Antenna Conductive Patterns for Parasitic Resonance Control

The antenna system is segmented into multiple functional components: a first conductive pattern for primary radiation, a second conductive pattern for parasitic resonance control, and a conductive plate for heat dissipation and noise blocking. This segmentation allows each component to perform its specific function independently while working together to resolve the contradiction between large display area and antenna performance.

The second conductive pattern acts as an intermediary element between the first conductive pattern and the conductive plate. It is positioned to prevent parasitic resonance caused by the conductive plate while allowing the display to maintain its large area. This intermediary structure mediates the interaction between the conductive plate and antenna, eliminating the harmful parasitic effects.

The antenna system achieves multi-functionality by incorporating multiple conductive patterns that serve different purposes. The first conductive pattern handles primary signal radiation across multiple bands, while the second conductive pattern specifically addresses parasitic resonance suppression. This multi-functional design enables the antenna to operate efficiently in multiple frequency bands despite the presence of the conductive plate.

The solution transitions from a two-dimensional planar conductive pattern to a three-dimensional multi-layer conductive structure. The first and second conductive patterns are positioned at different heights and locations, creating a spatial arrangement that enables multi-band operation. This dimensional expansion allows the antenna system to achieve versatility without excessive complexity.

The second conductive pattern serves as an intermediary barrier between the conductive plate and the first conductive pattern. It is strategically positioned to interrupt the parasitic resonance paths that would otherwise form between the conductive plate and antenna, allowing the device to maintain its slim profile without sacrificing antenna performance.

The second conductive pattern, which could be seen as an additional complexity, actually converts the harmful parasitic resonance effect into a beneficial outcome by actively suppressing it. The presence of this additional conductive element transforms the potential harm of close spacing into a controlled and managed interaction that improves overall antenna performance.