Combination Of Convolutional Neural Network Research Articles

Analysis of the influencing factors of students' vocational ability based on joint improvement of convolutional neural network and multimodal data

Students' professional ability includes innovation and entrepreneurship ability, independent ability, quality ability, professional ability and adaptability. The school's practical training teaching and professional setting, as well as the unique talent training model have a profound impact on training and development of students' professional ability. The continuous progress and development of society indicates that the competitiveness of occupational positions in the future will continue to increase. The talent market will also put forward newer and more difficult requirements for the quality of students. In study and life, cultivating students' good professional ability is the fundamental purpose of colleges and universities. Employers tend to pay more attention to overall quality of candidates when selecting employees. Whether students can enter the society smoothly after graduation has become an important task. It can be seen that it is very important to analyze the cultivation of students' professional ability and the influencing factors of professional ability. This work combines convolutional neural network (CNN) with the analysis of factors influencing students' vocational ability. First, this work proposes an improved residual block (IRB). It increases the width of the residual network by adding a residual connection channel to learn richer features. Second, this work proposes an improved attention module (IAM). It combines channel attention with spatial attention to improve model performance. Third, this work combines IRB and IAM to propose an SVAIFANet. The model can be applied to the analysis of factors influencing students' vocational ability. Fourth, this work conducts various experiments for proposed method, experimental data verify correctness for this method.

Paediatric Activity Anomaly Detection using CNN-XGBoost for Early Intervention and Patient Safety

The development of a robust anomaly detection system capable of distinguishing between normal and abnormal activities in paediatric care settings is of paramount importance for early intervention and patient safety. This endeavor presents substantial challenges due to the unique characteristics of paediatric activities, making it necessary to employ a combination of Convolutional Neural Networks (CNNs) and XGBoost to effectively address these complexities. The initial step involves the assembly of a meticulously annotated dataset comprising video sequences encompassing a broad spectrum of paediatric activities, both normal and abnormal, with a strong emphasis on diversity and representativeness. This dataset is subjected to rigorous preprocessing to ensure consistency and quality. This research employs a Kalman filter as a pre-processing step. This filter helps to reduce noise and enhance the quality of the video data. By smoothing and stabilizing the trajectories of objects or subjects within the video frames, the Kalman filter provides a cleaner input for subsequent stages of the process. CNN employed for feature extraction from video frames, capturing both spatial and temporal cues. To account for the temporal dimension inherent in video data, by ensuring that the model can capture nuanced patterns in paediatric activities. The accuracy of the proposed method is 88%. The extracted features or sequences are input into an XGBoost classifier, designed as a binary classification task to differentiate between normal and abnormal activities. Robust model evaluation is conducted on validation and test datasets using appropriate performance metrics, with continuous feedback loops established with healthcare professionals and caregivers to fine-tune and optimize the model's performance.

Error-feedback three-phase optimization to configurable convolutional echo state network for time series forecasting

Time series forecasting is critical for many real-world applications. Convolutional echo state networks (CESNs) have shown intriguing time series modeling efficacy by combining convolutional neural network (CNN) and echo state network (ESN). However, current CESN models are tailored for the classification tasks and rely on elaborately designed neural architectures. To this end, we propose a novel configurable convolutional echo state network (CCESN) with an innovative error-feedback three-phase optimization (ETO) strategy for time series forecasting. The network is progressively constructed with heterogeneous modular subnetworks, including ESN, CNN, CESN, and reversed CESN modules. This scheme leverages the complementary feature extraction capabilities of convolutional and recurrent neural architectures. To adaptively evolve the CCESN, we propose a novel error-feedback three-phase optimization (ETO) strategy by selecting optimal subnetwork modules while step-wise tuning parameters. Comprehensive experiments are conducted on representative simulated and real-world datasets. The results indicate that ETO-CCESN can adaptively select and evolve heterogeneous subnetworks to acclimatize to varied scenarios, and thus demonstrate significant performance improvements, achieving a 45.69% average enhancement in forecasting accuracy compared to the existing CESN model, and surpassing the best baseline by 8.79% in terms of symmetric mean absolute percentage error across diverse forecasting tasks.

