The topic of this thesis is to use reverse engineering methods to design a pipe clamp and create it in physical form using additive technologies. In this work, the author will introduce the topic in the introduction section by describing how reverse engineering affects the creation of CAD models in existing designs and stating the main goal of reverse engineering. In the theoretical part, the author will provide the meaning of the term reverse engineering, list its applications, outline the advantages of reverse engineering, and provide an overview of the reverse engineering process. In the methodology chapter of reverse engineering, the author briefly presents 3D digitization of objects, including the types of measurement devices used. This chapter also covers the methodologies of reverse engineering and the creation of a model using these methods. At the end of this chapter, the author briefly explains the use of 3D scanners, image creation using them, and demonstrates the reconstruction of surfaces obtained through 3D scanning. In the following chapter, the author briefly explains the procedures of additive manufacturing processes, starting with general concepts. Additionally, the author provides an overview of the classification of additive technologies and the types of products obtained through these manufacturing methods. Finally, the author presents the application areas of additive manufacturing technologies. In the practical part of the work, the author utilized a manual pipe clamp as an example. Using the obtained STL model from 3D scanning, the author created a CAD model using reverse engineering and later produced the physical clamp using additive technologies. The practical part also includes a brief calculation of the clamping force, which the author verified through testing. The aim of the project is to acquire theoretical knowledge about reverse engineering and additive manufacturing processes, as well as practical experience in creating a high-quality product from a 3D scanned object.