Vestas secures 65MW Italian wind turbine order

Vestas secures 65MW Italian wind turbine order

Vestas has secured a 65MW onshore turbine order in Italy. Ten V162 machines will be supplied with a 25-year service agreement, with delivery and commissioning planned during the second half of 2027.


IN Brief:

  • The undisclosed Italian project will use ten V162 turbines operating at 6.5MW each.
  • Vestas has included a 25-year AOM 5000 service agreement.
  • Delivery and commissioning are scheduled for the second half of 2027.

Vestas has secured a 65MW Italian onshore wind order covering ten V162 turbines, with delivery and commissioning planned for the second half of 2027. The customer and project name remain undisclosed.

The order specifies the V162 operating at 6.5MW and includes a 25-year Active Output Management 5000 service agreement. The contract therefore extends well beyond equipment supply, placing Vestas in a long-term role covering turbine performance and maintenance after the project enters operation.

The 65MW award forms part of Vestas’ third-quarter order intake and uses one of the flexible ratings available within its EnVentus platform. The manufacturer has developed the platform around modular turbine configurations intended to match different wind regimes, planning constraints, grid requirements, and site conditions rather than applying a single machine specification across every project.

Vestas’ technical material for the EnVentus range identifies a full-scale converter as one of the platform’s core electrical features. That matters because grid compliance has become a larger part of turbine design as wind generation occupies a growing share of power systems. Voltage control, reactive power capability, fault response, frequency behaviour, and plant-level active-power control increasingly determine whether a wind project can use its available network capacity effectively.

A ten-turbine project also illustrates the continuing move towards higher output from fewer individual machines. Increasing rating reduces the number of turbines required for a given wind-farm capacity, with potential savings in foundations, internal electrical circuits, access roads, crane positions, and routine inspection points. The trade-off is that an outage on one machine removes a larger share of the plant’s total output.

Electrical balance-of-plant design remains substantial even where the turbine count is comparatively low. Each machine has to feed into a collection network, normally at medium voltage, before power is transformed and exported through the project’s grid connection. Protection systems, switchgear, metering, communications, earthing, and plant control all have to operate as a coordinated system before the wind farm can be accepted for commercial service.

Connection requirements are particularly important in markets where renewable development is accelerating faster than transmission reinforcement. A developer may have turbines available and construction permits in place but still face restrictions around export capacity, energisation dates, or reinforcement works. The value of a 65MW generation project ultimately depends on how much of that capacity can reach the network and when.

The long service agreement shifts attention from construction into lifecycle performance. Modern wind turbines are monitored continuously for vibration, bearing temperature, lubrication condition, converter behaviour, generator performance, blade loading, and other operating parameters. Predictive maintenance can reduce unplanned outages, but only where data quality and maintenance planning are good enough to identify developing defects before they become failures.

Service contracts also have to accommodate the ageing profile of large rotating equipment. Blades, pitch systems, main bearings, gearboxes where fitted, generators, converters, transformers, yaw systems, and auxiliaries do not degrade at identical rates. Twenty-five years of service therefore involves changing maintenance priorities rather than repeating the same inspection cycle indefinitely.

The EnVentus platform’s flexible rating structure gives developers another way to manage that balance. A turbine capable of different operating modes can be configured around site-specific loads, acoustic limits, grid constraints, and expected energy yield. Running at the maximum available rating is not always the optimum lifetime choice if local wind conditions or permitting limits favour a different operating envelope.

Italy’s wind build-out is also occurring alongside rapidly growing photovoltaic capacity, which gives the generation profile additional system value. Wind output is less concentrated around midday than solar production and can provide generation during evening, overnight, and winter periods when photovoltaic output is lower. The contribution of an individual project nevertheless depends heavily on its location, wind regime, connection, and curtailment exposure.

The order itself provides only limited project information because the customer and site remain confidential. That makes the delivery milestones more useful than speculation around the development. By the second half of 2027, the ten contracted machines will have to progress through manufacturing, transport, civil works, erection, electrical installation, energisation, testing, and final acceptance.

Vestas has secured the equipment and service scope; the harder measure comes when those contracts have to become reliable megawatts on the Italian grid. With a quarter-century service term attached, commissioning will mark the start rather than the end of the manufacturer’s involvement.