llmgraph
Create knowledge graphs with LLMs
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llmgraph is a tool that enables users to create knowledge graphs in GraphML, GEXF, and HTML formats by extracting world knowledge from large language models (LLMs) like ChatGPT. It supports various entity types and relationships, offers cache support for efficient graph growth, and provides insights into LLM costs. Users can customize the model used and interact with different LLM providers. The tool allows users to generate interactive graphs based on a specified entity type and Wikipedia link, making it a valuable resource for knowledge graph creation and exploration.
README:
Create knowledge graphs with LLMs.
llmgraph enables you to create knowledge graphs in GraphML, GEXF, and HTML formats (generated via pyvis) from a given source entity Wikipedia page. The knowledge graphs are generated by extracting world knowledge from ChatGPT or other large language models (LLMs) as supported by LiteLLM.
For a background on knowledge graphs see a youtube overview by Computerphile
- Create knowledge graphs, given a source entity.
- Uses ChatGPT (or another specified LLM) to extract world knowledge.
- Generate knowledge graphs in HTML, GraphML, and GEXF formats.
- Many entity types and relationships supported by customised prompts.
- Cache support to iteratively grow a knowledge graph, efficiently.
- Outputs
total tokens
used to understand LLM costs (even though a default run is only about 1 cent). - Customisable model (default is OpenAI
gpt-4o-mini
for speed and cost).
You can install llmgraph using pip, ideally into a Python virtual environment:
pip install llmgraph
Alternatively, checkout an example notebook that uses llmgraph and you can run directly in Google Colab.
In addition to GraphML and GEXF formats, an HTML pyvis physics enabled graph can be viewed:
Generate above machine-learning graph:llmgraph machine-learning "https://en.wikipedia.org/wiki/Artificial_intelligence" --levels 4
View entire graph: machine-learning_artificial-intelligence_v1.0.0_level4_fully_connected.html
The example above was generated with the following command, which requires an entity_type
and a quoted entity_wikipedia
souce url:
llmgraph machine-learning "https://en.wikipedia.org/wiki/Artificial_intelligence" --levels 3
This example creates a 3 level graph, based on the given start node Artificial Intelligence
.
By default OpenAI is used and you will need to set an environment variable 'OPENAI_API_KEY
' prior to running. See the OpenAI docs for more info. The total tokens used
is output as the run progresses. For reference this 3 level example used a total of 7,650 gpt-4o-mini tokens, which is approx 1.5 cents as of Oct 2023.
You can also specify a different LLM provider, including running with a local ollama model. You should be able to specify anything supported by LiteLLM as described here: https://docs.litellm.ai/docs/providers. Note that the prompts to extract related entities were tested with OpenAI and may not work as well with other models.
Local ollama/llama2 model example:
llmgraph machine-learning "https://en.wikipedia.org/wiki/Artificial_intelligence" --levels 3 --llm-model ollama/llama2 --llm-base-url http://localhost:<your_port>
The entity_type
sets the LLM prompt used to find related entities to include in the graph. The full list can be seen in prompts.yaml and include the following entity types:
automobile
book
computer-game
concepts-general
concepts-science
creative-general
documentary
food
machine-learning
movie
music
people-historical
podcast
software-engineering
tv
-
entity_type
(TEXT): Entity type (e.g. movie) -
entity_wikipedia
(TEXT): Full Wikipedia link to the root entity
-
--entity-root
(TEXT): Optional root entity name override if different from the Wikipedia page title [default: None] -
--levels
(INTEGER): Number of levels deep to construct from the central root entity [default: 2] -
--max-sum-total-tokens
(INTEGER): Maximum sum of tokens for graph generation [default: 200000] -
--output-folder
(TEXT): Folder location to write outputs [default: ./_output/] -
--llm-model
(TEXT): The model name [default: gpt-4o-mini] -
--llm-temp
(FLOAT): LLM temperature value [default: 0.0] -
--llm-base-url
(TEXT): LLM will use custom base URL instead of the automatic one [default: None] -
--version
: Display llmgraph version and exit. -
--help
: Show this message and exit.
Here are some more examples of the HTML graph output for different entity types and root entities (with commands to generate and links to view full interactive graphs).
