We consider an n-player symmetric stochastic game with weak interactions between the players. Time is continuous and the horizon and the number of states are finite. We show that the value function of each of the players can be approximated by the solution of a partial differential equation called the master equation. Moreover, we analyze the fluctuations of the empirical measure of the states of the players in the game and show that it is governed by a solution to a stochastic differential equation. Finally, we prove the regularity of the master equation, which is required for the above results. , web: https://sites.google.com/site/asafcohentau/ 1 During the review of this paper it was brought to our attention that Cecchin and Pelino [10] also independently analyzed the finite-state MFG using the master equation approach. The n-player game in that paper is formulated using the formulation in [9] while we follow the formulation given in [18]. We prove our main result, the fluctuations, using a probabilistic approach which relies on coupling, whereas [10] uses an analytical approach relying on the convergence of the generators. It also happens that our assumptions for the convergence results (in Section 2) are slightly weaker. In obtaining sufficient conditions, Section 3.4 of this paper, both papers adapt the approach of [5] to discrete state space.