A Novel High Gain Array Antenna Design for Autonomous Vehicles of 6G Wireless Systems

Foysal, Md. Fahim; Mahmud, Saheel; Baki, A. K. M.

doi:10.1109/gecost52368.2021.9538677

Cited by 10 publications

(4 citation statements)

References 3 publications

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“…Both a planned 77 GHz antenna and a tooth-shaped dipole for driverless vehicles are detailed by Foysal et al [18]. Because of the patch antenna design, gain is boosted and mutual coupling is reduced.…”

Section: Literature Review -mentioning

confidence: 99%

An Organised and Focused Review of a Microstrip Patch Antenna for Its Deployment in Biomedical Applications

Bhowmick

2024

IJSREM

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Reviewing microstrip antennas for diverse applications is the goal of this paper. The designing of microstrip patch antennae is a new study subject established for utilise in 5th generation communications applications. An antenna is a group of interconnected devices that work together to transmit and receive radio waves as a single antenna. Antennas come in many sizes and shapes. An antenna design that is low profile, lightweight, and results-oriented is the microstrip patch. In the future, microstrip patch antenna may be used for various 6G communication systems applications. Furthermore, 6G communication applications can be developed for additional devices, such as autonomous cars, machine learning, artificial neural network algorithms, radar, internet of things (IoT), biomedical, and vehicle-to-vehicle (V2V) communication. In the past, 4G wireless applications employed the multiple input, numerous output (MIMO) pattern as a standard geometry. This study covers several types of antennas, their geometric structures, different methods for analyzing their features, and their dimensions. The component of the substrate substances, loss tangent, the thickness, return loss, bandwidth, voltage-standing-wave ratio (VSWR), gain, and orientation from the earlier publications will also be covered. Keywords – microstrip, patch, antenna, IoT, biomedical, V2V, MIMO, VSWR

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Section: Literature Review -mentioning

confidence: 99%

An Organised and Focused Review of a Microstrip Patch Antenna for Its Deployment in Biomedical Applications

Bhowmick

2024

IJSREM

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“…Similar to the microwave and millimeter wave spectrum, patch antennas are among the most researched antenna types for 6G systems with their low cost, ease of analysis and advantageous radiation characteristics. A new high-gain patch antenna array structure has been proposed for autonomous vehicles in 6G wireless systems and a gain of 18 dB has been obtained (Foysal et al, 2021). A patch antenna design for partial discharge detection for device monitoring systems in smart networks is designed for ultra-wideband (UWB) operation based on 6G-IoT (Internet of Things) (Ilahi et al, 2021).…”

Section: Introductionmentioning

confidence: 99%

The Effect of Different Dielectric Materials on Radiation Features of Slotted Patch Antennas for 6g Communication Systems

Hakanoğlu

2024

UUJFE

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In this study, patch antenna structures with rhombic shaped slots have been investigated for 6G communication systems. Four different dielectric materials, such as arlon, polyamide, polyimide, and silicon, have been selected for antennas with the same design procedure. In this way, the effects of slots on frequency responses for different dielectric substrates have been searched. The slots are parametrically analyzed in terms of edge size and location, and the designs are completed for values with the lowest return loss levels. The amount of return loss reduction in slotted antennas is 38% and 42% for arlon and polyamide, respectively, while the reduction is 28% and 8% for polyimide and silicon, respectively. In addition, bandwidth increases in slotted antennas vary according to the dielectric substrate material. The bandwidth increases have been 0.05 GHz, 0.426 GHz, 0.839 GHz, and 0.475 GHz for arlon, polyamide, polyimide, and silicon substrates, respectively. With these results, the study will give an insight to the researchers who will design antennas in 6G bands in terms of the effects of materials on antenna characteristics and will give inspiration for new designs.

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“…The high bandwidth available at these frequencies potentially enables data rates in excess of 100 Gbps, which could revolutionize wireless communication [6]. High-resolution imaging and sensing applications could include medical imaging, security screening, and industrial process monitoring [7]. Article comprises of four different sections which are structured as follow, Section Ⅱ explains the designing of the Antenna.…”

Section: Introductionmentioning

confidence: 99%

U-Shaped Terahertz Microstrip Patch Antenna for 6G Future Communications

Saeed,

Nwajana

2023

2023 7th International Electromagnetic Compatibility Conference (EMC Turkiye)

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In this article a terahertz antenna has been proposed which is designed on Rogers RO3010 substrate, with a standard thickness 10 µm having relative dielectric constant (Ɛr) = 11.2 and thermal conductivity of 0.66 W/K/m. A dielectric material with a high epsilon value is used, the effective wavelength of the electromagnetic wave is reduced within the material, resulting in a reduction of the physical size of the antenna. The designed antenna is compact light weight and is fed using a microstrip line feeding technique which provides ease of integration inside the device. The resonating frequency of the designed antenna is 0.854 THz with a return loss -19.5 dB offering a high bandwidth of 44 GHz. High bandwidth application of the future communication requirements is achieved by the modelled antenna.

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A Novel High Gain Array Antenna Design for Autonomous Vehicles of 6G Wireless Systems

Cited by 10 publications

References 3 publications

An Organised and Focused Review of a Microstrip Patch Antenna for Its Deployment in Biomedical Applications

An Organised and Focused Review of a Microstrip Patch Antenna for Its Deployment in Biomedical Applications

The Effect of Different Dielectric Materials on Radiation Features of Slotted Patch Antennas for 6g Communication Systems

U-Shaped Terahertz Microstrip Patch Antenna for 6G Future Communications

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