Glass Fiber Reinforced Nylon Sheet is a black glass-filled polyamide material developed for industrial components requiring increased rigidity, mechanical strength, dimensional stability and machining performance. It can be processed into gears, structural supports, guide plates, fixture blocks, bearing housings, mounting plates and other CNC-machined components. The supplied size chart includes five panel formats and fifteen thickness options from 3 mm to 50 mm, providing a total of 75 listed size combinations.
Glass Fiber Reinforced Nylon Sheet is a reinforced engineering plastic manufactured by combining a polyamide base resin with glass fibers. The reinforcement is intended to improve rigidity, mechanical strength, creep resistance and dimensional stability compared with an equivalent unfilled nylon grade.
The material is normally supplied in black or another grade-specific color and can be converted into square blanks, rectangular panels or finished CNC-machined components. Common products include gears, structural supports, guide plates, bearing housings, fixture blocks, mounting plates, equipment brackets, insulating supports and mechanically loaded machine parts.
The term “glass fiber reinforced nylon” describes a family of reinforced materials rather than one universal formulation. The base resin may be PA6, PA66 or another polyamide grade, while the glass-fiber content and additive system may vary between manufacturers. The exact base polymer, reinforcement level and technical properties should therefore be confirmed before production.
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For general material information, visit Wikipedia’s explanation of a glass-filled polymer. Additional background information about the base polymer is available in Wikipedia’s article about nylon.
Glass-fiber reinforcement normally increases the stiffness of the nylon matrix. This makes Glass Fiber Reinforced Nylon Sheet suitable for structural components that need to resist bending or deformation under mechanical load.
Actual rigidity depends on the base nylon grade, glass-fiber content, fiber orientation, sheet thickness, operating temperature and environmental moisture. Finished components should be evaluated according to their complete structure rather than the material name alone.
Glass Fiber Reinforced Nylon Sheet can provide greater tensile, flexural and compressive performance than an equivalent unfilled nylon grade. It is commonly selected for equipment supports, mounting blocks, bearing housings, fixture parts and other mechanically loaded components.
Load capacity also depends on hole positions, wall thickness, unsupported span, fastening method, stress concentration and whether the load is static, dynamic or intermittent.
Glass-fiber reinforcement can reduce dimensional movement caused by mechanical loading and temperature changes. This is useful for machined components that require greater rigidity and more stable positioning than ordinary unfilled nylon can provide.
The nylon matrix can still absorb moisture. Precision tolerances must therefore consider the material conditioning state, environmental humidity and operating temperature.
Glass Fiber Reinforced Nylon Sheet can provide improved resistance to long-term deformation under sustained load compared with unfilled nylon. It may be used for supports, mounting plates, brackets and structural machine components.
Continuous load, temperature, component thickness and fastening arrangement must still be evaluated because thermoplastic materials can deform over time when exposed to sufficient stress.
The reinforced material can be used for gears, supports, guides and other components exposed to repeated mechanical contact. Increased rigidity and surface hardness can provide stable performance in suitable wear applications.
Glass fibers may make the material more abrasive against soft mating surfaces than unfilled nylon. Shaft hardness, rail material, surface finish and lubrication conditions should therefore be evaluated before selecting the material for continuous sliding applications.
Glass-fiber reinforcement can reduce thermal expansion and help improve dimensional control compared with an equivalent unreinforced nylon material.
The allowable operating temperature is not identical for every Glass Fiber Reinforced Nylon Sheet grade. Continuous temperature, short-term peak temperature, applied load and exposure time should be confirmed through the selected material data sheet.
Selected Glass Fiber Reinforced Nylon Sheet grades can provide useful electrical insulation and may be machined into mounting supports, terminal supports, separation plates and equipment-protection components.
Moisture absorption, glass-fiber content and other additives may affect electrical performance. A verified material grade should be selected when dielectric strength or volume resistance is a critical requirement.
Glass Fiber Reinforced Nylon Sheet does not rust like ordinary carbon steel. It can be used in humid industrial environments and equipment where corrosion is a concern for unprotected metal parts.
Chemical compatibility depends on the base nylon grade, contacting chemical, concentration, operating temperature and exposure time. Compatibility should be confirmed before contact with strong acids, strong alkalis, oxidizing substances or unusual solvents.
Glass Fiber Reinforced Nylon Sheet can be saw cut, milled, drilled, bored, reamed, tapped, slotted, countersunk and machined into complex industrial components.
Because glass fibers increase cutting-tool wear, carbide or other wear-resistant tools are normally preferred. Cutting speed, feed rate, clamping pressure and cooling method should be selected according to the material grade and finished-part requirements.
The supplied manufacturable-size chart contains five panel formats. Each panel format has the same fifteen selectable thicknesses, providing a total of 75 listed length, width and thickness combinations.
