ADSS-Single sheath
OEM
ADSS-Single sheath
ISO9001
3km/spool
Wooden Spool ,Φ1100*750mm
100km
5-25 Days
NINGBO CHINA
30%TT as deposit,70%Balance before shipping.
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ADSS Fiber Optical Cable
Single Jacket 100M SPAN SM G652D - 24F
All-dielectric self-supporting (ADSS) cable is a type of optical fiber cable that is strong enough to support itself between structures without using conductive metal elements.
It is used by electrical utility companies as a communications medium, installed along existing overhead transmission lines and often sharing the same support structures as the electrical conductors.
Design different specifications according to span, voltage level and tensile force(MAT)
Max Span: 100m MAT=2700N
Max applied voltage: 110kv
Weather conditions: 25m/s wind speed + 0mm Ice Load
√ High tensile strength
√ All dielectric structure and semi-dry core design
√ Small diameter and light weight
√ Self-supporting aerial installation
Item: Description
Fiber Optic: UV fiber G.652.D;@1310nm ≤0.35dB/km;@1550nm ≤0.2dB/km;
Tube filling compound: Water Blocking & Moisture Proof Thyrotrophic gel
Loose tube: 1.8-2.0 mm PBT
Filler FRP: 1.8 mm LDPE / PP
Center strength member: 1.8 mm GFRP
Water blocking tape: 0.28mm thickness
Binder: 2 wires Polyester Yarns
Ripcords: 2 wires
Dielectric Strength Members: Aramid Yarns KEVLAR K49-3000D
Inner Jacket: 0.9-1.0mm thickness HDPE /MDPE
Outer Jacket: 1.6-2.0mm thickness HDPE /MDPE
Cable Out Diameter: 10.7±0.5mm
Cable Weight: 85±5kg
Length Cable/Spool: 3km or 4km (2% tolerance in more)
Temperature range: -20~+65℃
ITU-T Rec. G.657A ISO9001
IEC 60794 ICEA-596
GR-409 YD/T 1997-2009
1. G.652.D
2. G.655
3. 50/125μm Multimode
4. 62.5/125μm Multimode
@850nm (Short wavelength)
o 50/125μm: ≤ 3.0 dB/km
o 62.5/125μm: ≤ 3.0 dB/km
@1300nm (Longer wavelength)
o 50/125μm: ≤ 1.0 dB/km
o 62.5/125μm: ≤ 1.0 dB/km
@1310nm (Standard transmission wavelength for single-mode)
o G.652.D: ≤ 0.36 dB/km
o G.655: ≤ 0.40 dB/km
@1550nm (Longest transmission wavelength, most efficient for long-distance transmission)
o G.652.D: ≤ 0.22 dB/km
o G.655: ≤ 0.23 dB/km
@850nm (High bandwidth for multimode)
o 50/125μm: ≥ 500 MHz·km
o 62.5/125μm: ≥ 200 MHz·km
@1300nm (Optimal for multimode fiber)
o 50/125μm: ≥ 1000 MHz·km
o 62.5/125μm: ≥ 600 MHz·km
· Individual fiber (Related to signal dispersion in fiber)
o G.652.D: ≤ 0.20 ps/√km
o G.655: ≤ 0.20 ps/√km
· G.652.D: ≤ 0.10 ps/√km
· G.655: ≤ 0.10 ps/√km
· Fiber Count Options:
o 6, 12, 24, 48, 72, 96, 144, 288 fibers
· Tubes per Fiber Count:
o 6 fibers: 1x6, 2x6, 4x6
o 8 fibers: 6x8
o 12 fibers: 4x12, 6x12, 8x12, 12x12
o 24 fibers: 24x12
· Outer Diameter (mm):
o 1.8, 2.0, 2.5
o Adjustable (OEM): 1.5|2.0, 1.8|2.3, 2.1|2.3
· Material: Glass Fiber Reinforced Plastic Rod (GFRP)
· Diameter (mm):
o Standard: 2.0, 2.5, 2.8, 3.7
o Adjustable (OEM): 1.8|2.3, 1.8|2.3, 2.5, 2.8, 3.7, 2.6
· PE Coated Diameter:
o No: Not PE coated for certain configurations
o Yes: PE coating on central strength member for specific designs
· Material: Water blocking tape for preventing water infiltration
· Material: Aramid Yarn for enhanced strength and protection
· Thickness:
o Standard: 1.8mm (1.5-2.0mm for OEM)
· Cable Diameter (Approx.):
o 6 fibers: 9.5mm
o 12 fibers: 9.5mm|10mm
o 24 fibers: 12.2mm
o 48 fibers: 13.9mm
o 72 fibers: 17.1mm
o 96 fibers: 20.2mm
o Adjustable (OEM): 8.0|8.5|9.0|10.5|11.0mm
· Range: -40°C to +70°C
· Span Options:
o 50m, 80m, 100m, 120m, 150m
· No Ice: No ice formation is considered in design
· Maximum Wind Speed: 25m/s
· Design Customization: Tailored according to customer-specific requirements
√ Other structure and fibre count are also available according to customer requirements.
√ Cable diameter and weight in this table is typical value, which will fluctuate according to different designs
√ The span needs to be recalculated due to other climate conditions according to the installation area.
ADSS Fiber Optical Cable
Single Jacket 100M SPAN SM G652D - 24F
All-dielectric self-supporting (ADSS) cable is a type of optical fiber cable that is strong enough to support itself between structures without using conductive metal elements.
It is used by electrical utility companies as a communications medium, installed along existing overhead transmission lines and often sharing the same support structures as the electrical conductors.
