Increase Wireless Tissue Range with Microstrip Patch Antennas Rectangular Planar Array

Oct 13, 2025 by ludoplayers7.com 107 views

Increase Wireless Tissue Range with Microstrip Patch Antennas Rectangular Planar Array

Wireless technology has become an integral part of modern life, connecting us with the outside world through the internet and various applications. However, wireless network performance is influenced by various factors, one of which is an antenna. Antenna plays an important role in increasing the reach and quality of signals in wireless network systems such as LAN networks. The performance of the antenna is crucial in determining the overall quality of the wireless network.

Understanding Microstrip Patch Rectangular Planar Array Antennas

Antenna Microstrip Patch Rectangular Array Planar analyzed in this study uses four arrangement patterns, namely 1x1, 1x2, 2x2, and 2x4. Each pattern shows a significant increase in several important aspects. The study aims to analyze the performance of the rectangular microstrip patch antenna arranged in a planar, working at a frequency of 2.45 GHz.

Increased Antenna Gain

*** The results of the analysis show an increase in antenna gain along with the increasing number of transmitter elements in the planar arrangement. The 1x1 pattern has a gain of 5.9 dB, then increases to 9.59 dB in the pattern 1x2, 10.23 dB in the 2x2 pattern, and reaches 13 dB in the 2x4 pattern. This increase in gain indicates that the antenna can emit signals with greater strength, so that its reach is wider. The higher gain of the antenna means that the wireless signal can cover a larger area, providing a more stable and stronger internet connection.

Improved VSWR (Voltage Standing Wave Ratio)

*** VSWR is an important parameter that shows how good the antenna impedance matches the transmission channel impedance. The lower the VSWR, the better the matching impedance. In this study, VSWR showed an optimal increase from 1.606 in the 1x1 pattern to 1.487 in the 2x4 pattern. This indicates that the more transmitter elements in the arrangement of planar, the better the matching of the antenna impedance with the transmission channel, so that the power that radiates more optimally. The optimal VSWR ensures a better impedance matching, so that the power that radiates becomes more optimal and the signal quality is better.

Smaller Lobe Main Angles

*** Main Lobe is the strongest signal radiant direction from the antenna. The smaller lobe angle shows that the directed signal is more focused on one direction, thereby reducing the interference of the signal originating from the other direction. The results of the analysis showed that the mobile lobe angle was getting smaller in line with the increase in the number of transmitter elements in the planar arrangement. The smaller lobe play angle indicates that the signal is directed and more focused, thereby reducing interference with signals from other devices.

Benefits and Implications

Increasing the performance of the Microstrip Patch Antenna of the rectangular PLANAR ARRY using various patterns of arrangement has a significant implication for the development of wireless networks.

Broader Reach

*** Increased antenna gain means wireless signal range becomes wider. Thus, allowing a more stable and stronger internet connection in a larger area. The higher gain of the antenna means that the wireless signal can cover a larger area, providing a more stable and stronger internet connection.

Better Signal Quality

*** Optimal VSWR ensures a better impedance matching. So that the power that radiates becomes more optimal and the signal quality is better. The optimal VSWR ensures a better impedance matching, so that the power that radiates becomes more optimal and the signal quality is better.

Lower Interference

*** The smaller lobe play angle indicates that the signal is directed and more focused. Thus, reducing interference with signals from other devices. The smaller lobe play angle indicates that the signal is directed and more focused, thereby reducing interference with signals from other devices.

Conclusion

This study shows that the Antenna of the Microstrip Patch of Planar Array has a great potential to improve the performance of wireless networks. By increasing the number of transmitter elements in the planar arrangement, we can reach higher gains, more optimal VSWR, and smaller lobe play angles. This has an impact on a broader signal range, better signal quality, and lower interference. Thus, planar array microstrip antenna technology can be an ideal solution to meet the increasingly complex wireless network needs in the future.

Future Work

The study suggests that further research is needed to explore the potential of planar array microstrip antennas in various wireless network applications. The study also suggests that the development of more efficient and compact planar array microstrip antennas is necessary to meet the increasing demand for wireless network connectivity.