A federated learning-based zero trust intrusion detection system for Internet of Things

The exponential growth of Internet of Things (IoT) devices poses distinctive challenges to safeguarding the security and privacy of interconnected systems. As the frequency of cyberattacks continues to escalate, the development of an effective and scalable Intrusion Detection System (IDS) based on Federated Learning (FL) for IoT becomes increasingly complex. Existing methodologies struggle to balance spatial and temporal feature extraction, particularly when confronted with dynamic and evolving cyber threats. Additionally, the lack of diversity in datasets employed for FL-based IDS evaluations further hinders progress. Furthermore, a notable tradeoff between performance and scalability emerges, particularly as the number of edge devices in communication grows. Motivated by the aforementioned challenges, this article presents a horizontal FL model that combines Convolutional Neural Networks (CNN) and Bidirectional Long-Term Short Memory (BiLSTM) for effective intrusion detection. This hybrid approach aims to address the limitations of existing methods and enhance the effectiveness of intrusion detection in the context of FL for IoT. Specifically, CNN plays a pivotal role in spatial feature extraction, allowing the model to identify and comprehend local patterns indicative of potential intrusions, and the BiLSTM component contributes by capturing temporal dependencies and learning sequential patterns within the data. The proposed IDS adheres to a zero-trust model by keeping the data on local edge devices, sharing only the learned weights with the centralized FL server. In turn, the FL server aggregates updates from diverse sources to optimize the accuracy of the global learning model. The experimental results using CICIDS2017 and Edge-IIoTset prove the effectiveness of the proposed approach over centralized and federated deep learning-based IDS.

A hybrid approach using CNN and active contour model for automated segmentation of macular edema

Macula is the part of retina responsible for sharp and clear vision. Macular edema is caused by the accumulation of intraretinal fluid (IRF) in the macula, which is further distinguished by the compromised integrity of the blood-retinal barrier, particularly evident in the retinal vasculature. This results in swelling, that may lead to vision impairment and is the dominant sign of several ocular diseases, including age-related macular degeneration, diabetic retinopathy, etc. Quantitative analysis of the fluid regions in macular edema helps in ascertaining the severity as well as the response to treatment of the diseases. Optical coherence tomography (OCT) is a major tool used by ophthalmologists for visualizing edema. The prevalent practice for diagnosing and treating macular edema involves measuring Central Retinal Thickness (CRT). Segmenting the IRF in OCT images offers the potential for a more accurate and better quantification of macular edema. This paper proposes a novel method combining convolutional neural network (CNN) and active contour model for segmenting the IRF to ascertain the severity of macular edema. The IRF region is initially segmented using an encoder-decoder architecture. Contour evolution is then performed on this segmented image to demarcate the IRF boundaries. The advantage of the method is that it does not require precisely labeled images for training the CNN. A comparison of the experimental results with models employing CNN alone and with other state-of-the art methods demonstrates the superior performance and consistency of the proposed method.

Discerning Deception: A Face-Centric Deepfake Detection Approach with ResNeXt-50 and LSTMs

Abstract: A.I. has grown to epidemic proportions over the last years as its applied in almost all sectors to allocate workload from humans but end up being done effectively with no human intervention. A branch of A.I. called deep learning, which operates by mimicking human judgment and action through neural network systems. Nonetheless, with the increase height of the two platforms have been experienced sufficient cases of misguided individuals using tools to recycle videos, audios, and texts to achieve their agendas. This insinuates a due assumption that Generative Adversarial Networks, GANs, are central to the development of believable deepfakes. GANs have developed a crucial ability to generate videos that replace frames with material from another video source to create deepfakes videos. While GANs serves various purposes such as entertainment, teaching, and experimentation, malicious actors can misuse these deep learning techniques to manipulate videos, impacting the privacy of individuals in society. This paper conducts an analysis of different deepfake detection models, comparing their efficacy and discussing potential future extensions of deepfake technology. The study presents a novel deepfake detection approach utilizing a combination of Convolutional Neural Networks (CNN) and Recurrent Neural Networks (RNN). This method utilizes ResNext50 for extracting features at the frame level, while employing LSTM (Long Short-Term Memory) for video classification based on these extracted features. Various datasets are incorporated, including the deepfake detection challenge dataset (DFDC) and Face Forensics deepfake collections (FF++), combining them to achieve a high-accuracy model capable of accurately discerning between real and deepfake videos. The results of this study make a valuable contribution to the continuous endeavors aimed at improving deepfake detection abilities and ensuring privacy protection in a time heavily influenced by artificial intelligence

