This study explores the application of additive manufacturing processes, specifically Fused Deposition Modeling (FDM) technology, for fabricating tools used in metal forming production, particularly sheet metal bending. The aim is to compare the advantages of tools produced using this method against those made using traditional manufacturing techniques. An analysis was carried out to assess various 3D printing technologies used in the manufacturing of tools for metal forming. The focus was placed on evaluating the accessibility, flexibility, and cost effectiveness of these technologies. In the experimental part, the procedure of using FDM technology in the production of tools according to the requirements of the sheet metal product of the handle of specific dimensions is described. The production of such a tool and its use in combination with a hydraulic press are described. By measuring with a 3D scanner, the behavior of the tool as well as the sheet metal products of the handle during the use and wear of the tool was analyzed. The results of the experiments indicate a range of benefits provided by FDM technology in tool fabrication compared to traditional methods. FDM technology enables fast tool production with high precision and complex geometries, using a wide range of materials with varying mechanical properties. Additionally, the costs associated with tool fabrication are significantly reduced compared to traditional methods. The goal of this research is to provide guidelines for the proper utilization of 3D printing technology to enhance the development and production processes using sheet metal forming techniques.