Wind Turbine Selector

52 suitable wind turbines found.
# Manufacturer Product Rated power Rotor diameter Hub height (Tip height) Annual Energy Production* Capacity factor*
1 Gamesa G80-2.0 MW 2,000 kW 80.00 m 100.0 m (140.0 m) 5.9 GWh 33.9 %
2 Senvion MM92 2,050 kW 92.50 m 100.0 m (146.25 m) 7.1 GWh 39.6 %
3 Gamesa G87-2.0 MW 2,000 kW 87.00 m 90.0 m (133.50 m) 6.3 GWh 36.1 %
4 Gamesa G90-2.0 MW 2,000 kW 90.00 m 90.0 m (135.0 m) 6.6 GWh 37.6 %
5 Gamesa G97-2.0 MW 2,000 kW 97.00 m 100.0 m (148.50 m) 7.4 GWh 42.2 %
6 Senvion MM82 2,050 kW 82.00 m 80.0 m (121.0 m) 5.7 GWh 31.6 %
7 ENERCON E-70 E4 2,300 kW 71.00 m 114.0 m (149.50 m) 5.6 GWh 27.8 %
8 ENERCON E-92 2,350 kW 92.00 m 104.0 m (150.0 m) 7.6 GWh 36.9 %
9 Nordex N117/2400 2,400 kW 116.80 m 91.0 m (149.40 m) 9.4 GWh 44.9 %
10 Senvion 2.3M120 2,330 kW 120.00 m 90.0 m (150.0 m) 9.5 GWh 46.6 %
11 Siemens SWT-2.3-101 2,300 kW 101.00 m 80.0 m (130.50 m) 7.7 GWh 38.0 %
12 Siemens SWT-2.3-108 2,300 kW 108.00 m 78.50 m (132.50 m) 8.2 GWh 40.6 %
13 Gamesa G114-2.0 MW 2,000 kW 114.00 m 93.0 m (150.0 m) 8.4 GWh 48.2 %
14 Vestas V90-2.0 MW 2,000 kW 90.00 m 105.0 m (150.0 m) 6.9 GWh 39.3 %
15 GE 1.7-103 1,700 kW 103.00 m 80.0 m (131.50 m) 6.8 GWh 45.4 %
16 GE 1.7-100 1,700 kW 100.00 m 96.0 m (146.0 m) 6.9 GWh 46.5 %
17 Goldwind GW 82/1500 1,500 kW 82.00 m 85.0 m (126.0 m) 5.1 GWh 39.0 %
18 Goldwind GW 87/1500 1,500 kW 87.00 m 85.0 m (128.50 m) 5.5 GWh 41.5 %
19 ENERCON E-44 900 kW 44.00 m 55.0 m (77.0 m) 1.5 GWh 19.6 %
20 Vestas V90-1.8 MW 1,800 kW 90.00 m 105.0 m (150.0 m) 6.6 GWh 41.6 %
21 GE 1.85-82.5 1,850 kW 82.50 m 80.0 m (121.25 m) 5.5 GWh 34.0 %
22 Vestas V100-2.0 MW 2,000 kW 100.00 m 95.0 m (145.0 m) 7.5 GWh 42.8 %
23 Vestas V110-2.0 MW 2,000 kW 110.00 m 95.0 m (150.0 m) 8.2 GWh 46.9 %
24 Senvion MM100 2,000 kW 100.00 m 100.0 m (150.0 m) 7.6 GWh 43.4 %
25 GE 1.85-87 1,850 kW 87.00 m 80.0 m (123.50 m) 5.9 GWh 36.3 %

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*Annual Energy Production and Capacity factor are estimated based on Average wind speed at Measurement height specified in the filter section and following assumptions: Rayleigh distribution (Weibull distribution with a shape factor of 2); average wind speed adapted to Hub height applying power law with wind shear exponent of 0.2 (onshore) or 0.14 (offshore), respectively; power curve estimated between cut-in (= 3 m/s if not available) and cut-out (= 25 m/s if not available) wind speed using Rotor diameter of wind turbine, standard air density of 1.225 kg/m3 and CP of 45% until Rated power of wind turbine is reached; all calcuations are done according to references listed below;
**Hub height of offshore wind turbines is calculated by adding the rotor radius to the Distance between bottom blade tip and mean sea level, i.e. the manufacturer has to be consulted whether the hub height shown is possible.

References

[1]

International Electrotechnical Commission (IEC). International Standard: Wind turbines - Part 3: Design requirements for offshore wind turbines. IEC 61400-3:2009.

[2]

International Electrotechnical Commission (IEC). International Standard: Wind turbines - Part 1: Design Requirements. IEC 61400-1:2005.

[3]

International Electrotechnical Commission (IEC). International Standard: Wind energy generation systems - Part 12-1: Power performance measurements of electricity producing wind turbines. IEC 61400-12-1:2017.