Agricultural productivity faces various challenges that include a combination of (a)biotic stresses. The abiotic stresses include extreme temperature, water stress, light stress, salinity, deficiency in essential nutrients, chemical factors, air pollutants, radiation, wind, latitude, altitude, and other stressors. Damages to a magnitude of 50% of agrarian production come back from abiotic stress. Universal weather alteration and overutilizing naturalistic resources probably amplify the manifold of the inverse effect of abiotic stress. To alleviate the effects of various stressors, suggested strategies involve improved agronomic management, the upbringing of stress-tolerant cultivars, using fertilizer, which may boost the ability for acclimation to stressful medium. In this chapter, we have investigated the effect of salinity from the elevation of the Mediterranean seawater. In Egypt, the rise of the Mediterranean seawater leads to the mixing of surface water with the subsoil water, which leads to the reduction of crop productivity. Here, we introduced a mathematical model to manage the effect of salinity on sugar beet production. The model simulated the laser land leveling in the guided fields of the two Egyptian governorates, one of them located on the Mediterranean Sea, which produces sugar beet. The outcome of that mathematical model increased sugar beet revenue, profit, and rate of return in both governorates. The total sugar beet production cost, water used, and absolute risk decreased. Moreover, the liberation of carbon dioxide (CO2) and consumption of energy reduced.