FiboNeXt: Investigations for Alzheimer’s Disease detection using MRI

• To detect the AD, we proposed a new lightweight Fibonacci network, incorporating the structure of ConvNeXt. • Attention and concatenation layers are integrated to the proposed convolutional neural network FiboNeXt. • FiboNeXt model was tested on two open-access MRI image datasets, comprising both augmented and original versions. Deep learning models are currently at the forefront of machine learning. Researchers have proposed and used various deep-learning models. In this research, our primary objective is to introduce a next-generation convolutional neural network inspired by the Fibonacci sequence. We utilized a public Alzheimer’s disorder (AD) magnetic resonance imaging (MRI) dataset for this model. This dataset is divided into four categories and includes both augmented and original versions. To detect the AD type, we proposed a new lightweight Fibonacci network, incorporating the structure of ConvNeXt. We also integrated attention and concatenation layers. As a result, we named the proposed convolutional neural network FiboNeXt. The primary goal of FiboNeXt is to achieve high classification capability with fewer trainable parameters, making it a competitive CNN. The proposed FiboNeXt model was tested on two open-access MRI image datasets comprising both augmented and original versions. The augmented versions were utilized for training, while the original dataset was used for testing. The model achieved 95.40% and 95.93% validation accuracies for the first and second datasets, respectively. Furthermore, it attained test accuracies of 99.66% and 99.63% on the two utilized AD MR image datasets, respectively. The results and findings unequivocally demonstrate that FiboNeXt is a potent deep-learning model. It holds the potential for addressing other computer vision challenges.

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Publication Details

Journal
Biomedical Signal Processing and Control
Published
2024-12-25
DOI
https://doi.org/10.1016/j.bspc.2024.107422
Citations
10
Primary Topic
Brain Tumor Detection and Classification
Type
article
Field-Weighted Citation Impact
2.47

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article

FiboNeXt: Investigations for Alzheimer’s Disease detection using MRI

Şengül Doğan, Türker Tuncer, Abdülhamit Subaşı
10 citations
Biomedical Signal Processing and Control
Brain Tumor Detection and Classification
2.47
article

FiboNeXt: Investigations for Alzheimer’s Disease detection using MRI

Şengül Doğan, Türker Tuncer, Abdülhamit Subaşı
article en
10 citations

Abstract

• To detect the AD, we proposed a new lightweight Fibonacci network, incorporating the structure of ConvNeXt. • Attention and concatenation layers are integrated to the proposed convolutional neural network FiboNeXt. • FiboNeXt model was tested on two open-access MRI image datasets, comprising both augmented and original versions. Deep learning models are currently at the forefront of machine learning. Researchers have proposed and used various deep-learning models. In this research, our primary objective is to introduce a next-generation convolutional neural network inspired by the Fibonacci sequence. We utilized a public Alzheimer’s disorder (AD) magnetic resonance imaging (MRI) dataset for this model. This dataset is divided into four categories and includes both augmented and original versions. To detect the AD type, we proposed a new lightweight Fibonacci network, incorporating the structure of ConvNeXt. We also integrated attention and concatenation layers. As a result, we named the proposed convolutional neural network FiboNeXt. The primary goal of FiboNeXt is to achieve high classification capability with fewer trainable parameters, making it a competitive CNN. The proposed FiboNeXt model was tested on two open-access MRI image datasets comprising both augmented and original versions. The augmented versions were utilized for training, while the original dataset was used for testing. The model achieved 95.40% and 95.93% validation accuracies for the first and second datasets, respectively. Furthermore, it attained test accuracies of 99.66% and 99.63% on the two utilized AD MR image datasets, respectively. The results and findings unequivocally demonstrate that FiboNeXt is a potent deep-learning model. It holds the potential for addressing other computer vision challenges.

Biomedical Signal Processing and ControlVol. 103
Effat University (SA), Fırat University (TR), University of Turku (FI)
Research and Consultancy Institute, Effat University
Openalex Percentile: Top 10%
Brain Tumor Detection and Classification
2.47
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