allow a much better control of the moulded part shrinkage. |
|
The chopped strand of CPIC is divided into thermoset(BMC) and thermoplastic(PA,PBT,PPO,ABS/AS,PC).
Characteristics:
1. Silicane coupling agent.
2. Adopting special designed sizing, compatible well with basic resins.
3. Fabrication property,integrity and dry flow ability, dispersion while injection.
4. Bring composite high mechanical strength and excellent appearance quality. |
|
| Chopped strands ER 2011 are made of boroaluminosilcate glass, comprising less than 1% alkalies. It is characterized by good strand integrity. Chopped strands are not stuck together, and their ends are not fuzzy. Chopped strands have the same, repeatable length of fibre sections. The size type put on the filament enables to process it with non-saturated polyester resins as well as phenolic and melamine ones. Chopped strands ER 2011 are for producing polyester moulding compounds of DMC and BMC type. Products made of these compounds can be formed by pressing or injection. Chopped strands ER-2011 can be used to produce articles from phenolic, amino resins and poly-amides as their reinforcement. |
|
Mat EM 1002 with densities of 100, 150, 225 g/m2 is manufactured from chopped strands made of glass fibre bound together with an emulsion binder and drawn from E glass containing less than 1% of alkalies. The diameter of filament is 9 µm. The mat has a reduced strand linear density (tex) and the surface weight (density) comparing to the standard emulsion mat. It is very soft and it sets very well in a mould taking perfectly its very complicated shapes. It is characterised by a medium wet-out rate in a non-saturated polyester resin and by a good ability to remove air in the process of lamination.
Application
Emulsion bound mat EM 1002 with surface weights of 100 g/m2,150 g/m2 225 g/m2 is suitable for making laminates in a contact process. It is used with all types of non-saturated polyester resins for manufacturing products reinforced with glass fibre. It suites especially for manufacturing gel coated products as their reinforcement. It is also particularly recommended as the external layer of laminate in case of products with improved aesthetics of the surface. |
|
Key Issues:
Polymat has the ability to fill a closed mould cavity as one fabric
Polymat will cold mould to the contours of the tooling while maintaining bulk.
Width and weight variations can be addressed subject to order quantity.
Polymat is designed to provide glass reinforcement in the tension zones as well as allowing resin a medium for ease of flow through the mould tool. |
|
AGY's 401 S-2 Glass Chopped Strands are a unique product developed to meet the needs of the ceramic reinforcement market, as well as other high performance filler materials applications.
The 401 S-2 Glass chopped strands consist of numerous E to L filament continuous fibers cut into short pieces of consistent length. The standard length for the chopped strand product is ¼", or 6.4mm. Other lengths can be produced to order, but are considered non-standard products. The 401 size chemistry designation is applied to the chopped strand fibers. This chemistry is a multi-compatible size, suitable for use in epoxy, urethane, phenolic, and polyamide resin systems, and is also compatible with standard ceramic slurry processes. The 401 S-2 Glass Chopped Strands are designed for use in a variety of processes including compound molding, injection molding, and ceramic casting. |
|
3B Continuous Filament Mat (CFM) is a non-woven mat made from Advantex filaments, consisting of continuous fibres randomly oriented in multiple layers. The glass fibre is bonded with silane coupling agent and the layers held together with a suitable binder.
3B offers two groups of CFM: powder mats and emulsion mats. Both groups provide end-users with different controls over rigidity, conformability, handling, wet-out and a range of tensile strengths.
CFM is particularly suitable for compression moulded electrical and non-electrical laminates as well as for pultrusion and infusion or injection processes (e.g. RTM, S-RIM or Matched Die Molding). CFM products contain an insoluble binder for unsaturated polyester, epoxy and polyurethane compatibility in unfilled or filled resin systems.
In certain applications, 3B CFM also shows good compatibility with polyurethane foams. |
|
Direct Rovings deliver excellent processing and mechanical properties for the composite part.
The strands offer compatibility with most resin systems including polyester, vinyl ester, epoxy, phenolic, polypropylene and polyamide.
Typical end-use processes for Direct Rovings include:
filament winding to manufacture hollow tubular structures such as pipes, storage tanks, pressure vessels
pultrusion for composite profiles used in consumer goods, sports and leisure, telecommunications and infrastructure parts
knitting and weaving where the semi-finished product (fabric) can be used in a wide range of applications (wind energy, marine, transportation sports and leisure and infrastructure)
Using LFT (Long Fibre Thermoplastic) Direct Roving reinforcement in thermoplastic processes enables moulders to produce structural or semi-structural parts for the automotive industry compounding the fibreglass in-line with injection or compression moulding techniques. |
|
|
|