MGTSV+2x0.8 Mining Hybrid Optical/Electrical Cable
Save to Favorites
Specifications
| Parameter | Value |
|---|---|
| Cable Core Structure [Core count : 2F/4F/6F/8F/12F] | 1+4 |
| Loose Tube Outer Diameter [Core count : 2F/4F/6F/8F/12F; ±0.1] | 2.15±0.1 mm |
| Maximum Cores per Tube * Tube Count [Core count : 2F/4F/6F/8F/12F] | 12 Cores*1 Tube |
| Power Cable-Cross-Sectional Area [Core count : 2F/4F/6F/8F/12F] | 0.8 mm² |
| Power Cable - Diameter [Core count : 2F/4F/6F/8F/12F; ±0.1] | 1.9±0.1 mm |
| Power Cable-Insulation Material [Core count : 2F/4F/6F/8F/12F] | PVC |
| Power Cable - Count [Core count : 2F/4F/6F/8F/12F] | 2 pieces |
| Strength Member Steel Wire/Coating [Core count : 2F/4F/6F/8F/12F] | 1.0 mm |
| Water-Blocking Material [Core count : 2F/4F/6F/8F/12F] | Cable Filling Compound |
| Inner Protective Armoring Model [Core count : 2F/4F/6F/8F/12F] | Steel Tape |
| Inner Jacket Material [Core count : 2F/4F/6F/8F/12F] | MDPE |
| Jacket Thickness [Core count : 2F/4F/6F/8F/12F; ±0.1] | 0.8±0.1 mm |
| Outer jacket Material [Core count : 2F/4F/6F/8F/12F] | Flame-Retardant PVC |
| Outer jacket Thickness [Core count : 2F/4F/6F/8F/12F; ±0.1] | 1.0±0.1 mm |
| Optical cable outer diameter [Core count : 2F/4F/6F/8F/12F; ±0.3] | 9.9±0.3 mm |
| Optical cable net weight [Core count : 2F/4F/6F/8F/12F] | 115.0 kg/km |
| Fiber type | G.652D Single-mode Optical fiber |
| Mode field Diameter @1310nm [G.652D Single-mode Optical fiber ; @1310nm; ±0.4μm] | 9.2±0.4μm |
| Cladding diameter [G.652D Single-mode Optical fiber ; ±1.0μm] | 125.0±1.0μm |
| Mode Field Concentricity Error [G.652D Single-mode Optical fiber] | ≤0.5μm |
| Cladding Noncircularity [G.652D Single-mode Optical fiber] | ≤0.8% |
| Cutoff Wavelength λcc [G.652D single-mode fiber; tested over 20m cable +2m fiber] | λcc (tested on 20m optical cable +2m optical fiber) ≤1260 nm |
| Attenuation Coefficient [G.652D Single-mode Optical fiber ; 1310nm] | ≤0.36 dB/km |
| Attenuation Coefficient [G.652D Single-mode Optical fiber ; 1550nm] | ≤0.22 dB/km |
| Dispersion Coefficient [G.652D Single-mode Optical fiber ; 1270-1360nm] | 1270-1360nm≤5.3ps/nm.km |
| Dispersion Coefficient [G.652D Single-mode Optical fiber ; 1550nm] | 1550nm≤18ps/nm.km |
| Zero-Dispersion Wavelength [G.652D Single-mode Optical fiber] | 1300nm-1324nm |
| Zero-Dispersion Slope [G.652D Single-mode Optical fiber] | ≤0.09ps/nm².km |
| Polarization Mode Dispersion Coefficient PMD_Q [G.652D Single-mode Optical fiber] | PMD_Q≤0.2ps/km^(1/2) |
| Coating Outer diameter [G.652D Single-mode Optical fiber ; ±10μm] | 245±10μm |
| Proof-Test Tension [G.652D Single-mode Optical fiber] | 100kpsi（0.7Gpa） |
| Tensile Loading IEC 60794-1-E1 [Long-Term: 500N Short-Term: 1000N Cable Length: at least 50 m; Fiber at 1550ｎｍ] | Fiber attenuation change at 1550ｎｍ is ≤0.1dB; all fibers and components in the optical cable shall remain intact |
| Crushing IEC 60794-1-E3 [Long-Term: 500 N/100mm Short-Term: 1000 N/100mm Loading Time: 1 minute; Fiber at 1550ｎｍ] | Fiber attenuation change at 1550ｎｍ is ≤0.1dB; all fibers and components in the optical cable shall remain intact |
| Shock IEC 60794-1-E4 [Impact height: １ｍ; impact weight: 450ｇ; at least 5 impact points; at least 3 impacts per point; fiber at 1550ｎｍ] | Fiber attenuation change at 1550ｎｍ is ≤0.1dB; all fibers and components in the optical cable shall remain intact |
| Repeated Bending IEC 60794-1-E6 [Mandrel diameter: 20 times cable diameter; weight: 15kg; 30 bends at 1 bend per 2 seconds; fiber at 1550ｎｍ] | Fiber attenuation change at 1550ｎｍ is ≤0.1dB; all fibers and components in the optical cable shall remain intact |
| Torsion IEC 60794-1-E7 [Twisting length: 1ｍ; weight: 15kg; twist angle: ±180 degrees; at least 10 twists; fiber at 1550ｎｍ] | Fiber attenuation change at 1550ｎｍ is ≤0.1dB; all fibers and components in the optical cable shall remain intact |
| Temperature Cycling IEC 60794-1-F1 [Temperature steps: ＋20℃, －40℃, ＋60℃, ＋20℃; dwell 24 hours per step; 2 cycles; fiber at 1550ｎｍ] | Fiber attenuation change at 1550ｎｍ is ≤0.1dB; all fibers and components in the optical cable shall remain intact |
| Drip Performance IEC 60794-1-E14 [Sample Length: 30cm Temperature Range: 70℃±2℃ Holding Time: 24 hours] | No dripping of filling compound |
| Jacket Integrity [Inline test DC 9t kV, where t is sheath thickness in mm.] | No sheath breakdown |
| Fiber Optic Cable Bend Radius [Static Bending] | At least 10 times the cable outer diameter |
| Fiber Optic Cable Bend Radius [Dynamic Bending] | At least 20 times the cable outer diameter |
Datasheet
Please provide your email to download the datasheet.
