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Fabrication and Characterization of a Low-Cost Piezoelectric using Rochelle
                         Salt for Energy Harvesting and Sensor Applications

               electronics and motor used in tracking was minimal, measured at
               only 0.015 W per hour, amounting to 0.4 W in the mini system, as
               shown in Figure 48. Even after accounting for this consumption,
               the net savings remain significant at 2.02 W.


               RESULTS

               Design  and  experimental  evaluation  of solar  tracker  based  on
               smart flower PV Panels  System proves  to be  a noteworthy
               enhancement in power  efficiency and automation in the solar
               system technology. By using the solar tracking mechanism, the
               power lost by conventional panels is captured and an increase in
               energy of approximately 18% is registered compared to the
               conventional static system that makes the system perfect for all
               purpose scale applications. The arrangement of suitable materials,
               durable and efficient mechanisms, like the Nano, and new design
               structures, guarantees reliability. Moreover, effective wind gust
               safety  methods  and  construction highlight adaptability of the
               system in  real  world ecological situations. The  Bio mimicking
               method is far more effective in its efficiency, and most of the other
               methods are more  effective as compared to ours  due  to  the
               sophisticated nature of their built-in. Since we do not possess this
               technology that can be used in our local areas, our efficiency is
               lower than theirs. However, it has to be noted that the novel idea
               of the wind shear safety of our system stands way ahead, if
               compared to others. As compared to conventional system, 18%
               more efficiency can be achieved.


               CONCLUSION

               This sunflower-inspired solar tracking system combines
               biomimicry with modern engineering to achieve  18% higher
               energy capture than conventional panels. Using LDR sensors and
               Arduino Nano controllers, the system dynamically follows the sun
               while wind safety features ensure durability. Its modular design
               provides a scalable, aesthetically appealing solution for renewable






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