This paper presents the simulation and experimental evaluation of a novel power error comparison direct power control (PEC-DPC) strategy of the open-winding brushless doubly-fed reluctance generator (OW-BDFRG) for wind energy conversion systems (WECSs). As one of the promising candidates for limited speed range application of pump-alike and wind turbine with partially-rated converter. The emerging OW-BDFRG employed for the proposed PEC-DPC is fed via dual low-cost two-level converters, while the DPC concept is derived from the fundamental dynamic analyses of the calculated and controllable electrical power and flux of the BDFRG with two stators measurable voltage and current. Compared to the traditional two-level and three-level converter systems, the OW-BDFRG requires lower rated capacity of power devices and switching frequency converter, though have more flexible switching mode, higher reliability, redundancy and fault tolerance capability. The performance correctness and effectiveness of the proposed DPC strategy with the selected and optimised switching vector scheme are evaluated and confirmed on a 25 kW generator test rig. Index Terms-Brushless doubly-fed wind power generators, open-winding, direct power control, dual two-level converters. I. INTRODUCTION T HE brushless doubly-fed (reluctance) generators (BD-FGs) [1], [2] have some essential features in dealing with issues related to reliability and maintenance operation in long-running variable speed constant frequency (VSCF). Such advantages are due to their robust structure since carbon brushes and slip-rings are eradicated. Moreover they adopt a similar doubly-excited feature similar to doubly-fed induction generators (DFIGs). The BDFGs have evolved from DFIGs but moved the rotor winding to the stator, thus characterised by two standard distributed three-phase stators with different Manuscript