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27 changed files with 900 additions and 1669 deletions
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@@ -28,13 +28,7 @@
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```bash
pip install semantica
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/* ============================================================
SEMANTICA DOCS — DESIGN SYSTEM
SEMANTICA DOCS — PREMIUM DESIGN SYSTEM
Dark-first (#080C10 bg, #10B981 emerald accent)
Minimal, static styling — no decorative motion.
============================================================ */
/* ── Keyframes ─────────────────────────────────────────────── */
@keyframes pageFadeIn {
from { opacity: 0; transform: translateY(6px); }
to { opacity: 1; transform: translateY(0); }
}
/* ── Global ─────────────────────────────────────────────────── */
html {
scroll-behavior: smooth;
@@ -24,7 +29,16 @@ html {
}
::-webkit-scrollbar-thumb:hover { background: rgba(16, 185, 129, 0.4); }
/* ── Focus rings (accessibility — kept) ─────────────────────── */
/* ── Page entrance ──────────────────────────────────────────── */
main,
article,
[class*="content-area"],
[class*="ContentArea"],
[class*="prose"] {
animation: pageFadeIn 0.35s ease both;
}
/* ── Focus rings ─────────────────────────────────────────────── */
*:focus-visible {
outline: 2px solid rgba(16, 185, 129, 0.55) !important;
outline-offset: 3px !important;
@@ -45,7 +59,7 @@ h1::after {
left: 0;
width: 44px;
height: 2px;
background: #10B981;
background: linear-gradient(90deg, #10B981 0%, transparent 100%);
border-radius: 1px;
}
@@ -57,6 +71,9 @@ article a,
[class*="prose"] a {
text-decoration-color: rgba(16, 185, 129, 0.35);
text-underline-offset: 3px;
transition:
text-decoration-color 0.15s ease,
color 0.15s ease;
}
article a:hover,
@@ -72,6 +89,14 @@ blockquote {
padding: 0.9rem 1.2rem !important;
font-style: italic;
color: rgba(255, 255, 255, 0.68) !important;
transition:
border-color 0.2s ease,
background-color 0.2s ease !important;
}
blockquote:hover {
border-left-color: rgba(16, 185, 129, 0.65) !important;
background: rgba(16, 185, 129, 0.07) !important;
}
/* ── HR / Divider ────────────────────────────────────────────── */
@@ -98,11 +123,165 @@ table thead th {
border-bottom: 1px solid rgba(16, 185, 129, 0.18) !important;
}
table tbody tr {
transition: background-color 0.15s ease;
cursor: default;
}
table tbody tr:hover {
background-color: rgba(16, 185, 129, 0.06) !important;
}
table tbody tr:hover td {
background-color: transparent !important;
}
table td,
table th {
transition: background-color 0.15s ease;
}
/* ── CODE BLOCKS ─────────────────────────────────────────────── */
pre,
[class*="codeblock"],
[class*="code-group"],
[class*="CodeBlock"],
[data-rehype-pretty-code-fragment] {
transition:
box-shadow 0.25s cubic-bezier(0.4, 0, 0.2, 1),
border-color 0.25s cubic-bezier(0.4, 0, 0.2, 1),
transform 0.25s cubic-bezier(0.4, 0, 0.2, 1) !important;
}
pre:hover,
[class*="codeblock"]:hover,
[class*="CodeBlock"]:hover,
[data-rehype-pretty-code-fragment]:hover {
transform: translateY(-1px) !important;
box-shadow:
0 0 0 1px rgba(16, 185, 129, 0.18),
0 2px 12px rgba(16, 185, 129, 0.06),
0 8px 32px rgba(0, 0, 0, 0.2) !important;
border-color: rgba(16, 185, 129, 0.2) !important;
}
/* ── CARDS ───────────────────────────────────────────────────── */
[class*="card"],
[class*="Card"],
[data-card],
.group\/card {
transition:
transform 0.22s ease,
box-shadow 0.22s ease,
border-color 0.22s ease !important;
}
[class*="card"]:hover,
[class*="Card"]:hover,
[data-card]:hover,
.group\/card:hover {
transform: translateY(-3px) !important;
box-shadow:
0 8px 28px rgba(0, 0, 0, 0.18),
0 0 0 1px rgba(16, 185, 129, 0.22) !important;
border-color: rgba(16, 185, 129, 0.28) !important;
}
/* ── CALLOUTS / ADMONITIONS ──────────────────────────────────── */
[class*="callout"],
[class*="Callout"],
[class*="admonition"] {
transition:
box-shadow 0.2s ease,
border-color 0.2s ease !important;
}
[class*="callout"]:hover,
[class*="Callout"]:hover,
[class*="admonition"]:hover {
box-shadow: 0 2px 16px rgba(16, 185, 129, 0.08) !important;
border-color: rgba(16, 185, 129, 0.35) !important;
}
/* ── STEPS ───────────────────────────────────────────────────── */
[class*="step"],
[class*="Step"] {
transition: background-color 0.15s ease !important;
}
[class*="step"]:hover,
[class*="Step"]:hover {
background-color: rgba(16, 185, 129, 0.04) !important;
}
/* ── INLINE CODE ─────────────────────────────────────────────── */
:not(pre) > code {
transition:
background-color 0.15s ease,
color 0.15s ease !important;
cursor: text;
}
:not(pre) > code:hover {
background-color: rgba(16, 185, 129, 0.16) !important;
}
/* ── NAVIGATION / SIDEBAR ────────────────────────────────────── */
nav a,
[class*="sidebar"] a,
[class*="Sidebar"] a {
transition: color 0.15s ease !important;
text-decoration: none;
position: relative;
}
nav a::after,
[class*="sidebar"] a::after,
[class*="Sidebar"] a::after {
content: "";
position: absolute;
bottom: -1px;
left: 0;
width: 0;
height: 1px;
background: #10B981;
transition: width 0.2s ease;
}
nav a:hover::after,
[class*="sidebar"] a:hover::after,
[class*="Sidebar"] a:hover::after {
width: 100%;
}
/* ── TEXT / LIST ITEMS ───────────────────────────────────────── */
ul > li,
ol > li {
border-radius: 3px;
transition: background-color 0.12s ease;
}
ul > li:hover,
ol > li:hover {
background-color: rgba(16, 185, 129, 0.04);
}
/* ── PRIMARY BUTTON / CTA ────────────────────────────────────── */
button[class*="primary"],
a[class*="primary"],
[class*="btn-primary"],
[class*="ButtonPrimary"] {
transition:
box-shadow 0.2s ease,
transform 0.2s ease !important;
}
button[class*="primary"]:hover,
a[class*="primary"]:hover,
[class*="btn-primary"]:hover,
[class*="ButtonPrimary"]:hover {
box-shadow: 0 0 22px rgba(16, 185, 129, 0.28) !important;
transform: translateY(-1px) !important;
}
/* ── HIDE THEME TOGGLE ───────────────────────────────────────── */
+90 -121
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@@ -8,16 +8,16 @@ icon: "book-open"
New here? Start with [Getting Started](/getting-started) for hands-on examples, then return here for deeper understanding.
</Info>
Semantica transforms unstructured data (documents, web pages, reports, databases) into **knowledge graphs**: structured representations that AI systems can query, reason about, and trace back to sources.
Semantica transforms unstructured data: documents, web pages, reports, databases: into **knowledge graphs**: structured representations that AI systems can query, reason about, and trace back to sources.
At its core, Semantica adds a context and semantic layer on top of your existing AI stack. It doesn't replace LangChain, LlamaIndex, or your LLM provider. It makes their outputs grounded, traceable, and auditable.
At its core, Semantica adds a **context and accountability layer** on top of your existing AI stack. It doesn't replace LangChain, LlamaIndex, or your LLM provider: it makes their outputs **grounded**, **traceable**, and **auditable**.
- **Context Layer.** Knowledge graphs, GraphRAG retrieval, semantic embeddings, and temporal intelligence ground every LLM response in structured, queryable facts.
- **Accountability Layer.** Provenance tracking, decision intelligence, conflict detection, and W3C PROV-O compliance make every claim in your AI stack auditable and explainable.
- **Extension Layer.** `PluginRegistry` and `MethodRegistry` let you replace or augment any component (ingestors, extractors, reasoning engines, backends) without changing framework code.
- **Context Layer** Knowledge graphs, GraphRAG retrieval, semantic embeddings, and temporal intelligence ground every LLM response in structured, queryable facts.
- **Accountability Layer** Provenance tracking, decision intelligence, conflict detection, and W3C PROV-O compliance make every claim in your AI stack auditable and explainable.
- **Extension Layer** `PluginRegistry` and `MethodRegistry` let you replace or augment any component: ingestors, extractors, reasoning engines, backends: without changing framework code.
<Warning>
**This is system-level explainability, not foundation-model explainability.** Semantica does not expose, reconstruct, or explain what happens *inside* the LLM/foundation model. Its internal reasoning or chain-of-thought stays opaque, as it does for any external system. What Semantica explains is *outside* the model: the context and data fed in, the decision produced, its provenance, the relevant relationships, the policies applied, and the full execution trail. In short, Semantica explains and audits *what the AI system did*, not the foundation model's private internal reasoning.
**This is system-level explainability, not foundation-model explainability.** Semantica does not expose, reconstruct, or explain what happens *inside* the LLM/foundation model — its internal reasoning or chain-of-thought stays opaque, as it does for any external system. What Semantica explains is *outside* the model: the context and data fed in, the decision produced, its provenance, the relevant relationships, the policies applied, and the full execution trail. In short, Semantica explains and audits *what the AI system did*, not the foundation model's private internal reasoning.
</Warning>
## Knowledge Graphs
@@ -30,7 +30,7 @@ The foundation of everything in Semantica. A knowledge graph stores information
- **Edges (relationships)**: `works_for`, `located_in`, `founded_by`
- **Properties**: name, date, confidence score, source URL
This structure makes knowledge searchable, connectable, and queryable. Critically, it's explainable: every answer can be traced back to the facts and relationships that produced it.
This structure makes knowledge **searchable**, **connectable**, **queryable**, and: critically: **explainable**: every answer can be traced back to the facts and relationships that produced it.
## Entity Extraction (NER)
@@ -38,19 +38,18 @@ This structure makes knowledge searchable, connectable, and queryable. Criticall
Scanning text to find and classify real-world entities:
```python
# "Apple Inc. was founded by Steve Jobs in 1976 in Cupertino."
[
Entity(text="Apple Inc.", label="ORG", start_char=0, end_char=10, confidence=0.98),
Entity(text="Steve Jobs", label="PERSON", start_char=25, end_char=35, confidence=0.99),
Entity(text="1976", label="DATE", start_char=39, end_char=43, confidence=0.95),
Entity(text="Cupertino", label="GPE", start_char=47, end_char=56, confidence=0.97),
]
# Input: "Apple Inc. was founded by Steve Jobs in 1976 in Cupertino."
{
"entities": [
{"text": "Apple Inc.", "type": "ORGANIZATION", "confidence": 0.98},
{"text": "Steve Jobs", "type": "PERSON", "confidence": 0.99},
{"text": "1976", "type": "DATE", "confidence": 0.95},
{"text": "Cupertino", "type": "LOCATION", "confidence": 0.97}
]
}
```
`NERExtractor(method=...).extract(text)` returns a list of `Entity` objects, each
with a `label`, character offsets (`start_char` / `end_char`), a `confidence`
score, and a `metadata` dict recording the extraction method. Three methods are
available:
Each entity gets a type, confidence score, and a link to its source document. Three extraction methods are available:
| Method | Speed | Accuracy | Requirements |
| :------ | :----- | :-------- | :------------ |
@@ -63,19 +62,15 @@ available:
Finding how entities connect to each other:
```python
jobs = Entity(text="Steve Jobs", label="PERSON", start_char=25, end_char=35)
apple = Entity(text="Apple Inc.", label="ORG", start_char=0, end_char=10)
[
Relation(subject=jobs, predicate="founded", object=apple, confidence=0.92),
Relation(subject=apple, predicate="located_in", object=Entity(text="Cupertino", label="GPE", start_char=47, end_char=56), confidence=0.89),
]
{
"relationships": [
{"subject": "Steve Jobs", "predicate": "founded", "object": "Apple Inc.", "confidence": 0.92},
{"subject": "Apple Inc.", "predicate": "located_in", "object": "Cupertino", "confidence": 0.89}
]
}
```
`RelationExtractor(method=...).extract(text, entities=entities)` returns a list of
`Relation` objects: typed subject-predicate-object triples (the endpoints are
`Entity` objects) with confidence scores and source attribution. Extraction runs
via pattern rules, ML models, or LLMs.
Relationships can be extracted via rule-based methods, ML models, or LLMs: each producing typed triplets with confidence scores and source attribution.
## Knowledge Graph vs. Vector Store
@@ -99,10 +94,9 @@ Both store information for AI retrieval: but they're built for different jobs.
```python
from semantica.kg import GraphBuilder, PathFinder
graph = GraphBuilder(merge_entities=True).build(
{"entities": entities, "relationships": rels}
)
path = PathFinder().dijkstra_shortest_path(graph, "Steve Jobs", "Tim Cook")
graph = GraphBuilder(merge_entities=True).build(entities=entities, relationships=rels)
finder = PathFinder()
path = finder.dijkstra_shortest_path(graph, "Steve Jobs", "Tim Cook")
```
</Tab>
@@ -146,16 +140,8 @@ Both store information for AI retrieval: but they're built for different jobs.
context = AgentContext(
vector_store=VectorStore(backend="faiss", dimension=768),
knowledge_graph=ContextGraph(advanced_analytics=True),
graph_expansion=True,
)
# store() extracts entities and populates the graph + vector index
context.store([{"content": "Steve Jobs co-founded Apple Inc. in 1976."}])
# retrieve() blends vector similarity with graph traversal
results = context.retrieve("Who founded Apple?", use_graph=True, expand_graph=True)
for r in results:
print(r["score"], r["content"], r["source"])
result = context.query("Who founded Apple?", mode="graphrag")
```
</Tab>
</Tabs>
@@ -235,80 +221,70 @@ Inferred: Steve Jobs has a connection to Cupertino
Applies IF/THEN rules repeatedly until no new facts can be derived. Best for alert systems, compliance checks, and trigger-based workflows.
```python
from semantica.reasoning import Reasoner
from semantica.reasoning import Reasoner, Rule, Fact, RuleType
engine = Reasoner()
engine.add_fact("Manager(Alice)")
engine.add_rule("IF Manager(?x) THEN HasAuthority(?x)")
results = engine.forward_chain() # list of InferenceResult
for r in results:
print(r.conclusion) # "HasAuthority(Alice)"
engine.add_fact(Fact(subject="Alice", predicate="is_a", obj="Manager"))
engine.add_rule(Rule(
rule_type=RuleType.FORWARD_CHAIN,
conditions=[{"subject": "?x", "predicate": "is_a", "object": "Manager"}],
conclusion={"subject": "?x", "predicate": "has_authority", "object": "true"}
))
result = engine.infer()
```
</Tab>
<Tab title="Rete Network">
Efficient pattern matching for large rule sets: the Rete algorithm avoids re-evaluating rules whose preconditions haven't changed. Best for thousands of rules over millions of facts.
```python
from semantica.reasoning import ReteEngine, Rule, Fact
from semantica.reasoning import ReteEngine
engine = ReteEngine()
engine.build_network([
Rule(rule_id="r1", name="manager_authority",
conditions=["Manager(?x)"], conclusion="HasAuthority(?x)"),
])
engine.add_fact(Fact(fact_id="f1", predicate="Manager", arguments=["Alice"]))
matches = engine.match_patterns()
results = engine.execute_matches(matches) # ["HasAuthority(?x)"]
engine.load_rules("rules/domain_rules.json")
results = engine.run(kg)
```
</Tab>
<Tab title="LLM Reasoning">
`GraphReasoner` answers open-ended questions over a knowledge graph with an
LLM, returning a natural-language answer grounded in the graph's facts. Best
for exploratory and investigative questions that fixed rules can't anticipate.
<Tab title="Deductive & Abductive">
**Deductive**: classical syllogistic reasoning from premises to guaranteed conclusions.
**Abductive**: infers the most likely explanation for observed evidence. Best for diagnostic and investigative use cases.
```python
from semantica.reasoning import GraphReasoner
reasoner = GraphReasoner(provider="openai", model="gpt-4o-mini")
answer = reasoner.reason(kg, "Which suppliers are indirectly exposed to the Acme outage?")
graph_reasoner = GraphReasoner(kg)
graph_reasoner.add_rule({"if": [{"subject": "?a", "predicate": "parent_of", "object": "?b"}], "then": {"subject": "?a", "predicate": "ancestor_of", "object": "?b"}})
inferences = graph_reasoner.infer(kg)
```
</Tab>
<Tab title="Datalog (v0.4.0)">
Recursive Horn clause rules with fixpoint semantics: handles transitive closure and recursive relationships that forward chaining cannot express.
