Advancing Generative Artificial Intelligence (AI) Through Multimodal Integration and Contextual Learning

A great amount of progress has been made in generative artificial intelligence, which developments in neural network topologies and large-scale pretraining have driven. Existing models, on the other hand, frequently fail to meet expectations when they are charged with integrating numerous data modalities or comprehending complicated contextual information. Through the use of multimodal integration and contextual learning, this study investigates novel methods for the advancement of generative artificial intelligence. We provide an all-encompassing framework that integrates textual, visual, and aural input in order to improve the outputs of generative processes. In addition, we present unique strategies for incorporating contextual signals, which give models the ability to generate material that is contextually appropriate and coherent. The architecture that we have suggested makes use of transformer-based encoders, cross-modal attention layers, and dynamic contextual embeddings, which allows it to achieve higher performance across benchmark datasets. According to the findings of the experiments, there have been considerable gains in terms of the quality of the content, coherence, and multimodal alignment. A discussion of potential applications, constraints, and future possibilities for the advancement of generative artificial intelligence is presented in the final section.

Authors

Publication Details

Journal
FMDB transactions on sustainable computing systems.
Published
2024-09-09
DOI
https://doi.org/10.69888/ftscs.2024.000260
Citations
1
Primary Topic
Digital Storytelling and Education
Type
article
Field-Weighted Citation Impact
0.87

Funders

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article

Advancing Generative Artificial Intelligence (AI) Through Multimodal Integration and Contextual Learning

Ganesh Vadlakonda
1 citations
FMDB transactions on sustainable computing systems.
Digital Storytelling and Education
0.87
article

Advancing Generative Artificial Intelligence (AI) Through Multimodal Integration and Contextual Learning

Ganesh Vadlakonda
article en
1 citations

Abstract

A great amount of progress has been made in generative artificial intelligence, which developments in neural network topologies and large-scale pretraining have driven. Existing models, on the other hand, frequently fail to meet expectations when they are charged with integrating numerous data modalities or comprehending complicated contextual information. Through the use of multimodal integration and contextual learning, this study investigates novel methods for the advancement of generative artificial intelligence. We provide an all-encompassing framework that integrates textual, visual, and aural input in order to improve the outputs of generative processes. In addition, we present unique strategies for incorporating contextual signals, which give models the ability to generate material that is contextually appropriate and coherent. The architecture that we have suggested makes use of transformer-based encoders, cross-modal attention layers, and dynamic contextual embeddings, which allows it to achieve higher performance across benchmark datasets. According to the findings of the experiments, there have been considerable gains in terms of the quality of the content, coherence, and multimodal alignment. A discussion of potential applications, constraints, and future possibilities for the advancement of generative artificial intelligence is presented in the final section.

FMDB transactions on sustainable computing systems.Vol. 2(3)
Fidelity Investments
Openalex Percentile: Top 18%
Digital Storytelling and Education
0.87
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