Convolutional Neural Networks to Facilitate the Continuous Recognition of Arabic Speech with Independent Speakers

Automatic speech recognition (ASR) is a field of research that focuses on the ability of computers to process and interpret speech feedback from humans and to provide the highest degree of accuracy in recognition. Speech is one of the simplest ways to convey a message in a basic context, and ASR refers to the ability of machines to process and accept speech data from humans with the greatest degree of accuracy. As the human-to-machine interface continues to evolve, speech recognition is expected to become increasingly important. However, the Arabic language has distinct features that set it apart from other languages, such as the dialect and the pronunciation of words. Until now, insufficient attention has been devoted to continuous Arabic speech recognition research for independent speakers with a limited database. This research proposed two techniques for the recognition of Arabic speech. The first uses a combination of convolutional neural network (CNN) and long short-term memory (LSTM) encoders, and an attention-based decoder, and the second is based on the Sphinx-4 recognizer, which includes pocket sphinx, base sphinx, and sphinx train, with various types and number of features to be extracted (filter bank and mel frequency cepstral coefficients (MFCC)) based on the CMU Sphinx tool, which generates a language model for different sentences spoken by different speakers. These approaches were tested on a dataset containing 7 hours of spoken Arabic from 11 Arab countries, covering the Levant, Gulf, and African regions, which make up the Arab world, and achieved promising results. CNN-LSTM achieved a word error rate (WER) of 3.63% using 120 features for filter bank and 4.04% WER using 39 features for MFCC, respectively, while the Sphinx-4 recognizer technique achieved 8.17% WER and an accuracy of 91.83% using 25 features for MFCC and 8 Gaussian mixtures, respectively, when tested on the same benchmark dataset.

Study on Real-Time Water Demand Prediction of Winter Wheat–Summer Corn Based on Convolutional Neural Network–Informer Combined Modeling

The accurate prediction of crops’ water requirements is an important reference for real-time irrigation decisions on farmland. In order to achieve precise control of irrigation and improve irrigation water utilization, a real-time crop water requirement prediction model combining convolutional neural networks (CNNs) and the Informer model is presented in this paper, taking the real-time water demand of winter wheat–summer maize from 2017 to 2021 as the research object. The CNN model was used to extract the depth features of the day-by-day meteorological data of the crops, and the extracted feature values were inputted into the Informer model according to the time series for training and prediction to obtain the predicted water demand of winter wheat and summer maize. The results showed that the prediction accuracy of the constructed CNN–Informer combination model was higher compared to CNN, BP, and LSTM models, with an improvement of 1.2%, 25.1%, and 21.9% for winter wheat and 0.4%, 37.4%, and 20.3% for summer maize; based on the good performance of the model in capturing the long-term dependency relationship, the irrigation analysis using the model prediction data showed a significant water-saving effect compared with the traditional irrigation mode, with an average annual water saving of about 1004.3 m3/hm2, or 18.4%, which verified the validity of the model, and it can provide a basis for the prediction of crops’ water demand and sustainable agricultural development.

A Hybrid CNN-LSTM Approach for Precision Deepfake Image Detection Based on Transfer Learning

The detection of deepfake images and videos is a critical concern in social communication due to the widespread utilization of deepfake techniques. The prevalence of these methods poses risks to trust and authenticity across various domains, emphasizing the importance of identifying fake faces for security and preventing socio-political issues. In the digital media era, deep learning outperforms traditional image processing methods in deepfake detection, underscoring its significance. This research introduces an innovative approach for detecting deepfake images by employing transfer learning in a hybrid architecture that combines convolutional neural networks (CNNs) and long short-term memory (LSTM). The hybrid CNN-LSTM model exhibits promise in combating deep fakes by merging the spatial awareness of CNNs with the temporal context understanding of LSTMs. Demonstrating effective performance on open-source datasets like “DFDC” and “Ciplab”, the proposed method achieves an impressive precision of 98.21%, indicating its capability to accurately identify deepfake images with a limited false-positive rate. The model’s error rate is 0.26%, emphasizing the challenges and intricacies inherent in deepfake detection tasks. These findings underscore the potential of hybrid deep learning techniques for addressing the urgent issue of deepfake image detection.