Design different specifications according to span, voltage level and tensile force(MAT)
Max Span: 100m MAT=2700N
Max applied voltage: 110kv
Weather conditions: 25m/s wind speed + 0mm Ice Load
√ High tensile strength
√ All dielectric structure and semi-dry core design
√ Small diameter and light weight
√ Self-supporting aerial installation
Item: Description
Fiber Optic: UV fiber G.652.D;@1310nm ≤0.35dB/km;@1550nm ≤0.2dB/km;
Tube filling compound: Water Blocking & Moisture Proof Thyrotrophic gel
Loose tube: 1.8-2.0 mm PBT
Filler FRP: 1.8 mm LDPE / PP
Center strength member: 1.8 mm GFRP
Water blocking tape: 0.28mm thickness
Binder: 2 wires Polyester Yarns
Ripcords: 2 wires
Dielectric Strength Members: Aramid Yarns KEVLAR K49-3000D
Inner Jacket: 0.9-1.0mm thickness HDPE /MDPE
Outer Jacket: 1.6-2.0mm thickness HDPE /MDPE
Cable Out Diameter: 10.7±0.5mm
Cable Weight: 85±5kg
Length Cable/Spool: 3km or 4km (2% tolerance in more)
Temperature range: -20~+65℃
ITU-T Rec. G.657A ISO9001
IEC 60794 ICEA-596
GR-409 YD/T 1997-2009
1. G.652.D
2. G.655
3. 50/125μm Multimode
4. 62.5/125μm Multimode
@850nm (Short wavelength)
o 50/125μm: ≤ 3.0 dB/km
o 62.5/125μm: ≤ 3.0 dB/km
@1300nm (Longer wavelength)
o 50/125μm: ≤ 1.0 dB/km
o 62.5/125μm: ≤ 1.0 dB/km
@1310nm (Standard transmission wavelength for single-mode)
o G.652.D: ≤ 0.36 dB/km
o G.655: ≤ 0.40 dB/km
@1550nm (Longest transmission wavelength, most efficient for long-distance transmission)
o G.652.D: ≤ 0.22 dB/km
o G.655: ≤ 0.23 dB/km
@850nm (High bandwidth for multimode)
o 50/125μm: ≥ 500 MHz·km
o 62.5/125μm: ≥ 200 MHz·km
@1300nm (Optimal for multimode fiber)
o 50/125μm: ≥ 1000 MHz·km
o 62.5/125μm: ≥ 600 MHz·km
· Individual fiber (Related to signal dispersion in fiber)
o G.652.D: ≤ 0.20 ps/√km
o G.655: ≤ 0.20 ps/√km
· G.652.D: ≤ 0.10 ps/√km
· G.655: ≤ 0.10 ps/√km
· Fiber Count Options:
o 6, 12, 24, 48, 72, 96, 144, 288 fibers
· Tubes per Fiber Count:
o 6 fibers: 1x6, 2x6, 4x6
o 8 fibers: 6x8
o 12 fibers: 4x12, 6x12, 8x12, 12x12
o 24 fibers: 24x12
· Outer Diameter (mm):
o 1.8, 2.0, 2.5
o Adjustable (OEM): 1.5|2.0, 1.8|2.3, 2.1|2.3
· Material: Glass Fiber Reinforced Plastic Rod (GFRP)
· Diameter (mm):
o Standard: 2.0, 2.5, 2.8, 3.7
o Adjustable (OEM): 1.8|2.3, 1.8|2.3, 2.5, 2.8, 3.7, 2.6
· PE Coated Diameter:
o No: Not PE coated for certain configurations
o Yes: PE coating on central strength member for specific designs
· Material: Water blocking tape for preventing water infiltration
· Material: Aramid Yarn for enhanced strength and protection
· Thickness:
o Standard: 1.8mm (1.5-2.0mm for OEM)
· Cable Diameter (Approx.):
o 6 fibers: 9.5mm
o 12 fibers: 9.5mm|10mm
o 24 fibers: 12.2mm
o 48 fibers: 13.9mm
o 72 fibers: 17.1mm
o 96 fibers: 20.2mm
o Adjustable (OEM): 8.0|8.5|9.0|10.5|11.0mm
· Range: -40°C to +70°C
· Span Options:
o 50m, 80m, 100m, 120m, 150m
· No Ice: No ice formation is considered in design
· Maximum Wind Speed: 25m/s
· Design Customization: Tailored according to customer-specific requirements
√ Other structure and fibre count are also available according to customer requirements.
√ Cable diameter and weight in this table is typical value, which will fluctuate according to different designs
√ The span needs to be recalculated due to other climate conditions according to the installation area.
The properties of single mode optical fiber (ITU-T Rec. G652|G657)
· O Band (1260-1360 nm): Typically used in multimode optical fiber systems. The frequency range is 237.9-220.4 THz.
· E Band (1360-1460 nm): This range is less commonly used due to higher attenuation.
· S Band (1460-1530 nm): Frequently used in Passive Optical Networks (PON). The frequency range is 205.3-195.9 THz.
· C Band (1530-1565 nm): The most widely used range for long-haul fiber-optic transmission because it has minimum attenuation. The frequency range is 195.9-191.6 THz.
· L Band (1565-1625 nm): The second lowest attenuation range, used for extended reach and high-capacity networks. The frequency range is 191.6-184.5 THz.
· U Band (1625-1675 nm): Primarily used for network monitoring. The frequency range is 184.5-179.0 THz.
Attenuation Coefficient at Various Wavelengths:
· At 1310 nm, the attenuation is:
· G.652.D Normal: ≤0.35 dB/km
· G.652.D Best: ≤0.34 dB/km
· G.657.A1 & G.657.A2: ≤0.34 dB/km
· At 1285-1330 nm, the attenuation remains consistent for all fibers at:
· ≤0.37 dB/km
· At 1383 nm, the attenuation is slightly lower:
· G.652.D Normal & Best: ≤0.30 dB/km
· G.657.A1 & G.657.A2: ≤0.31 dB/km
· At 1490 nm, the attenuation is as follows:
· G.652.D Best: ≤0.23 dB/km
· G.657.A1 & G.657.A2: ≤0.23 dB/km
· G.652.D Normal: ≤0.24 dB/km
· At 1550 nm, which is the most commonly used wavelength for long-distance communication, the attenuation is:
· G.652.D Normal: ≤0.22 dB/km
· G.652.D Best: ≤0.21 dB/km
· G.657.A1 & G.657.A2: ≤0.20 dB/km
· At 1525-1575 nm, the attenuation is:
· G.652.D Normal: ≤0.22 dB/km
· G.652.D Best: ≤0.21 dB/km
· G.657.A1 & G.657.A2: ≤0.21 dB/km
· At 1625 nm, the attenuation is slightly higher for all fibers:
· G.652.D Normal: ≤0.25 dB/km
· G.652.D Best: ≤0.24 dB/km
· G.657.A1 & G.657.A2: ≤0.22 dB/km
The Mode Field Diameter (MFD) is a crucial parameter that determines the effective size of the core through
which light propagates in an optical fiber. It affects the fiber's coupling efficiency with light sources, especially
for splicing or connecting to other fiber optic components. Here's the MFD for different fiber types at key wavelengths:
At 1310 nm, the Mode Field Diameter is:
o G.652.D Normal: 8.6 ± 0.4 µm
o G.652.D Best: 9.0 ± 0.4 µm
o G.657.A1: 9.0 ± 0.3 µm
o G.657.A2: 8.6 ± 0.4 µm
At 1550 nm, the Mode Field Diameter is:
o G.652.D Normal: 9.8 ± 0.5 µm
o G.652.D Best: 10.2 ± 0.4 µm
o G.657.A1: 10.2 ± 0.4 µm
o G.657.A2: 9.6 ± 0.5 µm
The zero dispersion wavelength refers to the point at which the fiber exhibits no dispersion (i.e., the spreading of light pulses over distance).
The dispersion coefficient characterizes how much the fiber disperses light pulses, which affects signal integrity over long distances.
· Zero Dispersion Wavelength: 1300-1324 nm for all variants.
· Dispersion Coefficient at 1285-1339 nm:
o G.652.D: ≤3.4 ps/(nm·km)
o G.657.A1 & A2: ≤3.4 ps/(nm·km)
· PMD Maximum Individual Fiber: ≤0.1 ps/√km for all fiber types.
· PMD Link Design Value: ≤0.06 ps/√km.
At 1550 nm:
o When the fiber is bent with a 15mm radius (10 turns), the loss is very small, ≤0.25 dB.
o 100 turns of a 25mm radius result in a minimal loss of ≤0.03 dB.
o A 10mm radius bend (1 turn) causes a larger loss, ≤0.75 dB.
o A 7.5mm radius bend (1 turn) results in a moderate loss of ≤0.2 dB.
o 100 turns with a 30mm radius causes very low loss, ≤0.05 dB.
At 1625 nm:
o Bending loss increases more noticeably, with 10 turns of a 15mm radius causing ≤1.0 dB of loss.
o A 10mm radius bend (1 turn) results in higher loss, ≤1.5 dB.
o 1 turn of a 7.5mm radius leads to ≤0.5 dB of loss.
Point discontinuities are imperfections or abrupt changes in fiber properties that cause attenuation. These values are critical to ensure minimal signal degradation.
· Point Discontinuity at 1310 nm & 1550 nm: ≤0.05 dB for all fibers.
