PV DC cable, wind turbine torsion cable, energy storage connectors and MV collector cable for solar farms, wind parks and battery storage plants. Engineered to IEC 62930 and EN 50618, supplied factory-direct to EPC contractors and developers.

ZMS Cable has manufactured cable and wire for industrial buyers since 1995. This site is dedicated to our new energy range — the DC, torsion, battery and collector cables that connect modules, turbines and battery racks to the point of grid connection.
Select by plant type and voltage level: PV DC circuits, wind turbine runs, battery connections, MV collection and the special cables around them.
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PV1-F and H1Z2Z2-K DC cable for module, string and inverter wiring at up to 1500 V DC.
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Torsion-resistant power and control cable for nacelle, tower and pitch systems.
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Flexible, LSZH battery connection cable for cells, racks, PCS and BMS wiring.
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6–35 kV XLPE collector cable for solar farm and wind farm internal networks.
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Tracking, monitoring and grounding cable for the moving and protective parts of a plant.
View rangeUV exposure, thermal cycling, torsion and DC arcs are normal service conditions in a PV or wind plant. We build for those conditions, not for a catalogue headline.
Constructions are designed against IEC 62930, EN 50618 and IEC 60502 rather than a generic house style.
Cross-linked XLPO and XLPE compounds are selected for continuous outdoor exposure and thermal cycling.
Class 5 and 6 conductors, optimised lay lengths and PUR or TPE sheaths for moving and twisting runs.
Made in Zhengzhou, China, with drum marking, length marking and project documentation for export.
Cable is a small line in a renewable project budget and a large part of its availability. Our production and export model is built around consistent construction, clear documentation and repeatable delivery.
Six plant types, each with a different mix of DC voltage, mechanical movement and environmental exposure.
String, harness and DC feeder cable between modules, combiners and inverters.
Flexible DC cable for confined roof routes and long cable trays.
Torsion-resistant runs in the nacelle, tower and pitch system.
Cell, rack and PCS connections that see continuous charge cycling.
High-flex cable for single-axis trackers and moving module rows.
Bonding of frames, piles and inverter stations to the earthing grid.



Stranding, insulation, cabling, screening, armouring and sheathing are controlled in-house. Finished cable is inspected, length-marked and packed for export with drum markings that match the project packing list.
CE conformity and management-system certificates are available for project files. Certificate copies can be downloaded from the certificates page.
View allShort guides on standards, sizing, torsion and installation — written for the people who sign the purchase order.
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Both are 1500 V DC PV cables, but IEC 62930 and EN 50618 differ in test regime, sheath compound and marking. What to put on the purchase order.

Fault level, conductor choice, screen and armour, and joint discipline: the four decisions that set the construction of an MV collector feeder in a PV plant.

Torsion angle, cycle count, temperature range and sheath choice decide whether a nacelle cable survives its design life. A practical specification checklist.
Send us the plant type, system voltage and installation route. We will recommend the construction and quote factory-direct.
Share the system voltage, conductor size, cable length, installation route, sheath or armour requirement and delivery destination. Our engineering team will reply within one business day.