Since cladding operation improves the function of the part’s surface in addition to its useful life enhancement, it increases the parts’ value. Nowadays, utilizing the metal-ceramic composite coatings is highly noticed by a lot of industries and it’s because of the high thermal resistance, high wearing resistance, high strength of the ceramics and also ductility and toughness of the metals. Moreover unique property can be achieved by combination of them. The composite coatings are often used in order to wearing and corrosion resistance enhancement. Laser cladding process is one of the surface cladding methods which is applied by many industries. In this process part of the laser beam’s energy is absorbed by the cladding powder and results the powder’s melting before reaching the substrate, another part of the energy melts a thin layer of the substrate and therefore a powerful bond is developed between the coating and the substrate in addition to the least dilution. In the present work, finite element and experimental investigation have been done on laser cladding process. In the experimental part of this investigation, the essential equipment of this process such as designing and making of the dual power feeder and characterization the cladding head is provided. Because of the low power in utilizing the CO2 laser, it’s not possible to develop the coatings with suitable width. By applying the Nd:YAG laser the appropriate parameters are determined with proper width and thickness. Titanium Carbide cladding composite is developed under metallography and mechanical tests with different percentages of hard phases. The results show that the Titanium Carbide particles are spread out through the nickel matrix, Because of the particles’ lightness the spread of these particles is also more on the surface. Wear test results show that the coating’s wear resistance and its friction is reduced by increasing the amount of Titanium Carbide. The coating’s hardness is increased by increasing the hard phase percentage. In the finite element part of this investigation, the laser cladding process is modeled in order to determining the thermal and stress distribution. For simulating the element birth and death technique is used. A customized 3-D finite element model has been developed, incorporating these effects, based on simulation of conductive, convective and radiative heat transfer, and assuming elastic-perfectly plastic deformation behavior. Creep effects have been neglected and the cladding (particulate metal matrix composite) has been treated as a continuum. Comparisons are presented between measured and simulated thermal fields and specimen deflection histories. The results show that curvature is decreased by increasing the coating’s Titanium Carbide percentage. The residual stress in the coating is compressive and will be increased by increasing the amount of Titanium Carbide. Also the residual stress is constant along the cladding. Keywords: Laser cladding, Powder feeder, Metal-ceramic composite, Nickel-Titanium Carbide, Wear test, Finite element, Element birth and death