Image-based monument identification is very much demanding task due to the variability of lighting conditions, viewpoints, and occlusions. Deep learning-based methods have significantly improved in classifying and recognizing images, and they are now more frequently employed to identify monuments. The current development in deep learning-based monument recognition is given in this literature study paper. The many methods for feature extraction, categorization, and model fine-tuning are described. We also discuss the field\'s limitations and potential developments, including the need for larger, more diversified datasets and the investigation of more sophisticated deep learning methods. Overall, this work offers a thorough summary of the state-of-the-art for deep learning-based image-based monument recognition and provide sustainable growth towards identifying and understanding about ancient historical monument identification.
Introduction
he text discusses the use of deep learning, particularly convolutional neural networks (CNNs), to automate the identification of monuments from images, a task important in tourism, history, and cultural heritage. Manual monument identification is time-consuming and requires expertise, so automated deep learning-based methods can improve accuracy and efficiency.
The literature survey reviews various recent approaches using CNNs, encoder-decoder models, LSTMs, and object detection techniques like Faster R-CNN and YOLO, highlighting achievements such as high classification accuracy (up to ~98%) and improved captioning metrics. Several models are evaluated on different datasets, with future work suggested on mobile applications, larger and more diverse datasets, and enhanced semantic understanding.
Deep learning is characterized by its ability to learn hierarchical data representations automatically, handle raw inputs end-to-end, and scale with computational resources. Transfer learning and challenges such as interpretability, overfitting, and data requirements are also discussed.
Applications of deep learning extend beyond monument recognition into fields like computer vision, NLP, healthcare, finance, autonomous systems, and environmental monitoring.
Popular deep learning frameworks include TensorFlow, PyTorch, Keras, Caffe, and MXNet. The text also addresses key issues like the need for large datasets, high computational costs, interpretability challenges, vulnerability to adversarial attacks, and ethical concerns.
Performance evaluation metrics for monument identification models include accuracy, precision, recall, F1-score, confusion matrices, and ROC-AUC.
Finally, several publicly available landmark image datasets are listed, such as the Google Landmarks Dataset, UNESCO World Heritage Sites Dataset, Flickr Landmark Dataset, and others covering landmarks from cities like Aachen, Rome, and Tokyo.
Conclusion
In conclusion, the survey paper on monument identification from an image using deep learning presents a comprehensive overview of the advancements, methodologies, and challenges in this field. Through an extensive review of relevant literature, several key findings and insights have emerged. Despite the significant progress, there are still challenges and limitations in monument identification from images using deep learning. Overall, the survey article shows the potential of deep learning for identifying monuments from photos and lays the groundwork for more investigation and advancement in this fascinating area. For scholars, practitioners, and stakeholders interested in using deep learning techniques for automated monument recognition and categorization, it is an invaluable resource.