All dimensions below are presented as length × width × thickness, with values shown in millimetres. These dimensions represent selectable or manufacturable specifications rather than guaranteed inventory.
| Panel Size | Available Thicknesses | Number of Combinations |
|---|---|---|
| 50 × 50 mm | 3, 4, 5, 6, 8, 10, 12, 15, 20, 25, 30, 35, 40, 45 and 50 mm | 15 |
| 100 × 100 mm | 3, 4, 5, 6, 8, 10, 12, 15, 20, 25, 30, 35, 40, 45 and 50 mm | 15 |
| 150 × 150 mm | 3, 4, 5, 6, 8, 10, 12, 15, 20, 25, 30, 35, 40, 45 and 50 mm | 15 |
| 200 × 200 mm | 3, 4, 5, 6, 8, 10, 12, 15, 20, 25, 30, 35, 40, 45 and 50 mm | 15 |
| 300 × 300 mm | 3, 4, 5, 6, 8, 10, 12, 15, 20, 25, 30, 35, 40, 45 and 50 mm | 15 |
Size summary: Available panel formats are 50 × 50 mm, 100 × 100 mm, 150 × 150 mm, 200 × 200 mm and 300 × 300 mm. Each format is listed in thicknesses of 3, 4, 5, 6, 8, 10, 12, 15, 20, 25, 30, 35, 40, 45 and 50 mm.
The complete chart therefore contains five panel formats multiplied by fifteen thickness options, giving 75 listed combinations. Actual base nylon grade, black color, glass-fiber content, stock status, cutting allowance and production schedule should be confirmed before ordering.
For CNC-machined components, the selected Glass Fiber Reinforced Nylon Sheet blank should normally be larger and thicker than the finished part. Allowance is required for edge cleaning, clamping, rough machining, surface finishing and final dimensional inspection.
| Item | Typical Specification |
|---|---|
| Product name | Black Glass Fiber Reinforced Nylon Sheet |
| Focus keyword | Glass Fiber Reinforced Nylon Sheet |
| Material family | Glass-fiber-reinforced polyamide engineering plastic |
| Possible base resin | PA6, PA66 or another confirmed polyamide grade |
| Color | Black |
| Glass-fiber content | Confirmed according to the selected material grade |
| Listed panel formats | 50 × 50, 100 × 100, 150 × 150, 200 × 200 and 300 × 300 mm |
| Listed thickness range | 3–50 mm |
| Listed thicknesses | 3, 4, 5, 6, 8, 10, 12, 15, 20, 25, 30, 35, 40, 45 and 50 mm |
| Total listed combinations | 75 |
| Supply form | Square blank, cut panel, machining block or finished CNC-machined component |
| Available processing | Cutting, milling, drilling, boring, reaming, tapping, slotting and profile machining |
| Surface condition | Cut, planed or CNC-machined according to order requirements |
| Dimensional tolerance | Confirmed according to panel size, thickness, material grade and finished-part drawing |
| Final suitability | Depends on load, temperature, humidity, wear, impact, chemical exposure and mating material |
Technical note: Density, mechanical strength, flexural modulus, moisture absorption, heat performance and electrical properties vary with the base resin and glass-fiber content. Final technical values should be taken from the approved material data sheet rather than estimated from color or appearance.
Glass Fiber Reinforced Nylon Sheet can be machined into equipment supports, mounting blocks, brackets and machine bases. Its increased rigidity is useful where the finished component must maintain its shape under mechanical load.
The material can be processed into fixture blocks, locating plates, positioning supports, clamping components and inspection-tool parts.
Hole positions, reference surfaces and geometric tolerances should be selected according to environmental humidity, operating temperature and required assembly accuracy.
Suitable Glass Fiber Reinforced Nylon Sheet blanks can be machined into spur gears, helical gears and other transmission components requiring increased rigidity.
Glass-filled nylon gears may transmit higher loads than an equivalent unfilled nylon grade, but tooth profile, rotational speed, impact, lubrication and wear on the mating gear must be evaluated before selection.
The reinforced material can be used for bearing housings, shaft supports, retaining plates and other structural components surrounding a bearing or rotating assembly.
Bearing fits should account for machining tolerance, operating temperature, moisture absorption and the direction of mechanical loading.
Glass Fiber Reinforced Nylon Sheet can be machined into guide plates, positioning rails and machine-guiding components where rigidity is more important than extremely low sliding friction.
For continuous sliding against a soft metal shaft or rail, the abrasiveness of exposed glass fibers should be evaluated. A self-lubricating nylon, POM or UHMWPE grade may be more suitable for some low-friction applications.
Selected grades can be used for insulating supports, mounting plates, terminal supports, spacers and protective structural components.