```python
from semantica.reasoning import DatalogReasoner
from semantica.reasoning import DatalogReasoner, DatalogFact, DatalogRule
reasoner = DatalogReasoner()
reasoner.add_fact("parent(alice, bob)")
reasoner.add_fact("parent(bob, charlie)")
reasoner.add_rule("ancestor(X, Y) :- parent(X, Y).")
reasoner.add_rule("ancestor(X, Z) :- parent(X, Y), ancestor(Y, Z).")
reasoner.derive_all()
results = reasoner.query("ancestor(alice, ?Z)") # {"Z": "bob"} and {"Z": "charlie"}, order not guaranteed
reasoner.add_fact(DatalogFact("parent", ("alice", "bob")))
reasoner.add_rule(DatalogRule("ancestor(?X, ?Y) :- parent(?X, ?Y)."))
reasoner.evaluate()
results = reasoner.query("ancestor(alice, ?Z)")
```
</Tab>
<Tab title="Engine Comparison">
| Engine | Class | Best For |
| :------ | :----- | :-------- |
| Forward chaining | `Reasoner` | Alert systems, compliance checks |
| Rete network | `ReteEngine` | Large rule sets, high fact throughput |
| SPARQL expansion | `SPARQLReasoner` | Semantic web, ontology reasoning over RDF |
| Datalog (v0.4.0) | `DatalogReasoner` | Transitive closure, graph reachability |
| Temporal | `TemporalReasoningEngine` | Allen interval algebra, time-aware inference |
| LLM over the graph | `GraphReasoner` | Open-ended, investigative questions |
| Engine | Description | Best For |
| :------ | :----------- | :-------- |
| Forward chaining | Applies rules until fixpoint | Alert systems, compliance checks |
| Rete network | Efficient pattern matching | Large rule sets, high fact throughput |
| Deductive | Classical syllogistic reasoning | Mathematical and logical inference |
| Abductive | Most likely explanation | Diagnostics, investigation |
| SPARQL | Query-based inference over RDF | Semantic web, ontology reasoning |
| Datalog (v0.4.0) | Recursive Horn clause rules | Transitive closure, graph reachability |
</Tab>
</Tabs>
`Reasoner.forward_chain()` returns `InferenceResult` objects that carry the rule
applied (`rule_used`) and the premises it fired on, and `ExplanationGenerator`
turns one into a step-by-step natural-language justification: reasoning here is
**not** a black box.
All engines produce **explainable inference paths**: not black-box conclusions. Every derived fact includes the rules and premises that produced it.
## Temporal Intelligence
@@ -337,16 +313,11 @@ Explore the semantic neighborhood of any entity in your graph: useful for unders
```python
from semantica.kg import SimilarityCalculator
calc = SimilarityCalculator(method="cosine") # "cosine" | "euclidean" | "manhattan" | "correlation"
# Similarity for every unique pair of node embeddings: {(node_a, node_b): score}
pairs = calc.pairwise_similarity({"apple": vec_apple, "google": vec_google, "nest": vec_nest})
# Or rank a set of embeddings by closeness to one query vector
nearest = calc.find_most_similar(embeddings, query_embedding, top_k=10)
calc = SimilarityCalculator()
scores = calc.calculate_similarity(entity_a, entity_b)
```
**Features:** N×N semantic distance matrices, ego-mode visualization, distance band classification (`direct` / `near` / `mid-range` / `distant`), embedding cache optimization for large graphs.
**Features:** N×N semantic distance matrices, ego-mode visualization, distance band classification (`near` / `mid` / `far`), embedding cache optimization for large graphs.
The [Visualization module](/reference/visualization) renders distance matrices as interactive heatmaps and ego-mode neighborhood graphs. The [Explorer](/reference/explorer) embeds distance intelligence directly in the browser dashboard.
@@ -370,11 +341,11 @@ Real-world data contains the same entity under many names: "Apple", "Apple Inc."
```python
from semantica.deduplication import DuplicateDetector, EntityMerger
detector = DuplicateDetector(similarity_threshold=0.85)
candidates = detector.detect_duplicates(entities)
detector = DuplicateDetector(similarity_threshold=0.85)
duplicates = detector.detect_duplicates(entities)
merger = EntityMerger()
operations = merger.merge_duplicates(entities, strategy="keep_most_complete")
merger = EntityMerger()
deduplicated_entities = merger.merge_duplicates(entities)
```
</Tab>
</Tabs>
@@ -390,21 +361,19 @@ Every fact in Semantica links back to:
- The **reasoning steps** that produced any inferred fact
<Note>
This is W3C PROV-O compliant lineage: suitable for regulated industries that require audit trails (HIPAA, SOX, GDPR, FDA 21 CFR Part 11). `ProvenanceManager.export_prov(format="turtle")` serialises the recorded lineage as PROV-O RDF.
This is W3C PROV-O compliant lineage: suitable for regulated industries that require audit trails (HIPAA, SOX, GDPR, FDA 21 CFR Part 11). Use `RDFExporter(include_provenance=True)` to embed provenance inline in any RDF export.
</Note>
```python
from semantica.provenance import ProvenanceManager
prov = ProvenanceManager()
prov.track_entity("apple_inc", source="report.pdf",
metadata={"extractor": "NamedEntityRecognizer", "confidence": 0.98})
prov = ProvenanceManager()
lineage = prov.get_entity_lineage("apple_inc")
record = prov.get_provenance("apple_inc") # dict; use get_lineage() for the full chain
print(record["source_document"])
print(record["timestamp"])
print(record["checksum"])
print(record["metadata"]) # extractor, confidence, and any custom keys
print(f"Source: {lineage.source_document}")
print(f"Method: {lineage.extraction_method}")
print(f"Extracted: {lineage.timestamp}")
print(f"Checksum: {lineage.checksum}")
```
@@ -487,32 +456,32 @@ Semantica is designed for extension. Any component: ingestor, extractor, graph b
**Extension points available:** ingestors, parsers, normalizers, extractors, reasoning engines, export formats, vector store backends, graph store backends, visualization renderers.
</Accordion>
<Accordion title="MethodRegistry: swap a built-in graph operation for your own">
<Accordion title="MethodRegistry: add domain-specific graph operations">
`method_registry` lets you register an alternative implementation for a
knowledge-graph task (`build`, `analyze`, `centrality`, `resolve`, …) under a
name, then select it wherever that task runs.
`MethodRegistry` lets you register custom methods on knowledge graph objects by name: useful for adding domain-specific graph operations without subclassing.
```python
from semantica.kg import method_registry
from semantica.kg.methods import calculate_centrality
from semantica.kg import MethodRegistry
def fast_centrality(graph, **kwargs):
"""Custom centrality implementation."""
registry = MethodRegistry()
def find_supply_chain_hops(graph, source_node, max_hops=3):
"""Custom BFS traversal for supply chain graphs."""
...
# register(task, name, func)
method_registry.register("centrality", "fast_centrality", fast_centrality)
# Register under a string key
registry.register("supply_chain_hops", find_supply_chain_hops)
# The task wrappers consult method_registry, so the name is now selectable:
scores = calculate_centrality(kg, method="fast_centrality")
# Call by name on any graph object
result = registry.call("supply_chain_hops", kg, source_node="Supplier_A", max_hops=5)
print(method_registry.list_all("centrality")) # {"centrality": ["fast_centrality", ...]}
# List all registered methods
print(registry.list_methods()) # ["supply_chain_hops", ...]
```
</Accordion>
</AccordionGroup>
- [Quickstart Tutorial](/quickstart): build a full pipeline with code.
- [Modules Guide](/modules): every module explained with examples.
- [API Reference](/reference/context): complete technical reference.
- [Quickstart Tutorial](/quickstart) — Build a full pipeline with code.
- [Modules Guide](/modules) — Every module explained with examples.
- [API Reference](/reference/context) — Complete technical reference.
+29 -30
View File
@@ -2,7 +2,7 @@
"$schema": "https://mintlify.com/docs.json",
"theme": "mint",
"name": "Semantica",
"description": "The Context and Semantic Layer for AI in High-Stakes Domains — Context Graphs · Decision Intelligence · Full Provenance",
"description": "The Accountability and Context Layer for AI — Context Graphs · Decision Intelligence · Full Provenance",
"colors": {
"primary": "#10B981",
"light": "#10B981",
@@ -43,7 +43,7 @@
"raiseIssue": true
},
"metadata": {
"og:title": "Semantica — Context & Semantic Layer for AI in High-Stakes Domains",
"og:title": "Semantica — Accountability & Context Layer for AI",
"og:description": "Build explainable, auditable knowledge graphs with full provenance. Open source. MIT licensed.",
"og:image": "/assets/img/semantica-logo.png",
"twitter:card": "summary_large_image",
@@ -121,23 +121,6 @@
"pages": [
"vector_stores/pgvector"
]
},
{
"group": "FAQ",
"pages": [
"faq"
]
},
{
"group": "Community",
"pages": [
"community",
"community-projects",
"contributing-guide",
"governance",
"citation",
"project-license"
]
}
]
},
@@ -184,17 +167,7 @@
"guides/policy-engine",
"guides/visualization",
"guides/distance-intelligence",
"guides/graph-analytics"
]
}
]
},
{
"tab": "API Reference",
"groups": [
{
"group": "Context & Intelligence",
"pages": [
"guides/graph-analytics",
"reference/context",
"reference/kg",
"reference/temporal",
@@ -263,6 +236,32 @@
]
}
]
},
{
"tab": "FAQ",
"groups": [
{
"group": "FAQ",
"pages": [
"faq"
]
},
{
"group": "Community",
"pages": [
"community",
"community-projects",
"contributing-guide",
"governance",
"citation",
"project-license"
]
}
]
},
{
"tab": "Changelog",
"href": "https://github.com/semantica-agi/semantica/releases"
}
]
},
+15 -23
View File
@@ -84,13 +84,13 @@ icon: "rocket"
# 1. Ingest
sources = FileIngestor().ingest("data/report.pdf")
# 2. Parse (extract_text returns a plain string for any supported format)
text = DocumentParser().extract_text(sources[0].path)
# 2. Parse
parsed = DocumentParser().parse(sources[0])
# 3. Extract (extractors take text, return Entity / Relation objects)
# 3. Extract
ner = NERExtractor(method="pattern") # no API key needed
entities = ner.extract(text)
relationships = RelationExtractor(method="pattern").extract(text, entities=entities)
entities = ner.extract(parsed)
relationships = RelationExtractor().extract(parsed, entities=entities)
# 4. Build
graph = GraphBuilder(merge_entities=True).build(
@@ -144,30 +144,22 @@ icon: "rocket"
context = AgentContext(
vector_store=VectorStore(backend="faiss", dimension=768),
knowledge_graph=ContextGraph(advanced_analytics=True),
graph_expansion=True, # blend graph traversal into retrieval
max_expansion_hops=3, # how far to walk from the seed nodes
)
# store() runs extraction and populates both the vector index and the graph
context.store([
{"content": "Steve Wozniak co-founded Apple with Steve Jobs in 1976."},
{"content": "Tony Fadell led the iPod team at Apple, then founded Nest."},
])
# Load your knowledge graph
context.load_graph("company_kg.json")
# GraphRAG retrieval: seed from vector matches, expand along graph edges
results = context.retrieve(
# Multi-hop GraphRAG query
result = context.query(
"What companies were founded by people who worked at Apple?",
use_graph=True,
expand_graph=True,
mode="graphrag",
reasoning=True,
)
for r in results:
print(f"[{r['score']:.3f}] {r['content'][:70]} (source: {r['source']})")
```
Each result carries `content`, `score`, `source`, and `metadata`. For a
grounded natural-language answer plus an auditable traversal, use
`context.query_with_reasoning(query, llm_provider=...)` — it returns
`response`, `reasoning_path`, `sources`, and `confidence`.
# Every claim links back to a source node
for claim in result.claims:
print(f"{claim.text} → source: {claim.source_node}")
```
**Next:** [GraphRAG concepts →](/concepts#graphrag)
</Tab>
+37 -50
View File
@@ -1,9 +1,9 @@
---
title: "GraphRAG: Graph-Augmented Retrieval"
title: "GraphRAG Graph-Augmented Retrieval"
description: "Go beyond vector search: retrieve facts, trace reasoning paths, and ground LLM responses in your knowledge graph."
---
GraphRAG combines vector similarity with knowledge graph traversal so retrieval finds structurally connected facts, not just text that sounds related. When a `ContextGraph` is attached to `AgentContext`, every retrieval call automatically blends semantic search with multi-hop graph expansion, and `query_with_reasoning()` returns an auditable reasoning path alongside the LLM answer.
GraphRAG combines vector similarity with knowledge graph traversal so retrieval finds structurally connected facts, not just text that sounds related. When a `ContextGraph` is attached to `AgentContext`, every retrieval call automatically blends semantic search with multi-hop graph expansion and `query_with_reasoning()` returns an auditable reasoning path alongside the LLM answer.
## What Is GraphRAG?
@@ -11,7 +11,7 @@ GraphRAG (Graph-Augmented Retrieval-Augmented Generation) enhances traditional R
**GraphRAG vs. traditional vector-only RAG:** Vector RAG finds documents similar to your query text. GraphRAG finds documents similar to your query AND documents connected to those through entity relationships, even if they don't mention your query terms directly.
**The role of graph traversal:** Starting from entities found in vector-similar documents, GraphRAG expands outward through relationship edges to discover related facts. This reveals connections that pure text similarity would miss, like finding that a threat actor targets healthcare by following the path: Actor → Tool → Victim Organization → Industry Sector.
**The role of graph traversal:** Starting from entities found in vector-similar documents, GraphRAG expands outward through relationship edges to discover related facts. This reveals connections that pure text similarity would miss like finding that a threat actor targets healthcare by following the path: Actor → Tool → Victim Organization → Industry Sector.
## Why Use GraphRAG?
@@ -96,7 +96,7 @@ context = AgentContext(
)
```
Now ingest your documents. `store()` with `extract_entities=True` runs the full extraction pipeline internally (Named Entity Recognition, relation extraction, and entity linking) and populates both the vector index and the graph simultaneously:
Now ingest your documents. `store()` with `extract_entities=True` runs the full extraction pipeline internally Named Entity Recognition (NER), relation extraction, and entity linking and populates both the vector index and the graph simultaneously:
```python
intel_documents = [
@@ -132,17 +132,16 @@ stats = context.store(
print("Graph built: {} nodes, {} edges".format(
stats["graph_nodes"], stats["graph_edges"]
))
# Graph built: 18 nodes, 14 edges
# Nodes: APT29, HAMMERTOSS, NATO, LifeCare, AS59796, CISA Sector 6, ...
# Edges: deployed, observed_on, classified_as, targets, operates_in, ...
```
`store()` returns a dict with `stored_count`, `memory_ids`, `graph_nodes`, and
`graph_edges`. The extracted nodes (APT29, HAMMERTOSS, LifeCare, AS59796, …) and
edges (`deployed`, `observed_on`, `classified_as`, …) now span all four documents.
The graph now contains a connected subgraph linking APT29 to healthcare infrastructure across four document boundaries, something that would be invisible to a pure vector search.
The graph now contains a connected subgraph linking APT29 to healthcare infrastructure across four document boundaries — something that would be invisible to a pure vector search.
## Retrieving the relevant subgraph
With the graph populated, a plain `retrieve()` call already does more than vector search. When `use_graph=True`, the retriever seeds the graph traversal from the top-k vector matches and expands outward by following edges. Expansion depth is set once, by `max_expansion_hops` on the `AgentContext` constructor:
With the graph populated, a plain `retrieve()` call already does more than vector search. When `use_graph=True`, the retriever seeds the graph traversal from the top-k vector matches and expands outward by following edges, collecting connected facts within `max_hops`:
```python
results = context.retrieve(
@@ -150,6 +149,7 @@ results = context.retrieve(
use_graph=True,
max_results=10,
expand_graph=True,
max_hops=3,
)
for r in results:
@@ -169,25 +169,17 @@ Notice the top results: while pure vector search might rank connected facts lowe
When you know specifically which entity you want to anchor the traversal to, pass `anchor_node`:
```python
# Anchor on APT29 explicitly: proximity scores are calculated from this node
# Anchor on APT29 explicitly proximity scores are calculated from this node
apt29_intel = context.retrieve(
"C2 infrastructure beaconing patterns",
use_graph=True,
anchor_node="APT29",
proximity_weight=0.7, # strongly favour nodes close to APT29
max_hops=3, # with an anchor, this bounds the proximity radius
max_hops=3,
max_results=8,
)
```
<Note>
`max_hops` on `retrieve()` only takes effect when `anchor_node` is set: it
bounds the proximity radius used for scoring and drops results farther than
`max_hops` from the anchor. Without an `anchor_node` it is ignored. It does
**not** change how far graph expansion reaches: that is fixed by
`max_expansion_hops` on the constructor.
</Note>
## Getting a grounded LLM answer with a reasoning path
`retrieve()` gives you the grounded context. `query_with_reasoning()` goes one step further: it passes that subgraph context to an LLM and returns the answer together with the multi-hop path the retrieval system traced through the graph. That path is your audit trail.
@@ -205,7 +197,7 @@ result = context.query_with_reasoning(
max_hops=3,
)
# The LLM answer, grounded in graph-retrieved context, not training memory
# The LLM answer grounded in graph-retrieved context, not training memory
print(result["response"])
# The multi-hop trace: APT29 → deployed → HAMMERTOSS → observed_on → LifeCare → ...
@@ -221,7 +213,7 @@ for src in result["sources"]:
print(" [{:.3f}] {}".format(src["score"], src["content"][:80]))
```
The `reasoning_path` field is what separates GraphRAG from a black-box LLM call. When an analyst asks "how do you know APT29 targeted healthcare?", you can show them the exact traversal the system made across your own documents, not a claim the model generated from training data.
The `reasoning_path` field is what separates GraphRAG from a black-box LLM call. When an analyst asks "how do you know APT29 targeted healthcare?", you can show them the exact traversal the system made across your own documents not a claim the model generated from training data.
The full return structure from `query_with_reasoning()`:
@@ -240,11 +232,11 @@ The full return structure from `query_with_reasoning()`:
<Tabs>
<Tab title="Defense: CTI/Threat">
<Tab title="Defense CTI/Threat">
Multi-INT intelligence fusion: OSINT threat feeds, NVD CVE data, and HUMINT summaries ingested into a single graph, then queried with multi-hop reasoning to trace C2 infrastructure chains and attribute campaigns to specific actors.
