A Novel Image Caption Generation Based on CNN and RNN

The field of image comprehension has experienced notable advancements as a result of the emergence of deep learning techniques and advancements in computer vision technology. The effort of generating coherent and detailed textual descriptions for images, known as image labeling, is a significant challenge that requires the integration of natural language processing and image processing techniques. This abstract provides an in-depth analysis of approaches employed for generating photo labels, with a particular focus on current advancements within the sector. The generation of picture labels involves the use of two main components in the pipeline, namely syntax interpreter and a photographic converter. The picture encoder uses (CNNs) to process images. For extracting visual The field of image comprehension has experienced notable advancements as a result of the emergence of deep learning techniques and advancements in computer vision technology. The effort of generating coherent and detailed textual descriptions for images, known as image labeling, is a significant challenge that requires the integration of natural language processing and image processing techniques. For extracting visual details from input pictures. To generate labels on a individual basis, a language decoder employs (RNNs) like(LSTM) or (GRUs) to analyse the context representation of the image. The results obtained from this study underscore the advantages of employing (GRU) in comparison to (LSTM) for the purpose of generating labels and constructing sentences. In addition to this, recent advancements in transformer-based design, such as the transformer model, have shown promising statistics concerning labelling of pictures. The models have demonstrated the ability to effectively imitate the connections between visual and textual modalities, and they achieve this by leveraging the self-attention mechanism found in transformers, which allows for capturing long-range interdependencies. The production of picture labels is an intriguing and challenging endeavour that involves the integration of image processing and NLP techniques. Significant progress is made towards achieving our objective of generating precise, diverse, and contextually appropriate descriptions for a wide range of pictures, owing to continuous research efforts and breakthroughs in attention processes, reinforcement learning, and transformer-based architectures.

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Publication Details

Published
2024-09-27
DOI
https://doi.org/10.1109/acroset62108.2024.10743848
Citations
2
Primary Topic
Multimodal Machine Learning Applications
Type
article
Field-Weighted Citation Impact
0.50
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article

A Novel Image Caption Generation Based on CNN and RNN

Hemlata Parmar, Utsav Krishan Murari, Manish Rai
2 citations
Multimodal Machine Learning Applications
0.50
article

A Novel Image Caption Generation Based on CNN and RNN

Hemlata Parmar, Utsav Krishan Murari, Manish Rai
article en
2 citations

Abstract

The field of image comprehension has experienced notable advancements as a result of the emergence of deep learning techniques and advancements in computer vision technology. The effort of generating coherent and detailed textual descriptions for images, known as image labeling, is a significant challenge that requires the integration of natural language processing and image processing techniques. This abstract provides an in-depth analysis of approaches employed for generating photo labels, with a particular focus on current advancements within the sector. The generation of picture labels involves the use of two main components in the pipeline, namely syntax interpreter and a photographic converter. The picture encoder uses (CNNs) to process images. For extracting visual The field of image comprehension has experienced notable advancements as a result of the emergence of deep learning techniques and advancements in computer vision technology. The effort of generating coherent and detailed textual descriptions for images, known as image labeling, is a significant challenge that requires the integration of natural language processing and image processing techniques. For extracting visual details from input pictures. To generate labels on a individual basis, a language decoder employs (RNNs) like(LSTM) or (GRUs) to analyse the context representation of the image. The results obtained from this study underscore the advantages of employing (GRU) in comparison to (LSTM) for the purpose of generating labels and constructing sentences. In addition to this, recent advancements in transformer-based design, such as the transformer model, have shown promising statistics concerning labelling of pictures. The models have demonstrated the ability to effectively imitate the connections between visual and textual modalities, and they achieve this by leveraging the self-attention mechanism found in transformers, which allows for capturing long-range interdependencies. The production of picture labels is an intriguing and challenging endeavour that involves the integration of image processing and NLP techniques. Significant progress is made towards achieving our objective of generating precise, diverse, and contextually appropriate descriptions for a wide range of pictures, owing to continuous research efforts and breakthroughs in attention processes, reinforcement learning, and transformer-based architectures.

Manipal University Jaipur, Sharda University (IN)
Openalex Percentile: Top 33%
Multimodal Machine Learning Applications
0.50
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