Enhancing Communication and Data Transmission Security in RAG Using Large Language Models

Retrieval-augmented generation (RAG) enhances large language models (LLMs) by integrating external knowledge sources, enabling more useful information and generating accurate responses. This paper explores RAG's architecture and applications, combining generator and retriever models to access and utilize vast external data repositories. While RAG holds significant promise for various Natural Language Processing (NLP) processes like dialogue generation, summarization, and question answering, it also presents unique security challenges that must be addressed to ensure system integrity and reliability. RAG systems face several security threats, including data poisoning, model manipulation, privacy leakage, biased information retrieval, and harmful outputs generation. Generally, in the traditional RAG application, security threat is one of the major concerns. To tighten the security system and enhance the efficiency of the model on processing more complex data this paper outlines key strategies for securing RAG-based applications to mitigate these risks paper outlines key strategies for securing RAG-based applications to mitigate these risks. Ensuring data security through filtering, sanitization, and provenance tracking can prevent data poisoning and enhance the quality of external knowledge sources. Strengthening model security via adversarial training, input validation, and anomaly detection improves resilience against manipulative attacks. Implementing output monitoring and filtering techniques, such as factual verification, language moderation, and bias detection, ensures the accuracy and safety of generated responses. Additionally, robust infrastructure and access control measures, including secure data storage, secure APIs, and regulated model access, protect against unauthorized access and manipulation. Moreover, this study analyzes various use cases for LLMs enhanced by RAG, including personalized recommendations, customer support automation, content creation, and advanced search functionalities. The role of vector databases in optimizing RAG-driven generative AI is also discussed, highlighting their ability to efficiently manage and retrieve large-scale data for improved response generation. By adhering to these security measures and leveraging best practices from leading industry sources such as Databricks, AWS, and Milvus, developers can ensure the robustness and trustworthiness of RAG-based systems across diverse applications.

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Published
2024-10-15
DOI
https://doi.org/10.1109/icses63445.2024.10763024
Citations
6
Primary Topic
Speech Recognition and Synthesis
Type
article
Field-Weighted Citation Impact
2.08
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article

Enhancing Communication and Data Transmission Security in RAG Using Large Language Models

Pamula Udayaraju, S. Venkataramana, Venkata Gummadi, Chaitanya Ravulu et al.
6 citations
Speech Recognition and Synthesis
2.08
article

Enhancing Communication and Data Transmission Security in RAG Using Large Language Models

Pamula Udayaraju, S. Venkataramana, Venkata Gummadi, Chaitanya Ravulu, Dhanunjay Reddy Seelam, Venkata Rahul Sarabu
article en
6 citations

Abstract

Retrieval-augmented generation (RAG) enhances large language models (LLMs) by integrating external knowledge sources, enabling more useful information and generating accurate responses. This paper explores RAG's architecture and applications, combining generator and retriever models to access and utilize vast external data repositories. While RAG holds significant promise for various Natural Language Processing (NLP) processes like dialogue generation, summarization, and question answering, it also presents unique security challenges that must be addressed to ensure system integrity and reliability. RAG systems face several security threats, including data poisoning, model manipulation, privacy leakage, biased information retrieval, and harmful outputs generation. Generally, in the traditional RAG application, security threat is one of the major concerns. To tighten the security system and enhance the efficiency of the model on processing more complex data this paper outlines key strategies for securing RAG-based applications to mitigate these risks paper outlines key strategies for securing RAG-based applications to mitigate these risks. Ensuring data security through filtering, sanitization, and provenance tracking can prevent data poisoning and enhance the quality of external knowledge sources. Strengthening model security via adversarial training, input validation, and anomaly detection improves resilience against manipulative attacks. Implementing output monitoring and filtering techniques, such as factual verification, language moderation, and bias detection, ensures the accuracy and safety of generated responses. Additionally, robust infrastructure and access control measures, including secure data storage, secure APIs, and regulated model access, protect against unauthorized access and manipulation. Moreover, this study analyzes various use cases for LLMs enhanced by RAG, including personalized recommendations, customer support automation, content creation, and advanced search functionalities. The role of vector databases in optimizing RAG-driven generative AI is also discussed, highlighting their ability to efficiently manage and retrieve large-scale data for improved response generation. By adhering to these security measures and leveraging best practices from leading industry sources such as Databricks, AWS, and Milvus, developers can ensure the robustness and trustworthiness of RAG-based systems across diverse applications.

Walmart (United States) (US), Expedia Group (United States) (US), SRM University (IN), SRKR Engineering College
Openalex Percentile: Top 11%
Speech Recognition and Synthesis
2.08
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