The development and deployment of anti-drone radar systems have become a cutting-edge focus in the electromagnetic spectrum competition. These radars commonly operate within the X-band (8-12 GHz) as their core frequency range, leveraging its excellent resolution and tracking accuracy to effectively detect small, low-altitude, slow-moving drone targets. In complex electromagnetic environments, the ability to control and utilize the X-band more efficiently and intelligently determines which side holds the critical technological initiative in counter-drone defense.

This competition manifests directly in the contest over radar performance: on one hand, systems must employ technologies such as adaptive frequency hopping and narrow beams to ensure stable operation and low probability of interception within the X-band; on the other hand, they must be capable of identifying and suppressing deceptive or jamming signals from hostile drones operating in the same frequency range. Therefore, the confrontation between anti-drone radars is, in essence, a real-time dynamic contest of "detection" versus "countermeasures" within a specific spectrum, serving as a microcosm of systemic electronic warfare capabilities in the domain of low-altitude security.