Cellular structures have gained vast interests due to their excelent mechanical properties and light weight. Current researches on cellular structures have led to creation of unusal structures exhibiting Auxetic phenomenon. Conventional materials under influence of tensile force possess positive Poisson ratio, resulting in lateral shrinkage of the structure. In contrast the Poisson ratio of Auxetic materials is negative as the result of which these materials expand under influence of tensile force. The Auextic phenomenon in materials tendes to enhance properties such as compression behaviour, shear modulus, fracture toughness, variable permeability and energy absorption. Fused modeling deposition (FDM) based on 3-D printing technology is a low-cost manufacturing method. Despite many mertis, (FDM) is still in its infancy due to low production rate and inadequate product mechanical properties. Incorporation of continuous filament can vastly enhnance the mechanical properties of polymeric structures made using (FDM). In this study, composites in form of reentrant honeycomb, truss honeycomb and hybrid honeycomb structures composed of acrylonitrile butadiene styrene as matrix and nylon 6.6 yarn as reinforcement were produced using continuous fiber fabrication 3-D printing technology. Compressive properties, energy absorption and deformation behavior of the produced specimens together with their Poisson ratio were evalulated. The specimens were also compared with the yarnless polymeric samples. The results showed that while reentrant honeycomb and truss honeycomb structures during compressive loading laterally contracted and expnded respectively, central cell of the hybrid honeycomb structure showed no deformation. It was also observed that at the range of 4-20% strain, structure of the reentrant honeycomb acts as constrain on lateral contraction. This in turn increases the Poisson's ratio from -6.0 to -2.0. The results also showed the area under forcedisplacemnt curves of various structures was larger in case of the reentrant honeycomb structure in comparison to other examined structures. The larger area under the forcedisplacemnt curves is responsible for the higher energy absorption of Auxetic structures. Comparison of the reentrant honeycomb composite structure with its yarnless polymeric counter parts is indicative of substantial increase in both maximum compressive strength and initial slope of the forcedisplacement curve of the former. This was contributed to existence of the reinforcing yarn.