Autism spectrum disorder diagnosis with EEG signals using time series maps of brain functional connectivity and a combined CNN–LSTM model

Background and Objective:People with autism spectrum disorder (ASD) often have cognitive impairments. Effective connectivity between different areas of the brain is essential for normal cognition. Electroencephalography (EEG) has been widely used in the detection of neurological diseases. Previous studies on detecting ASD with EEG data have focused on frequency-related features. Most of these studies have augmented data by splitting the dataset into time slices or sliding windows. However, such approaches to data augmentation may cause the testing data to be contaminated by the training data. To solve this problem, this study developed a novel method for detecting ASD with EEG data. Methods:This study quantified the functional connectivity of the subject’s brain from EEG signals and defined the individual to be the unit of analysis. Publicly available EEG data were gathered from 97 and 92 subjects with ASD and typical development (TD), respectively, while they were at rest or performing a task. Time-series maps of brain functional connectivity were constructed, and the data were augmented using a deep convolutional generative adversarial network. In addition, a combined network for ASD detection, based on convolutional neural network (CNN) and long short-term memory (LSTM), was designed and implemented. Results:Based on functional connectivity, the network achieved classification accuracies of 81.08% and 74.55% on resting state and task state data, respectively. In addition, we found that the functional connectivity of ASD differed from TD primarily in the short-distance functional connectivity of the parietal and occipital lobes and in the distant connections from the right temporoparietal junction region to the left posterior temporal lobe. Conclusions:This paper provides a new perspective for better utilizing EEG to understand ASD. The method proposed in our study is expected to be a reliable tool to assist in the diagnosis of ASD.

Obstructive Sleep Apnea Syndrome Identification Using CNN-LSTM Hybrid Model

Obstructive Sleep Apnea (OSA) is a common sleep problem. It causes breathing issues during sleep. This disturbs oxygen intake and sleep patterns. Detecting OSA early and accurately is important for treatment. In our study, we look into using advanced deep learning for OSA detection. We focus on Long Short-Term Memory (LSTM) networks, Convolutional Neural Networks (CNN), and a new combined method. We also check the impact of different functions and methods on OSA detection accuracy. Our tests reveal some interesting facts. The Nadam optimizer gives the best OSA detection at 95.22% accuracy. The combined CNN and LSTM method achieves 95.38% accuracy. Using LSTM with the sigmoid function, we get a 93.80% accuracy. These results stress the importance of choosing suitable models and methods for OSA detection. Our study helps improve diagnostic tools for OSA. These findings can aid in early and improved treatment of OSA, giving people a better quality of life and health.

A Deep Learning Approach for Detecting Atrial Fibrillation using RR Intervals of ECG

Purpose: Atrial Fibrillation (AF) is one of the most common types of heart arrhythmias observed in clinical practice. AF can be detected using an Electrocardiogram (ECG). ECG signals are time-varying and nonlinear in nature. Hence, it is very difficult for a physician to manually perform accurate and rapid classification of different heart rhythms.
 Materials and Methods: In this paper, we propose a method using Discrete Wavelet Transform (DWT) with db6 as the basis function for denoising ECG signal.
 Results: The denoised ECG is smoothened using the Savitzky- Golay filter. Deep learning methods, such as a combination of Convolutional Neural Network (CNN) and Long Short Term Memory (LSTM) (CNN-LSTM) and ResNet18 are used for the accurate classification of ECG signals using Physionet Challenge 2017 database.
 Conclusion: With a 10-fold cross-validation method the model provided overall accuracy of 98.25% with the CNN-LSTM classifier.

Development and Validation of a Deep Learning Model for Histopathological Slide Analysis in Lung Cancer Diagnosis.

Lung cancer is the leading cause of cancer-related deaths worldwide. Two of the crucial factors contributing to these fatalities are delayed diagnosis and suboptimal prognosis. The rapid advancement of deep learning (DL) approaches provides a significant opportunity for medical imaging techniques to play a pivotal role in the early detection of lung tumors and subsequent monitoring during treatment. This study presents a DL-based model for efficient lung cancer detection using whole-slide images. Our methodology combines convolutional neural networks (CNNs) and separable CNNs with residual blocks, thereby improving classification performance. Our model improves accuracy (96% to 98%) and robustness in distinguishing between cancerous and non-cancerous lung cell images in less than 10 s. Moreover, the model's overall performance surpassed that of active pathologists, with an accuracy of 100% vs. 79%. There was a significant linear correlation between pathologists' accuracy and years of experience (r Pearson = 0.71, 95% CI 0.14 to 0.93, p = 0.022). We conclude that this model enhances the accuracy of cancer detection and can be used to train junior pathologists.