In classified environments the graph can be partitioned by data handling caveat: each `AgentContext` operates over the subset of documents cleared for the querying user. The `reasoning_path` output doubles as a sanitisable audit trail for downgraded reporting.
In classified environments the graph can be partitioned by data handling caveat each `AgentContext` operates over the subset of documents cleared for the querying user. The `reasoning_path` output doubles as a sanitisable audit trail for downgraded reporting.
```python
from semantica.context import AgentContext, ContextGraph
@@ -308,11 +300,11 @@ proximate = context.retrieve(
</Tab>
<Tab title="Security: SOC/Incident">
<Tab title="Security SOC/Incident">
Security operations: real-time alert triage against a graph containing hosts, CVEs, user accounts, runbooks, and historical incidents. GraphRAG retrieves the relevant runbook and similar past incidents in a single call, reducing mean-time-to-respond.
The `decision_tracking=True` flag records every triage query as an auditable decision, with the full context that was provided to the LLM. That's essential for post-incident review and SOC metrics.
The `decision_tracking=True` flag records every triage query as an auditable decision, with the full context that was provided to the LLM essential for post-incident review and SOC metrics.
```python
from semantica.context import AgentContext, ContextGraph
@@ -377,7 +369,7 @@ for inc in similar:
</Tab>
<Tab title="Life Science: Clinical/Pharma">
<Tab title="Life Science Clinical/Pharma">
Clinical decision support: FDA drug labels, clinical guidelines, and trial summaries ingested into a graph where drug-enzyme-metabolite-interaction chains become traversable paths. A three-hop query (drug → enzyme → metabolite → contraindication) surfaces interaction risks that no single document would make explicit.
@@ -451,7 +443,7 @@ contra_chain = clinical_context.retrieve(
</Tab>
<Tab title="Banking: Risk/Compliance">
<Tab title="Banking Risk/Compliance">
Regulatory compliance: Basel III (CRE20), BCBS 239, SR 11-7, and EBA IRRBB guidelines ingested as a graph where regulation articles cross-reference each other as edges. Multi-hop queries traverse those cross-references automatically, so a question about commercial real estate RWA pulls the relevant CRE20 paragraphs and the BCBS 239 data quality requirements that govern their calculation in a single call.
@@ -474,17 +466,12 @@ compliance_context = AgentContext(
retention_days=2555, # 7-year regulatory retention
)
# In production the text comes from a parsed file, e.g. FileIngestor().ingest_file(path).text;
# inline strings here for brevity
basel_cre20_text = (
"CRE20.32: For income-producing real estate where repayment depends on "
"property cash flows, RWA = exposure × risk weight, where risk weight "
"is determined by LTV bucket per Table CRE20.3..."
)
bcbs239_text = (
"Principle 3: Risk data should be accurate and have a single authoritative source. "
"Where data is aggregated across systems, reconciliation must be documented..."
)
# In production these come from ingest_file() — shown as strings here for brevity
basel_cre20_text = "CRE20.32: For income-producing real estate where repayment depends on "
"property cash flows, RWA = exposure × risk weight, where risk weight "
"is determined by LTV bucket per Table CRE20.3..."
bcbs239_text = "Principle 3: Risk data should be accurate and have a single authoritative source. "
"Where data is aggregated across systems, reconciliation must be documented..."
compliance_context.store(
[
@@ -509,7 +496,7 @@ print(answer["response"])
print("Regulatory sources cited: {}".format(answer["num_sources"]))
print("Confidence: {:.1%}".format(answer["confidence"]))
# The reasoning path is the audit log: show it to the regulator
# The reasoning path is the audit log show it to the regulator
print("\n--- Reasoning Path (audit log) ---")
print(answer["reasoning_path"])
```
@@ -537,18 +524,18 @@ The `hybrid_alpha` parameter set in the `AgentContext` constructor establishes a
When targeting a specific `anchor_node`, you can apply `proximity_weight` in `retrieve()` to dynamically blend structural distance from the anchor into the final score:
```python
# Anchor node provided: let vector semantics lead, graph proximity only slightly boosts
# Anchor node provided let vector semantics lead, graph proximity only slightly boosts
results = context.retrieve(
query, use_graph=True, anchor_node="APT29", proximity_weight=0.2
)
# Known-entity tracing: topology drives the retrieval
# Known-entity tracing topology drives the retrieval
results = context.retrieve(
query, use_graph=True, anchor_node="APT29", proximity_weight=0.8
)
```
Each additional expansion hop exponentially increases the subgraph size. Practical defaults by domain:
Each additional hop in `max_hops` exponentially increases the subgraph size. Practical defaults by domain:
```text
General Q&A max_expansion_hops=2 (95% of useful facts within 2 hops)
@@ -557,7 +544,7 @@ Drug interactions max_expansion_hops=3 (drug → enzyme → metabolite
Regulatory cross-ref max_expansion_hops=2 (rule → article → article)
```
Expansion depth is a constructor setting only (`max_expansion_hops`); there is no per-call override on `retrieve()`. `query_with_reasoning()` does take a per-call `max_hops` argument.
Set globally in the constructor; override per call with the `max_hops` argument to `retrieve()`.
## How GraphRAG works internally
@@ -589,9 +576,9 @@ The vector search and graph traversal run independently, then their scores are f
## Related Guides
- [Semantic Extraction](/guides/semantic-extraction): build the graph from raw unstructured text
- [Agent Memory](/guides/agent-memory): store, retrieve, and persist agent memories
- [Context Graphs](/guides/context-graphs): build and traverse the knowledge graph directly
- [Reasoning](/guides/reasoning): derive new facts and run inference rules over the graph
- [Decision Intelligence](/guides/decision-intelligence): causal chains, policy enforcement, decision tracking
- [LLM Integrations](/guides/llm-integrations): connect Groq, OpenAI, Anthropic, HuggingFace, and 100+ more
- [Semantic Extraction](/guides/semantic-extraction) build the graph from raw unstructured text
- [Agent Memory](/guides/agent-memory) store, retrieve, and persist agent memories
- [Context Graphs](/guides/context-graphs) build and traverse the knowledge graph directly
- [Reasoning](reasoning) — derive new facts and run inference rules over the graph
- [Decision Intelligence](/guides/decision-intelligence) causal chains, policy enforcement, decision tracking
- [LLM Integrations](/guides/llm-integrations) connect Groq, OpenAI, Anthropic, HuggingFace, and 100+ more
+2 -4
View File
@@ -127,7 +127,7 @@ engine = ExecutionEngine(max_workers=4, retry_on_failure=True)
result = engine.execute_pipeline(pipeline)
print(f"Success: {result.success}")
print(f"Output: {result.output}") # the final step's return value, e.g. {"node_count": ..., "edge_count": ...}
print(f"Output: {result.output}") # {"node_count": 312, "edge_count": 847}
print(f"Duration: {result.metrics['execution_time']:.2f}s")
print(f"Steps completed: {result.metrics['steps_executed']}")
```
@@ -197,9 +197,7 @@ engine = ExecutionEngine(
max_workers = 4,
retry_on_failure = True,
)
# ExecutionEngine builds its own FailureHandler; replace it with the configured one
engine.failure_handler = handler
# The engine now calls engine.failure_handler.get_retry_policy(step.step_type) on failure
# The engine uses handler.get_retry_policy(step.step_type) when a step fails
```
`handler.classify_error()` distinguishes `ValidationError` (low severity, usually don't retry), `ProcessingError` (high severity), and timeout/connection errors (medium severity, always retry). You can inspect the classification:
+304 -25
View File
@@ -1,31 +1,109 @@
---
title: "Welcome to Semantica"
description: "The Context and Semantic Layer for AI in High-Stakes Domains: Context Graphs · Decision Intelligence · Full Provenance"
title: "Semantica"
description: "The Accountability and Context Layer for AI: Context Graphs · Decision Intelligence · Full Provenance"
---
```bash
pip install semantica
```
Most AI agents run on embeddings, not meaning. A similarity score has no structure, no relationships, and no way to explain why a result came back.
Your AI agent just made a decision. Now someone needs to explain it.
Semantica is the semantic and context layer underneath your LLM, vector store, and agent framework: deterministic infrastructure, not a model. Graph construction, reasoning, and provenance all run without an LLM in the loop. It turns fragmented enterprise data into a structured, queryable context graph and knowledge graph, governed by ontologies, taxonomies, and controlled vocabularies (OWL, SHACL, SKOS), so your data's meaning is explicit rather than approximated by an embedding.
*What did it know at the time? Which facts shaped the outcome? Where did those facts come from? Has it made the same call before: and did that go well?*
Provenance and audit trails aren't a bolt-on. They fall out naturally once your data has that structure, so the same graph that powers retrieval and reasoning also gives you a straight answer when a regulator asks why.
If your stack can't answer those questions with a traceable record, you have a gap. Not a capability gap: an **accountability gap**. It's the reason AI hasn't landed at scale in healthcare, finance, legal, and government. And it's why teams building for those markets keep rebuilding the same guardrails from scratch.
## What you get
**Semantica closes that gap.** It's the context and accountability layer that sits beneath your existing agent framework: not a replacement for LangChain or LlamaIndex, but the infrastructure that makes their outputs trustworthy.
- **[Context graphs](/guides/context-graphs)**: a persistent, queryable graph of everything your agent knows, decides, and reasons about
- **Decision intelligence**: `record_decision()` captures the full lifecycle and causal chain of every decision
- **[Full provenance](/guides/provenance)**: every fact links back to its source, W3C PROV-O compliant and audit-ready for HIPAA, SOX, and GDPR
- **[Explainable reasoning](/guides/reasoning)**: forward chaining, Datalog, and SPARQL, each with a derivation path you can inspect
- **Temporal intelligence**: Allen interval algebra and point-in-time snapshots, so the graph knows not just *what* but *when*
## The Problem Every Production AI Team Hits
Powerful agents aren't automatically trustworthy ones. Five structural blind spots make modern AI systems impossible to deploy in regulated environments:
**No memory structure** — agents store embeddings, not meaning
- No way to ask *why* a fact was recalled
- No link from a recalled fact back to its source document
- Context is a black box that resets on every run
**No decision trail** — agents act continuously but record nothing
- No history to hand to a regulator or auditor
- No way to replay or reproduce a past decision
- Debugging means re-running, not reviewing
**No provenance** — outputs can't be traced to source facts
- In healthcare, finance, and legal: this is a hard compliance blocker
- No lineage from inference back to the original document
- Impossible to demonstrate what the agent actually relied on
**No reasoning transparency** — black-box answers with no explanation
- Impossible to validate the reasoning path
- Impossible to contest a specific conclusion
- No basis for improving or correcting future behavior
**No conflict detection** — contradictory facts silently coexist in vector stores
- No detection when two sources disagree
- Outputs become inconsistent and unpredictable over time
- Silent failures compound as the knowledge base grows
<Note>
These aren't edge cases. They're why enterprise AI pilots stall: and why your compliance team keeps saying *not yet*.
</Note>
## What Semantica Adds to Your Stack
Semantica gives every agent the infrastructure it needs to be accountable. Drop it into your existing setup in minutes:
**Context Graphs** — a structured, queryable graph of everything your agent knows, decides, and reasons about
- Persistent across agent runs: no context loss between sessions
- Queryable with SPARQL and full graph algorithms
- Temporal model with `valid_from` / `valid_until` on nodes and edges
- Point-in-time snapshots of the full knowledge state
**Decision Intelligence** — every decision is a first-class object in your system
- `record_decision()` captures full lifecycle and causal chain
- Hybrid precedent search over past decisions for consistency
- `analyze_decision_impact()` shows downstream consequences
- Causal chain visualization from trigger to outcome
**Full Provenance** — every fact links to its source document and ingestion event
- W3C PROV-O compliant lineage across all modules
- Full traceability from raw input to final inference
- `recorded_at` stamping with OWL-Time export
- Audit-ready for HIPAA, SOX, GDPR, FDA 21 CFR Part 11
**Reasoning Engines** — explainable reasoning paths, not black boxes
- Forward chaining, Rete, deductive, abductive
- SPARQL query-based inference over RDF graphs
- Datalog with recursive Horn clause rules
- Every conclusion backed by a traceable derivation path
**Temporal Intelligence** — your graph knows not just *what*, but *when*
- Allen interval algebra: all 13 temporal relations
- Point-in-time queries over historical graph states
- Temporal provenance stamping on every fact
- OWL-Time export for standards-compliant archiving
**Ontology Hub** — full ontology lifecycle in the browser
- Visual editor for schema design and editing
- SHACL Studio for constraint authoring and validation
- Alignment authoring across multiple ontologies
- Health dashboard and version control built in
<Tip>
Works alongside any LLM provider and any agent framework, and ingests directly from enterprise data platforms like Databricks, SAP, Salesforce, and Snowflake. Add it to an existing stack without changing your architecture.
Works alongside any LLM provider and any agent framework: add it to an existing stack without changing your architecture.
</Tip>
## Try it
<img src="/assets/img/diagrams/architecture-overview.svg" alt="Semantica four-layer architecture: Ingestion → Processing → Intelligence → Application" style={{ width: '100%', borderRadius: '12px', margin: '24px 0' }} />
## See It In Action
One pip install. A few lines to connect your agent. Everything else becomes traceable.
```bash
pip install semantica
```
<CodeGroup>
@@ -107,28 +185,229 @@ decision_id = context.record_decision(
</CodeGroup>
## Start here
- [Full Quickstart](/quickstart) — Step-by-step pipeline walkthrough
- [Cookbook](/cookbook) — 40+ real-world Jupyter notebooks
- [Join Discord](https://discord.gg/sV34vps5hH) — Community chat and support
## Built for Where Mistakes Have Consequences
Semantica was designed for domains where every decision must be explainable and every fact must be traceable.
<Warning>
**This is system-level explainability, not foundation-model explainability.** Semantica does not expose, reconstruct, or explain what happens *inside* the LLM/foundation model — its internal reasoning or chain-of-thought stays opaque, as it does for any external system. What Semantica explains is *outside* the model: the context and data fed in, the decision produced, its provenance, the relevant relationships, the policies applied, and the full execution trail. See [Core Concepts](/concepts) for the full scope note.
</Warning>
**Healthcare & Life Sciences**
- Clinical decision support with full audit trails
- Drug interaction and contraindication graphs
- Patient safety event tracking and root-cause analysis
- HIPAA-compliant provenance chains out of the box
**Finance & Risk**
- Fraud detection knowledge graphs
- Risk assessment trails built to survive an audit
- SOX, GDPR, and MiFID II compliance infrastructure
- Model decision lineage for regulatory reporting
**Legal & Compliance**
- Evidence-backed research with every cited fact provenance-linked
- Contract analysis with traceable clause extraction
- Regulatory change tracking across jurisdictions
- Full reasoning paths ready for court-admissible documentation
**Cybersecurity**
- Threat attribution graphs linking actors, TTPs, and indicators
- Incident response timelines with full event provenance
- Security audit trails across the complete kill chain
- MITRE ATT&CK-aligned knowledge graph integration
**Government & Defense**
- Policy decision trails from brief to outcome
- Classified information handling with provenance chains
- Chain-of-custody scrutiny for intelligence reporting
- Air-gapped deployment with local LLM support
**Critical Infrastructure**
- Power grid state tracking with temporal intelligence
- Transportation safety event graphs
- Emergency response coordination with decision audit trails
- Consequence modeling for high-stakes operational decisions
## Start Here
<Steps>
<Step title="Install">
<Step title="Install Semantica">
```bash
pip install semantica
```
Optional extras: `[all]`, `[neo4j]`, `[pinecone]`. See [Installation](/installation).
See [Installation](/installation) for optional extras (`[all]`, `[neo4j]`, `[pinecone]`) and environment setup.
</Step>
<Step title="Build a pipeline">
Follow the [Quickstart](/quickstart) to ingest documents, extract entities, build a graph, and record a decision in 5 minutes.
<Step title="Run the Quickstart">
Build a complete knowledge graph pipeline in [5 minutes](/quickstart):
- Ingest documents from any source
- Extract entities and relationships
- Build and query the graph
- Record and trace a decision
</Step>
<Step title="Learn the model">
[Core Concepts](/concepts) covers knowledge graphs vs. vector stores, GraphRAG, and how provenance and decisions fit together.
<Step title="Learn the mental model">
[Core Concepts](/concepts) covers:
- Knowledge graphs vs. vector stores: when to use each
- What GraphRAG is and how Semantica implements it
- How provenance and decision tracking work together
- The accountability layer architecture
</Step>
<Step title="Go deep">
Every module has a [reference page](/reference/context) with full API docs and runnable examples.
<Step title="Go deep on any module">
Every module has a dedicated [reference page](/reference/context) with:
- Full class and method documentation
- Parameter tables with types and defaults
- Runnable code examples for each feature
</Step>
</Steps>
More: the [Cookbook](/cookbook) for real-world notebooks, [Discord](https://discord.gg/sV34vps5hH) for help.
