CLIP is a process which constitutes the continuous liquid interface production technology, relies on a pool of resin that is fed into an oxygen-permeable window that has images that are projected into the printer with ultraviolet light to print solid objects using oxygen. The technique is used for printing solid objects instead of the time consuming traditional stepwise layer-by-layer printing method (Straub and Kerlin 6). Here, the continuous generation method uses the monolithic polymeric technique as a key feature of the resolution technology often measuring below 100 micrometres enhances the printing speed. The printing technology is much faster than the traditional 3D printing techniques (Hudson 4). In addition, the products have superior mechanical properties compared with those that are produced using traditional 3D methods. Research has shown that the technique allows for the use of a wide range of raw polymeric materials that were originally not used in printing. Figure 1. Continuous Liquid Interface Production. It is important to note that the printing technique can be optimised to produce excellent results by inhibiting the oxygen pathways. That is possible if an oxygen-permeable build window is prepared through a stereolithography process that enables the creation of oxygen containing dead zone. It has been established that the thickness of the dead zone is in the range of tens of micrometres, which calls for a judicious estimation of the correct parameters to be used as conceptualised in the simple architecture of the process in figure 2. Figure 2. The thickness of the dead zone. It is possible to achieve very high printing speeds because of the use of the CLIP technique as shown in figure 2. Here, the simultaneous elevation of the build which supports the pin causes an excellent increase in speed and better performance of the system based on the functionality of the high performance gyroid. However, making the dead zone thinner provides additional benefits of increasing the efficiency of the system in terms of speed and accuracy. That is achieved by use of good environment that allows for photopolymerization to occur effectively. Metal Clay printing By use of direct metal laser sintering (DMLS) that uses a powdered metal bed upon which additive manufacturing is done, it is possible to do metal clay printing of a product. The process involves preparing the bed for printing on which lesser points are aimed at using the points that are defined in space on a 3D model. That allows for the melting or welding together of different points to create a solid in space (Gibson, Rosen and Stucker, 4). Figure 3 is a snapshot of some printer specifications. Figure 3. Printer specifications. 3D Ceramics printing Gibson, Rosen and Stucker note that the technique can be used to manufacture rapid prototypes of specific products (3). Prototyping can be done at room temperature by vulcanizing rubber mouldings to form different types of patterns on a solid body. However, several methods have been suggested that can be used for rapid prototyping among them being the selective inhibition sintering and the extrusion-based 3D printing techniques. On the basis of empir