In recent years, rapid growth in broadband services has increased the demand for transmission capacity and bandwidth. Traditional network cannot meet this continuous growing demand for high data rate and bandwidth. Optical fiber is becoming the most favorable delivering media due to its huge bandwidth and excellent transmission performance [
1]. The main goal of communication systems is to increase the transmission distance. However, dispersion poses a serious problem in optical communication, which severely limits either bit-rate or transmission distance. Dispersion is a phenomenon where the light pulse is broadened, as it travels along the fiber cable. This broadening of pulse has a destructive effect on sequential pulses. Recently, several techniques of dispersion compensating have been reported to mitigate the dispersion effects in fiber at the transmitter side, on the fiber as well as at the receiver side [
2]. Transmitter side techniques include various modulation formats with different coding scheme to generate mm-wave. Dispersion compensating techniques, such as dispersion compensating fiber (DCF) and fiber Bragg grating (FBG), are widely used as on line compensating techniques [
3]. In recent years, FBG has been identified as viable alternative to DCF as a means of mitigating the effects of chromatic dispersion [
4]. In addition, techniques based on Pre, Post and symmetric compensation techniques were also investigated using both FBG and DCF [
5]. However, these schemes used complex modulation formats, needed extra circuits and devices or faced with issues like bandwidth limitations, non linearity at high bit rate and practical realization [
6]. Fiber chromatic dispersion leads to fading affects and time shifting of codes, therefore signals are highly degraded [
7]. However, the signal generated by single side band (SSB) modulation is more immune to fading affects as compared to double side band (DSB) modulation [
8].