GJXH, GJXDH, GJXFH, GJXFDH butterfly drop optical cables for indoor wiring SM 1310nm/1550nm
FTTX drop product series. Butterfly drop optical cables for indoor wiring (GJXH, GJXDH, GJXFH, GJXFDH). 1. Conventional butterfly drop cables: GJXH (metallic strength members, LSZH sheath, non-self-supporting); GJXDH (ribbon fiber, metallic strength members, LSZH sheath, non-self-supporting); GJXFH (nonmetallic strength members, LSZH sheath, non-self-supporting); GJXFDH (ribbon fiber, nonmetallic strength members, LSZH sheath, non-self-supporting). 2. Side-by-side dual-fiber butterfly drop cables: independent dual-fiber GJXH (metallic strength members, LSZH sheath, non-self-supporting); independent dual-fiber GJXFH (nonmetallic strength members, LSZH sheath, non-self-supporting). Applicable standard: YD/T 1997.1-2014, Communications drop optical fiber cables, Part 1: Butterfly optical cables. Note: other fibers required by users can also be supplied. Notes: 1. Corresponding technical parameters can be adjusted to customer requirements. 2. PVC and other customer-required sheath materials can be used.
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Overview
Specifications
| Parameter | Value |
|---|---|
| Operating Temperature | -20℃～﹢70℃ |
| 62.5μm (OM1) 850nm/1300nm-Maximum Attenuation | 3.5/1.5 |
| 62.5μm (OM1) 850nm/1300nm-Typical Attenuation | 3.5/1.5 |
| 50μm (OM2) 850nm/1300nm-Maximum Attenuation | 3.5/1.5 |
| 50μm (OM2) 850nm/1300nm-Typical Attenuation | 3.0/1.0 |
| 50μm (OM3) 850nm/1300nm-Maximum Attenuation | 3.5/1.5 |
| 50μm (OM3) 850nm/1300nm-Typical Attenuation | 3.0/1.0 |
| GJXH-Fiber Count | 1,2,4 |
| GJXH - Specifications | 2.0 mm × 3.0 mm |
| GJXH-Weight | 9.2 kg/km |
| GJXH - Tensile Force (Long-Term) | 100 |
| GJXH - Tensile Force (Short-Term) | 200 |
| GJXH - Crush Force (Long-Term) | 1000 |
| GJXH - Crush Force (Short-Term) | 2200 |
| GJXH - Bend radius (static) | 15 |
| GJXH - Bend radius (dynamic) | 30 |
| Low-friction GJXH - Core count | 1,2 |
| Low-friction GJXH - Specifications | 1.6 mm × 2.0 mm |
| Low-friction GJXH - Weight | 7.2 kg/km |
| Low-friction GJXH - Tensile force (long-term) | 100 |
| Low-friction GJXH - Tensile force (short-term) | 200 |
| Low-friction GJXH - Crushing force (long-term) | 1000 |
| Low-friction GJXH - Crushing force (short-term) | 2200 |
| Low-friction GJXH - Bend radius (static) | 15 |
| Low-friction GJXH - Bend radius (dynamic) | 30 |
| GJXDH-Fiber Count | 4 |
| GJXDH - Specifications | 2.0 mm × 4.0 mm |
| GJXDH-Weight | 9.3 kg/km |
| GJXDH - Tensile Force (Long-Term) | 100 |
| GJXDH - Tensile Force (Short-Term) | 200 |
| GJXDH - Crush Force (Long-Term) | 1000 |
| GJXDH - Crush Force (Short-Term) | 2200 |
| GJXDH - Bend radius (static) | 15 |
| GJXDH - Bend radius (dynamic) | 30 |
| GJXFH-Fiber Count | 1,2,4 |
| GJXFH - Specifications | 2.0 mm × 3.0 mm |
| GJXFH-Weight | 8.2 kg/km |
| GJXFH - Tensile Force (Long-Term) | 40 |
| GJXFH - Tensile Force (Short-Term) | 80 |
| GJXFH - Crush Force (Long-Term) | 500 |
| GJXFH - Crush Force (Short-Term) | 1000 |
| GJXFH - Bend radius (static) | 15 |
| GJXFH - Bend radius (dynamic) | 30 |
| Low-friction GJXFH - Core count | 1,2 |
| Low-friction GJXFH - Specifications | 1.6 mm × 2.0 mm |
| Low-friction GJXFH - Weight | 5.5 kg/km |
| Low-friction GJXFH - Tensile force (long-term) | 40 |
| Low-friction GJXFH - Tensile force (short-term) | 80 |
| Low-friction GJXFH - Crushing force (long-term) | 500 |
| Low-friction GJXFH - Crushing force (short-term) | 1000 |
| Low-friction GJXFH - Bend radius (static) | 15 |
| Low-friction GJXFH - Bend radius (dynamic) | 30 |
| GJXFDH-Fiber Count | 4 |
| GJXFDH - Specifications | 2.0 mm × 4.0 mm |
| GJXFDH-Weight | 8.3 kg/km |
| GJXFDH - Tensile Force (Long-Term) | 40 |
| GJXFDH - Tensile Force (Short-Term) | 80 |
| GJXFDH - Crush Force (Long-Term) | 500 |
| GJXFDH - Crush Force (Short-Term) | 1000 |
| GJXFDH - Bend radius (static) | 15 |
| GJXFDH - Bend radius (dynamic) | 30 |
| Independent dual-core GJXH - Core count | 1 |
| Independent dual-core GJXH - Specifications | 2.0 mm × 6.0 mm |
| Independent dual-core GJXH - Weight | 23.1 kg/km |
| Independent dual-core GJXH - Tensile force (long-term) | 100 |
| Independent dual-core GJXH - Tensile force (short-term) | 300 |
| Independent dual-core GJXH - Crushing force (long-term) | 1000 |
| Independent dual-core GJXH - Crushing force (short-term) | 2200 |
| Independent dual-core GJXH - Bend radius (static) | 15 |
| Independent dual-core GJXH - Bend radius (dynamic) | 30 |
| Independent dual-core GJXFH - Core count | 1 |
| Independent dual-core GJXFH - Specifications | 2.0 mm × 6.0 mm |
| Independent dual-core GJXFH - Weight | 16.4 kg/km |
| Independent dual-core GJXFH - Tensile force (long-term) | 40 |
| Independent dual-core GJXFH - Tensile force (short-term) | 100 |
| Independent dual-core GJXFH - Crushing force (long-term) | 500 |
| Independent dual-core GJXFH - Crushing force (short-term) | 1000 |
| Independent dual-core GJXFH - Bend radius (static) | 15 |
| Independent dual-core GJXFH - Bend radius (dynamic) | 30 |
| Maximum Attenuation | 0.4/0.3 |
| Typical Attenuation | 0.38/0.25 |
Applications
Key Features
Datasheet
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