Energy Expenditure Prediction from Accelerometry Data Using Long Short-Term Memory Recurrent Neural Networks.

The accurate estimation of energy expenditure from simple objective accelerometry measurements provides a valuable method for investigating the effect of physical activity (PA) interventions or population surveillance. Methods have been evaluated previously, but none utilize the temporal aspects of the accelerometry data. In this study, we investigated the energy expenditure prediction from acceleration measured at the subjects' hip, wrist, thigh, and back using recurrent neural networks utilizing temporal elements of the data. The acceleration was measured in children (N = 33) performing a standardized activity protocol in their natural environment. The energy expenditure was modelled using Multiple Linear Regression (MLR), stacked long short-term memory (LSTM) networks, and combined convolutional neural networks (CNN) and LSTM. The correlation and mean absolute percentage error (MAPE) were 0.76 and 19.9% for the MLR, 0.882 and 0.879 and 14.22% for the LSTM, and, with the combined LSTM-CNN, the best performance of 0.883 and 13.9% was achieved. The prediction error for vigorous intensities was significantly different (p < 0.01) from those of the other intensity domains: sedentary, light, and moderate. Utilizing the temporal elements of movement significantly improves energy expenditure prediction accuracy compared to other conventional approaches, but the prediction error for vigorous intensities requires further investigation.

Efficient Deepfake Audio Detection Using Spectro-Temporal Analysis and Deep Learning

With the advancement of deepfake technology, particularly in the audio domain, there is an imperative need for robust detection mechanisms to maintain digital security and integrity. Our research presents an "Enhanced Deepfake Audio Detection with Spectro-Temporal Deep Learning Approach," aimed at addressing the escalating challenge of distinguishing genuine audio from sophisticated deepfake manipulations. Our methodology leverages the ADD2022 dataset, which encompasses a wide range of audio clips, to train and evaluate a novel deep learning model. The core of our approach consists of a meticulous data preprocessing phase, where audio samples are resampled, normalized, and subjected to silence removal to ensure uniformity and enhance model input quality. Our deep learning model architecture innovatively combines Convolutional Neural Networks (CNNs) for extracting spectral features and Recurrent Neural Networks (RNNs) or Long Short-Term Memory (LSTM) networks for analyzing temporal dynamics. This hybrid model is adept at identifying the nuanced anomalies characteristic of deepfake audios. The model undergoes rigorous training and optimization, with performance evaluated against key metrics such as accuracy, precision, F1, recall score, and the Equal Error Rate (EER). Our findings exhibit the Enhanced Deepfake Audio Detection model's superior capability to discern deepfake audio, highlighting its potential as a pivotal tool in the fight against digital audio manipulation. This research contributes significantly to the field of digital forensics, offering a scalable and effective solution for ensuring the authenticity of audio content in an era dominated by deepfake technology.

Instance segmentation by blend U‐Net and VOLO network

AbstractInstance segmentation is still challengeable to correctly distinguish different instances on overlapping, dense and large number of target objects. To address this, the authors simplify the instance segmentation problem to an instance classification problem and propose a novel end‐to‐end trained instance segmentation algorithm CotuNet. Firstly, the algorithm combines convolutional neural networks (CNN), Outlooker and Transformer to design a new hybrid Encoder (COT) to further feature extraction. It consists of extracting low‐level features of the image using CNN, which is passed through the Outlooker to extract more refined local data representations. Then global contextual information is generated by aggregating the data representations in local space using Transformer. Finally, the combination of cascaded upsampling and skip connection modules is used as Decoders (C‐UP) to enable the blend of multiple different scales of high‐resolution information to generate accurate masks. By validating on the CVPPP 2017 dataset and comparing with previous state‐of‐the‐art methods, CotuNet shows superior competitiveness and segmentation performance.

