Join us for a talk on "Why LLMs need Knowledge Graphs?" at Muffakham Jah College of engineering and technology on 8th Jan.
Join us for a talk on "Why LLMs need Knowledge Graphs?" at Muffakham Jah College of engineering and technology on 8th Jan.

LLMs Fall Short in Structured Data Analysis: Large Language Models (LLMs) are the pre-trained, general purpose foundational models. LLMs, a form of Generative AI come with the risks of  hallucinations, biases, incorrect responses while lacking explainability of the results they produce. Further, without being fine-tuned to specific domains LLMs remain inadequate to service applications targeting specific domains.  All these reasons have confirmed to the enthusiasts and early adopters that LLMs alone are not enough for structured and consistent data analysis in the enterprise.

Integrating Retrieval and Generative AI for Enhanced Search: A newer technique Retrieval-augmented generation (RAG) solves the two critical problems of ‘subject specificity’ and ‘hallucinations’ (to a practical and useful extent) and boosts the overall performance of LLM searches. RAG approach forces an LLM to only use the supplied ‘subject specific knowledge base’ such as a specific document corpus when generating answers.  With RAG, LLM is not generating its answers by just using what the LLM is trained on during pre-training.  The RAG approach uses a smaller knowledge base that is of a (likely) single subject area compared to the immense pretraining data pertaining to every subject area known to humans as in the case of LLMs, which leads to addressing the two critical problems mentioned before.  It is well known now that RAG improves the quality of the generated responses by the LLM in the enterprise.

Optimizing Search and Analysis with RAG Architecture: The relative ease of implementing a RAG solution for document and content analysis lies in its architecture. The client data is preprocessed through an embedding model that converts data into a series of vectors and indexed in a vector database.  During the search time, the natural language query string is vectorized by the same embedding model and the resulting query vector is used to lookup matching vectors from the client data vector database.  These answer vectors point to corresponding blocks of text in documents of the source corpus.  The blocks of text are collated to form the new context for the LLM to get an answer for the original user query.  The response to the query in the form of summary answers are human-like and come with citations of the underlying documents and blocks of text that contribute to the answers.

 

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