· Cladding Diameter:
· G.652.D Normal: 125 ± 0.7 µm
· G.652.D Best: 125 ± 0.5 µm
· G.657.A1: 125 ± 0.5 µm
· G.657.A2: 125 ± 0.5 µm
· Unit: Micrometers (µm)
The cladding diameter refers to the outer layer of the fiber that surrounds the core. It is crucial for ensuring proper fiber alignment during installation and performance.
· Core/Cladding Concentricity Error:
· G.652.D Normal: ≤ 0.5 µm
· G.652.D Best: ≤ 0.4 µm
· G.657.A1: ≤ 0.4 µm
· G.657.A2: ≤ 0.4 µm
· Unit: Micrometers (µm)
This refers to the precision of the core's alignment within the cladding. A smaller concentricity error ensures better light transmission and performance.
· Cladding Non-circularity:
· G.652.D Normal: ≤ 1.0%
· G.652.D Best: ≤ 0.7%
· G.657.A1: ≤ 0.7%
· G.657.A2: ≤ 0.7%
· Unit: Percentage (%)
This measures how much the cladding deviates from being a perfect circle. A lower value indicates better consistency in the fiber’s shape, which is essential for reducing signal loss and ensuring efficient transmission.
· Coating Diameter:
· G.652.D Normal: 245 ± 5 µm
· G.652.D Best: 245 ± 5 µm
· G.657.A1: 242 ± 5 µm
· G.657.A2: 242 ± 5 µm
· Unit: Micrometers (µm)
The coating is a protective layer that surrounds the fiber to prevent physical damage. The coating diameter is crucial for the handling and strength of the fiber.
· Coating/Cladding Concentricity Error:
· G.652.D Normal: ≤ 12 µm
· G.652.D Best: ≤ 12 µm
· G.657.A1: ≤ 8 µm
· G.657.A2: ≤ 8 µm
· Unit: Micrometers (µm)
· Fiber Strain:
· Requirement: ≥ 1%
· This represents the amount of strain the fiber can withstand before failure. It ensures the fiber maintains its integrity under stress and stretching during handling and installation.
· Fiber Load:
· Requirement: ≥ 9 N (Newtons)
· The fiber load specifies the force required to stretch the fiber before it fails. It is essential for ensuring that the fiber can handle mechanical stress during use.
· Stress:
· Requirement: ≥ 100 kpsi (kilo pounds per square inch)
· This measures the stress the fiber can withstand before breaking. A higher value indicates better resistance to mechanical forces that could cause the fiber to break.
· Dynamic Stress Corrosion Susceptibility Factor:
· Unaged & Aged (30 days @ 85°C, 85% R.H.): ≥ 20
· This factor indicates the fiber's resistance to stress corrosion under dynamic conditions. A higher value means the fiber is more resistant to corrosion and can maintain performance even in harsh environments.
· Coating Strip Force (Peak Value):
· Range: 1.3 - 8.9 N
· The coating strip force measures the amount of force required to strip off the protective coating without damaging the fiber. This ensures proper handling during installation and maintenance.
· Fiber Curl:
· Requirement: ≥ 4 m
· Fiber curl refers to the natural tendency of the fiber to curl up when uncoiled. This specification ensures the fiber remains stable and can be properly installed without unwanted coiling or tangling.
· Dry Heat Aging (30 days @ 85°C):
· Attenuation @1310 nm: ≤0.05 dB/km
· Attenuation @1550 nm: ≤0.05 dB/km
· Description: This test measures the fiber's ability to maintain its performance when exposed to dry heat over an extended period. The low attenuation indicates minimal degradation in the fiber's signal transmission properties after 30 days of exposure to high temperature (85°C).
· Accelerated Aging (30 days @ 85°C, 85% Relative Humidity):
· Attenuation @1310 nm: ≤0.05 dB/km
· Attenuation @1550 nm: ≤0.05 dB/km
· Description: This test simulates long-term exposure to both heat and high humidity. It helps determine how well the fiber performs under aging conditions. The low attenuation values show that the fiber remains stable even in harsh environmental conditions.
· Temperature Cycling:
· Attenuation @1310 nm: ≤0.05 dB/km
· Attenuation @1550 nm: ≤0.05 dB/km
· Description: Temperature cycling tests the fiber's ability to withstand temperature fluctuations without significant performance degradation. The fiber must maintain low attenuation during these cycles to ensure reliable performance in environments with variable temperatures.
· Water Soak (30 days @ 23°C):
· Attenuation @1310 nm: ≤0.05 dB/km
· Attenuation @1550 nm: ≤0.05 dB/km
· Description: This test exposes the fiber to water to simulate conditions where the fiber may encounter moisture or water over time. The low attenuation values suggest that the fiber is well-protected against water-related degradation and performs reliably even in wet conditions.
· Test Method:
o Apply a load of 5000 N over a 50m cable length.
· Acceptance Requirements:
o The loss change should not exceed 0.1 dB at 1550 nm.
o No fiber break and no sheath damage should occur.
· Test Method:
o Apply a load of 3000 N over 100 mm of cable for ≥1 minute.
· Acceptance Requirements:
o The loss change should not exceed 0.1 dB at 1550 nm.
o No fiber break and no sheath damage should occur.
· Test Method:
o Apply 5 points of impact, 5 times per point.
o Impact energy: 4.5 Nm.
o Radius of hammerhead: 12.5 mm.
o Impact rate: 2 seconds per cycle.
· Acceptance Requirements:
o The loss change should not exceed 0.1 dB at 1550 nm.
o No fiber break and no sheath damage should occur.
· Test Method:
o Bend the cable with a bending diameter of 20x its outer diameter (OD).
o Apply a load of 250 N with a flexing rate of 3 seconds per cycle for 30 cycles.
· Acceptance Requirements:
o The loss change should not exceed 0.1 dB at 1550 nm.
o No fiber break and no sheath damage should occur.
· Test Method:
o Length: 1 meter.
o Apply a load of 150 N with a twist rate of 1 minute per cycle.
o Twist angle: ±90°.
o Number of cycles: 10.
· Acceptance Requirements:
o The loss change should not exceed 0.1 dB at 1550 nm.
o No fiber break and no sheath damage should occur.
· Test Method:
o Submerge the cable in 1 meter of water for 24 hours.
o Sample length: 3 meters.
· Acceptance Requirements:
o No water leakage from the opposite end of the cable.
· Test Method:
o Temperature steps: +20°C → -20°C → +20°C → +40°C.
o Time per step: 24 hours.
o Number of cycles: 2.
· Acceptance Requirements:
o The loss change should not exceed 0.1 dB at 1550 nm.
o No fiber break and no sheath damage should occur.
· Test Method:
o Sample length: 30 cm.
o Temperature: 70°C ± 2°C.
o Duration: 24 hours.
· Acceptance Requirements:
o No compound flow should occur.
· Test Method:
o Perform an online test with a 9 kV voltage (dependent on sheath thickness).
· Acceptance Requirements:
o No sheath breakdown should occur.
Sheath marking
COMPANY Fiber cable name N*cores G.652D 2024 XXXXm
COMPANY:Manufacturer's brand
2024:Manufacture year
Fiber cable name:Cable type
G.652D:N cores single-mode optical fiber (ITU-T Rec. G.652D)
XXXXm:Mark of meters
*The marking is printed every 1 meter;
**”G.652D” means ITU-T Rec. Low Water Peak (LWP) G.652 single mode optical fiber..
Also can according to client cable marking.
