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| Project | Parameter | Unit |
| Cable model | OPGW-2S 2×24B1(0/92.6-60)
|
|
| Fiber optic number | 48 | B1 |
| Cable diameter | 13.2 | mm |
| Cable weight | 560±5 | Kg/km |
| Central structural element | 1×Φ2.6/30AS | mm |
| Fiber optic unit | 2×Φ2.5/24B1 | mm |
| Interior structural element | 4×Φ2.5/30AS | mm |
| Exterior structural element | 11×Φ2.8/30AS | mm |
| Calculated cross-sectional area | 92.6 | mm2 |
| Nominal breaking strength | 75 | KN |
| DC Resistance | 0.6 | Ω/km |
| Short-circuit current capacity | 60 | THE2S |
| Modulus of elasticity | 132 | G Pa |
| Linear expansion coefficient | 13.8 | ×10-8/℃ |
| Tension-to-weight ratio | 14.4 | km |
| Direction of the outermost hinge | Right |
|
| Static radius of curvature | 20D | mm |
| Dynamic radius of curvature | 30D | mm |
| Storage temperature | -60~85 | ℃ |
| Installation temperature | -40~70 | ℃ |
| Operating temperature | -60~70 | ℃ |
| Type of optical fiber | G.652D | |
| Attenuation coefficient | @1310nm | ≤0.36 dB/km |
| @1383nm | ≤0.35 dB/km | |
| @1550nm | ≤0.22 dB/km | |
| @1625nm | ≤0.23 dB/km | |
| Effective group refractive index | @1310nm | 1.467 |
| @1550nm | 1.467 | |
| Polarization mode dispersion | ≤0.1 ps/√km | |
| MFD 1310 nm | 9.0±0.3 um | |
| MFD 1550 nm | 10.0±0.3 um | |
| Lining diameter | 125.0±1.0 um | |
| Non-circular coating | ≤1.0 % | |
| Core/cladding concentricity error | ≤0.8 um | |
| Lining diameter | 242±7 um | |
| Non-circular core | ≤6.0 % | |
| ≤12.0 um | ||
| Cladding/coating concentricity error | ≤1260 nm | |
| Cable cut | 1312±10 nm | |
| Zero dispersion wavelength | 0.092 ps/(nm2∙km) | |
| Slope of dispersion | ≤0.05ps/√km | |
OPGW Stainless Steel Braided Tube
1. High-quality standards for designing, testing, and producing with available Grade A materials to ensure long-term reliability.
2. Engineering support by monitoring and providing its own line of accessory hardware.
3. Seal the stainless steel tube with superior protection to the optical fiber against moisture and extreme environmental conditions such as lighting.
4. To build OPGW, power must be cut off, resulting in greater loss, so OPGW should be used in the construction of high-pressure lines over 110kv.
5. Apply to the transformation of old lines.
Stainless steel (Al coated) OPGW center tube
1. High-quality standards for designing, testing, and producing with available Grade A materials to ensure long-term reliability.
2. Engineering support by monitoring and providing its own line of accessory hardware.
3. Higher tensile strength and fault current capacity to achieve a better balance between electrical and mechanical performance.
OPGW Aluminum Tube
1. Good anti-corrosion performance.
2. The material and structure are uniform, with good resistance to vibration fatigue.
3. Short-circuit current has a small effect on the transmission properties of optical fiber.
4. Good anti-fading performance.
Braided stainless steel tube
- The wire strands are replaced by stainless steel tubes filled with fiber
- The fiber tubes are helically twisted along the cables.
- The fiber deformation margin increases in relation to central tube designs
- Loaded buckling can be increased without inducing tension in the fiber.
Compact design
- Reduced weight – Greater flexibility
- Smallest minimum radius of curvature
- Easier to handle and install
Lower wind and ice loads put less stress on structures
• Stainless steel tubes filled with hydrophobic gel provide protection and support to the optical fibers
• Good traction performance
• Small diameter, light weight, little additional load on the tower.
• Excess fiber length suitable for the optical unit is easy to manufacture.





Mr. Herry
Phone/Wechat/Whatsapp:+8618123897029
Skype: sales09@aixton.com
Mr James
Phone/Wechat/Whatsapp:+8618566291592
Skype:aixton05