- [Installation](/installation) — Get Semantica installed in under a minute
- [Quickstart](/quickstart) — Build a complete knowledge graph pipeline in 5 minutes
- [Core Concepts](/concepts) — The mental model behind the API
- [API Reference](/reference/context) — Exact module, class, and method details
- [Cookbook](/cookbook) — Domain notebooks for real-world use cases
- [Changelog](https://github.com/semantica-agi/semantica/releases) — Release history
## Full Capabilities
<AccordionGroup>
<Accordion title="Context & Decision Intelligence" icon="brain">
### Context Graphs
- Structured, persistent graph of entities, relationships, and decisions
- Temporal model with `valid_from` / `valid_until` on every node and edge
- Point-in-time queries across historical graph states
- Distance Intelligence: semantic neighborhoods and N×N distance matrices
### Decision Tracking
- `record_decision()` with full lifecycle management and causal chains
- Hybrid similarity search over past decisions for consistency enforcement
- `analyze_decision_impact()` and `analyze_decision_influence()` for consequence modeling
- Ego-mode exploration for targeted neighborhood investigation
<Accordion title="Full module list">
`semantica.ingest`, `semantica.parse`, `semantica.split`, `semantica.normalize`, `semantica.semantic_extract`, `semantica.kg`, `semantica.ontology`, `semantica.reasoning`, `semantica.embeddings`, `semantica.vector_store`, `semantica.graph_store`, `semantica.triplet_store`, `semantica.context`, `semantica.provenance`, `semantica.change_management`, `semantica.deduplication`, `semantica.conflicts`, `semantica.export`, `semantica.visualization`, `semantica.pipeline`, `semantica.seed`, `semantica.llms`, `semantica.mcp_server`, `semantica.explorer`, `semantica.evals`, `semantica.utils`, `semantica.core`. See the [API Reference](/reference/context) for full docs on each.
</Accordion>
<Accordion title="Knowledge Engineering" icon="diagram-project">
### Entity & Relation Extraction
- Named entity recognition: pattern, ML, or LLM methods
- Typed triplet extraction via LLM or rule-based pipelines
- Event extraction with temporal and causal linking
### Ontology & Schema
- Ontology Hub: visual editor, SHACL Studio, alignments, health dashboard
- Deduplication v2: `blocking_v2`, `hybrid_v2`, `semantic_v2`: up to 7x faster
- Datalog reasoning: recursive Horn clause rules with fixpoint semantics
- SPARQL reasoning: query-based inference over RDF graphs
</Accordion>
<Accordion title="Provenance & Auditability" icon="shield-check">
### Lineage Tracking
- W3C PROV-O lineage across all modules: every fact has a source
- `recorded_at` stamping with full OWL-Time export
- Change management with SHA-256 checksums and version control
- Full audit trails from ingestion event to final inference
### Compliance Infrastructure
- HIPAA: patient data handling with audit-ready provenance chains
- SOX / MiFID II: financial decision records with full traceability
- GDPR: data lineage for subject access and right-to-erasure workflows
- FDA 21 CFR Part 11: electronic records and signature compliance
</Accordion>
<Accordion title="Data Ingestion & Export" icon="database">
### Ingestion Formats
- Documents: PDF, DOCX, HTML, PPTX, Docling layout analysis
- Structured data: JSON, CSV, Excel, Parquet, XML
- Sources: web crawl, SQL, Snowflake, feeds, email, code repositories, MCP
### Vector Stores
- FAISS, Pinecone, Weaviate, Qdrant, Milvus, PgVector, in-memory
### Graph Stores
- Neo4j, FalkorDB, Apache AGE, Amazon Neptune
### Export Formats
- RDF: Turtle, JSON-LD, N-Triples, RDF/XML
- Tabular: Parquet, CSV, Arrow
- Graph: GraphML, GEXF, DOT, ArangoDB AQL
- Ontology: OWL, SKOS, SHACL
</Accordion>
</AccordionGroup>
## Module Reference
| Module | What it provides |
| :-------- | :----------------- |
| `semantica.context` | Context graphs, agent memory, decision tracking, causal analysis, precedent search |
| `semantica.kg` | KG construction, graph algorithms, temporal model, Allen interval algebra |
| `semantica.semantic_extract` | NER, relation extraction, event extraction, triplet generation |
| `semantica.reasoning` | Forward chaining, Rete, deductive, abductive, SPARQL, Datalog |
| `semantica.ontology` | SHACL, SKOS, alignments, diff/migration, auto-generation, OWL/RDF |
| `semantica.explorer` | FastAPI Knowledge Explorer, Ontology Hub, Distance Intelligence, SHACL Studio |
| `semantica.mcp_server` | MCP stdio server: 15 tools for Claude Desktop, VS Code, Cursor, Windsurf, Cline |
| `semantica.vector_store` | FAISS, Pinecone, Weaviate, Qdrant, Milvus, PgVector |
| `semantica.graph_store` | Neo4j, FalkorDB, Apache AGE, Amazon Neptune |
| `semantica.triplet_store` | In-memory and persistent RDF triple store with SPARQL |
| `semantica.ingest` | Files, web, feeds, databases, Snowflake, Parquet, XML, MCP |
| `semantica.parse` | Document parsing: PDF, DOCX, HTML, PPTX, Docling layout analysis |
| `semantica.split` | Text chunking: sentence, paragraph, token, semantic boundary strategies |
| `semantica.normalize` | Text normalization, entity canonicalization, whitespace and encoding cleanup |
| `semantica.embeddings` | Sentence-Transformers, FastEmbed, OpenAI, BGE, Ollama local embeddings |
| `semantica.pipeline` | Pipeline DSL, parallel workers, retry policies, failure handling |
| `semantica.export` | RDF, Parquet, ArangoDB AQL, CSV, OWL, Arrow, GraphML, GEXF, DOT |
| `semantica.visualization` | Programmatic graph rendering: force, hierarchical, circular, spring layouts |
| `semantica.deduplication` | Entity deduplication v1/v2, similarity scoring, blocking, merging |
| `semantica.conflicts` | Conflict detection and resolution across overlapping knowledge sources |
| `semantica.provenance` | W3C PROV-O lineage tracking, source attribution, audit trails |
| `semantica.change_management` | Version control with SHA-256 checksums, diff, rollback |
| `semantica.llms` | Groq, OpenAI, Anthropic, Gemini, Ollama, DeepSeek, Novita AI, LiteLLM, HuggingFace |
| `semantica.seed` | Foundation graph seeding from CSV, JSON, SQL, API, and RDF sources |
| `semantica.evals` | Evaluation harness: KG quality, extraction F1, pipeline benchmarking, regression tracking |
| `semantica.core` | Orchestration, ConfigManager, LifecycleManager, PluginRegistry, MethodRegistry |
| `semantica.utils` | Logging, validation, progress tracking, hash utilities, nested dict helpers |
## Why Semantica?
**Open Source, MIT** — No vendor lock-in. No paywalled features.
- Full source available on GitHub
- Every line auditable by your security team
- Fork, extend, and self-host with no restrictions
- No telemetry, no usage reporting
**Production Ready** — Built for teams that can't afford surprises.
- 1,000+ passing tests with full regression coverage
- `PipelineValidator` catches configuration errors at startup
- `FailureHandler` with exponential backoff and dead-letter queues
- Ongoing security hardening: fixes shipped in every release ([CHANGELOG](https://github.com/semantica-agi/semantica/blob/main/CHANGELOG.md))
**Modular by Design** — Import only what you need.
- Use `NERExtractor` without a graph store
- Use `ContextGraph` without vector storage
- Every component independently swappable and testable
- No framework lock-in: works with any agent stack
+4 -4
View File
@@ -12,13 +12,13 @@ icon: "link"
pip install "semantica[langchain]"
```
Requires `langchain-core >= 0.3`. If langchain-core is not installed, the integration still imports. Every class carries the full Semantica API and degrades gracefully (`build()` returns `None`; branch on `LANGCHAIN_AVAILABLE`).
Requires `langchain-core >= 0.3`. If langchain-core is not installed, the integration still imports — every class carries the full Semantica API and degrades gracefully (`build()` returns `None`; branch on `LANGCHAIN_AVAILABLE`).
## Components at a Glance
- **SemanticaRetriever** (`BaseRetriever`): hybrid-search seeds retrieval, then graph edges are walked `hops` steps (default 2) for GraphRAG-style results.
- **SemanticaVectorStore** (`VectorStore`): `add_texts` / `similarity_search` / `similarity_search_with_score` / `from_texts` over `HybridSearch`.
- **SemanticaKGTool** / **SemanticaDecisionTool** (`BaseTool` subclasses): `semantica_query_graph` and `semantica_query_decisions` for LangGraph / tool-calling agents.
- **SemanticaRetriever** `BaseRetriever`: hybrid-search seeds retrieval, then graph edges are walked `hops` steps (default 2) for GraphRAG-style results.
- **SemanticaVectorStore** `VectorStore`: `add_texts` / `similarity_search` / `similarity_search_with_score` / `from_texts` over `HybridSearch`.
- **SemanticaKGTool** / **SemanticaDecisionTool** `BaseTool` subclasses: `semantica_query_graph` and `semantica_query_decisions` for LangGraph / tool-calling agents.
## Component Details
+121 -162
View File
@@ -28,9 +28,7 @@ Semantica is organized into **27 modules** across six logical layers. Each modul
### Ingest
Loads data from files, web, databases, and streams. Each ingestor returns its own
result type (`FileIngestor``FileObject`, `WebIngestor``WebContent`, …);
document-oriented ones expose a `.text` payload and `.metadata`.
Loads data from files, web, databases, and streams into a unified `SourceDocument` format.
```python
from semantica.ingest import FileIngestor, WebIngestor, ParquetIngestor, XMLIngestor, DatabricksIngestor
@@ -39,7 +37,7 @@ from semantica.ingest import FileIngestor, WebIngestor, ParquetIngestor, XMLInge
ingestor = FileIngestor()
documents = ingestor.ingest_directory("data/")
# Web page: returns a WebContent with .text, .title, .links, .metadata
# Web crawl
web_ingestor = WebIngestor()
page = web_ingestor.ingest_url("https://example.com")
@@ -69,13 +67,13 @@ Extracts structured text and layout metadata from raw documents.
```python
from semantica.parse import DocumentParser, DoclingParser
# Standard parser: all common formats. parse() takes a path, returns a dict
# Standard parser: all common formats
parser = DocumentParser()
parsed = parser.parse("document.pdf") # {"full_text": ..., "metadata": ..., ...}
parsed = parser.parse_document("document.pdf")
# Advanced parser (pip install semantica[parse-docling]): tables, OCR, layout
parser = DoclingParser(export_format="markdown", enable_ocr=True)
parsed = parser.parse("data/annual_report.pdf") # dict with full_text, tables, pages
# Advanced parser: multi-column PDFs, merged-cell tables, OCR
parser = DoclingParser(extract_tables=True, extract_images=True, output_format="markdown")
parsed = parser.parse("data/annual_report.pdf")
```
**Available parsers:** `DocumentParser`, `DoclingParser`, `CodeParser`, `CSVParser`, `DocxParser`, `EmailParser`, `ExcelParser`, `HTMLParser`, `ImageParser`, `JSONParser`, `MCPParser`, `MediaParser`, `PDFParser`, `PPTXParser`, `StructuredDataParser`, `WebParser`, `XMLParser`
@@ -87,12 +85,11 @@ Chunks text for embedding and RAG pipelines with awareness of semantic boundarie
```python
from semantica.split import TextSplitter
# chunk_size / chunk_overlap are constructor arguments
splitter = TextSplitter(method="semantic_transformer", chunk_size=1000, chunk_overlap=200)
chunks = splitter.split(text)
splitter = TextSplitter(method="semantic_transformer")
chunks = splitter.split(text, chunk_size=1000, chunk_overlap=200)
```
**Chunking methods:** `recursive`, `token`, `sentence`, `paragraph`, `semantic_transformer`, `entity_aware`, `relation_aware`, `graph_based`, `ontology_aware`, `hierarchical`, `community_detection`, `centrality_based`, `llm`
**Chunking strategies:** `recursive`, `semantic_transformer`, `entity_aware`, `relation_aware`, `sliding_window`, `structural`
### Normalize
@@ -118,18 +115,17 @@ Named entity recognition, relation extraction, and triplet generation.
```python
from semantica.semantic_extract import NERExtractor, RelationExtractor, TripletExtractor
# LLM method: provider + llm_model select the backend; the API key comes from the env
ner = NERExtractor(method="llm", provider="groq", llm_model="llama-3.3-70b-versatile")
entities = ner.extract("Apple Inc. was founded by Steve Jobs.") # list[Entity]
ner = NERExtractor(method="llm", llm_provider=llm)
entities = ner.extract("Apple Inc. was founded by Steve Jobs.")
rel = RelationExtractor(method="llm", provider="groq", llm_model="llama-3.3-70b-versatile")
relationships = rel.extract(text, entities=entities) # list[Relation]
rel = RelationExtractor(method="llm", llm_provider=llm)
relationships = rel.extract(text, entities=entities)
trip = TripletExtractor(method="pattern")
triplets = trip.extract(text) # list[Triplet]
trip = TripletExtractor(method="llm", llm_provider=llm)
triplets = trip.extract(text)
```
**Extraction methods:** `"pattern"` (no API key), `"ml"` (local spaCy model), `"llm"` (any of the 9 supported providers)
**Extraction methods:** `"pattern"` (no API key), `"ml"` (local model), `"llm"` (any of the 8 supported providers)
**Additional extractors:** `CoreferenceResolver`, `EventDetector`, `SemanticAnalyzer`, `SemanticNetworkExtractor`
@@ -141,17 +137,17 @@ Graph construction, graph algorithms, temporal model, and distance intelligence.
from semantica.kg import GraphBuilder, GraphAnalyzer, TemporalGraphQuery, SimilarityCalculator
from datetime import datetime
# Build: build() takes a {"entities": ..., "relationships": ...} dict
# Build
builder = GraphBuilder(merge_entities=True)
kg = builder.build({"entities": entities, "relationships": relationships})
kg = builder.build(entities=entities, relationships=relationships)
# Temporal graphs (v0.4.0)
query_engine = TemporalGraphQuery(enable_temporal_reasoning=True)
snapshot = query_engine.query_at_time(kg, query="", at_time=datetime(2021, 6, 15))
# Semantic similarity (v0.5.0): operates on embedding vectors
calc = SimilarityCalculator(method="cosine")
score = calc.cosine_similarity(vec_a, vec_b)
# Semantic similarity (v0.5.0)
calc = SimilarityCalculator()
scores = calc.calculate_similarity(entity_a, entity_b)
```
**Graph algorithms available:** centrality calculation, community detection, connectivity analysis, entity resolution, link prediction, path finding, similarity calculation
@@ -179,23 +175,19 @@ Derives new facts from existing knowledge using multiple inference strategies.
```python
from semantica.reasoning import Reasoner, DatalogReasoner
# Forward chaining: facts and rules as predicate(args) / IF-THEN strings
# Rule-based reasoning
engine = Reasoner()
engine.add_fact("Manager(Alice)")
engine.add_rule("IF Manager(?x) THEN HasAuthority(?x)")
results = engine.forward_chain() # list[InferenceResult] with .conclusion, .rule_used
engine.apply_transitivity("located_in")
engine.apply_symmetry("knows")
result = engine.infer()
# Datalog: recursive Horn clause rules (v0.4.0)
datalog = DatalogReasoner()
datalog.add_fact("parent(tom, bob)")
datalog.add_fact("parent(bob, ann)")
datalog.add_rule("ancestor(X, Y) :- parent(X, Y).")
datalog = DatalogEngine()
datalog.add_rule("ancestor(X, Z) :- parent(X, Y), ancestor(Y, Z).")
datalog.derive_all()
results = datalog.query("ancestor(tom, ?Z)") # [{"Z": "bob"}, {"Z": "ann"}], order not guaranteed
results = datalog.query("ancestor(alice, ?)")
```
**Engines:** `Reasoner` (forward/backward chaining), `ReteEngine`, `SPARQLReasoner`, `DatalogReasoner`, `TemporalReasoningEngine`, `GraphReasoner` (LLM)
**Engines:** forward chaining, Rete network, deductive, abductive, SPARQL, Datalog: all produce explainable inference paths
## Storage
@@ -207,9 +199,9 @@ Generates and manages vector embeddings for semantic similarity.
```python
from semantica.embeddings import EmbeddingGenerator
generator = EmbeddingGenerator()
embeddings = generator.generate_embeddings(["text1", "text2"]) # np.ndarray
similarity = generator.compare_embeddings(embeddings[0], embeddings[1])
generator = EmbeddingGenerator(model="sentence-transformers")
embeddings = generator.generate(["text1", "text2"])
similarity = generator.similarity(embeddings[0], embeddings[1])
```
**Supported models:** Sentence-Transformers, FastEmbed, OpenAI, BGE
@@ -223,18 +215,12 @@ Multi-backend vector database with hybrid search support.
```python
from semantica.vector_store import VectorStore
store = VectorStore(backend="faiss", dimension=768)
# Raw vectors
ids = store.store_vectors(embeddings) # returns generated ids
hits = store.search_vectors(query_vector, k=10)
# Or store text and let the store embed it
store.add_documents(["Apple was founded in 1976.", "Google was founded in 1998."])
results = store.search("tech company founding dates", limit=10)
store = VectorStore(backend="faiss", dimension=768)
store.add_vectors(embeddings, ids)
results = store.search(query_vector, top_k=10)
```
**Backends:** FAISS, Pinecone, Weaviate, Qdrant, Milvus, PgVector, SQLite, in-memory
**Backends:** FAISS, Pinecone, Weaviate, Qdrant, Milvus, PgVector, in-memory
**Search modes:** semantic top-k, hybrid (vector + keyword), metadata-filtered
@@ -246,8 +232,8 @@ Connects to graph databases for persistent, query-able storage.
from semantica.graph_store import GraphStore
store = GraphStore(backend="neo4j")
store.add_nodes([{"id": "acme", "type": "Organization", "properties": {"name": "Acme"}}])
store.add_edges([{"source": "alice", "target": "acme", "type": "works_for"}])
store.add_nodes(entities)
store.add_edges(relationships)
results = store.query("MATCH (n)-[r]->(m) RETURN n, r, m")
```
@@ -260,9 +246,9 @@ RDF triple-based storage with SPARQL query support.
