Damages caused to the peripheral nervous system, in effect sporting activities and injuries from the crash and blow it comes into existence. Although the use of nerve guidance conduit is an effective way for the reconstruction of peripheral nerves, but because of the biological materials selection and design of appropriate nerve conduction channels that have already been developed, the ability to rebuild damaged tissue are quite favorable. The aim of this study is to fabricate bi layer scaffold with appropriate mechanical, structural, electrical and biological features in order to develop and improve the performance and peripheral nerve repair. In this study, the bi layer conduit with inner wall of fibrous scaffolding nanocomposite of Sodium alginate-Polyvinyl alcohol:graphene nanoparticles and the outer layer of the double network scaffold made of eggshll memrbare-Polycaprolactone fumarate. For this purpose, the inner layer PolyVinyl alcohol-Alginate:Graphene using electrospinning process and was evaluated. Also, the effect of different amounts of graphene nanoparticles (0, 0.5, 1, 2 and 5 wt%) on the properties of mechanical, electrical, chemical and biological degradation nanocomposite scaffolds were studied and optimized. In addition, due to the importance directional growth of nerve cells to accelerate nerve regeneration process, the arrangement of fibers (parallel or perpendicular) on the mechanical properties of biological scaffolds were evaluated. As one of the limitations PVA-Alg:Gr scaffolds by electrospinning, a lack of sufficient mechanical stability during surgery, low thickness and porosity is uncontrollable, double network eggshell membrane-PCLF made by polycaprolactone fumarate penetrate into the egg membrane porosities. In this way, the influence of solvent type of polycaprolactone fumarate (dichloromethane and acetic acid) on the penetration of polymeric solution into the eggshell membrane double network resulting in physical and mechanical properties were investigated. After the above-mentioned optimization, the ability to connect two layers together using a fibrous layer polycaprolactone as sacrificial membrane was evaluated. Based inner membrane showed that graphene nanocomposites containing 1 wt% (1 Gr-AP) highest electrical conductivity and mechanical properties compared to other Nanvkampvzyt¬Ha is best. Add a fourfold wt% of graphene improves toughness and strength than threefold increase alcohol-alginate scaffold fiber Ply¬Vynyl net (AP) was. In addition, graphene by controlling the angle of wettability, a significant role in the degradation rate of scaffolds, the species that degradation rate of the scaffold% 6/2 ± 3/23 (in scaffolding AP) in% 1/2 ± 7/11 (in scaffolding 1Gr-AP) declined. The results of cell culture showed that the growth and proliferation of PC12 cells on the scaffold 1Gr-AP due to superior electrical and mechanical properties was significantly higher than the other samples. By comparing the fibrous scaffolding nanocomposite fibers arranged in parallel and randomized 1Gr-AP resulting in a nonuniform mechanical properties of the scaffold containing directional fibers in both directions parallel and perpendicular to the applied load shows. Moreover, the mechanical properties of the scaffold 1Gr-AP with directional fibers (toughness = 4/0 ± 5/16 MPa strength = 7/6 ± 6/29 MPa) compared to the scaffold with random fibers (toughness = 5/3 ± 1 / 8 MPa and strength = 2/2 ± 1/22 MPa) recovered. Also, results showed that the cells on the scaffold cell with parallel fibers, adhesion, growth and proliferation better and because of its heterogeneous structure, for directional growth. The results of scaffolding external dual channel (Tkhm¬Mrgh membrane-Ply¬Kaprvlaktvn fumarate) 9 showed that adding fumarate Ply¬Kaprvlaktvn no significant change in environmental behavior egg membrane, to improve its mechanical properties. The species tensile strength in a dual structure with the solvent acetic acid compared to Tkhm¬Mrgh to the membrane 12 times and toughness increased by 26 times. The results of the mechanical properties of the scaffold Ply¬Vynyl¬Alkl-Elgin bilayer graphene / membrane Tkhm¬Mrgh-Ply¬Kaprvlaktvn fumarate showed the strength, toughness and elastic modulus dual scaffold by about 1/4 ± 8/31 MPa, 4 / 0 ± 5/16 MPa and 2/19 ± 3/52 MPa, which is higher than the mechanical properties of nanocomposite scaffold fiber can be internal or indicates a higher ability to withstand mechanical load during surgery. Accordingly, nerve conduction channel layer of the inner layer Ply¬Vynyl¬Alkl-Elgin: dual membrane scaffold material and the outer layer of poly-caprolactone fumarate Tkhm¬Mrgh and mechanical properties, structural, chemical, and biological convenient and manageable My¬ could be a suitable way for nerve tissue repair.