Invalid email format. Please try again.
Supplier Information
Related Products
-
GJPFJV Indoor Ten-Gigabit Optical Cable Lifo-fj GJPFJV48A1a-OM3-300
Fiber Cables & Bundles
Lifo-fj
Inspection Standard: YD/T 1258.4-2005, Indoor optical cable series, part four: multicore optical cables Attenuation Coefficient [λ=850nm; Test Environment 22°C~25°C; Relative Humidity 47%~51%]: ≤3.5 dB/km Attenuation Coefficient [λ=1300nm; Test Environment 22°C~25°C; Relative Humidity 47%~51%]: ≤1.5 dB/km
-
Transfer CO&CO2 Laser Energy High Energy Optical Fiber PIR 400/500
Fiber Cables & Bundles
Uniqueray
Core Diameter: 400 μm Cladding Diameter: 500 μm Total rate of transmission @10.6μm: > 75%
art photonics Provides PIR Silveride Optical Fiber Base Material It's... High Power CO2 Laser Transfer solid core Optical Fiber 。 Compared to normal hollows Optical Fiber ，PIR Silver cores. Optical Fiber It's a steady transmission energy at a small curvature radius. ； Ingenuity SMRT Optical Fiber End-processing technology ， Effective inhibition PIR Silver cores. Optical Fiber Finiel reflector losses ， Makes Optical Fiber Output power increase 10-15% Use scene Technical parameters Use diagrams
-
Transfer CO&CO2 Laser Energy High Energy Optical Fiber PIR 600/700
Fiber Cables & Bundles
Uniqueray
Core Diameter: 630 μm Cladding Diameter: 700 μm Total rate of transmission @10.6μm: > 75%
art photonics Provides PIR Silveride Optical Fiber Base Material It's... High Power CO2 Laser Transfer solid core Optical Fiber 。 Compared to normal hollows Optical Fiber ，PIR Silver cores. Optical Fiber It's a steady transmission energy at a small curvature radius. ； Ingenuity SMRT Optical Fiber End-processing technology ， Effective inhibition PIR Silver cores. Optical Fiber Finiel reflector losses ， Makes Optical Fiber Output power increase 10-15% Use scene Technical parameters Use diagrams
-
Transfer CO&CO2 Laser Energy High Energy Optical Fiber PIR 900/1000
Fiber Cables & Bundles
Uniqueray
Core Diameter: 900 μm Cladding Diameter: 1000 μm Total rate of transmission @10.6μm: > 75%
art photonics Provides PIR Silveride Optical Fiber Base Material It's... High Power CO2 Laser Transfer solid core Optical Fiber 。 Compared to normal hollows Optical Fiber ，PIR Silver cores. Optical Fiber It's a steady transmission energy at a small curvature radius. ； Ingenuity SMRT Optical Fiber End-processing technology ， Effective inhibition PIR Silver cores. Optical Fiber Finiel reflector losses ， Makes Optical Fiber Output power increase 10-15% Use scene Technical parameters Use diagrams
-
Polarization Maintaining Fiber Patch Cord (PMPC)
Fiber Cables & Bundles
Szoscom
Central Wavelength: 1310,1550；980, 1064；850；780 axial: ±3 deg Operating Temperature: -20 ~+70 °C
The polarization maintaining fiber patch cord (PMPC) manufactured by Xunquan offers low insertion loss, high return loss and high extinction ratio. It is stable and reliable and is suitable for PM fiber component testing, PM fiber systems and PM fiber test equipment.
Related Articles
As a professional ultraviolet‑laser solution provider, Precilasers has launched its 266 nm narrow‑linewidth industrial laser, delivering reliable single‑frequency output for high‑precision interference lithography, semiconductor inspection and precision metrology applications.
On November 28, 2024, the 3rd China Laser Star Enterprise Summit & Advanced Laser Processing Technology Summit, an annual influential event in the laser industry, was grandly held in Wuhan Optics Valley.
Within cutting‑edge ultrafast photonics research, asynchronous optical sampling (ASOPS) and synchronous sampling serve as fundamental technologies for terahertz excitation detection, coherent Raman imaging and other time‑resolved spectroscopy experiments.
A laser bar is an array semiconductor laser chip integrated with dozens of emitters, which realizes hundred-watt quasi-continuous output on a single chip. With regular emitter arrangement and controllable fill factor, integrated thermal design and superior wall-plug efficiency compared to single chips, it acts as the core light source for high-power pumping, medical lasers and precision processing.
Loading...
Name
Phone
Organization
Use Case
Database Platform