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| name | openspg-guide |
| description | Ant Group knowledge graph engine with SPG and KAG framework |
| metadata | {"openclaw":{"emoji":"🕸️","category":"tools","subcategory":"knowledge-graph","keywords":["OpenSPG","knowledge graph","SPG","KAG","Ant Group","semantic reasoning"],"source":"https://github.com/OpenSPG/openspg"}} |
OpenSPG is Ant Group's open-source knowledge graph engine based on the Semantic-enhanced Programmable Graph (SPG) framework. It combines property graphs with semantic reasoning, enabling knowledge extraction, representation, reasoning, and question answering. The KAG (Knowledge Augmented Generation) module integrates with LLMs for RAG over knowledge graphs. Suited for building domain-specific knowledge bases for research.
# Docker deployment
git clone https://github.com/OpenSPG/openspg.git
cd openspg
docker-compose up -d
# Python SDK
pip install openspg
# Access KG Studio at http://localhost:8887
SPG Framework
├── Schema Layer (define types and relations)
│ ├── Entity types (Person, Paper, Concept)
│ ├── Properties (typed, constrained)
│ └── Relations (directed, typed edges)
├── Knowledge Layer (populate with data)
│ ├── Entity extraction (NER + linking)
│ ├── Relation extraction
│ └── Property filling
├── Reasoning Layer (infer new knowledge)
│ ├── Rule-based reasoning
│ ├── Statistical reasoning
│ └── LLM-augmented reasoning
└── Application Layer (query and use)
├── Graph queries (SPARQL-like)
├── Question answering
└── Knowledge-augmented generation
from openspg import Schema, EntityType, RelationType
# Define a research knowledge graph schema
schema = Schema("research_kg")
# Entity types
paper = EntityType("Paper", properties={
"title": "Text",
"abstract": "Text",
"year": "Integer",
"venue": "Text",
"doi": "Text",
"citation_count": "Integer",
})
author = EntityType("Author", properties={
"name": "Text",
"affiliation": "Text",
"h_index": "Integer",
})
concept = EntityType("Concept", properties={
"name": "Text",
"definition": "Text",
"domain": "Text",
})
# Relations
schema.add_relation(RelationType(
"authored_by", source=paper, target=author
))
schema.add_relation(RelationType(
"cites", source=paper, target=paper
))
schema.add_relation(RelationType(
"discusses", source=paper, target=concept
))
schema.add_relation(RelationType(
"related_to", source=concept, target=concept
))
schema.deploy()
from openspg import KnowledgeBuilder
builder = KnowledgeBuilder(schema="research_kg")
# Add entities
builder.add_entity("Paper", {
"title": "Attention Is All You Need",
"year": 2017,
"venue": "NeurIPS",
"doi": "10.48550/arXiv.1706.03762",
})
# Automatic extraction from text
builder.extract_from_text(
"Vaswani et al. proposed the Transformer architecture "
"which uses self-attention mechanisms to replace "
"recurrence. The model achieved state-of-the-art on "
"WMT 2014 English-to-German translation.",
entity_types=["Paper", "Author", "Concept"],
relation_types=["authored_by", "discusses"],
)
# Batch import from structured data
builder.import_csv(
"papers.csv",
entity_type="Paper",
column_mapping={"title": "title", "year": "year"},
)
builder.commit()
from openspg.kag import KAGPipeline
kag = KAGPipeline(
knowledge_graph="research_kg",
llm_provider="anthropic",
)
# Question answering over knowledge graph
answer = kag.ask(
"What are the key papers on attention mechanisms "
"and how are they related?"
)
print(answer.text)
for source in answer.sources:
print(f" [{source.type}] {source.name}: {source.evidence}")
# The KAG pipeline:
# 1. Parses question to identify relevant entities/relations
# 2. Queries knowledge graph for subgraph
# 3. Augments LLM context with structured knowledge
# 4. Generates grounded answer with provenance
from openspg import GraphQuery
gq = GraphQuery("research_kg")
# Find papers by concept
papers = gq.query("""
MATCH (p:Paper)-[:discusses]->(c:Concept)
WHERE c.name = 'self-attention'
RETURN p.title, p.year, p.citation_count
ORDER BY p.citation_count DESC
LIMIT 10
""")
# Find co-author network
coauthors = gq.query("""
MATCH (a1:Author)<-[:authored_by]-(p:Paper)
-[:authored_by]->(a2:Author)
WHERE a1.name = 'Ashish Vaswani'
RETURN DISTINCT a2.name, COUNT(p) as papers
ORDER BY papers DESC
""")
# Citation chain
chain = gq.query("""
MATCH path = (p1:Paper)-[:cites*1..3]->(p2:Paper)
WHERE p1.title CONTAINS 'GPT-4'
RETURN path
LIMIT 20
""")