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Home»TRIZ Case»Reducing Electromagnetic Coupling in Radar Systems with Optimized Adhesive Layers

Reducing Electromagnetic Coupling in Radar Systems with Optimized Adhesive Layers

May 22, 20263 Mins Read
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Reducing Electromagnetic Coupling in Radar Systems with Optimized Adhesive Layers

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Summary

Problems

Conventional radar systems experience electromagnetic energy leakage through adhesive layers, leading to unwanted coupling between vertical feed lines, which deteriorates range accuracy, angle accuracy, and noise floor, and current solutions are either costly or require expensive materials.

Innovation solutions

The adhesive layer in the radar system is optimized with strategically designed cut-out regions having non-straight side boundaries to deflect electromagnetic waves, reducing energy leakage and coupling between vertical feed lines without using conductive materials or expensive hybrid PCBs.

TRIZ Analysis

Specific contradictions:

mounting simplicity and cost
vs
electromagnetic coupling between feed lines

General conflict description:

Ease of manufacture
vs
Object-affected harmful factors
TRIZ inspiration library
1 Segmentation
Try to solve problems with it

Principle concept:

If a conventional adhesive layer is used to mount the antenna PCB to the RCM, then the mounting is simple and low-cost, but electromagnetic energy leaks into the adhesive layer causing unwanted coupling between vertical feed lines

Why choose this principle:

The adhesive layer is segmented by introducing cut-out regions that divide the continuous adhesive into isolated sections. This segmentation prevents electromagnetic energy from propagating through the adhesive layer between vertical feed lines, thereby reducing unwanted coupling while maintaining the adhesive's mounting function in the remaining areas.

TRIZ inspiration library
2 Taking out (Extraction)
Try to solve problems with it

Principle concept:

If a conventional adhesive layer is used to mount the antenna PCB to the RCM, then the mounting is simple and low-cost, but electromagnetic energy leaks into the adhesive layer causing unwanted coupling between vertical feed lines

Why choose this principle:

Specific portions of the adhesive layer are extracted or removed to create cut-out regions. These removed sections act as electromagnetic isolation barriers, eliminating the harmful coupling path while preserving the adhesive layer's structural mounting capability in the retained areas.

Application Domain

radar systems electromagnetic coupling adhesive layer design

Data Source

Patent US20240012102A1 Radar system with adhesive layer for isolation of vertical feed lines
Publication Date: 11 Jan 2024 TRIZ 电器元件
FIG 01
US20240012102A1-D00001
FIG 02
US20240012102A1-D00002
FIG 03
US20240012102A1-D00003
Login to view Image

AI summary:

The adhesive layer in the radar system is optimized with strategically designed cut-out regions having non-straight side boundaries to deflect electromagnetic waves, reducing energy leakage and coupling between vertical feed lines without using conductive materials or expensive hybrid PCBs.

Abstract

Provided is a radar system, comprising: an antenna printed circuit board ( 1 ) comprising at least one transmit antenna and at least one receive antenna; a radar control module ( 3 ); an adhesive layer ( 2 ) provided between the antenna printed circuit board ( 1 ) and the radar control module ( 3 ); and vertical feed lines ( 4, 5, 55 ) respectively connecting the at least one transmit antenna and the radar control module ( 3 ) and respectively connecting the at least one receive antenna and the radar control module ( 3 ); whereby the adhesive layer ( 2 ) comprises at least one cut-out region ( 8, 60 ) being structured by having a non-straight side boundary to direct an electromagnetic wave emanating from a first vertical feed line ( 4 ) away from arriving at one or more of the vertical feed lines ( 4, 5, 55 ).

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    adhesive layer design electromagnetic coupling radar systems
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    Table of Contents
    • Reducing Electromagnetic Coupling in Radar Systems with Optimized Adhesive Layers
      • Summary
      • TRIZ Analysis
      • Data Source
      • Accelerate from idea to impact
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