Wind power is calculated by A * v³ * ρ * η
A is the area, e.g. π/2 * r² for horizontal axis designs, ρ is the air density and η is the total system efficiency (limited to <59% and safe to assume to be >0.4 for modern systems) and v is the wind speed.
Mars' atmosphere is about 1% of Earth's atmosphere in density. Given a wind speed of 7 m/s² (the optimal wind speed for most modern wind turbines), on Mars we'd get only 1% of the power we'd get on Earth.
A 100m installation (~2.6MW on Earth) would deliver only 21kW on Mars. The average wind speed during a year is slightly higher on Mars, though, at 10 m/s² [0]. The average power output thus would be about 61kW.
The most important time, however, would be dust storms, which render solar useless. Wind speeds have been recorded to exceed 30 m/s² during dust storms. Assuming we can efficiently shield the generator from the dust, the power output would peak at 1.7MW.
A more conservative 17 m/s² for dust storms still yields about 308kW.
100m class wind turbines, while rare on Earth (e.g. GE Haliade-X [1]) would be easier to build on Mars given the significantly lower gravity.
Wind turbines would work on Mars and have great synergy with solar - when solar doesn't work (e.g. during dust storms), wind turbines would be most efficient.
Wind power wouldn't be the first choice for powering a Mars station, though. As can be seen above, installations would have to be pretty significant in size to deliver noteworthy amounts of power.
[0] https://nssdc.gsfc.nasa.gov/planetary/factsheet/marsfact.htm...
[1] https://www.ge.com/renewableenergy/wind-energy/offshore-wind...