Tube - Fabric - GLOSS - 1.500 x 1.600 x 48 inch
$102.99
Estimated lead time for quantities greater than what is Available Now is expected to be at least 4 weeks.
Tube - Fabric - GLOSS - 1.500 x 1.600 x 48 inch
Tube - Fabric - GLOSS - 1.500 x 1.600 x 48 inch
Additional Information
| Shape | Round |
|---|---|
| Materials | Standard Modulus Carbon |
| Pattern | 3k 2X2 Twill Weave |
| Color | Black |
| Finish | Cello Wrap Gloss |
| Inside Diameter | 1.5 |
| Outside Diameter | 1.6 |
| Wall Thickness | 0.050 |
| Length | 48 |
| Length (max continuous) | 48.0 |
| Linear Density | 0.161 |
| Volumetric Density | 0.055 |
| Weight | 0.643 |
| Primary Fiber | Tenax UTS50 |
| Primary Resin / Hardener | Eporite EHM32 |
| HTS - Harmonized Tariff Code | 6815.13.0000 |
Engineering Properties
All laminate properties and mechanical calculations are based on Classical Lamination Theory and should be used as a reference only. Rock West Composites does not guarantee these properties or calculations.
| Avg EX Young's Modulus | 1.318E7 |
|---|---|
| Avg EY Young's Modulus | 6754000.0 |
| GXY Shear Modulus | 1102000.0 |
| X Tensile Yield Strength | 100600.0 |
| X Compressive Yield Strength | 123400.0 |
| Y Tensile Yield Strength | 40130.0 |
| Y Compressive Yield Strength | 68240.0 |
| XY Shear Strength | 9408.0 |
| CTEX | 3.50E-07 |
| CTEY | 1.97E-06 |
| Poisson's Ratio vXY | 0.055 |
| Poisson's Ratio vYX | 0.028 |
Note:
- "X" is along the length of a tube, rod, plate, or panel.
- "Y" is around the perimeter of a tube, perpendicular to the length of pultruded parts, or along the width of a plate or panel.
Layup Orientation
45006-4-GLOSS Rev A
| Ply # | Orientation (degrees) | Location |
|---|---|---|
| 1 | 0 | Inside |
| 2 | 0 | ↓ |
| 3 | 0 | |
| 4 | 90 | |
| 5 | 90 | |
| 6 | 0 | |
| 7 | 0 | |
| 8 | 0/90 | Outside |
- 0° fibers maximize bending stiffness and run along the length of the part. Consider bending a tube over your knee.
- 45° fibers maximize torsional stiffness and are typically plied together in an opposing manner, i.e. ±45°. Consider twisting a tube like a vehicle's driveshaft.
- 90° (or "hoop") fibers maximize crushing stiffness and generally assist in overall durability. Consider laying a tube on the ground and stepping on it.