Detection of Military Targets on Ground and Sea by UAVs with Low-Altitude Oblique Perspective

Small-scale low-altitude unmanned aerial vehicles (UAVs) equipped with perception capability for military targets will become increasingly essential for strategic reconnaissance and stationary patrols in the future. To respond to challenges such as complex terrain and weather variations, as well as the deception and camouflage of military targets, this paper proposes a hybrid detection model that combines Convolutional Neural Network (CNN) and Transformer architecture in a decoupled manner. The proposed detector consists of the C-branch and the T-branch. In the C-branch, Multi-gradient Path Network (MgpNet) is introduced, inspired by the multi-gradient flow strategy, excelling in capturing the local feature information of an image. In the T-branch, RPFormer, a Region–Pixel two-stage attention mechanism, is proposed to aggregate the global feature information of the whole image. A feature fusion strategy is proposed to merge the feature layers of the two branches, further improving the detection accuracy. Furthermore, to better simulate real UAVs’ reconnaissance environments, we construct a dataset of military targets in complex environments captured from an oblique perspective to evaluate the proposed detector. In ablation experiments, different fusion methods are validated, and the results demonstrate the effectiveness of the proposed fusion strategy. In comparative experiments, the proposed detector outperforms most advanced general detectors.

Developing a hybrid system for stock selection and portfolio optimization with many-objective optimization based on deep learning and improved NSGA-III

Portfolio management is a critical aspect of investment strategies, with the goal to balance the low-risk and high-return investments. Despite this, existing portfolios frequently overlook the integration of stock selection outcomes and underutilize data from listed companies, leading to suboptimal portfolio performance. Addressing these shortcomings, this paper introduces a hybrid system involving stock selection and portfolio optimization. In stock selection, the system employs a combination of convolutional neural network and bi-directional recurrent neural network to predict stock trends. This approach enables the identification of stocks likely to appreciate in value, setting the stage for their inclusion in the subsequent optimization process. For portfolio optimization, the study formulates a five-objective optimization problem that incorporates mean, variance, skewness, kurtosis, and distance-to-default as key considerations. To solve the many-objective constrained optimization problem, an advanced strategy employing a static penalty function and an improved Non-dominated Sorting Genetic Algorithm III (NSGA-III) based on tent chaotic mapping is utilized. The efficacy of the proposed hybrid system is rigorously tested through three sets of ablation experiments alongside two discussions focused on its robustness and computational efficiency. The findings from these investigations reveal that the hybrid system outperforms traditional approaches, reducing risks and improving returns for investors.

Pressure prediction for air cyclone centrifugal classifier based on CNN-LSTM enhanced by attention mechanism

In this study, deep learning (DL) is employed to analyze the entire flow field and predict the pressure in air cyclone centrifugal classifiers. To this end, a novel neural network model is proposed, which combines convolutional neural network (CNN), long short-term memory (LSTM) network, and attention mechanism. This study predicts the cases of air cyclone centrifugal classifiers with and without screening cages. Compared to a support vector machine (SVM) and a backpropagation neural network (BPNN) model, the RMSE (root mean square error) of the proposed model with screening cage is reduced by 22.6% and 56.0%, respectively; the RMSE of the proposed model without screening cage is reduced by 50.1% and 42.8%, respectively. This demonstrates the effectiveness and versatility of the CNN-LSTM-Attention model in predicting the pressure of air cyclone centrifugal classifiers. In addition, this study explored the effect of different parameters on air classifier by macroscopic and microscopic screening efficiency. The results show that the air classifier can achieve the best screening effect when the rotational speed is 45 Hz, the feeding speed is 0.3 kg/s and the inclination angle is −4°. This study is expected to provide new ideas for pressure prediction and flow field simulation in air classifiers.

Information Extraction from Product Labels: A Machine Vision Approach

This research tackles the challenge of manual data extraction from product labels by employing a blend of computer vision and Natural Language Processing (NLP). We introduce an enhanced model that combines Convolutional Neural Networks (CNN) and Recurrent Neural Networks (RNN) in a Convolutional Recurrent Neural Network (CRNN) for reliable text recognition. Our model is further refined by incorporating the Tesseract OCR engine, enhancing its applicability in Optical Character Recognition (OCR) tasks. The methodology is augmented by NLP techniques and extended through the Open Food Facts API (Application Programming Interface) for database population and text-only label prediction. The CRNN model is trained on encoded labels and evaluated for accuracy on a dedicated test set. Importantly, our approach enables visually impaired individuals to access essential information on product labels, such as directions and ingredients. Overall, the study highlights the efficacy of deep learning and OCR in automating label extraction and recognition.