Investigation on Simulation-Based Specific Absorption Rate in Ultra-Wideband Antenna for Breast Cancer Detection

Subramanian, Sukanya; Sundarambal, B.; Nirmal, D.

doi:10.1109/jsen.2018.2875621

Cited by 52 publications

(22 citation statements)

References 21 publications

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“…A wider operation frequency range was provided in [87], where a Modified Octagonal Shape Ultra-Wideband Monopole Microstrip Antenna (MOSUMMA) was presented. The proposed antenna operates in the range of 3 to 15 GHz while having a size of 27 × 29 × 1.6 mm 3 .…”

Section: C: Octagonal Shapementioning

confidence: 99%

“…Content may change prior to final publication. [68] DETSA × × [69] Resistively Loaded Vivaldi Antenna × × × [70] Slot Loaded Vivaldi Antenna × × × [71] Fern Fractal Leaf AVA × × × [99] AVA [100] Tapered Slot AVA [101] Tapered Slot AVA [102] Corrugated Tapered Slot AVA × × [103] Corrugated Tapered Slot AVA × × [104] AVA × × [107] Side Slotted Vivaldi Antenna × × × × [108] Hemi-cylindrical Slotted Vivaldi × × × × [109] ALTSA × × × [111] AVA with Rectangular Slits × [110] AVA with Periodic Slit Edge × [112] RSE-AVA × × × [113] ESE-AVA × × [115] TSE-AVA × × [114] ESE-BAVA × × × [116] DL-BAVA × × × [117] Modified BAVA × × × [118] Cavity-Backed Vivaldi Antenna × × × [74] Square Monopole Antenna × × [75] Square Monopole with Slits and π-shaped Parasitic Structure [76] Square Monopole with T-shaped Notch [77] Square Monopole with T-shaped Slots [78] Square Monopole with E-shaped Slots [79] Square Monopole with L-shaped Slits [80] Rectangular Monopole with L-shaped Slots [81] Square Monopole with E-shaped and T-shaped Slits [82] Monopole with Loop-Sleeve Ground Structure [83] Ground-Notched Triangular Monopole [84] Ground-Slotted Elliptical Monopole with Oriented Slots Ground-Slotted Elliptical Monopole with Vertical Slots [85] Shorted Planar Hexagonal Antenna [86] CPW-fed Square Monopole × × × [87] MOSUMMA × × [119] Monopole with Parabolic-Shaped Ground Plane...…”

Section: B Antenna Array Configurationsmentioning

confidence: 99%

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A Survey on Antenna Designs for Breast Cancer Detection Using Microwave Imaging

et al. 2020

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With the prevalence of breast cancer among women and the shortcomings of conventional techniques in detecting breast cancer at its early stages, microwave breast imaging has been an active area of research and has gained momentum over the past few years, mainly due to the advantages and improved detection rates it has to offer. To achieve this outcome, specifically designed antennas are needed to satisfy the needs of such systems where an antenna array is typically used. These antennas need to comply with several criteria to make them suitable for such applications, which most importantly include bandwidth, size, design complexity, and cost of manufacturing. Many works in the literature proposed antennas designed to meet these criteria, but no works have classified and evaluated these antennas for the use in microwave breast imaging. This paper presents a comprehensive study of the different array configurations proposed for microwave breast imaging, with a thorough investigation of the antenna elements proposed to be used with these systems, classified per antenna type, and per the improvements that concern the operational bandwidth, the size of the antenna, the radiation characteristics, and the techniques used to achieve the improvement. At the end of the investigation, a qualitative evaluation of the antenna designs is presented, providing a comparison between the investigated antennas, and determining whether a design is suitable or not to be used in antenna arrays for microwave breast imaging, based on the performance of each. An evaluation of the investigated arrays is also presented, where the advantages and limitations of each array configuration are discussed.

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Section: C: Octagonal Shapementioning

confidence: 99%

Section: B Antenna Array Configurationsmentioning

confidence: 99%

A Survey on Antenna Designs for Breast Cancer Detection Using Microwave Imaging

et al. 2020

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“…However, The design of the antenna must be in accordance with health standards and convenience in use. Some of the researchers designed the antenna using a hard substrate, such as FR-4 [5] [9]. The antenna properties are acquired (i.e., bandwidth, return loss, gain, and radiation pattern) for the best values.…”

Section: Comparison With the Existing Researchmentioning

confidence: 99%

Stair-Hexagonal Slot Antenna with Coplanar Waveguide Technique for Biomedical Applications

Rahayu

Hilmi

Wahyu

2020

IJIE

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Breast cancer is the most common disease suffered by women and increases significantly. Ultra-Wideband (UWB) is a technology that applies electromagnetic signals with wide bandwidth that are currently widely used in the medical field. This research introduces the design of the Stair-Hexagonal slot antenna with the Coplanar Waveguide (CPW) technique which operated at desired frequency of 5.8 GHz. Firstly, the design process of the antenna is adding stair slot to get wide bandwidth. Secondly by adding Hexagonal slot to get the best S11 parameter at the desired frequency. The purpose of antenna is to detect an object in body organs such as tumors and cancer. The antenna is printed and tested. The measured return loss shows that the antenna works well in the desired frequency with wider bandwidth than simulated one. The measured bandwidth of 7.88 GHz is achieved. The gain of the antenna from the simulation is 2.42 dBi and radiation pattern of simulation and measurement are bidirectional, wherein the highest gain is in the rear position. Further analysis is done by comparing the proposed antenna with the existing related works. The result of this research shows the practical usage of the flexible substrate because it can increase the accuracy of object detection.

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“…Therefore, malignant tissues have more SAR. In [24][25][26], SAR investigation is reported using a UWB antenna sensor for breast cancer detection.…”

Section: Introductionmentioning

confidence: 99%

Resonator Based Antenna Sensor for Breast Cancer Detection

Mishra¹

2021

PIER M

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A compact ultra-wideband antenna is presented for detecting malignant cells in the breast. The dimension of the proposed circular resonator-based antenna is 20 mm × 30 mm × 1.6 mm. The antenna sensor operates within the 3.1 GHz to 6.8 GHz (105.71%) range with peak gain 4.8 dB, radiation efficiency 89.2%, and an omnidirectional radiation pattern. Three types of breast phantoms (i.e., phantom without tumor, a phantom with a single tumor, and phantom with two tumors) are also fabricated. The electrical properties of the malignant cells differ from non-malignant breast cells. Sparameters have been measured with phantom, then with the help of Principal Component Analysis (PCA), and normal and malignant breast phantoms are identified. Further, the tumor's locations in the breast phantom are find out by using the specific absorption rate (SAR) values.

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Investigation on Simulation-Based Specific Absorption Rate in Ultra-Wideband Antenna for Breast Cancer Detection

Cited by 52 publications

References 21 publications

A Survey on Antenna Designs for Breast Cancer Detection Using Microwave Imaging

A Survey on Antenna Designs for Breast Cancer Detection Using Microwave Imaging

Stair-Hexagonal Slot Antenna with Coplanar Waveguide Technique for Biomedical Applications

Resonator Based Antenna Sensor for Breast Cancer Detection

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