International Research Journal of Engineering and Technology (IRJET) e-ISSN: 2395-0056 Volume: 11 Issue: 06 | Jun 2024
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p-ISSN: 2395-0072
MAXIMIZING WIRELESS CONNECTIVITY USING ARRAYS OF MPA FOR WLAN APPLICATION Krishna Jayachandran1,Alna Ashok2, Tanha Nazer3 , Thalif Nazer4 , Dr Prathibha Sudhakaran5 1Student, Dept. of ECE, Muthoot Institute of Technology and Science, India 2Student, Dept. of ECE, Muthoot Institute of Technology and Science, India 3Student, Dept. of ECE, Muthoot Institute of Technology and Science,India 4Student, Dept. of ECE,
Muthoot Institute of Technology and Science, India
5Asst.Professor, Dept.of ECE, Muthoot Institute of Technology and Science.
--------------------------------------------------------------------------***-------------------------------------------------------------------------Abstract- This research suggests a novel method for using by MSA arrays, it is possible to enhance signal strength, arrays of Microstrip Patch Antennas (MPA) to maximize wireless connection in WLAN (Wireless Local Area Network) applications. The main objective of the paper is to design and implement the microstrip patch array antenna of 2.4Ghz for wireless application. Signal degradation, interference, and restricted coverage are common problems for older WLAN systems. By improving coverage, reducing interference, and boosting signal strength, the MPA arrays seek to address these problems. This study discusses the design, implementation, and performance evaluation of MPA arrays and shows how effective they are at enhancing WLAN connectivity. Keywords: WLAN, Microstrip Patch Antennas[MPA], Connectivity, Antenna Arrays, Wireless Communication, HFSS
increase coverage, and mitigate interference effectively.
The objective of this paper is to explore the potential of MSA arrays in maximizing wireless connectivity for WLAN applications. This includes investigating the design considerations, implementation challenges, and performance evaluation of MSA-based WLAN systems. By leveraging the capabilities of MSA arrays, we aim to address the existing limitations of traditional WLAN setups and pave the way for more robust and efficient wireless communication networks.
2. RELATED WORK
One such promising approach is the utilization of MultiSource Antennas (MSA), which offer significant advantages over traditional single-source antennas. Unlike single-source antennas, MSAs consist of multiple radiating elements that can transmit or receive signals simultaneously from different spatial locations. By harnessing the spatial diversity provided
The objective of this study was to design and characterize a wideband microstrip patch antenna with a single slot operating at 2.4 GHz specifically for WLAN (Wireless Local Area Network) applications. The aim was to enhance the impedance bandwidth compared to conventional patch antennas while maintaining a compact and low-profile design. The introduction of the single slot in the radiating patch, along with optimized dimensions, was intended to achieve this objective, enabling the antenna to cover a broader frequency range suitable for various wireless communication applications beyond WLAN. The study also aimed to validate the simulated performance through experimental results, thus confirming the antenna's suitability for practical implementation in diverse communication systems.[1]This paper presents the design, fabrication and testing of a rectangular circular patch array 1x8 microstrip antenna operating at 1800 MHz frequency for amplifying 4G cellular signals. The 4G technology provides high bandwidth of 75 MHz and operates in the 1800 MHz band. In receiving and transmitting information signals, the 4G system requires antennas to radiate the electromagnetic waves. However, the transmitted signals can get attenuated due to factors like air, building walls and weather conditions. To overcome this signal degradation, a device is needed to boost the signal strength from the evolved Node B (eNodeB) transmitters so that users can receive good signal quality. The
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1. INTRODUCTION In modern times, wireless local area networks, or WLANs, are ubiquitous because they offer lag-free connectivity for a variety of uses, including file sharing, multimedia streaming, and internet access. The difficulties in maintaining dependable and high-performance WLANs are growing along with the demand for wireless access, especially in crowded urban areas, sizable office buildings, and public areas. Traditionally, WLANs have relied on single-source antennas to transmit and receive signals, which often resulted in limited coverage, capacity constraints, and susceptibility to interference. These limitations have spurred research and development efforts aimed at improving WLAN connectivity through innovative antenna technologies.
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