The problem of neutral current compensation has to be addressed in Wind Energy integrated weak microgrids. This study analyses two types of techniques possible for implementation of neutral current compensation by drawing a comparative research of their application on the same wind energy conversion system. The hybrid microgrid considered in the study comprises a synchronous diesel generator and an inverter-based wind generator. The results and analysis are conducted by time-domain simulations using MATLAB/Simulink software. The use of electronic power converters that also act as an active neutral current compensator or a zig-zag transformer connected with the load mitigates the problem of neutral current compensation to a large extent. The voltage unbalance factor is also significantly reduced due to neutral current compensation and power quality is enhanced. The results provide the actual operational limits possible under the set of given constraints.

The aim of this paper is to dissociate Metaphysics and Theology. In Metaphysics, I propose a Neutral Monist foundation of the Being of Reality, which is, therefore, not material or ideal, but a cosmic field of possibilities that generate both domains. God is conceived as one possibility embedded in the Being of Reality that may or may not become actual, depending on conditions established by the evolution of the Cosmos. As far as we know, the conditions for actualization of God are satisfied by human consciousness. The relation between the Being of Reality and its outcomes, as the realization of God in human society, is one of actualization of potentialities, as in Aristotelian philosophy. This approach leads to a Feuerbachian view of God as emergent in social conscious experience, achieving embodied expression in human social practices, from the legitimate symbolic message of prophets, in sacred texts, rituals, images, buildings and social institutions implemented by religious organizations.

The rise of nonlinear and unbalanced loads in modern electrical systems poses challenges to power quality management. These loads, prevalent in electronic devices and industrial equipment, induce harmonic distortions and unbalance, adversely affecting the neutral conductor in three-phase systems. This study investigates these effects through modeling and simulation using MATLAB/Simulink and symmetrical components theory for detailed power quality analysis. The research focuses on three scenarios: nonlinear loads, unbalanced loads, and combined nonlinear-unbalanced loads. Simulation results show that nonlinear loads significantly increase harmonic content, while unbalanced loads lead to notable power quality deviations. When combined, these conditions exacerbate harmonic distortions and unbalance, resulting in higher neutral current magnitudes. Key findings highlight the severe impact of combined load conditions on the neutral conductor, emphasizing the need for accurate modeling and analysis. This research provides valuable insights and practical recommendations for addressing the challenges of nonlinear and unbalanced loads, contributing to improved power system design and management.