This study deals with obtaining numerical solutions of two-dimensional (2D) fractional cable equation in neuronal dynamics by using a recently introduced meshless method. In solution process at first stage, time derivatives that are appeared in the considered problem are discretized by using finite difference method. Then a meshless method based on hybridization of Gaussian and cubic kernels is developed in local fashion. The problem is solved both on regular and irregular domians. L ∞ and RMS error norms are calculated and compared with other numerical methods in literature as well as exact solutions. Also, obtained condition numbers are monitored. Numerical simulations show that local hybrid kernel meshless method is a thriving method for solving 2D fractional cable equation on regular and irregular domians. KEYWORDS 2D fractional cable equation, irregular domain, local hybrid kernel meshless method 1 INTRODUCTION Fractional calculus and fractional differential equations have attracted more attention recently due to their ability of handling many problems from various branches of physics, engineering, and chemistry in a more realistic approach [1, 2]. It has been recognized that fractional derivative has more superiorities than integer order derivative. For instance fractional derivatives can be used to describe memory and hereditary properties of physical materials [3-5]. This feature was not identified in integer order derivatives. There are a lot of applications of fractional calculus and fractional partial differential equations (PEDs) in different branches of science such as viscoelasticity, physics, chemistry, fluid mechanics, control, continuous-time random walks, and finance [6]. Some classic books about fractional calculus and its applications are [7-10].