References

[1] J. R. James and P. S. Hall, "Handbook of Microstrip Antennas," Peter Peregrinus Ltd., London, 1989.
[2] K. F. Lee and J. S. Bolinder, "Microstrip Antennas," Artech House, Boston, 1993.
[3] R. G. Corzine and P. J. Watson, "Microstrip Antennas," IEEE Press, New York, 1997.

Note: The references provided are a selection of relevant publications in the field of microstrip antennas. A more comprehensive list of references may be necessary for a complete study.

Q: What is a microstrip antenna patch rectangle?

A: A microstrip antenna patch rectangle is a type of antenna that consists of a rectangular patch of conductive material, typically copper, on a dielectric substrate. The patch is designed to resonate at a specific frequency, and the shape and size of the patch determine the antenna's performance characteristics.

Q: What is a planar array technique?

A: A planar array technique is a method of arranging multiple microstrip antenna patches in a two-dimensional array to achieve a desired radiation pattern and performance characteristics. The planar array technique allows for the creation of a larger antenna aperture, which can improve the antenna's gain and directivity.

Q: What are the benefits of using a microstrip antenna patch rectangle with a planar array technique?

A: The benefits of using a microstrip antenna patch rectangle with a planar array technique include:

Increased gain: The planar array technique can increase the antenna's gain, allowing for a stronger signal to be transmitted.
Improved directivity: The planar array technique can improve the antenna's directivity, allowing for a more focused signal to be transmitted.
Reduced interference: The planar array technique can reduce interference between the antenna and other devices, improving the overall performance of the system.

Q: What are the challenges of designing a microstrip antenna patch rectangle with a planar array technique?

A: The challenges of designing a microstrip antenna patch rectangle with a planar array technique include:

Optimizing the antenna's performance: The planar array technique requires careful optimization of the antenna's performance characteristics, including gain, directivity, and impedance matching.
Minimizing interference: The planar array technique requires careful consideration of the antenna's interaction with other devices, including other antennas and electronic components.
Ensuring reliability: The planar array technique requires careful consideration of the antenna's reliability and durability, including its ability to withstand environmental stressors and maintain its performance over time.

Q: What are the applications of microstrip antenna patch rectangles with planar array techniques?

A: The applications of microstrip antenna patch rectangles with planar array techniques include:

Wireless communication systems: Microstrip antenna patch rectangles with planar array techniques are used in wireless communication systems, including cellular networks, Wi-Fi, and satellite communications.
Radar systems: Microstrip antenna patch rectangles with planar array techniques are used in radar systems, including air traffic control and surveillance systems.
Sensing and monitoring systems: Microstrip antenna patch rectangles with planar array techniques are used in sensing and monitoring systems, including environmental monitoring and industrial process control.

Q: What are the future directions for research and development in microstrip antenna patch rectangles with planar array techniques?

A: The future directions for research and development in microstrip antenna patch rectangles with planar array techniques include:

Improving antenna performance: Researchers are working to improve the performance of microstrip antenna patch rectangles with planar array techniques, including increasing gain, improving directivity, and reducing interference.
Developing new materials and technologies: Researchers are exploring new materials and technologies, including metamaterials and graphene, to improve the performance of microstrip antenna patch rectangles with planar array techniques.
Integrating antennas with other systems: Researchers are working to integrate microstrip antenna patch rectangles with planar array techniques with other systems, including electronic components and sensors.

Q: What are the potential applications of microstrip antenna patch rectangles with planar array techniques in the future?

A: The potential applications of microstrip antenna patch rectangles with planar array techniques in the future include:

5G and 6G wireless communication systems: Microstrip antenna patch rectangles with planar array techniques are expected to play a key role in the development of 5G and 6G wireless communication systems.
Internet of Things (IoT) systems: Microstrip antenna patch rectangles with planar array techniques are expected to be used in IoT systems, including smart homes and cities.
Autonomous vehicles: Microstrip antenna patch rectangles with planar array techniques are expected to be used in autonomous vehicles, including self-driving cars and drones.

Note: The questions and answers provided are a selection of frequently asked questions about microstrip antenna patch rectangles with planar array techniques. A more comprehensive list of FAQs may be necessary for a complete study.