###### Abstract
The antenna (permittivity = 6.15, Rogers RT/duroid 6006, loss tangent = 0.0019) resembles a V-shaped design with the integration of the radiating patch on the upper portion and the ground structure on the bottom portion to the dielectric material. Satellite military communication band (7.25 to 8.4 GHz) and long-distance communication system (4 to 8 GHz) applications are both well justified by the suggested antenna's modelling results. A compact-sized wideband Coplanar excited dipole antenna is designed for wireless commercial communication system applications in [3]. The suggested antenna has a very compact design and is placed on an RT-Duroid substrate with a 1.6 mm thickness. The antenna, providing monopole structures like radiation properties, has good antenna gain throughout its operating bands, making it suitable for integration into portable electronics for wireless device communication. A portable dual-operative band antenna with frequency reconfigurability for WLAN--Wireless Local Area Network/IEEE- Institute of Electrical and Electronics Engineers-802.11n applications is designed in [4]. Slots included in the radiation patch are used to achieve the resonant modes, and switching PIN diodes is used to achieve band tuning. Switching diodes coupled between slot gaps allows for variations during the first and next resonant frequencies. The switching capabilities of the diodes are best used to notch specified frequency bands and select the operation frequencies. The main characteristics of this unique antenna include low cross polarization, a consistent radiation pattern, and an average gain value of 2.8 dB. To obtain frequency-based notch band characteristics in a whole wideband, a flexible circular monopole of a conformal nature antenna with a splitting-based resonator is designed in [5]. The frequency band notching characteristics because of the microstrip line feeding are produced by splitting resonators positioned at one side of the substrate and the complementary splitting resonators at another side of the substrate at a defective ground plane [6]. A portable frequency reconfigurable antenna for ISM wireless communication systems applications is proposed in [7]. The 58 mm \(\times\) 48 mm antenna design model is made on FR4 epoxy with a dielectric permittivity value applied of 4.4 and a thickness of 0.8 mm. The designed antenna includes of a ground plane with a defective T-shape that serves as a reflector. BAR 64-02V PIN diodes are employed as switching components in the modelling of the frequency-based reconfigurable design antenna, and the antenna is loaded via a microstrip conductive transmission line [8]. A frequency-tuneable monopole circular antenna with notch band properties is designed and analysed in [9]. To achieve the appropriate band rejection, the diameters of the slots are precisely adjusted and optimised. To achieve evolution in the notch bands, two PIN diodes are attached between the stubs and feedline [10]. The switching between the diodes controls the radiating structure's length and internally influences the antenna's reconfigurable behaviour. The projected antenna is originally designed to notch the 3.1-3.7 GHz and 5.1-5.8 GHz WiMAX--Worldwide Inter-operability for Microwave Access and WLAN operating bands [11]. A unique fractal-shaped antenna is designed on transparent material in [12]. The analysed antenna shall be used for vehicle communication applications since it is adaptable and conformal to the surface of automobiles. The articulated antenna model uses a polyvinyl chloride substrate material with a loss tangent of 0.02 and \(\varepsilon\)r = 3 with an overall size of 55 \(\times\) 40 \(\times\) 3 mm. The properties of a CPW-fed printed dual-notch monopole antenna are presented in [13]. By including a second H-shaped slot structure in the radiating element, a dual notch band is made possible. At 3.5 GHz for WiMAX & 8.3 GHz for military/radar communication, notch bands were obtained.