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GLaM: Fine-Tuning Large Language Models for Domain Knowledge Graph Alignment via Neighborhood Partitioning and Generative Subgraph Encoding
GLaM: Fine-Tuning Large Language Models for Domain Knowledge Graph Alignment via Neighborhood Partitioning and Generative Subgraph Encoding
Integrating large language models (LLMs) with knowledge graphs derived from domain-specific data represents an important advancement towards more powerful and factual reasoning. As these models grow more capable, it is crucial to enable them to perform multi-step inferences over real-world knowledge graphs while minimizing hallucination. While large language models excel at conversation and text generation, their ability to reason over domain-specialized graphs of interconnected entities remains limited. For example, can we query a LLM to identify the optimal contact in a professional network for a specific goal, based on relationships and attributes in a private database? The answer is no--such capabilities lie beyond current methods. However, this question underscores a critical technical gap that must be addressed. Many high-value applications in areas such as science, security, and e-commerce rely on proprietary knowledge graphs encoding unique structures, relationships, and logical constraints. We introduce a fine-tuning framework for developing Graph-aligned LAnguage Models (GLaM) that transforms a knowledge graph into an alternate text representation with labeled question-answer pairs. We demonstrate that grounding the models in specific graph-based knowledge expands the models' capacity for structure-based reasoning. Our methodology leverages the large-language model's generative capabilities to create the dataset and proposes an efficient alternate to retrieval-augmented generation styled methods.
·arxiv.org·
GLaM: Fine-Tuning Large Language Models for Domain Knowledge Graph Alignment via Neighborhood Partitioning and Generative Subgraph Encoding
Knowledge Engineering using Large Language Models
Knowledge Engineering using Large Language Models
Knowledge engineering is a discipline that focuses on the creation and maintenance of processes that generate and apply knowledge. Traditionally, knowledge engineering approaches have focused on knowledge expressed in formal languages. The emergence of large language models and their capabilities to effectively work with natural language, in its broadest sense, raises questions about the foundations and practice of knowledge engineering. Here, we outline the potential role of LLMs in knowledge engineering, identifying two central directions: 1) creating hybrid neuro-symbolic knowledge systems; and 2) enabling knowledge engineering in natural language. Additionally, we formulate key open research questions to tackle these directions.
·arxiv.org·
Knowledge Engineering using Large Language Models
Knowledge Graphs Achieve Superior Reasoning versus Vector Search alone for Retrieval Augmentation
Knowledge Graphs Achieve Superior Reasoning versus Vector Search alone for Retrieval Augmentation
Knowledge Graphs Achieve Superior Reasoning versus Vector Search alone for Retrieval Augmentation 🔗 As artificial intelligence permeates business… | 29 comments on LinkedIn
Knowledge Graphs Achieve Superior Reasoning versus Vector Search alone for Retrieval Augmentation
·linkedin.com·
Knowledge Graphs Achieve Superior Reasoning versus Vector Search alone for Retrieval Augmentation
Knowledge Engineering Using Large Language Models
Knowledge Engineering Using Large Language Models
Knowledge engineering is a discipline that focuses on the creation and maintenance of processes that generate and apply knowledge. Traditionally, knowledge engineering approaches have focused on knowledge expressed in formal languages. The emergence of large language models and their capabilities to effectively work with natural language, in its broadest sense, raises questions about the foundations and practice of knowledge engineering. Here, we outline the potential role of LLMs in knowledge engineering, identifying two central directions: 1) creating hybrid neuro-symbolic knowledge systems; and 2) enabling knowledge engineering in natural language. Additionally, we formulate key open research questions to tackle these directions.
·drops.dagstuhl.de·
Knowledge Engineering Using Large Language Models
Common sense knowledge graphs are slightly different from conventional knowledge graphs, but they share the most important thing: they both capture explicit symbolic knowledge
Common sense knowledge graphs are slightly different from conventional knowledge graphs, but they share the most important thing: they both capture explicit symbolic knowledge
I really enjoyed the latest #UnconfuseMe with Bill Gates and Yejin Choi.  Yejin's research is on symbolic knowledge distillation, which means they take large…
Common sense knowledge graphs are slightly different from conventional knowledge graphs, but they share the most important thing: they both capture explicit symbolic knowledge
·linkedin.com·
Common sense knowledge graphs are slightly different from conventional knowledge graphs, but they share the most important thing: they both capture explicit symbolic knowledge
Reasoning on Graphs: Faithful and Interpretable Large Language Model Reasoning
Reasoning on Graphs: Faithful and Interpretable Large Language Model Reasoning
Large language models (LLMs) have demonstrated impressive reasoning abilities in complex tasks. However, they lack up-to-date knowledge and experience hallucinations during reasoning, which can lead to incorrect reasoning processes and diminish their performance and trustworthiness. Knowledge graphs (KGs), which capture vast amounts of facts in a structured format, offer a reliable source of knowledge for reasoning. Nevertheless, existing KG-based LLM reasoning methods only treat KGs as factual knowledge bases and overlook the importance of their structural information for reasoning. In this paper, we propose a novel method called reasoning on graphs (RoG) that synergizes LLMs with KGs to enable faithful and interpretable reasoning. Specifically, we present a planning-retrieval-reasoning framework, where RoG first generates relation paths grounded by KGs as faithful plans. These plans are then used to retrieve valid reasoning paths from the KGs for LLMs to conduct faithful reasoning. Furthermore, RoG not only distills knowledge from KGs to improve the reasoning ability of LLMs through training but also allows seamless integration with any arbitrary LLMs during inference. Extensive experiments on two benchmark KGQA datasets demonstrate that RoG achieves state-of-the-art performance on KG reasoning tasks and generates faithful and interpretable reasoning results.
·arxiv.org·
Reasoning on Graphs: Faithful and Interpretable Large Language Model Reasoning
Working on a LangChain template that adds a custom graph conversational memory to the Neo4j Cypher chain
Working on a LangChain template that adds a custom graph conversational memory to the Neo4j Cypher chain
Working on a LangChain template that adds a custom graph conversational memory to the Neo4j Cypher chain, which uses LLMs to generate Cypher statements. This…
Working on a LangChain template that adds a custom graph conversational memory to the Neo4j Cypher chain
·linkedin.com·
Working on a LangChain template that adds a custom graph conversational memory to the Neo4j Cypher chain
Constructing knowledge graphs from text using OpenAI functions: Leveraging knowledge graphs to power LangChain Applications
Constructing knowledge graphs from text using OpenAI functions: Leveraging knowledge graphs to power LangChain Applications
Editor's Note: This post was written by Tomaz Bratanic from the Neo4j team. Extracting structured information from unstructured data like text has been around for some time and is nothing new. However, LLMs brought a significant shift to the field of information extraction. If before you needed a team of
·blog.langchain.dev·
Constructing knowledge graphs from text using OpenAI functions: Leveraging knowledge graphs to power LangChain Applications
Introducing "Reasoning on Graphs (RoG)" - Unlocking Next-Level Reasoning for Large Language Models
Introducing "Reasoning on Graphs (RoG)" - Unlocking Next-Level Reasoning for Large Language Models
🚀 Exciting News: Introducing "Reasoning on Graphs (RoG)" - Unlocking Next-Level Reasoning for Large Language Models! 📊🧠 We are thrilled to unveil our… | 42 comments on LinkedIn
Introducing "Reasoning on Graphs (RoG)" - Unlocking Next-Level Reasoning for Large Language Models
·linkedin.com·
Introducing "Reasoning on Graphs (RoG)" - Unlocking Next-Level Reasoning for Large Language Models