```python
from semantica.triplet_store import TripletStore
store = TripletStore(backend="oxigraph")
store.add_triplets(triplets) # list of Triplet objects (or add_triplet for one)
results = store.execute_query("SELECT ?s ?p ?o WHERE { ?s ?p ?o }")
store = TripletStore(backend="blazegraph")
store.add_triplets(subject, predicate, obj)
results = store.sparql("SELECT ?s ?p ?o WHERE { ?s ?p ?o }")
```
**Backends:** Oxigraph (embedded), Blazegraph, Apache Jena, RDF4J
@@ -275,18 +261,15 @@ results = store.execute_query("SELECT ?s ?p ?o WHERE { ?s ?p ?o }")
Detects, scores, and merges duplicate entities across sources.
```python
from semantica.deduplication import DuplicateDetector, EntityMerger
from semantica.deduplication import EntityResolver
detector = DuplicateDetector(similarity_threshold=0.85)
candidates = detector.detect_duplicates(entities)
merger = EntityMerger()
operations = merger.merge_duplicates(entities, strategy="keep_most_complete")
resolver = EntityResolver()
merged = resolver.resolve(entities, strategy="semantic_v2")
```
**v2 candidate-generation modes** (`blocking_v2`, `hybrid_v2`, `semantic_v2`) are up to 7x faster than v1.
**v2 strategies** (`blocking_v2`, `hybrid_v2`, `semantic_v2`) are up to 7x faster than v1.
**Components:** `DuplicateDetector`, `EntityMerger`, `ClusterBuilder`, `MergeStrategyManager`
**Components:** `EntityResolver`, `DuplicateDetector`, `EntityMerger`, `SimilarityCalculator`, `ClusterBuilder`
**`DuplicateDetector` options:** `max_results`, `top_k_per_entity`, `min_similarity`, `sort_by`
@@ -295,13 +278,14 @@ operations = merger.merge_duplicates(entities, strategy="keep_most_complete")
Detects and resolves fact conflicts across overlapping knowledge sources.
```python
from semantica.conflicts import ConflictDetector, ConflictResolver
from semantica.conflicts import ConflictDetector
conflicts = ConflictDetector().detect_conflicts(entities) # list of entity dicts
resolved = ConflictResolver().resolve_conflicts(conflicts, strategy="most_recent")
detector = ConflictDetector()
conflicts = detector.detect_conflicts(kg)
resolved = detector.resolve(conflicts, strategy="most_recent")
```
**Detection types:** value conflicts, type conflicts, relationship conflicts, temporal conflicts, logical conflicts
**Detection types:** value conflicts, type conflicts, temporal conflicts, logical conflicts
**Resolution strategies:** prefer most recent, prefer most reliable source, majority vote, flag for manual review
@@ -314,7 +298,6 @@ Agent context graphs, decision tracking, causal chains, and precedent search.
```python
from semantica.context import AgentContext, ContextGraph
from semantica.vector_store import VectorStore
context = AgentContext(
vector_store=VectorStore(backend="faiss", dimension=768),
@@ -345,7 +328,7 @@ W3C PROV-O compliant lineage tracking across all modules.
from semantica.provenance import ProvenanceManager
manager = ProvenanceManager()
manager.track_entity("entity_1", source="document.pdf", metadata={"type": "person"})
manager.track_entity("entity_1", "document.pdf", "person")
lineage = manager.get_lineage("entity_1")
```
@@ -381,8 +364,8 @@ RDFExporter().export(graph, file_path="graph.ttl", format="turtle")
# Analytics
ParquetExporter().export(graph, file_path="output/graph.parquet")
# ArangoDB: writes AQL INSERT statements to the given path
ArangoAQLExporter().export(graph, file_path="graph.aql")
# ArangoDB
aql = ArangoAQLExporter().export(graph)
```
**Export formats:** RDF (Turtle, JSON-LD, N-Triples, XML), Parquet, ArangoDB AQL, CSV, OWL, Arrow, LPG, YAML, distance matrices
@@ -407,24 +390,16 @@ viz.visualize_network(graph, output="html", file_path="graph.html")
Pipeline DSL with parallel workers, retry policies, and failure handling.
```python
from semantica.pipeline import PipelineBuilder, ExecutionEngine
from semantica.ingest import FileIngestor
from semantica.semantic_extract import NERExtractor
from semantica.pipeline import Pipeline
builder = PipelineBuilder()
# Each step type dispatches to a handler you register (or supply explicitly)
builder.register_step_handler("ingest", lambda data, **c: FileIngestor().ingest(c["source"]))
builder.register_step_handler("extract", lambda docs, **c: NERExtractor(method="pattern").extract(docs[0].text))
builder.add_step("ingest", step_type="ingest", source="data/")
builder.add_step("extract", step_type="extract")
pipeline = builder.connect_steps("ingest", "extract").build(name="docs_to_entities")
result = ExecutionEngine().execute_pipeline(pipeline)
pipeline = Pipeline()
pipeline.add_step("ingest", FileIngestor())
pipeline.add_step("extract", NERExtractor())
pipeline.add_step("build", GraphBuilder())
result = pipeline.run("data/")
```
**Components:** `PipelineBuilder`, `Pipeline`, `ExecutionEngine`, `FailureHandler`, `PipelineValidator`, `ParallelismManager`, `ResourceScheduler`
**Components:** `Pipeline`, `PipelineBuilder`, `ExecutionEngine`, `FailureHandler`, `PipelineValidator`, `ParallelismManager`, `ResourceScheduler`
### Explorer
@@ -453,7 +428,7 @@ llm = OpenAI(model="gpt-4o", api_key=os.getenv("OPENAI_API_KEY"))
llm = LiteLLM(model="anthropic/claude-opus-4-7", api_key=os.getenv("ANTHROPIC_API_KEY"))
```
**Supported providers:** OpenAI, Anthropic, Google Gemini, Groq, Ollama, DeepSeek, Novita AI, HuggingFace, plus LiteLLM (100+ models via one interface)
**Supported providers:** OpenAI, Anthropic, Google Gemini, Groq, Ollama, DeepSeek, Novita AI, LiteLLM (20+ models via one interface)
### MCP Server
@@ -470,43 +445,44 @@ python -m semantica.mcp_server
Bootstrap knowledge graphs from verified structured sources: fixed-point reference data, controlled vocabularies, and domain anchors.
```python
from semantica.seed import SeedDataManager
from semantica.seed import SeedManager
seed = SeedDataManager()
seed = SeedManager()
seed.populate(kg, dataset="companies", count=100)
# Load trusted reference data from CSV / JSON / a database / an API
seed_data = seed.load_from_csv("seed_data/industries.csv", entity_type="Industry")
# Merge seed data with extraction output (seed values win on conflict by default)
combined = seed.integrate_with_extracted(
{"entities": seed_data, "relationships": []},
{"entities": extracted_entities, "relationships": extracted_relationships},
merge_strategy="seed_first",
)
# Load domain seeds from file or built-in datasets
seed.load_from_file("seed_data/industries.json")
seed.inject(kg) # merges seed nodes without duplicating existing entities
```
**Use cases:** anchoring extraction with known entities, pre-populating ontology classes, deterministic test graph generation.
### Evals
Scores decision-intelligence outputs (decision records, audit trails, reasoning
text) with a registry of deterministic and model-backed evaluators plus a small
run harness.
Evaluation framework for measuring KG quality, extraction accuracy, and pipeline performance.
```python
from semantica.evals import evaluate, list_evaluators
from semantica.evals import KGEvaluator, ExtractionEvaluator, PipelineEvaluator, RegressionTracker
list_evaluators()
# ['decision_scores', 'exact_match', 'keyword_check', 'length_range',
# 'levenshtein', 'llm_as_judge', 'numeric_range', 'regex_match', 'rouge',
# 'temporal_range']
# KG quality
report = KGEvaluator().evaluate(kg, ontology=ontology)
print(f"Completeness: {report.completeness:.2%} Consistency: {report.consistency:.2%}")
cases = [("apple", "aple"), ("night", "nacht")]
summary = evaluate(cases, evaluators=["levenshtein"])
print(summary.total, summary.passed, summary.pass_rate)
# Extraction accuracy
report = ExtractionEvaluator().evaluate_ner(predictions=extracted, gold_standard=annotated)
print(f"Precision: {report.precision:.3f} Recall: {report.recall:.3f} F1: {report.f1:.3f}")
# Pipeline throughput and latency
metrics = PipelineEvaluator().benchmark(pipeline, data="data/", bench_runs=5)
print(f"Throughput: {metrics.docs_per_second:.1f} docs/sec")
# Regression tracking across runs
tracker = RegressionTracker(db_path="eval_history.db")
run_id = tracker.record_run(pipeline_version="v1.2.0", metrics=metrics)
diff = tracker.compare(run_id, baseline_run_id="run_abc123")
```
**Public API:** `evaluate(cases, evaluators, config=None)`, `list_evaluators()`, `get_evaluator(name)`, and the `EvalMetric` / `CaseResult` / `EvalSummary` result types. See the [Evals reference](/reference/evals).
**Components:** `KGEvaluator`, `ExtractionEvaluator`, `PipelineEvaluator`, `RegressionTracker`
### Core
@@ -515,20 +491,20 @@ Base classes, shared data models, and the plugin registry used across all module
```python
from semantica.core import Semantica, PluginRegistry, ConfigManager
# ConfigManager loads a Config; Config.get() does dotted lookups
config = ConfigManager().load_from_file("config.yaml")
batch = config.get("processing.batch_size", default=32)
# Top-level orchestrator: pass the Config object (or a dict), not a path
sem = Semantica(config=config)
# Top-level orchestrator
sem = Semantica(config_path="config.yaml")
sem.initialize()
# Plugin registry: register custom components under a name
# Plugin registry: register custom components
registry = PluginRegistry()
registry.register_plugin("my_ingestor", MyCustomIngestor, version="1.0.0")
registry.register("my_ingestor", MyCustomIngestor)
# Config management
config = ConfigManager(config_path="config.yaml")
batch = config.get("processing.batch_size", default=32)
```
**Components:** `Semantica`, `PluginRegistry`, `ConfigManager`, `Config`, `LifecycleManager`, `HealthStatus`, `MethodRegistry`
**Components:** `Semantica`, `PluginRegistry`, `ConfigManager`, `LifecycleManager`, `HealthMonitor`, `Config`
### Utils
@@ -556,13 +532,11 @@ from semantica.semantic_extract import NERExtractor, RelationExtractor
from semantica.kg import GraphBuilder
sources = FileIngestor().ingest("data/")
text = DocumentParser().parse(sources[0].path)["full_text"]
ner = NERExtractor(method="llm", provider="groq", llm_model="llama-3.3-70b-versatile")
rel = RelationExtractor(method="llm", provider="groq", llm_model="llama-3.3-70b-versatile")
entities = ner.extract(text)
relationships = rel.extract(text, entities=entities)
parsed = DocumentParser().parse(sources[0])
entities = NERExtractor(method="llm", llm_provider=llm).extract(parsed)
relationships = RelationExtractor(method="llm", llm_provider=llm).extract(parsed, entities=entities)
graph = GraphBuilder(merge_entities=True).build(
{"entities": entities, "relationships": relationships}
entities=entities, relationships=relationships
)
```
@@ -581,20 +555,16 @@ from semantica.vector_store import VectorStore
context = AgentContext(
vector_store=VectorStore(backend="faiss", dimension=768),
knowledge_graph=ContextGraph(advanced_analytics=True),
graph_expansion=True,
)
context.load_graph("company_kg.json")
# store() extracts entities and populates the graph + vector index
context.store([{"content": "Steve Wozniak co-founded Apple with Steve Jobs."}])
# retrieve() blends vector similarity with multi-hop graph traversal
results = context.retrieve(
result = context.query(
"What companies did Apple alumni found?",
use_graph=True,
expand_graph=True,
mode="graphrag",
reasoning=True,
)
for r in results:
print(f"[{r['score']:.3f}] {r['content']} (source: {r['source']})")
for claim in result.claims:
print(f"{claim.text} {claim.source_node}")
```
**Best for:** question-answering systems, RAG with source attribution, research assistants
@@ -636,22 +606,18 @@ precedents = context.find_precedents("model selection", limit=5)
```python
from semantica.ingest import FileIngestor
from semantica.parse import DocumentParser
from semantica.semantic_extract import NERExtractor
from semantica.kg import GraphBuilder
from semantica.provenance import ProvenanceManager
from semantica.export import RDFExporter
sources = FileIngestor().ingest("records/")
ner = NERExtractor(method="llm", provider="groq", llm_model="llama-3.3-70b-versatile")
entities = ner.extract(DocumentParser().parse(sources[0].path)["full_text"])
graph = GraphBuilder(merge_entities=True).build({"entities": entities, "relationships": []})
entities = NERExtractor(method="llm", llm_provider=llm).extract(sources)
graph = GraphBuilder(merge_entities=True).build(entities=entities, relationships=[])
prov = ProvenanceManager()
prov.track_entity("entity_id", source="records/filing.pdf", metadata={"extractor": "llm"})
lineage = prov.get_lineage("entity_id")
lineage = prov.get_entity_lineage("entity_id")
RDFExporter().export(graph, file_path="audit.ttl", format="turtle")
RDFExporter(include_provenance=True).export(graph, file_path="audit.ttl", format="turtle")
```
**Best for:** HIPAA, SOX, GDPR, FDA 21 CFR Part 11 deployments
@@ -666,25 +632,18 @@ RDFExporter().export(graph, file_path="audit.ttl", format="turtle")
from semantica.ingest import WebIngestor
from semantica.normalize import TextNormalizer
from semantica.semantic_extract import NERExtractor, RelationExtractor
from semantica.graph_store import GraphStore
from semantica.kg import GraphBuilder
from semantica.graph_store import Neo4jStore
ingestor = WebIngestor()
pages = WebIngestor(max_depth=2).ingest("https://example.com")
normalizer = TextNormalizer()
ner = NERExtractor(method="pattern")
rel = RelationExtractor(method="pattern")
store = Neo4jStore(uri="bolt://localhost:7687", user="neo4j", password="password")
# The generic GraphStore wrapper exposes the add_nodes/add_edges interface
# GraphBuilder persists through; a raw Neo4jStore does not
store = GraphStore(backend="neo4j", uri="bolt://localhost:7687", user="neo4j", password="password")
builder = GraphBuilder(merge_entities=True, graph_store=store)
for url in ["https://example.com/a", "https://example.com/b"]:
page = ingestor.ingest_url(url) # WebContent, has .text
for page in pages:
text = normalizer.normalize_text(page.text)
entities = ner.extract(text)
relationships = rel.extract(text, entities=entities)
builder.build({"entities": entities, "relationships": relationships})
entities = NERExtractor().extract(text)
relationships = RelationExtractor().extract(text, entities=entities)
store.add_nodes(entities)
store.add_edges(relationships)
```
**Best for:** competitive intelligence, news monitoring, research aggregation
@@ -733,8 +692,8 @@ versioner.create_snapshot(kg, "2024-Q1", author="user@example.com", description=
| [vector_store](/reference/vector_store) | Vector database | `VectorStore` |
| [graph_store](/reference/graph_store) | Graph database | `GraphStore` |
| [triplet_store](/reference/triplet_store) | RDF triple store | `TripletStore` |
| [deduplication](/reference/deduplication) | Entity resolution | `DuplicateDetector`, `EntityMerger`, `ClusterBuilder`, `MergeStrategyManager` |
| [conflicts](/reference/conflicts) | Conflict resolution | `ConflictDetector`, `ConflictResolver`, `SourceTracker` |
| [deduplication](/reference/deduplication) | Entity resolution | `EntityResolver`, `DuplicateDetector`, `ClusterBuilder`, `MergeStrategyManager` |
| [conflicts](/reference/conflicts) | Conflict resolution | `ConflictDetector` |
| [context](/reference/context) | Agent context & decisions | `AgentContext`, `ContextGraph` |
| [provenance](/reference/provenance) | W3C PROV-O lineage | `ProvenanceManager` |
| [change_management](/reference/change_management) | Version control | `TemporalVersionManager` |
@@ -744,8 +703,8 @@ versioner.create_snapshot(kg, "2024-Q1", author="user@example.com", description=
| [explorer](/reference/explorer) | Knowledge Explorer UI | `semantica-explorer --graph <file>` |
| [llms](/reference/llms) | LLM providers | `Groq`, `OpenAI`, `create_provider` |
| [mcp_server](/reference/mcp_server) | MCP stdio server | `python -m semantica.mcp_server` |
| [seed](/reference/seed) | KG bootstrapping from structured sources | `SeedDataManager` |
| [evals](/reference/evals) | Decision-intelligence evaluation | `evaluate`, `list_evaluators`, `EvalSummary` |
| [seed](/reference/seed) | KG bootstrapping from structured sources | `SeedManager` |
| [evals](/reference/evals) | Quality evaluation | `KGEvaluator`, `ExtractionEvaluator`, `PipelineEvaluator`, `RegressionTracker` |
| [core](/reference/core) | Base classes & registry | `Semantica`, `ConfigManager`, `PluginRegistry`, `LifecycleManager` |
| [utils](/reference/utils) | Shared utilities | `helpers`, `validators` |
+7 -9
View File
@@ -78,13 +78,11 @@ from semantica.parse import DocumentParser
parser = DocumentParser()
parsed = parser.parse(sources[0].path) # parse() takes a path string
print(parsed["full_text"][:200]) # extracted text
print(parsed["metadata"]) # document properties (fields vary by format)
print(parsed["text"][:200]) # extracted text
print(parsed["metadata"]) # file_path, encoding, size, and format-specific keys
```
`parse()` returns a `dict`. `full_text` and `metadata` are present for every
format; other keys depend on the parser (`pages` for PDF, `tables` and
`paragraphs` for DOCX, `tables` for `DoclingParser`).
