“…Simulation of space environmental effects on materials as that of the effect of electromagnetic radiation, high energy rays, (gamma, cosmic, electron and proton) high temperature, shock waves and vibration conditions are getting remarkable attention among the fraternity of researchers due to the importance of understanding the structural, electrical, mechanical and optical stability of materials to be used in space environments. Moreover, these kinds of studies are very much essential so as to simplify the complexity of the material's selection in such a way that materials which can withstand extreme conditions could attract the possible and viable applications and also, they would help for the design, development of novel materials, improving safety, reducing the design cycle time as well as introducing various structural theory concepts for the future space applications [1][2][3][4]. The advantageous and superior high frequency applications are still the mostly sought-after to a great extend only by theoretical models whereas experimental models come up with a few shortcomings due to the lack of suitable detectors and high-power laser operating devices such that the practical applications are stymied by these factors.…”