Antenna Radome Unit Cells for Gain and Volume Reduction
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Solution Overview
Problem
Antenna arrays increase signal loss and volume, making it difficult to effectively enhance antenna gain and are not suitable for small base stations.
Innovation Solution
An antenna radome with a substrate and unit cells formed perpendicular to the magnetic field direction, using C-shaped conductors to centralize radiation waves and reduce frequency drift, allowing for adjustable configurations to increase antenna gain without enlarging the system's volume.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If an antenna array is used to increase antenna gain, then the directivity of the antenna is improved, but the signal loss of the feeding network is enlarged and the volume of the antenna is enlarged
Solution Approach 1:
The patent changes the physical and geometric parameters of the radome structure, including the shape, size, and arrangement of unit cells with C-shaped conductors. By optimizing these parameters, the radome enhances antenna gain through improved radiation characteristics while avoiding the signal loss issues associated with antenna arrays and their feeding networks
Solution Approach 2:
The radome acts as an intermediary structure between the antenna and the surrounding environment. The unit cells with C-shaped conductors serve as intermediate elements that manipulate electromagnetic wave propagation, achieving gain enhancement without requiring additional antenna elements or complex feeding networks
2Reliability
If an antenna array is used to increase antenna gain, then the directivity of the antenna is improved, but the volume of the antenna is enlarged
Solution Approach 1:
The patent optimizes the geometric parameters of the radome unit cells and their arrangement to achieve gain enhancement within a compact volume. The C-shaped conductor configuration and unit cell dimensions are specifically designed to provide the desired electromagnetic effects without requiring the large physical footprint of an antenna array
Solution Approach 2:
The unit cells with C-shaped conductors are arranged in a nested or compact configuration on the radome surface, allowing the gain-enhancing structure to be integrated within a small volume without requiring the extensive space needed for traditional antenna arrays
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
The solution effectively increases antenna gain, reduces volume, and minimizes frequency drift, enabling customized configurations for improved signal quality without the need for large antenna arrays.
Implementation Method 1
The unit cell is formed on a surface of the antenna radome substrate and perpendicular to a magnetic field direction of an antenna
Implementation Method 2
The unit cell includes first C-shaped conductors, second C-shaped conductors and third C-shaped conductors. The second C-shaped conductors are respectively adjacent to the first C-shaped conductors. The third C-shaped conductors are respectively positioned in openings of the second C-shaped conductors
Data Source
AI summary
An antenna radome is provided. The antenna radome comprises an antenna radome substrate and a unit cell. The unit cell is formed on a surface of the antenna radome substrate, and the unit cell is perpendicular to a magnetic field direction of an antenna. The unit cell comprises a plurality of conductors.


