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The wind turbine construction aging caused by fatigue components of a wind field over a long period affects the physical structure. Flow controlling methodologies are used to alleviate turbine assembly stress. The flow regulation approach controller is critical in the fatigue load minimization procedure. This paper offers a Predictive controller for Independent pitch control (IPC)-based flow management. Because of the azimuthal position of the blade, the flow dynamics of the blades are vulnerable to cyclic fluctuations. This paper considers the azimuthal angle blade dynamics since there is a significant variation in movements between the bottom and top blades. The suggested controller (which takes into account the wind turbine’s Azimuthal angle characteristics) outperforms the existing controllers in terms of its capacity to forecast the blade’s reaction as it approaches the azimuthal location. The complete replication was effectively done.

The heat treatment-T6 offers significant benefits for Aluminum Matrix composites due to changes of structure and material properties like strength, hardness and corrosion resistance. In this study, the preparation of reinforced Molybdenum Disulfide With Al-Zn-Mg alloy composites done by stir casting methodology. Three parameters like temperature (A), Time duration (B) and quenching medium (C) are considered for Heat Treatment Process (HTP). Quenching medium, time and temperature are reserved as constant. The main aim is to compare corrosion or wear characteristics (WC) and Hardness (BHN) of prepared samples before and after HTP. POD device used to conduct test of wear rate. 12 experiments are carried out by change of MOS2 particles volume (5-20 w.t %) and Temperature (400-700º C). the experimental outcomes are discussed and compare the mechanical properties for stir-casting and T6-HTP.

In material science, converting waste into nanomaterials by green technologies highlights the interest in producing sustainable carbon nanomaterial (SCN). This study first-ever utilized tyre-char as a Nano-Structure Pyrolytic Carbon (NSPC) to develop electrically conductive composites. Unlike other carbon nanomaterials, the efficiency of NSPC particle as an SCN in developing electrically conductive composites was investigated in terms of dispersion, mechanical, water absorption, electrical resistivity, and microstructure. The results of sedimentation and zeta potential (−19 mV) showed the excellent dispersion of NSPC particle in water with the combined effect of superplasticizer and ultrasonication. The compressive (40.37%) and flexural strength (10.76%) than that of plain cement mortar composite (CMC) is achieved with 2 wt.% and 1.5 wt.% of NSPC particle, respectively. The water absorption rate and volume of permeable voids were reduced, exhibiting less agglomerations. The percolation zone of AC and DC resistivity of NSPC composite ranges between 1 and 2 wt.%, and the established percolation threshold is at 2 wt.%. XRD analysis showed C-S-H formation consistently increased with curing age, and HR-SEM with EDAX analysis exhibits the dense microstructure and well-distributed NSPC particle at the nanoscale. These experimental outcomes significantly enhanced the reliability and provided a framework for tailoring NSPC particle as SCN for developing electrically conductive composite. [ABSTRACT FROM AUTHOR]