Scenario: The Internet of Things (IoT) has revolutionized the agricultural sector, enabling precision farming methods that optimize utilization of resources and improve crop yields. One significant aspect of this synergy is the use of smart sensors to monitor and control various environmental parameters, such as temperature, humidity, and pH levels. Maintaining rapid sensor response and accuracy is crucial for achieving precise agricultural management. Problem Specification: In IoT-based systems, maintaining precise pH sensing capabilities is crucial but often challenged by environmental factors such as temperature variations, leading to tolerance gradation errors beyond the [−0.01, +0.01] acceptable ranges, impeding timely remote adjustments. The process of quickly balancing the crop condition from a remote place becomes burdensome during these scenarios. Solution: For reducing the tolerance gradation error, the research introduces Optimized pH Sensing Synergy Alignment (OpHSS) with a trans-classifier learning network for monitoring and correcting the actual sensing ranges. Through iterative adjustments and independent functions across hidden layers, the proposed OpHSS aims for faster convergence to acceptable ranges. Thus, the model achieves faster convergence toward standardized tolerance levels, effectively minimizing sensor response times and boosts the overall precision and efficiency in precision farming practices. Convergence: The network uses trans iterations to gradually correct ahead and behind gradation errors, ensuring they converge toward a standard tolerance value within the acceptable range. Key Improvements: OpHSS reduces sensor response time, quick convergence, and improved pH monitoring accuracy. It also improves crop yields and resource management by enhancing pH sensing synergy in precision farming using IoT backbone networks.
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Liu et al. (2024) studied this question.
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