Home > Medium Voltage Power Cables > N2XS(FL)2Y 18/30 (36) kV Copper XLPE insulated MDPE cable
N2XS(FL)2Y-Cable
N2XS(FL)2Y-Cable

N2XS(FL)2Y 18/30 (36) kV Copper XLPE insulated MDPE cable

Application

Medium voltage power cables for distribution networks and generation units, suitable for external installation including in buried cable ducts. UV Resistant.

Construction
  • Conductor: Class 2 Stranded Copper
  • Conductor Screen: Semi-conductive material
  • Insulation: XLPE (Cross-Linked Polyethylene)
  • Insulation Screen: Semi-conductive material (bonded)
  • Longitudinal Waterblocking: Semi-conductive swellable tape
  • Screen: Copper wires and copper tape
  • Longitudinal Waterblocking: Swellable Tapes
  • Radial Waterblocking: Al/PET (Aluminium/Polyester) Tape bonded to sheath
  • Outer Sheath: MDPE (Medium Density Polyethylene)
Characteristics
  • Voltage Rating Uo/U(Um): 18/30(36)kV
  • Temperature Rating: -20°C to +60°C
  • Permissible Conductor Operating Temperature: +90°C
  • Permissible Short Circuit Temperature up to 5 sec: 250°C
Specification

IEC 60502-2 Power Cables with Extruded Insulation and Their Accessories for Rated Voltages from 1kV (Um=1.2kV) up to 30kV (Um=36kV)–Part 2: Cables for Rated Voltages of 6kV (Um=7.2kV) and 30kV (Um=36kV)

IEC 60228 Conductors of insulated cables: specifies the nominal cross-sectional areas, in the range 0,5 mm2 to 3500 mm2, for conductors in electric power cables and cords of a wide range of types.

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Product Parameters

No.of cores and Nominal cross sectional area Conductor Diameter Nominal Insulation Thickness Minimum Insulation Thickness Nominal Sheath Thickness Minimum Sheath Thickness Approx. Overall Diameter Approx. Weight Max. DC Resistance of conductor at 20°C
No. x mm² mm mm mm mm mm mm Kg/km Ω/km
1×50/16 8.1 8 7.1 2 1.4 32 1300 0.387
1×70/16 9.7 8 7.1 2 1.4 34 1500 0.268
1×95/16 11.4 8 7.1 2.1 1.48 36 1900 0.193
1×120/16 12.7 8 7.1 2.1 1.48 37 2250 0.153
1×150/25 14.5 8 7.1 2.2 1.56 39 2500 0.124
1×185/25 15.9 8 7.1 2.2 1.56 40 3000 0.0991
1×240/25 18.6 8 7.1 2.3 1.64 43 3500 0.0754
1×300/25 20.7 8 7.1 2.4 1.72 46 4250 0.0601
1×400/35 23.5 8 7.1 2.5 1.8 49 5250 0.047
1×500/35 26.5 8 7.1 2.6 1.88 52 6250 0.0366
1×630/35 30.2 8 7.1 2.7 1.96 56 7250 0.0283

Application and case display

FAQ

How Do Water-Blocking Cables Work?
How do you calculate the minimum bending radius of cables?
What is the purpose of a metallic shield in MV and HV cables?
What is the operating temperature of the cable?
Longitudinal Water Blocking vs. Lateral Water Blocking?
What is the length tolerance for cables?
How Do Water-Blocking Cables Work?
Water-blocking cables are essential for ensuring reliable operation in environments with high levels of moisture or frequent water contact. These cables employ water-blocking techniques to effectively prevent water ingress, protecting them from damage and prolonging their lifespan.
How do you calculate the minimum bending radius of cables?
The bend radius refers to the curved shape in which an electrical cable can be bent or curved without sustaining damage. To determine the minimum bend radius for cables, apply the following formula: Minimum Bend Radius = Cable Outer Diameter×Cable Multiplier. For example, if the outer diameter of a cable is 20mm, its minimum bending radius would be 20mm×6 = 120mm. Conversely, if an armored cable has an outer diameter of 30mm, its minimum bending radius would be 30mm×12 = 360mm.
What is the purpose of a metallic shield in MV and HV cables?
Medium and high voltage power cables, typically those in circuits exceeding 2kV, usually feature a shield layer made of copper or aluminum tape. Similar to their use in low voltage cables, metallic wires and tapes are employed to prevent electromagnetic interference. These shields effectively neutralize or significantly diminish the field currents surrounding the conductor or core. The capacitive and inductive charging currents induced under normal operating conditions are subsequently grounded by the metallic screen.
What is the operating temperature of the cable?
The operating temperature of a cable is determined by the insulation and sheathing material. PVC has a range of -15°C to 70°C, XLPE can reach up to 90°C, while silicone rubber can handle temperatures from -60°C to 180°C.
Longitudinal Water Blocking vs. Lateral Water Blocking?
A longitudinally water blocking cable is designed with a barrier to prevent the spread of moisture along its length. Longitudinal water blocking stops water from migrating along the cable's core, typically between the conductor strands, insulation layers, or metallic screens. Lateral water blocking ensures that water cannot penetrate the cable in the event that the sheathing is pierced or damaged. Radial water blocking prevents water from penetrating the cable's outer sheath or insulation layers, thereby stopping it from entering the cable structure entirely. Longitudinal water blocking can be achieved through various methods, including the application of water-blocking tapes and powders. These are frequently located on either side of a metallic screen and conductor. Lateral water blocking is typically accomplished by applying a layer of aluminum/polyester tape to the underside of the outer sheath.
What is the length tolerance for cables?
The tolerance for the power cable is 0 to +0.5%. For the bare conductor, the tolerance is ±5%.

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