A Rigorous Comparative Analysis on the MNIST Dataset: Proposing an Elaborate Neural Network Model for Handwritten Digit Classification using Deep Learning Methodologies

The present research examines the efficacy of various neural network methodologies for digit classification using the MNIST dataset, encompassing a fundamental Neural Network (Sequential API in Keras), Capsule Networks (CapsNet), and Neural Architecture Search (NAS). The study commences with the formulation of a neural network model with Keras’s Sequential API, which entails the assembly of a model comprising layers such as Flatten, Dense, and various activation functions. The dataset consists of 60,000 training and 10,000 test grayscale images of handwritten digits, which are preprocessed by pixel value normalization. The model underwent training for 10 epochs, attaining a commendable accuracy. CapsNet, developed to overcome the shortcomings of conventional CNNs, enhances the retention of spatial hierarchy via capsules that represent both feature probability and spatial orientation. The dynamic routing system of CapsNet facilitates improved management of fluctuations in picture orientation and location. While CapsNet demonstrates promise for improved accuracy and interpretability, it requires greater computational resources than traditional CNNs. Neural Architecture Search (NAS) automates the creation of neural network designs, optimizing performance and efficiency. Techniques like Google’s AutoML and EfficientNet are utilized to identify designs that surpass those created manually. Neural Architecture Search utilizes reinforcement learning or evolutionary algorithms to ascertain the most optimal network architectures, exhibiting enhanced accuracy and computational efficiency.The study evaluates the efficacy of these methodologies utilizing criteria such as accuracy, precision, recall, and F1-score. The findings demonstrate that CapsNet and NAS models significantly enhance performance compared to the fundamental Sequential API model, with CapsNet excelling in spatial connection management and NAS identifying architectures that yield superior performance metrics. This study emphasizes the progress in neural network methodologies and their applications in digit recognition tasks, facilitating future research in the optimization and implementation of neural networks for diverse picture classification issues.

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Published
2024-12-20
DOI
https://doi.org/10.1109/ariia63345.2024.11051406
Primary Topic
Handwritten Text Recognition Techniques
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article
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article

A Rigorous Comparative Analysis on the MNIST Dataset: Proposing an Elaborate Neural Network Model for Handwritten Digit Classification using Deep Learning Methodologies

Yash Jain, A. Anitha, Salman Azhar, Hemanth Prabhu et al.
Handwritten Text Recognition Techniques
article

A Rigorous Comparative Analysis on the MNIST Dataset: Proposing an Elaborate Neural Network Model for Handwritten Digit Classification using Deep Learning Methodologies

Yash Jain, A. Anitha, Salman Azhar, Hemanth Prabhu, L Ramachandra, Abhiram Alla
article en

Abstract

The present research examines the efficacy of various neural network methodologies for digit classification using the MNIST dataset, encompassing a fundamental Neural Network (Sequential API in Keras), Capsule Networks (CapsNet), and Neural Architecture Search (NAS). The study commences with the formulation of a neural network model with Keras’s Sequential API, which entails the assembly of a model comprising layers such as Flatten, Dense, and various activation functions. The dataset consists of 60,000 training and 10,000 test grayscale images of handwritten digits, which are preprocessed by pixel value normalization. The model underwent training for 10 epochs, attaining a commendable accuracy. CapsNet, developed to overcome the shortcomings of conventional CNNs, enhances the retention of spatial hierarchy via capsules that represent both feature probability and spatial orientation. The dynamic routing system of CapsNet facilitates improved management of fluctuations in picture orientation and location. While CapsNet demonstrates promise for improved accuracy and interpretability, it requires greater computational resources than traditional CNNs. Neural Architecture Search (NAS) automates the creation of neural network designs, optimizing performance and efficiency. Techniques like Google’s AutoML and EfficientNet are utilized to identify designs that surpass those created manually. Neural Architecture Search utilizes reinforcement learning or evolutionary algorithms to ascertain the most optimal network architectures, exhibiting enhanced accuracy and computational efficiency.The study evaluates the efficacy of these methodologies utilizing criteria such as accuracy, precision, recall, and F1-score. The findings demonstrate that CapsNet and NAS models significantly enhance performance compared to the fundamental Sequential API model, with CapsNet excelling in spatial connection management and NAS identifying architectures that yield superior performance metrics. This study emphasizes the progress in neural network methodologies and their applications in digit recognition tasks, facilitating future research in the optimization and implementation of neural networks for diverse picture classification issues.

Techno India University (IN), Medi-Caps University (IN), SRM University (IN), VIT-AP University, Visvesvaraya Technological University (IN)
Quality Education
Openalex Percentile: Top 69%
Handwritten Text Recognition Techniques
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