`parse()` returns a `dict` with `text`, `full_text`, and `metadata` keys.
<Tip>
For PDFs with tables, charts, or multi-column layouts, use `DoclingParser` (`pip install semantica[parse-docling]`): it applies advanced layout analysis and returns structured table data alongside text.
@@ -109,7 +107,7 @@ Identify named entities and extract typed relationships between them.
```python Pattern-based (fast, no API key)
from semantica.semantic_extract import NERExtractor, RelationExtractor
text = parsed["full_text"]
text = parsed["text"]
ner = NERExtractor(method="pattern")
entities = ner.extract(text)
@@ -124,7 +122,7 @@ relationships = rel.extract(text, entities=entities)
from semantica.semantic_extract import NERExtractor, RelationExtractor
# Reads GROQ_API_KEY from the environment; provider/llm_model select the backend
text = parsed["full_text"]
text = parsed["text"]
ner = NERExtractor(method="llm", provider="groq", llm_model="llama-3.3-70b-versatile")
entities = ner.extract(text)
@@ -279,7 +277,7 @@ builder = GraphBuilder(merge_entities=True)
all_entities, all_rels = [], []
for source in FileIngestor().ingest("data/reports/"):
text = parser.parse(source.path)["full_text"]
text = parser.parse(source.path)["text"]
entities = ner.extract(text)
rels = rel.extract(text, entities=entities)
all_entities.extend(entities)
@@ -415,7 +413,7 @@ store = GraphStore(backend="neo4j", uri="bolt://localhost:7687",
builder = GraphBuilder(merge_entities=True, graph_store=store)
for info in ingestor.scan_directory("data/reports/", recursive=True):
text = parser.parse(info["path"])["full_text"] # one document loaded at a time
text = parser.parse(info["path"])["text"] # one document loaded at a time
entities = ner.extract(text)
rels = rel.extract(text, entities=entities)
builder.build({"entities": entities, "relationships": rels})
+21 -21
View File
@@ -30,28 +30,28 @@ icon: "brain"
## What You Get
- **AgentContext**: memory, decision tracking, and graph-backed retrieval behind one API
- **AgentContext** — Memory, decision tracking, and graph-backed retrieval behind one API
- Conversation history and checkpoint diffing
- Persist and restore full context state to disk
- **ContextGraph**: thread-safe in-memory knowledge graph
- **ContextGraph** — Thread-safe in-memory knowledge graph
- PageRank, centrality, community detection, temporal validity
- Cross-graph navigation and link traversal
- **AgentMemory**: embedding-backed memory with retention policy
- **AgentMemory** — Embedding-backed memory with retention policy
- LRU eviction at configurable `max_memory_size`
- Per-conversation history isolation
- **DecisionRecorder**: records decisions with causal chains and confidence scores
- **DecisionRecorder** — Records decisions with causal chains and confidence scores
- Temporal validity windows (`valid_from` / `valid_until`)
- Cross-system context capture on every decision
- **PolicyEngine**: versioned policy storage in the knowledge graph
- **PolicyEngine** — Versioned policy storage in the knowledge graph
- Compliance checking against recorded decisions
- Policy exception tracking with approver audit trail
- **EntityLinker**: maps entity text to stable URIs
- **EntityLinker** — Maps entity text to stable URIs
- Creates typed links between entity IDs
- Prevents "Apple", "Apple Inc.", "AAPL" becoming separate nodes
- **ContextRetriever**: fuses vector similarity, graph traversal, and agent memory
- **ContextRetriever** — Fuses vector similarity, graph traversal, and agent memory
- Richer context than pure vector search
- Configurable `hybrid_alpha` and expansion hops
- **CausalChainAnalyzer**: traces upstream causes and downstream effects of any decision
- **CausalChainAnalyzer** — Traces upstream causes and downstream effects of any decision
- Explainability paths with relationship types
- Configurable depth and direction
@@ -273,7 +273,7 @@ icon: "brain"
</Tip>
<Tip>
**Persist your context between runs.** `VectorStore` does not auto-persist; passing `index_path=` to its constructor is a no-op. Call `context.save("agent_state/")` to write memory, the vector index, and the graph to disk, and `context.load("agent_state/")` on the next process to restore them. See the "Persist & Restore" tab under [Real-World Patterns](#real-world-patterns) below.
**Persist your context between runs.** `VectorStore` does not auto-persist passing `index_path=` to its constructor is a no-op. Call `context.save("agent_state/")` to write memory, the vector index, and the graph to disk, and `context.load("agent_state/")` on the next process to restore them. See the "Persist & Restore" tab under [Real-World Patterns](#real-world-patterns) below.
</Tip>
### Memory Methods
@@ -449,7 +449,7 @@ print("Nodes: {}, Edges: {}".format(stats["node_count"], stats["edge_count"]))
`ContextGraph` exposes a full Distance Intelligence API for exploring semantic neighborhoods and blending proximity into retrieval.
<Info>
Full Distance Intelligence reference (distance matrices, API endpoints, embedding cache, Explorer UI) is covered in the dedicated [Distance Intelligence](/reference/distance) page. This section documents the context-layer API.
Full Distance Intelligence reference distance matrices, API endpoints, embedding cache, Explorer UI is covered in the dedicated [Distance Intelligence](/reference/distance) page. This section documents the context-layer API.
</Info>
### Neighbors with Distance Metadata
@@ -480,7 +480,7 @@ for n in neighbors:
| Added field | Type | Description |
| :---------- | :---- | :----------- |
| `distance_band` | `str` | `"direct"` (1 hop) / `"near"` (2) / `"mid-range"` (34) / `"distant"` (5+) |
| `confidence_decay` | `float` | `edge_weight ^ hop_count`; decays with each hop |
| `confidence_decay` | `float` | `edge_weight ^ hop_count` decays with each hop |
| `path_to_anchor` | `List[str]` | Shortest path from anchor node to this neighbor |
| `hop_count` | `int` | BFS depth from anchor |
@@ -659,7 +659,7 @@ if not receipt.complete:
```
<Warning>
Check the receipt. The call returning is not proof the data is gone. FAISS,
Check the receipt — the call returning is not proof the data is gone. FAISS,
Milvus, and Weaviate expose no delete method, so erasure cannot be completed on
those backends today; the receipt reports `unsupported` rather than a success it
did not achieve.
@@ -687,9 +687,9 @@ At least one store is required; a store that is not supplied reports
| Status | Meaning |
| :--- | :--- |
| `erased` | Reached, data removed. On the vectors leg this means the store accepted the delete for the ids given; backends offer no portable existence check, so it is not a count of embeddings that were really there |
| `erased` | Reached, data removed. On the vectors leg this means the store accepted the delete for the ids given backends offer no portable existence check, so it is not a count of embeddings that were really there |
| `not_found` | Reached, held nothing for this entity |
| `not_configured` | No such store was bound: normal, not a failure |
| `not_configured` | No such store was bound normal, not a failure |
| `unsupported` | The store cannot delete at all; retrying will not help |
| `failed` | The store was reached and the deletion did not succeed |
@@ -721,7 +721,7 @@ receipt.to_dict()
# }
```
Erasure runs outward-in: vectors, then memory, then the graph. The tombstone is
Erasure runs outward-in vectors, then memory, then the graph. The tombstone is
the durable attestation that an erasure happened, so it is written last: a crash
mid-cascade leaves the node present and the receipt incomplete, rather than a
tombstone claiming more than actually happened. A store that raises is recorded
@@ -1087,10 +1087,10 @@ class EntityLink:
</Tab>
</Tabs>
- [Vector Store](/reference/vector_store): embedding storage backend for memory retrieval.
- [Knowledge Graph](/reference/kg): graph algorithms and analytics used inside ContextGraph.
- [Reasoning](/guides/reasoning): logical inference layered on top of context.
- [Provenance](/guides/provenance): W3C PROV-O lineage for every stored fact.
- [Vector Store](/reference/vector_store) — Embedding storage backend for memory retrieval.
- [Knowledge Graph](/reference/kg) — Graph algorithms and analytics used inside ContextGraph.
- [Reasoning](reasoning) — Logical inference layered on top of context.
- [Provenance](provenance) — W3C PROV-O lineage for every stored fact.
- [Context Module](https://github.com/semantica-agi/semantica/blob/main/cookbook/introduction/19_Context_Module.ipynb): memory and decision tracking · Intermediate
- [Advanced Context Engineering](https://github.com/semantica-agi/semantica/blob/main/cookbook/advanced/11_Advanced_Context_Engineering.ipynb): production FAISS + Neo4j setup · Advanced
- [Context Module](https://github.com/semantica-agi/semantica/blob/main/cookbook/introduction/19_Context_Module.ipynb) — Memory and decision tracking · Intermediate
- [Advanced Context Engineering](https://github.com/semantica-agi/semantica/blob/main/cookbook/advanced/11_Advanced_Context_Engineering.ipynb) — Production FAISS + Neo4j setup · Advanced
+1 -1
View File
@@ -323,7 +323,7 @@ all_facts = datalog.derive_all()
# Query with variable pattern: variables start with uppercase or ?
results = datalog.query("ancestor(alice, ?Z)")
# → a list of binding dicts: [{"Z": "bob"}, {"Z": "charlie"}, {"Z": "dave"}] (order not guaranteed)
# → [{"Z": "bob"}, {"Z": "charlie"}, {"Z": "dave"}]
# Clear and start over
datalog.clear()
+1 -1
View File
@@ -9,7 +9,7 @@
"lint": "eslint .",
"preview": "vite preview",
"test:graph-store": "node --test tests/graphStore.multi-edge.test.mjs",
"test:graph-workspace": "node --import tsx --test tests/markdownContentViewer.test.ts tests/graphSceneState.display.test.ts tests/temporalLifecycle.test.ts tests/deterministicExplorerRendering.test.ts tests/smallGraphLayout.test.ts tests/realtimeGraphAttributes.test.ts tests/ontologyEditorModel.test.ts",
"test:graph-workspace": "node --import tsx --test tests/markdownContentViewer.test.ts tests/graphSceneState.display.test.ts tests/temporalLifecycle.test.ts tests/deterministicExplorerRendering.test.ts tests/smallGraphLayout.test.ts tests/realtimeGraphAttributes.test.ts",
"test:deterministic-e2e": "node --import tsx --test tests/deterministicExplorerRendering.e2e.ts",
"test:plugin-registry": "node --import tsx --test tests/pluginRegistry.temporal.test.mjs"
},
+1 -13
View File
@@ -93,18 +93,6 @@ const navItems: NavItem[] = [
{ id: 'ontology-hub', label: 'Ontology Hub', hint: 'Schema governance, registry, and vocabulary management', icon: GitMerge },
];
function readInitialWorkspace(): WorkspaceId {
try {
const params = new URLSearchParams(window.location.search);
if (params.has("ontologyTab") || params.has("ontologyEntity")) {
return "ontology-hub";
}
} catch {
// Default to the welcome screen when URL state is unavailable.
}
return "welcome";
}
const shellStyles = `
:root {
--app-bg: #07111f;
@@ -1785,7 +1773,7 @@ function WelcomeScreen({
}
export default function App() {
const [activeWorkspace, setActiveWorkspace] = useState<WorkspaceId>(readInitialWorkspace);
const [activeWorkspace, setActiveWorkspace] = useState<WorkspaceId>('welcome');
const [exploreView, setExploreView] = useState<ExploreView>('graph');
const [analyzeView, setAnalyzeView] = useState<AnalyzeView>('reasoning');
const [enrichView, setEnrichView] = useState<EnrichView>('import');
@@ -8,10 +8,8 @@ import {
useNodesState,
useEdgesState,
MarkerType,
Handle,
Position,
} from "@xyflow/react";
import type { Connection, Edge, Node, ReactFlowInstance } from "@xyflow/react";
import type { Connection, Edge, Node } from "@xyflow/react";
import "@xyflow/react/dist/style.css";
import {
Plus,
@@ -24,20 +22,10 @@ import {
Pencil,
Trash2,
} from "lucide-react";
import { loadOntologyEntityOwner, loadOntologyGraph } from "./api";
import type { OntologyGraphEdge, OntologyGraphNode } from "./api";
import {
classifyNodeType,
inferOntologyUri,
isEditableEntityType,
ONTOLOGY_MINIMAP_THEME,
} from "./ontologyEditorModel";
import type { EditorEntityType, RegistryEntry } from "./ontologyEditorModel";
type OntologyNodeData = {
label?: string;
type?: string;
entityType?: EditorEntityType;
};
type OntologyNode = Node<OntologyNodeData>;
@@ -46,57 +34,12 @@ type OntologyEdge = Edge<Record<string, unknown>>;
const nodeTypes = {
classNode: ({ data }: { data: OntologyNodeData }) => (
<div style={classNodeStyle}>
<Handle type="target" position={Position.Left} style={handleStyle} />
<div style={classNodeHeader}>{data.label}</div>
<div style={classNodeSub}>{data.type}</div>
<Handle type="source" position={Position.Right} style={handleStyle} />
</div>
),
};
const handleStyle: React.CSSProperties = {
width: 8,
height: 8,
border: "1px solid rgba(235, 243, 255, 0.8)",
background: "#4aa3ff",
};
const ontologyFlowThemeCss = `
.ontology-editor-flow .react-flow__controls {
overflow: hidden;
border: 1px solid rgba(127, 208, 255, 0.2);
border-radius: 9px;
background: rgba(6, 13, 26, 0.96);
box-shadow: 0 8px 24px rgba(0, 0, 0, 0.38);
}
.ontology-editor-flow .react-flow__controls-button {
width: 30px;
height: 30px;
background: transparent;
border-bottom-color: rgba(127, 208, 255, 0.14);
color: #8fa8c6;
transition: color 140ms ease, background 140ms ease;
}
.ontology-editor-flow .react-flow__controls-button:hover {
background: rgba(74, 163, 255, 0.14);
color: #ebf3ff;
}
.ontology-editor-flow .react-flow__controls-button:focus-visible {
position: relative;
z-index: 1;
outline: 2px solid #7fd0ff;
outline-offset: -2px;
}
.ontology-editor-flow .react-flow__controls-button:disabled {
background: rgba(3, 9, 18, 0.32);
color: #40566f;
}
`;
const classNodeStyle: React.CSSProperties = {
padding: "12px 16px",
borderRadius: "8px",
@@ -136,95 +79,17 @@ interface DraftDiff {
annotation_changes: Record<string, Record<string, any>>;
}
function requestedEntityUri(): string {
try {
return new URLSearchParams(window.location.search).get("ontologyEntity") || "";
} catch {
return "";
}
}
function nodeLabel(node: OntologyGraphNode): string {
const explicit = String(node.content || node.properties?.["rdfs:label"] || "").trim();
if (explicit && explicit !== node.id) {
return explicit;
}
const trimmed = node.id.replace(/[/#]+$/, "");
return trimmed.split("#").pop() || trimmed.split("/").pop() || node.id;
}
function classifyEditorNode(node: OntologyGraphNode): OntologyNodeData["entityType"] {
return classifyNodeType(node.type);
}
function layoutEditorNodes(inputNodes: OntologyNode[]): OntologyNode[] {
const properties = inputNodes.filter((node) => node.data.entityType === "property");
const targets = inputNodes.filter((node) => (
node.data.entityType === "class" || node.data.entityType === "external"
));
const context = inputNodes.filter((node) => (
node.data.entityType !== "property"
&& node.data.entityType !== "class"
&& node.data.entityType !== "external"
));
const height = Math.max(360, Math.max(properties.length, targets.length) * 180);
const positions = new Map<string, { x: number; y: number }>();
properties.forEach((node, index) => {
positions.set(node.id, { x: 0, y: ((index + 1) * height) / (properties.length + 1) });
});
targets.forEach((node, index) => {
positions.set(node.id, { x: 600, y: ((index + 1) * height) / (targets.length + 1) });
});
context.forEach((node, index) => {
positions.set(node.id, { x: 300 + index * 220, y: height + 120 });
});
return inputNodes.map((node) => ({
...node,
position: positions.get(node.id) || node.position,
}));
}
function buildEditorElements(apiNodes: OntologyGraphNode[], apiEdges: OntologyGraphEdge[]) {
const sortedNodes = [...apiNodes].sort((left, right) => {
const typeDelta = left.type.localeCompare(right.type);
return typeDelta || left.id.localeCompare(right.id);
});
const nodes = layoutEditorNodes(sortedNodes.map((node) => ({
id: node.id,
type: "classNode",
position: { x: 0, y: 0 },
data: {
label: nodeLabel(node),
type: node.type,
entityType: classifyEditorNode(node),
},
})));
const edges: OntologyEdge[] = apiEdges.map((edge, index) => ({
id: edge.id || `${edge.source}:${edge.type}:${edge.target}:${index}`,
source: edge.source,
target: edge.target,
label: edge.type,
type: "default",
markerEnd: { type: MarkerType.ArrowClosed },
style: { stroke: "rgba(127, 208, 255, 0.72)", strokeWidth: 1.5 },
labelStyle: { fill: "#c8dcf5", fontSize: 11, fontWeight: 600 },
labelBgStyle: { fill: "#07111f", fillOpacity: 0.9 },
}));
return { nodes, edges };
interface RegistryEntry {
uri: string;
name: string;
}
export function OntologyEditor() {
const [nodes, setNodes, onNodesChange] = useNodesState<OntologyNode>([]);
const [edges, setEdges, onEdgesChange] = useEdgesState<OntologyEdge>([]);
const [selectedElement, setSelectedElement] = useState<OntologyNode | OntologyEdge | null>(null);
const hasDetailPanel = selectedElement !== null;
const [registry, setRegistry] = useState<RegistryEntry[]>([]);
const [ontologyUri, setOntologyUri] = useState<string>("");
const [flowInstance, setFlowInstance] = useState<ReactFlowInstance<OntologyNode, OntologyEdge> | null>(null);
const [isLoadingGraph, setIsLoadingGraph] = useState(false);
const [graphError, setGraphError] = useState("");
const [draftDiff, setDraftDiff] = useState<DraftDiff>({
added_classes: [],
removed_classes: [],
@@ -243,18 +108,12 @@ export function OntologyEditor() {
useEffect(() => {
let cancelled = false;
const requested = requestedEntityUri();
Promise.all([
fetch("/api/ontology/registry").then((response) => (response.ok ? response.json() : [])),
requested
? loadOntologyEntityOwner(requested).catch(() => undefined)
: Promise.resolve(undefined),
])
.then(([entries, explicitOwner]: [RegistryEntry[], string | undefined]) => {
fetch("/api/ontology/registry")
.then((response) => (response.ok ? response.json() : []))
.then((entries: RegistryEntry[]) => {
if (cancelled) return;
setRegistry(entries);
const inferredOntology = inferOntologyUri(entries, requested, explicitOwner);
setOntologyUri((current) => current || inferredOntology || entries[0]?.uri || "");
setOntologyUri((current) => current || entries[0]?.uri || "");
})
.catch((error) => {
console.error("Failed to load ontology registry:", error);
@@ -264,47 +123,6 @@ export function OntologyEditor() {
};
}, []);
useEffect(() => {
if (!ontologyUri) {
setNodes([]);
setEdges([]);
setSelectedElement(null);
return;
}
const controller = new AbortController();
setIsLoadingGraph(true);
setGraphError("");
loadOntologyGraph(ontologyUri, controller.signal)
.then((payload) => {
const elements = buildEditorElements(payload.nodes, payload.edges);
setNodes(elements.nodes);
setEdges(elements.edges);
const requested = requestedEntityUri();
setSelectedElement(elements.nodes.find((node) => node.id === requested) || null);
})
.catch((error) => {
if (controller.signal.aborted) return;
setNodes([]);
setEdges([]);
setSelectedElement(null);
setGraphError(error instanceof Error ? error.message : "Failed to load ontology graph");
})
.finally(() => {
if (!controller.signal.aborted) setIsLoadingGraph(false);
});
return () => controller.abort();
}, [ontologyUri, setEdges, setNodes]);
useEffect(() => {
if (!flowInstance || nodes.length === 0) return;
const frame = window.requestAnimationFrame(() => {
void flowInstance.fitView({ padding: 0.22, duration: 320, maxZoom: 1.25 });
});
return () => window.cancelAnimationFrame(frame);
}, [flowInstance, hasDetailPanel, nodes.length, ontologyUri]);
const onConnect = useCallback(
(params: Connection) => setEdges((eds) => addEdge({ ...params, markerEnd: { type: MarkerType.ArrowClosed } }, eds)),
[setEdges]
@@ -316,7 +134,7 @@ export function OntologyEditor() {
id: newId,
type: "classNode",
position: { x: Math.random() * 400, y: Math.random() * 300 },
data: { label: "NewClass", type: "owl:Class", entityType: "class" },
data: { label: "NewClass", type: "owl:Class" },
};
setNodes((nds) => [...nds, newNode]);
setDraftDiff((prev) => ({
@@ -352,7 +170,7 @@ export function OntologyEditor() {
id: newId,
type: "classNode",
position: { x: Math.random() * 400, y: Math.random() * 300 },
data: { label: "NewIndividual", type: "owl:NamedIndividual", entityType: "external" },
data: { label: "NewIndividual", type: "owl:NamedIndividual" },
};
setNodes((nds) => [...nds, newNode]);
}, [setNodes]);
@@ -372,21 +190,13 @@ export function OntologyEditor() {
}, []);
const autoLayout = useCallback(() => {
setNodes(layoutEditorNodes(nodes));
const layoutNodes = nodes.map((node, index) => ({
...node,
position: { x: (index % 4) * 200, y: Math.floor(index / 4) * 150 },
}));
setNodes(layoutNodes);
}, [nodes, setNodes]);
const selectNode = useCallback((node: OntologyNode) => {
setSelectedElement(node);
try {
const params = new URLSearchParams(window.location.search);
params.set("ontologyTab", "editor");
params.set("ontologyEntity", node.id);
window.history.replaceState(null, "", `?${params.toString()}`);
} catch {
// URL state is optional; the editor selection still works without it.