Install llmgraph to create your own knowledge graphs! Feel free to share interesting results in the issue section above with a documentation label :)
Command to generate above concepts-general graph:llmgraph concepts-general "https://en.wikipedia.org/wiki/Knowledge_graph" --levels 4
View entire graph: concepts-general_knowledge-graph_v1.0.0_level4_fully_connected.html
Command to generate above movie graph:llmgraph movie "https://en.wikipedia.org/wiki/Inception" --levels 4
View entire graph: movie_inception_v1.0.0_level4_fully_connected.html
Command to generate above company graph:llmgraph company "https://en.wikipedia.org/wiki/OpenAI" --levels 4
View entire graph: company_openai_v1.0.0_level4_fully_connected.html
Command to generate above people-historical graph:llmgraph people-historical "https://en.wikipedia.org/wiki/John_von_Neumann" --levels 4
View entire graph: people-historical_john-von-neumann_v1.0.0_level4_fully_connected.html
Here is an example of the prompt template, with place holders, used to generate related entities from a given source entity. This is applied recursively to create a knowledge graph, merging duplicated nodes as required.
You are knowledgeable about {knowledgeable_about}.
List, in json array format, the top {top_n} {entities} most like '{{entity_root}}'
with Wikipedia link, reasons for similarity, similarity on scale of 0 to 1.
Format your response in json array format as an array with column names: 'name', 'wikipedia_link', 'reason_for_similarity', and 'similarity'.
Example response: {{{{"name": "Example {entity}","wikipedia_link": "https://en.wikipedia.org/wiki/Example_{entity_underscored}","reason_for_similarity": "Reason for similarity","similarity": 0.5}}}}
It works well on the primary tested LLM, being OpenAI gpt-4o-mini. Results are ok, but not as good using Llama2. The prompt source of truth and additional details can be see in prompts.yaml.
Each entity type has custom placeholders, for example concepts-general
and documentary
:
concepts-general:
system: You are a highly knowledgeable ontologist and creator of knowledge graphs.
knowledgeable_about: many concepts and ontologies.
entities: concepts
entity: concept name
top_n: 5
documentary:
system: You are knowledgeable about documentaries of all types, and genres.
knowledgeable_about: documentaries of all types, and genres
entities: Documentaries
entity: Documentary
top_n: 5
Each call to the LLM API (and Wikipedia) is cached locally in a .joblib_cache
folder. This allows an interrupted run to be resumed without duplicating identical calls. It also allows a re-run with a higher --level
option to re-use results from the lower level run (assuming the same entity type and source).
- Contrast graph output from different LLM models (e.g. Llama2 vs Mistral vs ChatGPT-4)
- Investigate the hypothosis that this approach provides insight into how an LLM views the world.
- Include more examples in this documentation and make examples available for easy browsing.
- Instructions for running locally and adding a custom
entity_type
prompt. - Better pyviz html output, in particular including reasons for entity relationship in UI and arguments for pixel size etc.
- Parallelise API calls and result processing.
- Remove dependency on Wikipedia entities as a source.
- Contrast results from llmgraphg with other non-LLM graph construction e.g. using wikipedia page links, or direct article embeddings.
Contributions to llmgraph are welcome. Please follow these steps:
- Fork the repository.
- Create a new branch for your feature or bug fix.
- Make your changes and commit them.
- Create a pull request with a description of your changes.
Thanks to @breitburg for implementing the LiteLLM updates.
- https://arxiv.org/abs/2211.10511 - Knowledge Graph Generation From Text
- https://arxiv.org/abs/2310.04562 - Towards Foundation Models for Knowledge Graph Reasoning
- https://arxiv.org/abs/2206.14268 - BertNet: Harvesting Knowledge Graphs with Arbitrary Relations from Pretrained Language Models
- https://arxiv.org/abs/2312.02783 - Large Language Models on Graphs: A Comprehensive Survey
- https://github.com/aws/graph-notebook - Graph Notebook: easily query and visualize graphs
- https://github.com/KiddoZhu/NBFNet-PyG - PyG re-implementation of Neural Bellman-Ford Networks
- https://caminao.blog/knowledge-management-booklet/a-hitchhikers-guide-to-knowledge-galaxies/ - A Hitchhiker’s Guide to Knowledge Galaxies
- https://github.com/PeterGriffinJin/Awesome-Language-Model-on-Graphs - A curated list of papers and resources based on "Large Language Models on Graphs: A Comprehensive Survey".
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