1 The color of marking is white,
2 An occasional unclear of length marking is permitted if both of the neighboring markings are clear.
3 The both cable ends are sealed with heat shrinkable end caps to prevent water ingress.
The properties of single mode optical fiber (ITU-T Rec. G652|G657)
· O Band (1260-1360 nm): Typically used in multimode optical fiber systems. The frequency range is 237.9-220.4 THz.
· E Band (1360-1460 nm): This range is less commonly used due to higher attenuation.
· S Band (1460-1530 nm): Frequently used in Passive Optical Networks (PON). The frequency range is 205.3-195.9 THz.
· C Band (1530-1565 nm): The most widely used range for long-haul fiber-optic transmission because it has minimum attenuation. The frequency range is 195.9-191.6 THz.
· L Band (1565-1625 nm): The second lowest attenuation range, used for extended reach and high-capacity networks. The frequency range is 191.6-184.5 THz.
· U Band (1625-1675 nm): Primarily used for network monitoring. The frequency range is 184.5-179.0 THz.
Attenuation Coefficient at Various Wavelengths:
· At 1310 nm, the attenuation is:
· G.652.D Normal: ≤0.35 dB/km
· G.652.D Best: ≤0.34 dB/km
· G.657.A1 & G.657.A2: ≤0.34 dB/km
· At 1285-1330 nm, the attenuation remains consistent for all fibers at:
· ≤0.37 dB/km
· At 1383 nm, the attenuation is slightly lower:
· G.652.D Normal & Best: ≤0.30 dB/km
· G.657.A1 & G.657.A2: ≤0.31 dB/km
· At 1490 nm, the attenuation is as follows:
· G.652.D Best: ≤0.23 dB/km
· G.657.A1 & G.657.A2: ≤0.23 dB/km
· G.652.D Normal: ≤0.24 dB/km
· At 1550 nm, which is the most commonly used wavelength for long-distance communication, the attenuation is:
· G.652.D Normal: ≤0.22 dB/km
· G.652.D Best: ≤0.21 dB/km
· G.657.A1 & G.657.A2: ≤0.20 dB/km
· At 1525-1575 nm, the attenuation is:
· G.652.D Normal: ≤0.22 dB/km
· G.652.D Best: ≤0.21 dB/km
· G.657.A1 & G.657.A2: ≤0.21 dB/km
· At 1625 nm, the attenuation is slightly higher for all fibers:
· G.652.D Normal: ≤0.25 dB/km
· G.652.D Best: ≤0.24 dB/km
· G.657.A1 & G.657.A2: ≤0.22 dB/km
The Mode Field Diameter (MFD) is a crucial parameter that determines the effective size of the core through
which light propagates in an optical fiber. It affects the fiber's coupling efficiency with light sources, especially
for splicing or connecting to other fiber optic components. Here's the MFD for different fiber types at key wavelengths:
At 1310 nm, the Mode Field Diameter is:
o G.652.D Normal: 8.6 ± 0.4 µm
o G.652.D Best: 9.0 ± 0.4 µm
o G.657.A1: 9.0 ± 0.3 µm
o G.657.A2: 8.6 ± 0.4 µm
At 1550 nm, the Mode Field Diameter is:
o G.652.D Normal: 9.8 ± 0.5 µm
o G.652.D Best: 10.2 ± 0.4 µm
o G.657.A1: 10.2 ± 0.4 µm
o G.657.A2: 9.6 ± 0.5 µm
The zero dispersion wavelength refers to the point at which the fiber exhibits no dispersion (i.e., the spreading of light pulses over distance).
The dispersion coefficient characterizes how much the fiber disperses light pulses, which affects signal integrity over long distances.
· Zero Dispersion Wavelength: 1300-1324 nm for all variants.
· Dispersion Coefficient at 1285-1339 nm:
o G.652.D: ≤3.4 ps/(nm·km)
o G.657.A1 & A2: ≤3.4 ps/(nm·km)
· PMD Maximum Individual Fiber: ≤0.1 ps/√km for all fiber types.
· PMD Link Design Value: ≤0.06 ps/√km.
At 1550 nm:
o When the fiber is bent with a 15mm radius (10 turns), the loss is very small, ≤0.25 dB.
o 100 turns of a 25mm radius result in a minimal loss of ≤0.03 dB.
o A 10mm radius bend (1 turn) causes a larger loss, ≤0.75 dB.
o A 7.5mm radius bend (1 turn) results in a moderate loss of ≤0.2 dB.
o 100 turns with a 30mm radius causes very low loss, ≤0.05 dB.
At 1625 nm:
o Bending loss increases more noticeably, with 10 turns of a 15mm radius causing ≤1.0 dB of loss.
o A 10mm radius bend (1 turn) results in higher loss, ≤1.5 dB.
o 1 turn of a 7.5mm radius leads to ≤0.5 dB of loss.
Point discontinuities are imperfections or abrupt changes in fiber properties that cause attenuation. These values are critical to ensure minimal signal degradation.
· Point Discontinuity at 1310 nm & 1550 nm: ≤0.05 dB for all fibers.
· Cladding Diameter:
· G.652.D Normal: 125 ± 0.7 µm
· G.652.D Best: 125 ± 0.5 µm
· G.657.A1: 125 ± 0.5 µm
· G.657.A2: 125 ± 0.5 µm
· Unit: Micrometers (µm)
The cladding diameter refers to the outer layer of the fiber that surrounds the core. It is crucial for ensuring proper fiber alignment during installation and performance.
· Core/Cladding Concentricity Error:
· G.652.D Normal: ≤ 0.5 µm
· G.652.D Best: ≤ 0.4 µm
· G.657.A1: ≤ 0.4 µm
· G.657.A2: ≤ 0.4 µm
· Unit: Micrometers (µm)
This refers to the precision of the core's alignment within the cladding. A smaller concentricity error ensures better light transmission and performance.
· Cladding Non-circularity:
· G.652.D Normal: ≤ 1.0%
· G.652.D Best: ≤ 0.7%
· G.657.A1: ≤ 0.7%
· G.657.A2: ≤ 0.7%
· Unit: Percentage (%)
This measures how much the cladding deviates from being a perfect circle. A lower value indicates better consistency in the fiber’s shape, which is essential for reducing signal loss and ensuring efficient transmission.
· Coating Diameter:
· G.652.D Normal: 245 ± 5 µm
· G.652.D Best: 245 ± 5 µm
· G.657.A1: 242 ± 5 µm
· G.657.A2: 242 ± 5 µm
· Unit: Micrometers (µm)
The coating is a protective layer that surrounds the fiber to prevent physical damage. The coating diameter is crucial for the handling and strength of the fiber.
· Coating/Cladding Concentricity Error:
· G.652.D Normal: ≤ 12 µm
· G.652.D Best: ≤ 12 µm
· G.657.A1: ≤ 8 µm
· G.657.A2: ≤ 8 µm
· Unit: Micrometers (µm)
· Fiber Strain:
· Requirement: ≥ 1%
· This represents the amount of strain the fiber can withstand before failure. It ensures the fiber maintains its integrity under stress and stretching during handling and installation.
· Fiber Load:
· Requirement: ≥ 9 N (Newtons)
· The fiber load specifies the force required to stretch the fiber before it fails. It is essential for ensuring that the fiber can handle mechanical stress during use.
· Stress:
· Requirement: ≥ 100 kpsi (kilo pounds per square inch)
· This measures the stress the fiber can withstand before breaking. A higher value indicates better resistance to mechanical forces that could cause the fiber to break.