}
}, []);
const saveDraft = useCallback(async () => {
if (!ontologyUri) {
alert("Please select an ontology first");
@@ -437,11 +247,12 @@ export function OntologyEditor() {
...prev,
removed_properties: [...prev.removed_properties, target.id],
}));
} else if (isEditableEntityType(target.data.entityType)) {
} else {
setNodes((nds) => nds.filter((n) => n.id !== target.id));
setDraftDiff((prev) => target.data.entityType === "property"
? { ...prev, removed_properties: [...prev.removed_properties, target.id] }
: { ...prev, removed_classes: [...prev.removed_classes, target.id] });
setDraftDiff((prev) => ({
...prev,
removed_classes: [...prev.removed_classes, target.id],
}));
}
setSelectedElement(null);
}
@@ -450,21 +261,16 @@ export function OntologyEditor() {
const renameSelected = useCallback(() => {
const target = showContext?.element ?? selectedElement;
if (target && !("source" in target) && isEditableEntityType(target.data.entityType)) {
if (target && !("source" in target)) {
const newLabel = prompt("Enter new name:", String(target.data.label ?? ""));
if (newLabel) {
setNodes((nds) =>
nds.map((n) => (n.id === target.id ? { ...n, data: { ...n.data, label: newLabel } } : n))
);
setDraftDiff((prev) => target.data.entityType === "property"
? {
...prev,
modified_properties: { ...prev.modified_properties, [target.id]: { label: newLabel } },
}
: {
...prev,
modified_classes: { ...prev.modified_classes, [target.id]: { label: newLabel } },
});
setDraftDiff((prev) => ({
...prev,
modified_classes: { ...prev.modified_classes, [target.id]: { label: newLabel } },
}));
}
}
setShowContext(null);
@@ -533,10 +339,11 @@ export function OntologyEditor() {
};
const detailPanelStyle: React.CSSProperties = {
flex: "0 0 320px",
position: "absolute",
right: 0,
top: 0,
bottom: 0,
width: "320px",
minWidth: "320px",
boxSizing: "border-box",
background: "rgba(9, 19, 34, 0.95)",
borderLeft: "1px solid rgba(140, 192, 255, 0.12)",
padding: "20px",
@@ -546,24 +353,11 @@ export function OntologyEditor() {
return (
<div style={{ display: "flex", flexDirection: "column", height: "100%", background: "#07111f" }}>
<style>{ontologyFlowThemeCss}</style>
<div style={toolbarStyle}>
<select
aria-label="Active ontology"
value={ontologyUri}
onChange={(event) => {
setOntologyUri(event.target.value);
setSelectedElement(null);
try {
// Drop the previous ontology's entity from the URL, or a reload
// would resolve the stale ID and jump back to that ontology.
const params = new URLSearchParams(window.location.search);
params.delete("ontologyEntity");
window.history.replaceState(null, "", `?${params.toString()}`);
} catch {
// URL state is optional; switching ontologies still works.
}
}}
onChange={(event) => setOntologyUri(event.target.value)}
style={selectStyle}
>
<option value="">Select ontology...</option>
@@ -604,75 +398,43 @@ export function OntologyEditor() {
</button>
</div>
<div style={{ display: "flex", flex: 1, minHeight: 0, minWidth: 0 }}>
<div style={{ flex: 1, minHeight: 0, minWidth: 0, position: "relative" }}>
<ReactFlow
className="ontology-editor-flow"
nodes={nodes}
edges={edges}
onNodesChange={onNodesChange}
onEdgesChange={onEdgesChange}
onConnect={onConnect}
onInit={setFlowInstance}
onNodeClick={(_, node) => selectNode(node)}
onEdgeClick={(_, edge) => setSelectedElement(edge)}
onNodeContextMenu={handleNodeContextMenu}
onEdgeContextMenu={handleEdgeContextMenu}
nodeTypes={nodeTypes}
fitView
style={{ background: "#07111f" }}
>
<Background color="#1a2d3d" gap={20} />
<Controls />
<MiniMap {...ONTOLOGY_MINIMAP_THEME} />
</ReactFlow>
<div style={{ flex: 1, position: "relative" }}>
<ReactFlow
nodes={nodes}
edges={edges}
onNodesChange={onNodesChange}
onEdgesChange={onEdgesChange}
onConnect={onConnect}
onNodeClick={(_, node) => setSelectedElement(node)}
onEdgeClick={(_, edge) => setSelectedElement(edge)}
onNodeContextMenu={handleNodeContextMenu}
onEdgeContextMenu={handleEdgeContextMenu}
nodeTypes={nodeTypes}
fitView
style={{ background: "#07111f" }}
>
<Background color="#1a2d3d" gap={20} />
<Controls />
<MiniMap nodeColor="#4aa3ff" maskColor="rgba(0,0,0,0.6)" />
</ReactFlow>
{isLoadingGraph && (
<div style={canvasMessageStyle}>Loading ontology structure</div>
)}
{!isLoadingGraph && graphError && (
<div style={{ ...canvasMessageStyle, color: "#ff9a8d" }}>{graphError}</div>
)}
{!isLoadingGraph && !graphError && ontologyUri && nodes.length === 0 && (
<div style={canvasMessageStyle}>This ontology has no editable classes or properties.</div>
)}
{showContext && (
<div style={{ ...contextMenuStyle, left: showContext.x, top: showContext.y }}>
{"source" in showContext.element || isEditableEntityType(showContext.element.data.entityType) ? (
<>
{!("source" in showContext.element) && (
<div style={contextItemStyle} onClick={renameSelected}>
<Pencil size={14} />
Rename
</div>
)}
<div style={contextItemStyle} onClick={deleteSelected}>
<Trash2 size={14} />
Delete
</div>
</>
) : (
<div style={{ ...contextItemStyle, cursor: "default", color: "#8fa8c6" }}>
This term is read-only
</div>
)}
{showContext && (
<div style={{ ...contextMenuStyle, left: showContext.x, top: showContext.y }}>
<div style={contextItemStyle} onClick={renameSelected}>
<Pencil size={14} />
Rename
</div>
)}
</div>
<div style={contextItemStyle} onClick={deleteSelected}>
<Trash2 size={14} />
Delete
</div>
</div>
)}
{selectedElement && (
<div style={detailPanelStyle}>
<h3 style={{ margin: "0 0 16px", color: "#ebf3ff", fontSize: "16px" }}>
{"source" in selectedElement
? "Relationship Details"
: selectedElement.data.entityType === "property"
? "Property Details"
: selectedElement.data.entityType === "ontology"
? "Ontology Details"
: selectedElement.data.entityType === "external"
? "External Term Details"
: "Class Details"}
{"source" in selectedElement ? "Property Details" : "Class Details"}
</h3>
<div style={{ marginBottom: "12px" }}>
<label style={{ display: "block", color: "#8fa8c6", fontSize: "12px", marginBottom: "4px" }}>
@@ -691,9 +453,7 @@ export function OntologyEditor() {
<input
type="text"
value={String(selectedElement.data.label ?? "")}
readOnly={!isEditableEntityType(selectedElement.data.entityType)}
onChange={(e) => {
if (!isEditableEntityType(selectedElement.data.entityType)) return;
setNodes((nds) =>
nds.map((n) =>
n.id === selectedElement.id
@@ -703,19 +463,10 @@ export function OntologyEditor() {
);
setDraftDiff((prev) => ({
...prev,
...(selectedElement.data.entityType === "property"
? {
modified_properties: {
...prev.modified_properties,
[selectedElement.id]: { label: e.target.value },
},
}
: {
modified_classes: {
...prev.modified_classes,
[selectedElement.id]: { label: e.target.value },
},
}),
modified_classes: {
...prev.modified_classes,
[selectedElement.id]: { label: e.target.value },
},
}));
}}
style={{
@@ -745,17 +496,3 @@ export function OntologyEditor() {
</div>
);
}
const canvasMessageStyle: React.CSSProperties = {
position: "absolute",
left: "50%",
top: "50%",
transform: "translate(-50%, -50%)",
padding: "10px 14px",
borderRadius: "8px",
border: "1px solid rgba(127, 208, 255, 0.18)",
background: "rgba(3, 9, 18, 0.9)",
color: "#8fa8c6",
fontSize: "13px",
pointerEvents: "none",
};
@@ -9,32 +9,6 @@ import type {
ShaclValidationResponse,
} from "./types";
export type OntologyGraphNode = {
id: string;
type: string;
content?: string;
properties?: Record<string, unknown>;
};
export type OntologyGraphEdge = {
id?: string;
source: string;
target: string;
type: string;
weight?: number;
properties?: Record<string, unknown>;
};
export type OntologyGraphResponse = {
uri: string;
nodes: OntologyGraphNode[];
edges: OntologyGraphEdge[];
};
export type OntologyEntityOwner = {
source_ontology?: string;
};
async function parseResponse<T>(response: Response): Promise<T> {
if (!response.ok) {
let detail = `Request failed with status ${response.status}`;
@@ -57,18 +31,6 @@ export async function loadOntologyRegistry(): Promise<OntologyEntry[]> {
return parseResponse<OntologyEntry[]>(await fetch("/api/ontology/registry"));
}
export async function loadOntologyGraph(uri: string, signal?: AbortSignal): Promise<OntologyGraphResponse> {
return parseResponse<OntologyGraphResponse>(
await fetch(`/api/ontology/graph?uri=${encodeURIComponent(uri)}`, { signal }),
);
}
export async function loadOntologyEntityOwner(uri: string): Promise<string | undefined> {
const response = await fetch(`/api/ontology/entity/${encodeURIComponent(uri)}`);
if (!response.ok) return undefined;
return (await response.json() as OntologyEntityOwner).source_ontology;
}
export async function loadAlignments(uri?: string): Promise<OntologyAlignment[]> {
const query = uri ? `?uri=${encodeURIComponent(uri)}` : "";
return parseResponse<OntologyAlignment[]>(await fetch(`/api/ontology/alignments${query}`));
@@ -38,7 +38,6 @@ function readTabParam(): OntologyHubTab {
const params = new URLSearchParams(window.location.search);
const raw = params.get(TAB_PARAM);
if (raw && TABS.some((t) => t.id === raw)) return raw as OntologyHubTab;
if (params.get("ontologyEntity")) return "editor";
} catch {
// ignore
}
@@ -117,3 +116,4 @@ export function OntologyWorkspace({ onJumpToGraphNode }: OntologyWorkspaceProps)
</div>
);
}
@@ -1,70 +0,0 @@
export type EditorEntityType = "ontology" | "class" | "property" | "external";
export type RegistryEntry = {
uri: string;
name: string;
};
export const ONTOLOGY_MINIMAP_THEME = {
bgColor: "#0b1625",
maskColor: "rgba(7, 17, 31, 0.72)",
maskStrokeColor: "#5faeff",
maskStrokeWidth: 2,
nodeColor: "#2d7fd3",
nodeStrokeColor: "#9acbff",
nodeStrokeWidth: 1,
style: {
border: "1px solid #29435c",
borderRadius: 6,
boxShadow: "0 4px 16px rgba(0, 0, 0, 0.32)",
},
} as const;
// The backend emits node types in compact (owl:Class) or full IRI
// (http://www.w3.org/2002/07/owl#Class) form; classification must accept both.