Electrical performance must be verified through a grade-specific data sheet when the part is installed near live conductors or in high-voltage equipment.
Typical components include brackets, housings, supports, adjustment blocks, mounting plates and protective machine parts. The lower weight of reinforced nylon compared with metal can simplify component handling and assembly.
Glass Fiber Reinforced Nylon Sheet can be processed into fixture plates, positioning parts, sensor supports, machine brackets and structural components containing holes, slots, recesses and threaded features.
Finished components can be produced when an original component is worn, corroded, damaged or difficult to obtain. Manufacturing can be based on two-dimensional drawings, three-dimensional models, physical samples or measured installation dimensions.
Standard unfilled nylon generally provides greater impact toughness and may be less abrasive against mating surfaces. Glass Fiber Reinforced Nylon Sheet normally provides greater rigidity, mechanical strength, creep resistance and dimensional stability.
The reinforced material may have lower elongation and can be more sensitive to impact near sharp corners. Material selection should consider stiffness, impact, sliding contact, humidity, machining requirements and finished-part structure.
Glass Fiber Reinforced Nylon Sheet is commonly selected for structural parts requiring rigidity, strength and improved heat-related dimensional control.
POM generally absorbs less moisture and may provide better dimensional stability and sliding behavior for some precision guides, rollers, bushings and close-fitting components. The correct material depends on load, humidity, friction, tolerance and operating temperature.
Glass Fiber Reinforced Nylon Sheet is lighter and corrosion-free and may provide electrical insulation and reduced contact noise. Aluminum normally provides higher overall rigidity, thermal conductivity and tighter long-term dimensional control.
Reinforced nylon should only replace aluminum after load, temperature, fastening method, creep, fire performance and dimensional requirements have been evaluated.
The nylon matrix is hygroscopic and can absorb moisture from the surrounding environment. Glass-fiber reinforcement can reduce dimensional movement but does not eliminate moisture absorption completely.
The following factors should be reviewed for precision-machined components:
Black Glass Fiber Reinforced Nylon Sheet can be supplied as a square blank, cut panel or finished component manufactured according to drawings, models, samples or installation measurements.
Available machining processes include:
Glass fibers can accelerate tool wear. Sharp carbide tools or another suitable wear-resistant cutting-tool system should be used to maintain surface quality and dimensional consistency.
Excessive clamping force may deform thin blanks or damage corners. The component should be supported across a sufficient area during machining and inspection.
Sharp internal corners can create stress concentration. Suitable radii and gradual section transitions should be used where the component is exposed to impact or cyclic loading.
The selected raw blank should be larger than the finished component. Allowance is required for edge cleaning, workholding, rough machining and final finishing.
The material should be selected according to the complete operating conditions rather than black color or product name alone.
Please provide the following information before production:
The supplied chart contains five panel formats and fifteen thickness options, giving a total of 75 listed size combinations.
The listed panel formats are 50 × 50, 100 × 100, 150 × 150, 200 × 200 and 300 × 300 mm.
The listed thicknesses are 3, 4, 5, 6, 8, 10, 12, 15, 20, 25, 30, 35, 40, 45 and 50 mm.
No. The image only lists panel dimensions and thickness options. Glass-fiber content must be confirmed through the material specification.
No. Black color may result from pigment, carbon black or another additive. The approved material grade or technical data sheet should confirm whether glass fiber is present.
Yes. It can be machined into gears, supports, fixture blocks, mounting plates, bearing housings, guides and other industrial components.
It may be used in selected sliding applications, but exposed glass fibers can increase wear on softer mating surfaces. Shaft hardness, surface finish, load, speed and lubrication should be evaluated.
Yes. The nylon matrix can absorb moisture. Reinforcement may reduce dimensional movement but does not eliminate moisture absorption.
Yes. Cut blanks and finished CNC-machined parts can be supplied according to drawings, models, physical samples or installation measurements.
No. The chart represents selectable or manufacturable specifications. Actual availability depends on the base nylon grade, glass-fiber content, quantity and production schedule.
Check drawings for full specifications and confirm materials according to service conditions to prevent product defects.
Inspect all key processing steps and fully verify dimensions, holes, grooves and fitting surfaces.
Deburr, chamfer and clean products for easy installation. Ensure uniform quality among batch products.
Choose appropriate packaging solutions based on product features to protect goods from collision, deformation and mixing during transit.
Unlike metal parts, engineering plastic components still require strict control over dimensions, holes, edges, surface, materials and assembly performance for equipment use.
Engineering plastic parts suit friction, guide, support, buffer, anti-corrosion and insulation areas. We supply UHMWPE, POM, PA, PP/PE components for conveyor, food, mining, machinery, chemical and cable systems, with custom OEM service available.
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