Micro-vibration has been a dominant factor impairing the performance of scientific experiments which are expected to be deployed in a micro-gravity environment such as spacelab. The micro-vibration has serious impact on the scientific experiments requiring quasi-static environment. Therefore, we proposed a maglev vibration isolation platform (MVIP) operating in six degrees of freedom (DOF) to fulfill the environmental requirements. In view of non-contact and large stroke requirement for micro-vibration isolation, an optimization method was utilized to design the actuator.Mathematical models of actuator's remarkable nonlinearity was established, so that its output can be compensated according to floater's varying position and system's performance may be satisfied. Furthermore, aiming to adapt to an energy-limited environment such as spacelab, an optimum allocation scheme was put forward.Considering actuator's nonlinearity, accuracy and minimum energy-consumption can be obtained simultaneously. In view of operating in six DOF, methods for nonlinear compensation and system decoupling were discussed, the necessary controller were also presented. Simulation and experiments validate system's performance. With a movement range of 10×10×8 mm and rotations of 200 mrad, the decay ratio of -40 dB/Dec between 1-10 Hz was obtained under close-loop control.