Dielectric Antenna Beam Steering via Conductorless Cores
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Solution Overview
Problem
Current communication networks face challenges in providing high bandwidth and efficient data transmission, especially with the increasing demand from smartphones and other portable devices, as traditional macrocell base stations require higher bandwidth and existing wireless infrastructure struggles to meet this demand, and there is a need for innovative solutions to enhance broadband access networks.
Innovation Solution
A guided wave communication system that utilizes electromagnetic waves bound to or guided by transmission media such as wires or dielectric materials, allowing for efficient data transmission without the need for an electrical return path, using couplers and transceivers to launch and extract guided waves at millimeter-wave frequencies, and employing dielectric antennas for beam steering and propagation along power lines.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If traditional macrocell base stations are used to provide wireless coverage, then coverage area is large, but bandwidth capability is insufficient to meet increasing data demand
Solution Approach 1:
The patent divides the traditional macrocell network into multiple small cell nodes (microcells and picocells) that operate independently or cooperatively. Each small cell provides high-bandwidth service to a limited area, and multiple small cells collectively cover the entire service region, thus achieving both high productivity and adequate adaptability.
Solution Approach 2:
The patent introduces a new dimension of network architecture by deploying small cells in three-dimensional space (indoor, outdoor, urban, rural) rather than relying solely on two-dimensional macrocell coverage. This multi-layered small cell architecture enables high bandwidth capability while maintaining comprehensive coverage through spatial distribution.
2Productivity
If existing wireless infrastructure is deployed to meet data demand, then infrastructure coverage is established, but it struggles to provide sufficient bandwidth for high-speed data transmission
Solution Approach 1:
The patent combines multiple small cell nodes with different coverage characteristics (microcells for urban areas, picocells for indoor environments) into an integrated heterogeneous network. This merging of different cell types and deployment scenarios creates a reliable high-bandwidth system that can adapt to various service conditions while maintaining overall service reliability.
Solution Approach 2:
The small cell architecture serves multiple functions simultaneously: providing high-bandwidth data transmission, extending coverage to previously unserved areas, enabling both indoor and outdoor connectivity, and supporting diverse applications (voice, video, internet browsing). This multi-functionality achieves high productivity without compromising reliability.
3Adaptability or versatility
If broadband access networks are expanded to meet growing data usage, then network coverage increases, but bandwidth capacity becomes insufficient
Solution Approach 1:
The patent segments the broadband access network into numerous small cell nodes distributed across the service area. Each node provides localized high-capacity bandwidth, and the aggregate capacity of all nodes delivers the required total bandwidth while maintaining extensive coverage through geographic distribution.
Solution Approach 2:
The patent changes key network parameters by transitioning from few large macrocells to many small cells with different transmission powers, frequencies, and coverage radii. This parameter transformation enables the network to simultaneously achieve wide coverage and high bandwidth capacity by optimizing each small cell's operational characteristics for its specific environment.
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
This solution enables efficient data transmission with reduced propagation loss, supports high-bandwidth communication, and can operate without a separate electrical return path, addressing the bandwidth demands and enhancing broadband access networks.
Implementation Method 1
A guided wave communication system that utilizes electromagnetic waves bound to or guided by transmission media such as wires or dielectric materials
Implementation Method 2
electromagnetic waves bound to or guided by transmission media such as wires or dielectric materials
Data Source
AI summary
In accordance with one or more embodiments, an antenna system includes a dielectric antenna having a feed-point, wherein the dielectric antenna is a single antenna having a plurality of antenna beam patterns. At least one cable having a plurality of conductorless dielectric cores is coupled to the feed-point of the dielectric antenna, each of the plurality of conductorless dielectric cores corresponding to one of the plurality of antenna beam patterns. A controller, selects one of the plurality of antenna beam patterns and generates a control signal in response thereto. A core selector, responsive to the control signal, couples electromagnetic waves from a source to a selected one of the plurality of conductorless dielectric cores, the selected one of the plurality of conductorless dielectric cores corresponding to the selected one of the plurality of antenna beam patterns.