· Dynamic Stress Corrosion Susceptibility Factor:
· Unaged & Aged (30 days @ 85°C, 85% R.H.): ≥ 20
· This factor indicates the fiber's resistance to stress corrosion under dynamic conditions. A higher value means the fiber is more resistant to corrosion and can maintain performance even in harsh environments.
· Coating Strip Force (Peak Value):
· Range: 1.3 - 8.9 N
· The coating strip force measures the amount of force required to strip off the protective coating without damaging the fiber. This ensures proper handling during installation and maintenance.
· Fiber Curl:
· Requirement: ≥ 4 m
· Fiber curl refers to the natural tendency of the fiber to curl up when uncoiled. This specification ensures the fiber remains stable and can be properly installed without unwanted coiling or tangling.
· Dry Heat Aging (30 days @ 85°C):
· Attenuation @1310 nm: ≤0.05 dB/km
· Attenuation @1550 nm: ≤0.05 dB/km
· Description: This test measures the fiber's ability to maintain its performance when exposed to dry heat over an extended period. The low attenuation indicates minimal degradation in the fiber's signal transmission properties after 30 days of exposure to high temperature (85°C).
· Accelerated Aging (30 days @ 85°C, 85% Relative Humidity):
· Attenuation @1310 nm: ≤0.05 dB/km
· Attenuation @1550 nm: ≤0.05 dB/km
· Description: This test simulates long-term exposure to both heat and high humidity. It helps determine how well the fiber performs under aging conditions. The low attenuation values show that the fiber remains stable even in harsh environmental conditions.
· Temperature Cycling:
· Attenuation @1310 nm: ≤0.05 dB/km
· Attenuation @1550 nm: ≤0.05 dB/km
· Description: Temperature cycling tests the fiber's ability to withstand temperature fluctuations without significant performance degradation. The fiber must maintain low attenuation during these cycles to ensure reliable performance in environments with variable temperatures.
· Water Soak (30 days @ 23°C):
· Attenuation @1310 nm: ≤0.05 dB/km
· Attenuation @1550 nm: ≤0.05 dB/km
· Description: This test exposes the fiber to water to simulate conditions where the fiber may encounter moisture or water over time. The low attenuation values suggest that the fiber is well-protected against water-related degradation and performs reliably even in wet conditions.
· Test Method:
o Apply a load of 5000 N over a 50m cable length.
· Acceptance Requirements:
o The loss change should not exceed 0.1 dB at 1550 nm.
o No fiber break and no sheath damage should occur.
· Test Method:
o Apply a load of 3000 N over 100 mm of cable for ≥1 minute.
· Acceptance Requirements:
o The loss change should not exceed 0.1 dB at 1550 nm.
o No fiber break and no sheath damage should occur.
· Test Method:
o Apply 5 points of impact, 5 times per point.
o Impact energy: 4.5 Nm.
o Radius of hammerhead: 12.5 mm.
o Impact rate: 2 seconds per cycle.
· Acceptance Requirements:
o The loss change should not exceed 0.1 dB at 1550 nm.
o No fiber break and no sheath damage should occur.
· Test Method:
o Bend the cable with a bending diameter of 20x its outer diameter (OD).
o Apply a load of 250 N with a flexing rate of 3 seconds per cycle for 30 cycles.
· Acceptance Requirements:
o The loss change should not exceed 0.1 dB at 1550 nm.
o No fiber break and no sheath damage should occur.
· Test Method:
o Length: 1 meter.
o Apply a load of 150 N with a twist rate of 1 minute per cycle.
o Twist angle: ±90°.
o Number of cycles: 10.
· Acceptance Requirements:
o The loss change should not exceed 0.1 dB at 1550 nm.
o No fiber break and no sheath damage should occur.
· Test Method:
o Submerge the cable in 1 meter of water for 24 hours.
o Sample length: 3 meters.
· Acceptance Requirements:
o No water leakage from the opposite end of the cable.
· Test Method:
o Temperature steps: +20°C → -20°C → +20°C → +40°C.
o Time per step: 24 hours.
o Number of cycles: 2.
· Acceptance Requirements:
o The loss change should not exceed 0.1 dB at 1550 nm.
o No fiber break and no sheath damage should occur.
· Test Method:
o Sample length: 30 cm.
o Temperature: 70°C ± 2°C.
o Duration: 24 hours.
· Acceptance Requirements:
o No compound flow should occur.
· Test Method:
o Perform an online test with a 9 kV voltage (dependent on sheath thickness).
· Acceptance Requirements:
o No sheath breakdown should occur.
Sheath marking
COMPANY Fiber cable name N*cores G.652D 2024 XXXXm
COMPANY:Manufacturer's brand
2024:Manufacture year
Fiber cable name:Cable type
G.652D:N cores single-mode optical fiber (ITU-T Rec. G.652D)
XXXXm:Mark of meters
*The marking is printed every 1 meter;
**”G.652D” means ITU-T Rec. Low Water Peak (LWP) G.652 single mode optical fiber..
Also can according to client cable marking.
1 The color of marking is white,
2 An occasional unclear of length marking is permitted if both of the neighboring markings are clear.
3 The both cable ends are sealed with heat shrinkable end caps to prevent water ingress.
Structure Technical Data(OEM)
· Number of Cores:
· 12, 24, 48, 96, 120, 144 cores
· Design (Tube + Filler + Strength Member):
· 3+2+1 (for 12-core)
· 1+4+1 (for 24-core, 48-core, and other configurations)
· Fiber Type:
· G.652.D (single-mode optical fiber, ITU-T Rec. G.652D)
· Central Strength Member:
· Material: FRP (Fiber Reinforced Plastic) | Steel Wire
· Diameter (±0.05mm): 1.2mm | 1.0mm
· Other Strength Member:
· Material: Aramid Yarns (for yarn strength member)
· Diameter (±0.05mm): [Not specified in your data]
· Loose Tube:
· Material: PBT (Polybutylene Terephthalate)
· Diameter (±0.05mm): 2.1mm | 1.8mm
· Filler:
· Material: PP (Polypropylene)
· Diameter (±0.05mm): 1.8mm
· Water Blocking Layer:
· Material: Water Blocking Yarn & Water Blocking Tape
· Outer Sheath:
· Material: HDPE (High-Density Polyethylene)
· Thickness (±0.1mm):
o 0.8mm (for smaller cores)
o 1.6mm, 1.9mm (for larger cores)
· Color:
· Black
· Cable Diameter (±0.2mm):
· 9.0mm (for 12-core)
· 13mm (for 24-core and larger configurations)
· Cable Weight (±10.0kg/km):
· 75kg/km (for 12-core)
· 95kg/km (for 24-core and larger configurations)
· Max. Installation Tension:
· 2400 N (for all core configurations)
· Min. Bending Radius:
· Without Tension: 10.0 x Cable Diameter
· Under Maximum Tension: 20.0 x Cable Diameter
· Temperature Range:
· Installation: -20℃ to +60℃
· Transport & Storage: -40℃ to +70℃
· Operation: -40℃ to +70℃
Structure Technical Data(OEM)
· Number of Cores:
· 12, 24, 48, 96, 120, 144 cores
· Design (Tube + Filler + Strength Member):
· 3+2+1 (for 12-core)
· 1+4+1 (for 24-core, 48-core, and other configurations)
· Fiber Type:
· G.652.D (single-mode optical fiber, ITU-T Rec. G.652D)
· Central Strength Member:
· Material: FRP (Fiber Reinforced Plastic) | Steel Wire
· Diameter (±0.05mm): 1.2mm | 1.0mm
· Other Strength Member:
· Material: Aramid Yarns (for yarn strength member)
· Diameter (±0.05mm): [Not specified in your data]
· Loose Tube:
· Material: PBT (Polybutylene Terephthalate)
· Diameter (±0.05mm): 2.1mm | 1.8mm
· Filler:
· Material: PP (Polypropylene)
· Diameter (±0.05mm): 1.8mm
· Water Blocking Layer:
· Material: Water Blocking Yarn & Water Blocking Tape
· Outer Sheath:
· Material: HDPE (High-Density Polyethylene)
· Thickness (±0.1mm):
o 0.8mm (for smaller cores)
o 1.6mm, 1.9mm (for larger cores)
· Color:
· Black
· Cable Diameter (±0.2mm):
· 9.0mm (for 12-core)
· 13mm (for 24-core and larger configurations)
· Cable Weight (±10.0kg/km):
· 75kg/km (for 12-core)
· 95kg/km (for 24-core and larger configurations)
· Max. Installation Tension:
· 2400 N (for all core configurations)
· Min. Bending Radius:
· Without Tension: 10.0 x Cable Diameter
· Under Maximum Tension: 20.0 x Cable Diameter
· Temperature Range:
