Design and Implementation of Rectangular Patch Antenna for Tri-Band operation

Inhaltsverzeichnis (Table of Contents)

• Introduction
• Introduction
• Feed technique
• Microstrip feed line
• Coaxial feed line
• Aperture coupled feed
• Proximity couple feed line
• Literature survey
• Problem definition
• Objective of the book
• Transmission line model
• Fringing effects
• Effective length, resonant frequency and effective width
• Design
• Design procedure
• Conductance
• Resonant input resistance
• Design patch for tri-band operation
• Antenna geometry I
• Mathematical calculations of antenna geometry I
• Antenna geometry - II
• Mathematical calculations of antenna geometry II
• Result and discussion
• Antenna geometry I
• Return loss
• Voltage standing wave ratio (VSWR)
• Current distribution
• Radiation pattern.
• Antenna geometry II
• Return loss
• Voltage standing wave ratio (VSWR)
• Radiation pattern.
• Gain . .
• Current distribution
• Comparison of antenna geometry
• Conclusion
• Scope for improvement

Zielsetzung und Themenschwerpunkte (Objectives and Key Themes)

This book explores the design and analysis of microstrip patch antennas for tri-band operation. It aims to provide a comprehensive understanding of the principles, techniques, and challenges involved in achieving tri-band operation in microstrip patch antennas. The text focuses on practical design considerations and utilizes simulation software to validate the design process.

• Microstrip Patch Antenna Design
• Tri-band Operation
• Transmission Line Model and Analysis
• Simulation and Validation
• Practical Design Considerations

Zusammenfassung der Kapitel (Chapter Summaries)

• Introduction: This chapter introduces the concept of microstrip patch antennas and provides an overview of their applications and advantages. It also discusses various feed techniques commonly used in patch antenna design.
• Literature survey: This chapter presents a comprehensive review of existing research and development in the field of microstrip patch antennas, particularly focusing on tri-band operation.
• Problem definition: This chapter outlines the specific challenges and objectives addressed by the book. It defines the problem of achieving tri-band operation in microstrip patch antennas and highlights the key issues that need to be tackled.
• Objective of the book: This chapter states the primary goals and objectives of the book. It outlines the intended outcomes and the knowledge and skills that readers are expected to gain upon completing the book.
• Transmission line model: This chapter delves into the theoretical foundation of microstrip patch antenna design, focusing on the transmission line model. It discusses the concepts of fringing effects, effective length, resonant frequency, and effective width. It also explains the design procedure for microstrip patch antennas based on this model.
• Design patch for tri-band operation: This chapter presents the practical design of microstrip patch antennas for achieving tri-band operation. It explores different antenna geometries and provides detailed mathematical calculations for optimizing the design parameters.
• Result and discussion: This chapter presents the simulation results and analysis of the designed microstrip patch antennas. It discusses the performance characteristics, such as return loss, VSWR, current distribution, and radiation patterns, for different antenna geometries.
• Comparison of antenna geometry: This chapter compares the performance of different antenna geometries designed for tri-band operation, highlighting their advantages and disadvantages.

Schlüsselwörter (Keywords)

This book focuses on the design and analysis of microstrip patch antennas for tri-band operation, utilizing transmission line model and simulation software. It explores practical design considerations, simulation results, and performance characteristics of different antenna geometries. Key terms include microstrip patch antenna, tri-band operation, transmission line model, simulation, design considerations, return loss, VSWR, current distribution, and radiation pattern.