The healing process involves cell migration, which is sustained by an electrical potential difference that emerges between the edges of skin wounds and the center of the wound. The electrical potential in cells’ membranes is responsible for their migration in an electric field. The differences in the transmembrane electrochemical gradient generate this potential. The concomitant blockade of potassium and calcium channels by amiodarone at a medium dosage favored wound healing, but the effect was less intense than in the case of the selective blocking of potassium channels. According to this suggestion, blocking calcium channels might have a partial effect on blocking potassium channels. Given that nimodipine inhibits both L-type and T-type calcium channels, we aimed to investigate which of these calcium channels are involved in wound healing. Hence, we performed an experimental study in which nimodipine was used in three concentrations: 200 nM, which blocks only L-type calcium channels, 1000 nM, which blocks both L-type and T-type calcium channels, and 10,000 nM, which blocks calcium channels and activates CB1 cannabinoid receptors, respectively. The present research is a continuation of previous studies conducted by us, aimed to propose new perspectives on wound treatment. In conclusion, the blocking of calcium channels favored wound healing under our experimental conditions, but this happened only by simultaneously blocking the L-type and T-type calcium channels, because only the medium nimodipine concentration had a statistically significant effect.