## 1 Introduction  
In recent decades, researchers from across the world have concentrated their efforts on the application of metamaterials for a variety of potential future applications. At first, in 1968 [PERSON] proposed the concept of a meta-material that does not exist in nature and shows extreme influence over the E and H fields by employing different orientations, polarization angles and physical shape of the structure. The meta-materials have extraordinary features, such as negative permittivity (ENG) [1], negative permeability (MNG) [2] and negative refractive index [3], as well as electromagnetic (EM) absorption [4], and can be used in many applications like enhancing antenna performance [5], shielding applications [6], satellite communication applications [7], energy harvesters [8], filters [9] and sensors [10].  
The 6G era will be characterized by the combination of satellite and ground-based communication networks. Using radars, numerous uses are available, including estimating climate change in advance, navigation, communications, defense application, remote sensing, traffic management between the air and the ground and so on. All radar- and satellite-based applications mostly operate in the X-frequency band. Over the last few decades, numerous authors have proposed metamaterial structures to write articles on x-band frequency applications. SRRs were discovered to be the most important aspect in displaying the basic mode, and physical designs have an impact on its frequency of operation. Numerous articles have been published previously for X-band applications. In the year 2022, [PERSON] et al. [11] proposed a polarization insensitive absorber using metamaterial properties for c- and x-band applications. Additionally, [PERSON] et al. [12] offer an Oval-Square Shaped Split Ring Resonator designed specifically for radar and satellite communication applications. A thin octagonal-shaped SRR was proposed by [PERSON] et al. [13] in 2020 for enhancing the functionality of an antenna that operates in the X and Ku frequency bands. An L-shaped metamaterial was designed by [PERSON] [14] in 2019, with left-handed metamaterial properties based on NiAl2O4 material for X-band applications, and in the same year, [PERSON] [15] designed a circular split ring resonator with metamaterial properties by focusing on satellite and radar-based applications. In 2018, [PERSON]. [16] suggested an S-shaped unit cell with parametric analysis to be carried out on various substrates for x-band applications. In the same year, [PERSON] [17] constructed a flexible metamaterial on the paper substrate for broadband applications operating in the x-frequency band. [PERSON] [18] developed a circular patch absorber with metamaterial properties for x-band applications with a wide-angle incidence in the year 2017. Additionally, a circular metamaterial-based electric split ring resonator was designed by [PERSON], [PERSON] et al. [19] for x-band and Ku-band applications. The proposed structure depicts a circular type SRRs and rectangular type SRRs combination for satellite as well as radar applications. Furthermore, for multiband operations, a symmetric square-shaped metamaterial structure [20] and multi-split based square split ring resonator structures [21] have been investigated for S-, C-, X- and Ku-band applications.  
In this paper, the proposed design was printed on a 10 \(\times\) 10 mm\({}^{2}\)-sized polymide dielectric substrate material. Two X-band frequencies 9.89 GHz and 11.95 GHz were produced with the proposed metamaterial architecture. Both operating frequencies incorporate metamaterial features in this case. Except for the introduction part, the article starts with array analysis and unit cell design, with the simulation part given in Section 2. The measurement, parametric analysis and E-H and current distributions were clearly explained in Section 3 to decide the structure performance. Finally, we compare the present work with existing X-band metamaterial structures and end with a conclusion.