Phenol compounds are considered one of the major problems faced by many countries owing to their release in wastewaters from various industries. These pollutant compounds are harmful to marine life and human beings. Therefore, in the present study, Baobab Fruit Shells (BFS) were used as a precursor for the production of activated carbons for the removal of phenol. The chemical activation of BFS using ZnCl۲, H۳PO۴, and KOH in Nitrogen (N۲) atmosphere was investigated. The effects of these chemicals on the performances of the prepared activated carbons (yield, surface area, adsorption properties) were studied. Fourier transform infrared (FT-IR), scanning electron microscope (SEM), X-ray diffraction (XRD), and N۲ adsorption analyses were performed for the characterization of BF-ACs. SEM results showed that porous structures were formed on the surface with different sizes. FTIR analyses show the presence of different surface groups on the activated carbons. The highest BET surface area and micropore volume were obtained by KOH with ۱۰۲۹.۴۳۵ m۲/g and ۰.۳۶۹ cm۳/g, respectively. The developed BF-ACs were used for the removal of phenol from aqueous solution. The results indicated KOH in terms of adsorption and efficiency showed better results with a maximum adsorption capacity of ۳۶.۹۰ mg/g at a higher initial concentration (۶۰۰ mg/L). Phenol adsorption behavior can be described by the Langmuir isotherm model and the pseudo-second-order kinetics. This study provided an effective source that could be used in the production of activated carbon for the treatment of wastewaters as it could be attained at a low cost.Phenol compounds are considered one of the major problems faced by many countries owing to their release in wastewaters from various industries. These pollutant compounds are harmful to marine life and human beings. Therefore, in the present study, Baobab Fruit Shells (BFS) were used as a precursor for the production of activated carbons for the removal of phenol. The chemical activation of BFS using ZnCl۲, H۳PO۴, and KOH in Nitrogen (N۲) atmosphere was investigated. The effects of these chemicals on the performances of the prepared activated carbons (yield, surface area, adsorption properties) were studied. Fourier transform infrared (FT-IR), scanning electron microscope (SEM), X-ray diffraction (XRD), and N۲ adsorption analyses were performed for the characterization of BF-ACs. SEM results showed that porous structures were formed on the surface with different sizes. FTIR analyses show the presence of different surface groups on the activated carbons. The highest BET surface area and micropore volume were obtained by KOH with ۱۰۲۹.۴۳۵ m۲/g and ۰.۳۶۹ cm۳/g, respectively. The developed BF-ACs were used for the removal of phenol from aqueous solution. The results indicated KOH in terms of adsorption and efficiency showed better results with a maximum adsorption capacity of ۳۶.۹۰ mg/g at a higher initial concentration (۶۰۰ mg/L). Phenol adsorption behavior can be described by the Langmuir isotherm model and the pseudo-second-order kinetics. This study provided an effective source that could be used in the production of activated carbon for the treatment of wastewaters as it could be attained at a low cost.