· Installation: -20℃ to +60℃
· Transport & Storage: -40℃ to +70℃
· Operation: -40℃ to +70℃
1. Packing
1.1 Each single length of cable shall be reeled on Wooden Drum suitable for long distance shipment.
1.2 Covered by plastic buffer sheet.
1.3 Sealed by strong wooden battens.
1.4 At least 1 m of inside end of cable will be reserved for testing.
1.5 Drum length
- 1.5.1 Standard drum length is 2000-4000m
- 1.5.2 Single length not less than 96% of standard length per drum shall be permitted for quantity not exceeding 10% of the total supply;
1.5.3 Total quantity is at least the ordered quantity.
2. Dru Marking
2.1 Cable drum
- Manufacturer brand;
- Roll-direction arrow;
- Cable outer end position indicating arrow;
- The word “FIBER OPTICAL CABLE”;
- Origin, The word “MADE IN CHINA”;
- Caution plate indicating the correct method for loading, unloading and convey the cable;
- Other customer information such as contract no., project no., and delivery destination. (if needed)
2.2 Marking plate
- Prodct name;
- Cable type and size;
- Drum length;
- Gross / Net weight in kilograms;
- Drum number in meters;
- Manufacturer's name;
- Manufacturing year and month;
- Project number, contract number or purchasing order number (if needed).
1. Packing
1.1 Each single length of cable shall be reeled on Wooden Drum suitable for long distance shipment.
1.2 Covered by plastic buffer sheet.
1.3 Sealed by strong wooden battens.
1.4 At least 1 m of inside end of cable will be reserved for testing.
1.5 Drum length
- 1.5.1 Standard drum length is 2000-4000m
- 1.5.2 Single length not less than 96% of standard length per drum shall be permitted for quantity not exceeding 10% of the total supply;
1.5.3 Total quantity is at least the ordered quantity.
2. Dru Marking
2.1 Cable drum
- Manufacturer brand;
- Roll-direction arrow;
- Cable outer end position indicating arrow;
- The word “FIBER OPTICAL CABLE”;
- Origin, The word “MADE IN CHINA”;
- Caution plate indicating the correct method for loading, unloading and convey the cable;
- Other customer information such as contract no., project no., and delivery destination. (if needed)
2.2 Marking plate
- Prodct name;
- Cable type and size;
- Drum length;
- Gross / Net weight in kilograms;
- Drum number in meters;
- Manufacturer's name;
- Manufacturing year and month;
- Project number, contract number or purchasing order number (if needed).
All-Dielectric Self-Supporting (ADSS) cables are a type of optical fiber cable uniquely capable of selfsupporting installation between structures, eliminating the need for conductive metal elements. Commonly utilized by electrical utilities, these cables are installed alongside existing overhead transmission lines, often using the same supports as electrical conductors.
ADSS cables offer a cost-effective alternative to OPGW (Optical Ground Wire) and OPAC (Optical Phase Conductor) cables. They are engineered for strength, enabling installations spanning up to 700 meters between support towers. Their design focuses on being lightweight and having a small diameter to minimize the impact on tower structures from factors like cable weight, wind, and ice.
The cable's design ensures the internal glass optical fibers are supported with minimal strain, maintaining low optical loss over the cable's lifetime. A protective jacket shields the fibers from moisture and safeguards the cable's polymer strength components from solar UV radiation.
This type features a single outer jacket layer. Lightweight: It's typically lighter than double sheath variants.
Ideal for environments with lower risk of mechanical damage or where cable weight is a critical factor.
Generally more cost-effective due to less material usage.
Equipped with two layers of sheathing, an inner and an outer jacket.
Provides better mechanical protection, making it suitable for harsher environments.
More resistant to abrasion, rodents, and other forms of physical damage.
Heavier and typically more expensive than single sheath cables due to additional materials.
Short Span Aerial Installations:
Ideal for roadside power poles due to their lightweight, selfsupporting design.
Their non-metallic nature makes them safe for use close to highvoltage lines.
Employed in long-distance telecom networks, capable of supporting up to 100 km circuits without repeaters using single-mode fibers.
Used by power utilities for reliable communication within the power grid.
Military Use: Originally developed for military applications, they are still used for rapid deployment in field communications.
Span Length:
Choose based on the distance between support structures; Short spans like 80m, longer spans up to 700m.
Decide on the number of fibers(6,12,24,48,96,144) needed for your data transmission requirements.
Most popular is G.652.D Environmental Conditions: Consider factors like wind, ice, and UV exposure to determine the need for protective sheathing.
Ensure the cableʼs electrical characteristics are safe for installation near power lines.
Evaluate the cableʼs tensile strength and weight for installation and environmental stress resistance.
Balance strength with the limitations of installation and support structures.
Preformed tension dead-end grip is usually used in the installation of the exposed conductor, electric transmission & distribution, and overheard insulated conductor. The reliability and economic advantage are better than the present bolt type and hydraulic
compression type Tension clamp Dead-end which now is being widely in the line. ADSS cable guy grips were developed to grip the ADSS fiber optical cable during the construction of internet network lines on wood poles or concrete towers.
ADSS suspension clamp is also called preformed suspension clamp or AGS suspension clamp, it offers a complete set of Aluminum clad, rubber, armor grip, bolt, and nut to support and protect the ADSS/OPGW cable from damage due to bending.
Stainless Steel strapping is ideal for ADSS cable and pipe banding applications that require various bundle diameters.
- Metal channel structural frame provides a durable light-weight design with ridged strength that is easy to install.
- Corrosion Resistant Materials - Aluminum.
- Bolt together Crossarm packs in the uniform low-profile container that reduces shipping costs and is easier to inventory.
- Multiple Keyholes adapt various Splice Cases.
- Wide cable keepers avoid point loads and provide better cable support.
Down-lead Clamp is designed to lead down cables on the splice and Terminal Poles/ towers and to fix the arch section on the Middle Reinforcing Poles/ towers.
Normally, a unit of Down-lead Clamp is needed per 1.5 meters, and it is also used in other fixing areas.
The cables are designed to be strong enough to allow lengths of up to 700 meters to be installed between support towers. ADSS cable is designed to be lightweight and small in diameter to reduce the load on tower structures due to cable weight, wind, and ice.
