The complex electromagnetic environment of modern battlefields requires strong robustness of satellite navigation anti-jamming receivers. A polarization-sensitive array uses polarization information to increase the dimension of processing signals and can be applied in navigation to improve the anti-interference performance of the receiver. In this paper, the anti-jamming of the dual-polarization array in a complex electromagnetic environment is studied. The signal model and the dual-polarization array are introduced, and the amplitude and phase information obtained by finite element simulation on HFSS are then used to synthesize the steering vector and simulate it in MATLAB to prepare the anti-jamming ability of the ordinary array and the dual-polarization array. The real data is measured in a darkroom to verify the simulation results. The satellite collection positioning test was carried out on the roof to compare the positioning results of the ordinary array and the Dual-polarization array. The simulation and experiment shows that the dual-polarization array can suppress super-degree-of-freedom jamming and has good robustness under low elevation angle jamming. The dual-polarization antenna does not change the antenna size and can maintain the receiver miniaturization while keeping good robustness.