Abstract—This paper investigates signal quality enhancement by addressing critical challenges in signal error detection. The complex data generated by communication systems often introduce significant transmission errors, necessitating robust methodologies to ensure reliable communication. Advanced neural networks and machine learning techniques were employed to address these challenges, focusing on Artificial Neural Networks (ANNs) using backpropagation and feedforward Multi-Layer Perceptron (MLP) models. Deep neural networks and Support Vector Machines (SVMs) were also explored for comparative analysis. Simulations were conducted using artificially generated datasets of radio waves to train the models and evaluate their error-detection capabilities. The results highlighted the superior performance of the ANN model, which demonstrated higher accuracy and efficiency in optimizing signal transmission compared to the Deep neural network and SVM approaches. These findings delineate the effectiveness of ANN in mitigating transmission errors and achieving reliable communication in dynamic network environments. These findings hold significant implications for improving the reliability and efficiency of signals, contributing to advancements in wireless communication systems and their ability to handle the increasing demands of modern connectivity.
 
Keywords—5G, signal error, supervised learning, Feed Forward Neural Network (FFNN)


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