In the design of the cable, the internal glass optical fibers are supported with no strain to maintain low optical loss throughout the life of the cable. The cable is jacketed to prevent moisture from degrading the fibers.
The jacket also protects the polymer strength elements from the effect of solar ultraviolet light. Using single-mode fibers and light wavelengths of either 1310 or 1550 nanometres, circuits up to 100 km long are possible without repeaters.
A single cable can carry as many as 144 fibers.
ADSS cables made by ZION COMMUNICATION with 6,12,24,48,96 fibers range from 200 to 250 kg/kilometer and are between 11 and 17 mm outside jacket diameter. These cables can support between 4 TO 50 kilonewtons of tension.s determined.
ADSS cable production process - Kevlar + outer sheath
In order to properly design the structure of the ADSS cable, many aspects must be considered, including mechanical strength, conductor sag, wind speed b ice thickness c temperature d topography, Span, and Voltage.
Usually, when you are in production, you need to consider the following questions.
Jacket Type: AT/PE
PE sheath: ordinary polyethylene sheath. For power lines below 110KV and ≤12KV electric field strength. The cable should be suspended where the electric field strength is small.
AT sheath: anti-tracking sheath. For power lines above 110KV, ≤20KV electric field strength. The cable should be suspended where the electric field strength is small.
Out Cable Dia.: Single Jacket 8mm-12mm; Double jacket 12.5mm-18mm
Fiber Count: 4-144Fibers
Aramid Yarn Details: Something like (20*K49 3000D). This main calculation of tensile strength.
According to the stress formula, S=Nmax/E*ε,
E (Tensile modulus)=112.4 GPa(K49 1140Dinner)
ε=0.8%
Usually designed strain<1%(Stranded Tube)UTS;
≤0.8%, evaluation
Nmax=W*(L2/8f+f);
L=span(m);usually 100m,150m,200m,300m,500m,600m;
f=Cable sag; usually 12m or 16m.
Nmax=W*(L2/8f+f)=0.7*(500*500/8*12+12)=1.83KN
S=Nmax/E*ε=1.83/114*0.008=2 mm²
Saramid(K49 2840D)=3160*10-4/1.45=0.2179mm²
N numbers aramid yarn=S/s=2/0.2179=9.2
General aramid fiber hinge pitch is 550mm-650mm,angle=10-12°
W=Maximum load (kg/m)=W1+W2+W3=0.2+0+0.5=0.7kg/m
W1=0.15kg/m(This is the weight of ADSS cable)
W2=ρ*[(D+2d)⊃2;-D⊃2;]*0.7854/1000(kg/m) (This is the weight of ICE)
ρ=0.9g/cm³, the density of ice.
D=Diameter of ADSS. Usually 8mm-18mm
d=Ice cover thickness;No ice=0mm,Light ice=5mm,10mm;Heavy ice=15mm,20mm,30mm;
Let's say the ice is thick is 0mm, W2=0
W3=Wx=α*Wp*D*L=α*(V⊃2;/1600)*(D+2d)*L/9.8 (kg/m)
Let's say the wind speed is 25m/s, α=0.85; D=15mm;W3=0.5kg/m
Wp=V⊃2;/1600 (Standard partial pressure formula, V means wind speed)
α= 1.0(v<20m/s);0.85(20-29m/s);0.75(30-34m/s);0.7(>35m/s) ;
α means Coefficient of the unevenness of wind pressure.
Level | phenomenon | m/s
1 Smoke can indicate the wind direction. 0.3 to 1.5
2 The human face feels windy, and the leaves move slightly. 1.6 to 3.3
3 The leaves and micro-techniques are shaking, and the flag is unfolding. 3.4~5.4
4 The floor dust and paper can be blown up, and the tree's twigs are shaken. 5.5 to 7.9
5 The small leafy tree sways and wavelets in the inland waters. 8.0 to 10.7
6 The big branches are shaking, the wires are vocal, and it is not easy to lift the umbrella. 10.8~13.8
7 The whole tree is shaken, and it is inconvenient to walk in the wind. 13.9~17. l
8 The micro-branch is broken, and people feel very resistant to moving forward. 17.2~20.7
9 The grass house was damaged, and the branches were broken. 20.8 to 24.4
10 Trees can be blown down, and general buildings are destroyed. 24.5 to 28.4
11 Rare on land, large trees can be blown down, and general buildings are severely damaged. 28.5~32.6
12 There are few on the land, and its destructive power is enormous. 32.7~36.9
RTS: Rated tensile strength
Refers to the calculated value of the strength of the bearing section (mainly counting the spinning fiber).
UTS: Ultimate Tensile Strength UES>60% RTS
In the effective life of the cable, it is possible to exceed the design load when the cable by the maximum tension. That means the cable can be overloaded for a short time.
MAT: Max allowable working tension 40% RTS
MAT is an essential basis for sag-tension-span calculation and necessary evidence to characterize the stress-strain characteristics of ADSS optical cable. Refers to the design of meteorological conditions under the theoretical analysis of the total load and cable tension.
Under this tension, the fiber strain should be no more than 0.05% (laminated) and no more than 0.1% (central pipe) without additional attenuation.
EDS: Every Day Strength (16~25)% RTS
The annual average stress, sometimes called the moderate daily stress, refers to the wind and no ice, and the yearly average temperature, the theoretical calculation of the load cable tension, can be considered the ADSS in the long-term operation of the intermediate pressure (should) force.
EDS is generally (16~25) %RTS.
Under this tension, the fiber should have no strain, no additional attenuation, that is, very stable.
EDS is also the fatigue aging parameter of optical fiber optic cable, according to which the anti-vibration design of optical fiber optic cable is determined.
5) 2 weeks before the completion of production, we will notify you to start contacting shipping.
All-Dielectric Self-Supporting (ADSS) cables are a type of optical fiber cable uniquely capable of selfsupporting installation between structures, eliminating the need for conductive metal elements. Commonly utilized by electrical utilities, these cables are installed alongside existing overhead transmission lines, often using the same supports as electrical conductors.
ADSS cables offer a cost-effective alternative to OPGW (Optical Ground Wire) and OPAC (Optical Phase Conductor) cables. They are engineered for strength, enabling installations spanning up to 700 meters between support towers. Their design focuses on being lightweight and having a small diameter to minimize the impact on tower structures from factors like cable weight, wind, and ice.
The cable's design ensures the internal glass optical fibers are supported with minimal strain, maintaining low optical loss over the cable's lifetime. A protective jacket shields the fibers from moisture and safeguards the cable's polymer strength components from solar UV radiation.
This type features a single outer jacket layer. Lightweight: It's typically lighter than double sheath variants.
Ideal for environments with lower risk of mechanical damage or where cable weight is a critical factor.
Generally more cost-effective due to less material usage.
Equipped with two layers of sheathing, an inner and an outer jacket.
Provides better mechanical protection, making it suitable for harsher environments.
More resistant to abrasion, rodents, and other forms of physical damage.
Heavier and typically more expensive than single sheath cables due to additional materials.
Short Span Aerial Installations:
Ideal for roadside power poles due to their lightweight, selfsupporting design.
Their non-metallic nature makes them safe for use close to highvoltage lines.
Employed in long-distance telecom networks, capable of supporting up to 100 km circuits without repeaters using single-mode fibers.
Used by power utilities for reliable communication within the power grid.
Military Use: Originally developed for military applications, they are still used for rapid deployment in field communications.
Span Length:
Choose based on the distance between support structures; Short spans like 80m, longer spans up to 700m.
Decide on the number of fibers(6,12,24,48,96,144) needed for your data transmission requirements.
