Dielectric relaxation spectroscopy (DRS) measures the collective polarization fluctuations of a given medium in the presence of a time dependent electric field. The coupling between the frequency dependent electric field and the solvent polarization mode is assumed to be weak and linearly dependent on the fluctuating orientational density. Addition of electrolyte in pure dipolar solvent is known to increase or decrease the 𝜀 𝑠 of neat solvents. Formation of ion pair and other complex ionic species in weakly dipolar solvents, for example, lithium perchlorate in ethyl acetate is known to significantly increase the 𝜀 𝑠 of the medium. For uni-univalent electrolytes in strongly polar solvents, on the other hand, dielectric decrement can occur via static and kinetic routes. Static dielectric decrement occurs through a partial damage of the orientational order of the dipolar solvent molecules, while the kinetic decrement associates with the cross correlation between the dipole and ion density fluctuations Fortunately, the underlying theoretical framework for computer simulations of the frequency dependent dielectric response of ionic media is available in the literature. Dielectric response of aqueous solutions of uni-univalent electrolytes has been studied extensively via molecular dynamics simulations and these studies have provided important insights about the ion-induced impact on the frequency dependent dielectric response of aqueous media. Frequency dependent dielectric spectra and conductivities of pure and aqueous solutions of ionic liquids have been investigated and ionic contributions to the total response have been separated. These works have made important contributions to understand the interaction and dynamics of ionic liquids revealed by dielectric relaxation experiments, ultrafast fluorescence measurements and theoretical calculations. In the present study, temperature-dependent simulations been performed in order to understand the effects of the ions on the DR of (CH3CONH2