Most popular is G.652.D Environmental Conditions: Consider factors like wind, ice, and UV exposure to determine the need for protective sheathing.
Ensure the cableʼs electrical characteristics are safe for installation near power lines.
Evaluate the cableʼs tensile strength and weight for installation and environmental stress resistance.
Balance strength with the limitations of installation and support structures.
Preformed tension dead-end grip is usually used in the installation of the exposed conductor, electric transmission & distribution, and overheard insulated conductor. The reliability and economic advantage are better than the present bolt type and hydraulic
compression type Tension clamp Dead-end which now is being widely in the line. ADSS cable guy grips were developed to grip the ADSS fiber optical cable during the construction of internet network lines on wood poles or concrete towers.
ADSS suspension clamp is also called preformed suspension clamp or AGS suspension clamp, it offers a complete set of Aluminum clad, rubber, armor grip, bolt, and nut to support and protect the ADSS/OPGW cable from damage due to bending.
Stainless Steel strapping is ideal for ADSS cable and pipe banding applications that require various bundle diameters.
- Metal channel structural frame provides a durable light-weight design with ridged strength that is easy to install.
- Corrosion Resistant Materials - Aluminum.
- Bolt together Crossarm packs in the uniform low-profile container that reduces shipping costs and is easier to inventory.
- Multiple Keyholes adapt various Splice Cases.
- Wide cable keepers avoid point loads and provide better cable support.
Down-lead Clamp is designed to lead down cables on the splice and Terminal Poles/ towers and to fix the arch section on the Middle Reinforcing Poles/ towers.
Normally, a unit of Down-lead Clamp is needed per 1.5 meters, and it is also used in other fixing areas.
The cables are designed to be strong enough to allow lengths of up to 700 meters to be installed between support towers. ADSS cable is designed to be lightweight and small in diameter to reduce the load on tower structures due to cable weight, wind, and ice.
In the design of the cable, the internal glass optical fibers are supported with no strain to maintain low optical loss throughout the life of the cable. The cable is jacketed to prevent moisture from degrading the fibers.
The jacket also protects the polymer strength elements from the effect of solar ultraviolet light. Using single-mode fibers and light wavelengths of either 1310 or 1550 nanometres, circuits up to 100 km long are possible without repeaters.
A single cable can carry as many as 144 fibers.
ADSS cables made by ZION COMMUNICATION with 6,12,24,48,96 fibers range from 200 to 250 kg/kilometer and are between 11 and 17 mm outside jacket diameter. These cables can support between 4 TO 50 kilonewtons of tension.s determined.
ADSS cable production process - Kevlar + outer sheath
In order to properly design the structure of the ADSS cable, many aspects must be considered, including mechanical strength, conductor sag, wind speed b ice thickness c temperature d topography, Span, and Voltage.
Usually, when you are in production, you need to consider the following questions.
Jacket Type: AT/PE
PE sheath: ordinary polyethylene sheath. For power lines below 110KV and ≤12KV electric field strength. The cable should be suspended where the electric field strength is small.
AT sheath: anti-tracking sheath. For power lines above 110KV, ≤20KV electric field strength. The cable should be suspended where the electric field strength is small.
Out Cable Dia.: Single Jacket 8mm-12mm; Double jacket 12.5mm-18mm
Fiber Count: 4-144Fibers
Aramid Yarn Details: Something like (20*K49 3000D). This main calculation of tensile strength.
According to the stress formula, S=Nmax/E*ε,
E (Tensile modulus)=112.4 GPa(K49 1140Dinner)
ε=0.8%
Usually designed strain<1%(Stranded Tube)UTS;
≤0.8%, evaluation
Nmax=W*(L2/8f+f);
L=span(m);usually 100m,150m,200m,300m,500m,600m;
f=Cable sag; usually 12m or 16m.
Nmax=W*(L2/8f+f)=0.7*(500*500/8*12+12)=1.83KN
S=Nmax/E*ε=1.83/114*0.008=2 mm²
Saramid(K49 2840D)=3160*10-4/1.45=0.2179mm²
N numbers aramid yarn=S/s=2/0.2179=9.2
General aramid fiber hinge pitch is 550mm-650mm,angle=10-12°
W=Maximum load (kg/m)=W1+W2+W3=0.2+0+0.5=0.7kg/m
W1=0.15kg/m(This is the weight of ADSS cable)
W2=ρ*[(D+2d)⊃2;-D⊃2;]*0.7854/1000(kg/m) (This is the weight of ICE)
ρ=0.9g/cm³, the density of ice.
D=Diameter of ADSS. Usually 8mm-18mm
d=Ice cover thickness;No ice=0mm,Light ice=5mm,10mm;Heavy ice=15mm,20mm,30mm;
Let's say the ice is thick is 0mm, W2=0
W3=Wx=α*Wp*D*L=α*(V⊃2;/1600)*(D+2d)*L/9.8 (kg/m)
Let's say the wind speed is 25m/s, α=0.85; D=15mm;W3=0.5kg/m
Wp=V⊃2;/1600 (Standard partial pressure formula, V means wind speed)
α= 1.0(v<20m/s);0.85(20-29m/s);0.75(30-34m/s);0.7(>35m/s) ;
α means Coefficient of the unevenness of wind pressure.
Level | phenomenon | m/s
1 Smoke can indicate the wind direction. 0.3 to 1.5
2 The human face feels windy, and the leaves move slightly. 1.6 to 3.3
3 The leaves and micro-techniques are shaking, and the flag is unfolding. 3.4~5.4
4 The floor dust and paper can be blown up, and the tree's twigs are shaken. 5.5 to 7.9
5 The small leafy tree sways and wavelets in the inland waters. 8.0 to 10.7
6 The big branches are shaking, the wires are vocal, and it is not easy to lift the umbrella. 10.8~13.8
7 The whole tree is shaken, and it is inconvenient to walk in the wind. 13.9~17. l
8 The micro-branch is broken, and people feel very resistant to moving forward. 17.2~20.7
9 The grass house was damaged, and the branches were broken. 20.8 to 24.4
10 Trees can be blown down, and general buildings are destroyed. 24.5 to 28.4
11 Rare on land, large trees can be blown down, and general buildings are severely damaged. 28.5~32.6
12 There are few on the land, and its destructive power is enormous. 32.7~36.9
RTS: Rated tensile strength
Refers to the calculated value of the strength of the bearing section (mainly counting the spinning fiber).
UTS: Ultimate Tensile Strength UES>60% RTS
In the effective life of the cable, it is possible to exceed the design load when the cable by the maximum tension. That means the cable can be overloaded for a short time.
MAT: Max allowable working tension 40% RTS
MAT is an essential basis for sag-tension-span calculation and necessary evidence to characterize the stress-strain characteristics of ADSS optical cable. Refers to the design of meteorological conditions under the theoretical analysis of the total load and cable tension.
Under this tension, the fiber strain should be no more than 0.05% (laminated) and no more than 0.1% (central pipe) without additional attenuation.
EDS: Every Day Strength (16~25)% RTS
The annual average stress, sometimes called the moderate daily stress, refers to the wind and no ice, and the yearly average temperature, the theoretical calculation of the load cable tension, can be considered the ADSS in the long-term operation of the intermediate pressure (should) force.
EDS is generally (16~25) %RTS.
Under this tension, the fiber should have no strain, no additional attenuation, that is, very stable.
EDS is also the fatigue aging parameter of optical fiber optic cable, according to which the anti-vibration design of optical fiber optic cable is determined.
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