const FULL_IRI_PREFIXES: Array<[string, string]> = [
["http://www.w3.org/2002/07/owl#", "owl:"],
["http://www.w3.org/2000/01/rdf-schema#", "rdfs:"],
["http://www.w3.org/2004/02/skos/core#", "skos:"],
];
export function compactNodeType(type: string): string {
for (const [iri, prefix] of FULL_IRI_PREFIXES) {
if (type.startsWith(iri)) {
return `${prefix}${type.slice(iri.length)}`;
}
}
return type;
}
export function classifyNodeType(rawType: string): EditorEntityType {
const type = compactNodeType(rawType);
if (type === "owl:Ontology") return "ontology";
if (type === "owl:Class" || type === "rdfs:Class") return "class";
if (type.includes("Property")) return "property";
return "external";
}
function ownsByNamespace(entityUri: string, ontologyUri: string): boolean {
const stem = ontologyUri.replace(/[/#]+$/, "");
return entityUri === ontologyUri
|| entityUri.startsWith(`${stem}#`)
|| entityUri.startsWith(`${stem}/`);
}
export function inferOntologyUri(
entries: RegistryEntry[],
entityUri: string,
explicitOwner?: string,
): string | undefined {
if (explicitOwner && entries.some((entry) => entry.uri === explicitOwner)) {
return explicitOwner;
}
return [...entries]
.filter((entry) => ownsByNamespace(entityUri, entry.uri))
.sort((left, right) => right.uri.length - left.uri.length)[0]?.uri;
}
export function isEditableEntityType(entityType?: EditorEntityType): boolean {
return entityType === "class" || entityType === "property";
}
@@ -1,66 +0,0 @@
import assert from "node:assert/strict";
import test from "node:test";
import {
classifyNodeType,
compactNodeType,
inferOntologyUri,
isEditableEntityType,
ONTOLOGY_MINIMAP_THEME,
} from "../src/workspaces/OntologyWorkspace/ontologyEditorModel";
const registry = [
{ uri: "https://example.test/foo", name: "Foo" },
{ uri: "https://example.test/foo/nested", name: "Nested" },
];
test("ontology inference requires a URI delimiter and prefers the closest namespace", () => {
assert.equal(inferOntologyUri(registry, "https://example.test/foobar/Class"), undefined);
assert.equal(
inferOntologyUri(registry, "https://example.test/foo/nested#Class"),
"https://example.test/foo/nested",
);
});
test("explicit scheme ownership wins when an entity uses another namespace", () => {
assert.equal(
inferOntologyUri(registry, "https://vocabulary.test/Class", "https://example.test/foo"),
"https://example.test/foo",
);
});
test("only draft-supported class and property nodes are editable", () => {
assert.equal(isEditableEntityType("class"), true);
assert.equal(isEditableEntityType("property"), true);
assert.equal(isEditableEntityType("ontology"), false);
assert.equal(isEditableEntityType("external"), false);
});
test("the ontology minimap has an explicit dark, high-contrast theme", () => {
assert.equal(ONTOLOGY_MINIMAP_THEME.bgColor, "#0b1625");
assert.equal(ONTOLOGY_MINIMAP_THEME.maskStrokeColor, "#5faeff");
assert.equal(ONTOLOGY_MINIMAP_THEME.nodeStrokeColor, "#9acbff");
assert.match(ONTOLOGY_MINIMAP_THEME.style.border, /#29435c/);
});
test("node types classify identically in compact and full IRI form", () => {
const cases: Array<[string, string, string]> = [
["owl:Ontology", "http://www.w3.org/2002/07/owl#Ontology", "ontology"],
["owl:Class", "http://www.w3.org/2002/07/owl#Class", "class"],
["rdfs:Class", "http://www.w3.org/2000/01/rdf-schema#Class", "class"],
["owl:ObjectProperty", "http://www.w3.org/2002/07/owl#ObjectProperty", "property"],
["owl:DatatypeProperty", "http://www.w3.org/2002/07/owl#DatatypeProperty", "property"],
["owl:AnnotationProperty", "http://www.w3.org/2002/07/owl#AnnotationProperty", "property"],
];
for (const [compact, fullIri, expected] of cases) {
assert.equal(classifyNodeType(compact), expected, compact);
assert.equal(classifyNodeType(fullIri), expected, fullIri);
}
assert.equal(classifyNodeType("owl:NamedIndividual"), "external");
assert.equal(classifyNodeType("http://www.w3.org/2004/02/skos/core#Concept"), "external");
});
test("compactNodeType leaves unknown namespaces untouched", () => {
assert.equal(compactNodeType("https://example.org/custom#Thing"), "https://example.org/custom#Thing");
assert.equal(compactNodeType("owl:Class"), "owl:Class");
});
+7 -36
View File
@@ -47,11 +47,7 @@ dependencies = [
"numpy>=2.0.2",
"pandas>=1.3.0",
"scipy>=1.13.1",
# scikit-learn dropped Python 3.9 support at 1.7.0 (requires_python >=3.10),
# so an unqualified >=1.7.2 floor is unsatisfiable on 3.9. Cap 3.9 to the
# last 3.9-compatible release line; 3.10+ is left unconstrained.
"scikit-learn>=1.6.1,<1.7.0; python_version < '3.10'",
"scikit-learn>=1.7.2; python_version >= '3.10'",
"scikit-learn>=1.7.2",
"umap-learn>=0.5.12",
# thinc (spacy's core dep) dropped Python 3.9 wheels at 8.3.10, and later
# spacy patch releases (3.8.8+) require thinc>=8.3.9-only-on-3.10+ ranges,
@@ -70,49 +66,24 @@ dependencies = [
"seaborn>=0.13.2",
"plotly>=6.8.0",
"ipywidgets>=8.0.0",
# requests dropped Python 3.9 support at 2.33.0 (requires_python >=3.10),
# so an unqualified >=2.34.2 floor is unsatisfiable on 3.9. Cap 3.9 to the
# last 3.9-compatible release; 3.10+ is left unconstrained.
"requests>=2.32.5,<2.33.0; python_version < '3.10'",
"requests>=2.34.2; python_version >= '3.10'",
"requests>=2.34.2",
"GitPython>=3.1.58",
# chardet dropped Python 3.9 support at 6.0.0 (requires_python >=3.10), so
# an unqualified >=7.4.3 floor is unsatisfiable on 3.9. Cap 3.9 to the last
# 3.9-compatible release; 3.10+ is left unconstrained.
"chardet>=5.2.0,<6.0.0; python_version < '3.10'",
"chardet>=7.4.3; python_version >= '3.10'",
"chardet>=7.4.3",
"protobuf>=5.29.1,<8.0",
# grpcio dropped Python 3.9 support at 1.81.0 (requires_python >=3.10), so
# an unqualified >=1.81.1 floor is unsatisfiable on 3.9. Cap 3.9 to the last
# 3.9-compatible release; 3.10+ is left unconstrained.
"grpcio>=1.80.0,<1.81.0; python_version < '3.10'",
"grpcio>=1.81.1; python_version >= '3.10'",
"grpcio>=1.81.1",
"beautifulsoup4>=4.15.0",
"lxml>=6.1.1",
"python-docx>=1.2.0",
"openpyxl>=3.1.5",
# pillow dropped Python 3.9 support at 12.0.0 (requires_python >=3.10), so
# an unqualified >=12.2.0 floor is unsatisfiable on 3.9. Cap 3.9 to the last
# 3.9-compatible release; 3.10+ is left unconstrained.
"pillow>=11.3.0,<12.0.0; python_version < '3.10'",
"pillow>=12.2.0; python_version >= '3.10'",
"pillow>=12.2.0",
"librosa>=0.9.0",
"opencv-python>=4.13.0.92",
"faiss-cpu>=1.7.0",
"fastembed>=0.2.0",
# onnxruntime stopped shipping cp39 wheels at 1.20.0 (its PyPI metadata
# still claims requires_python >=3.9, but no matching wheel exists), so an
# unqualified >=1.20.1 floor is unsatisfiable on 3.9. Cap 3.9 to the last
# release with a cp39 wheel; 3.10+ is left unconstrained.
"onnxruntime>=1.19.2,<1.20.0; python_version < '3.10'",
"onnxruntime>=1.20.1; python_version >= '3.10'",
"onnxruntime>=1.20.1",
"tokenizers>=0.15.0",
"pydantic>=2.13.4",
# click dropped Python 3.9 support at 8.2.0 (requires_python >=3.10), so an
# unqualified >=8.4.2 floor is unsatisfiable on 3.9. Cap 3.9 to the last
# 3.9-compatible release; 3.10+ is left unconstrained.
"click>=8.1.8,<8.2.0; python_version < '3.10'",
"click>=8.4.2; python_version >= '3.10'",
"click>=8.4.2",
"rich>=12.5.0",
"tqdm>=4.68.3",
"pyyaml>=6.0",
+6 -160
View File
@@ -234,12 +234,6 @@ class EntityDetailResponse(BaseModel):
properties: Dict[str, Any] = Field(default_factory=dict)
class OntologyGraphResponse(BaseModel):
uri: str
nodes: List[Dict[str, Any]] = Field(default_factory=list)
edges: List[Dict[str, Any]] = Field(default_factory=list)
class SKOSScheme(BaseModel):
uri: str
title: str
@@ -670,7 +664,6 @@ def _convert_ontology_to_graph(ontology_dict: Dict[str, Any]) -> Tuple[List[Dict
"rdfs:label": cls.get("label", cls.get("name", "")),
"rdfs:comment": cls.get("description", ""),
"uri": cls_uri,
"scheme_uri": ontology_uri,
},
}
nodes.append(node)
@@ -687,21 +680,14 @@ def _convert_ontology_to_graph(ontology_dict: Dict[str, Any]) -> Tuple[List[Dict
# Add property nodes and edges
for prop in ontology_dict.get("properties", []):
prop_uri = prop.get("uri", f"temp:prop:{uuid.uuid4().hex[:12]}")
property_type = {
"object": "owl:ObjectProperty",
"data": "owl:DatatypeProperty",
"datatype": "owl:DatatypeProperty",
"annotation": "owl:AnnotationProperty",
}.get(str(prop.get("type", "object")).lower(), "owl:ObjectProperty")
node = {
"id": prop_uri,
"type": property_type,
"type": f"owl:{prop.get('type', 'Object').title()}Property",
"content": prop.get("name", prop.get("label", "")),
"properties": {
"rdfs:label": prop.get("label", prop.get("name", "")),
"rdfs:comment": prop.get("description", ""),
"uri": prop_uri,
"scheme_uri": ontology_uri,
},
}
nodes.append(node)
@@ -762,38 +748,14 @@ def _node_source_ontology(node: Dict[str, Any]) -> Optional[str]:
)
def _node_belongs_to_ontology(
node: Dict[str, Any],
ontology_uri: str,
known_ontology_uris: Optional[set[str]] = None,
) -> bool:
def _node_belongs_to_ontology(node: Dict[str, Any], ontology_uri: str) -> bool:
nid = node.get("id", "")
if nid == ontology_uri:
return True
owner = _node_source_ontology(node)
if owner:
return owner == ontology_uri
if known_ontology_uris:
namespace_owners = [
candidate
for candidate in known_ontology_uris
if nid == candidate
or nid.startswith(
(candidate.rstrip("#/") + "#", candidate.rstrip("#/") + "/")
)
]
if namespace_owners and max(namespace_owners, key=len) != ontology_uri:
return False
if _node_source_ontology(node) == ontology_uri:
return True
stem = ontology_uri.rstrip("#/")
if not nid.startswith((stem + "#", stem + "/")):
return False
# Prefix ownership only extends to names minted directly in the
# ontology's namespace (<stem>#Term or <stem>/Term). Any further
# delimiter marks a nested vocabulary (<stem>/child#Term,
# <stem>/child/Term), which must not be absorbed into the parent
# until it is registered or carries an explicit owner.
local_name = nid[len(stem) + 1 :]
return "#" not in local_name and "/" not in local_name
return nid.startswith((stem + "#", stem + "/"))
def _is_ontology_entity(node: Dict[str, Any]) -> bool:
@@ -1259,8 +1221,7 @@ def _parse_rdf_sync(content: bytes, fmt: str) -> tuple:
metadata.setdefault("description", str(obj))
break
synthetic_uri = "uri" not in metadata
if synthetic_uri:
if "uri" not in metadata:
metadata["uri"] = f"urn:semantica:onto:{uuid.uuid4().hex[:8]}"
metadata.setdefault("name", metadata["uri"].rsplit("/", 1)[-1].rsplit("#", 1)[-1] or "Unnamed")
metadata["triple_count"] = len(g)
@@ -1307,20 +1268,6 @@ def _parse_rdf_sync(content: bytes, fmt: str) -> tuple:
"weight": 1.0,
})
if synthetic_uri:
# No owl:Ontology / skos:ConceptScheme declaration exists, so the
# synthetic registry URI shares no namespace with any node. Ownership
# must be recorded explicitly, and the editor needs a matching graph
# node, or the registered ontology resolves to an empty core and 404s.
for node in nodes:
node["properties"].setdefault("scheme_uri", metadata["uri"])
nodes.append({
"id": metadata["uri"],
"type": "owl:Ontology",
"content": metadata["name"],
"properties": {"rdfs:label": metadata["name"], "uri": metadata["uri"]},
})
return nodes, edges, metadata
@@ -1821,107 +1768,6 @@ async def search_entities(
return results
@router.get("/graph", response_model=OntologyGraphResponse)
async def get_ontology_graph(
request: Request,
uri: str = Query(..., min_length=1),
session: GraphSession = Depends(get_session),
):
"""Return the editable schema subgraph for one registered ontology."""
registry = _get_registry(request)
ontology_nodes: List[Dict[str, Any]] = []
for node_type in _ONTOLOGY_TYPES:
nodes, _ = await asyncio.to_thread(
session.get_nodes, node_type=node_type, skip=0, limit=2**63 - 1
)
ontology_nodes.extend(nodes)
known_ontology_uris = set(registry) | {
str(node.get("id", "")) for node in ontology_nodes if node.get("id")
}
if uri not in known_ontology_uris:
raise HTTPException(status_code=404, detail="Ontology not found in registry.")
schema_types = _CLASS_TYPES | _PROPERTY_TYPES | _CONCEPT_TYPES | _ONTOLOGY_TYPES
candidates_by_id: Dict[str, Dict[str, Any]] = {}
for node_type in schema_types:
nodes, _ = await asyncio.to_thread(
session.get_nodes, node_type=node_type, skip=0, limit=2**63 - 1
)
candidates_by_id.update(
(str(node.get("id", "")), node) for node in nodes if node.get("id")
)
core_node_ids = {
str(node.get("id", ""))
for node in candidates_by_id.values()
if _node_belongs_to_ontology(node, uri, known_ontology_uris)
}
if not core_node_ids:
raise HTTPException(status_code=404, detail="Ontology graph not found.")
structure_edge_types = {
"rdf:type",
"rdfs:subClassOf",
"rdfs:domain",
"rdfs:range",
"owl:disjointWith",
"owl:equivalentClass",
"owl:equivalentProperty",
"owl:inverseOf",
"skos:broader",
"skos:narrower",
"skos:related",
}
selected_edges: List[Dict[str, Any]] = []
for edge_type in structure_edge_types:
edges, _ = await asyncio.to_thread(
session.get_edges,
edge_type=edge_type,
skip=0,
limit=2**63 - 1,
)
# Keep only edges whose source is a core node: the requested ontology
# may reference outward (e.g. rdfs:range to an external vocabulary),
# but an unrelated ontology's property pointing at a core class must
# not leak inward.
selected_edges.extend(
edge for edge in edges
if str(edge.get("source", "")) in core_node_ids
)
if (
len(core_node_ids) > _MAX_ANALYSIS_NODES
or len(selected_edges) > _MAX_ANALYSIS_NODES
):
raise HTTPException(
status_code=413,
detail=(
"Ontology editor graph exceeds the maximum size "
f"({_MAX_ANALYSIS_NODES} nodes or edges)."
),
)
selected_node_ids = set(core_node_ids)
for edge in selected_edges:
selected_node_ids.add(str(edge.get("source", "")))
selected_node_ids.add(str(edge.get("target", "")))
selected_nodes = [candidates_by_id[node_id] for node_id in core_node_ids]
for node_id in selected_node_ids - core_node_ids:
external = await asyncio.to_thread(session.get_node, node_id)
if external is not None:
selected_nodes.append(external)
selected_nodes.sort(key=lambda node: str(node.get("id", "")))
selected_edges.sort(
key=lambda edge: (
str(edge.get("source", "")),
str(edge.get("type", "")),
str(edge.get("target", "")),
str(edge.get("id", "")),
)
)
return OntologyGraphResponse(uri=uri, nodes=selected_nodes, edges=selected_edges)
@router.get("/entity/{entity_uri:path}", response_model=EntityDetailResponse)
async def get_entity_detail(
entity_uri: str,
+1 -24
View File
@@ -37,29 +37,6 @@ from .naming_conventions import NamingConventions
from .relationship_utils import build_entity_aliases, resolve_relationship_endpoint_type
# Top-level entity keys that describe structure or provenance rather than
# business attributes. GraphBuilder and EntityMerger attach these to entity
# dicts (relationships list, nested properties/metadata maps, merge history),
# so they must not be inferred as datatype properties. Each key mirrors what
# the framework actually writes to a merged entity top level
# (see MergeStrategyManager._merge_entities merged_entity dict and GraphBuilder).
_CONTROL_FIELDS = frozenset(
{
"id",
"type",
"entity_type",
"text",
"label",
"confidence",
"properties",
"relationships",
"metadata",
"merged_from",
"merge_strategy",
}
)
class PropertyGenerator:
"""
Property generation engine for ontologies.
@@ -370,7 +347,7 @@ class PropertyGenerator:
for entity in entities:
for key, value in entity.items():
if key in _CONTROL_FIELDS:
if key in ["id", "type", "entity_type", "text", "label", "confidence"]:
continue
# Infer type
-32
View File
@@ -416,38 +416,6 @@ class WeaviateStore:
)
raise ProcessingError(f"Failed to add objects: {str(e)}")
def delete_vectors(self, vector_ids: List[str], **options) -> Dict[str, Any]:
"""Delete vectors (objects) from the collection by their ids.
Args:
vector_ids: Object uuids to delete
**options: Additional options (ignored, kept for API parity)
Returns:
A dict with the number of successfully deleted objects
(``delete_count``).
"""
if self.collection is None or not WEAVIATE_AVAILABLE:
raise ProcessingError("Collection not initialized or Weaviate unavailable")
if not vector_ids:
return {"delete_count": 0}
deleted = 0
try:
data = self.collection.data
for vector_id in vector_ids:
if not vector_id:
continue
# delete_by_id returns False (not an error) for a uuid that is
# not present, and True when an object was deleted. Count only
# actual deletes so delete_count never over-reports.
if data.delete_by_id(vector_id):
deleted += 1
return {"delete_count": deleted}
except Exception as e:
raise ProcessingError(f"Failed to delete vectors: {str(e)}")
def get_vector(self, vector_id: str) -> Optional[np.ndarray]:
"""Get vector by ID."""
if self.collection is None or not WEAVIATE_AVAILABLE:
+3 -203
View File
@@ -12,11 +12,7 @@ from semantica.context.context_graph import ContextGraph
pytest.importorskip("fastapi")
from semantica.explorer.app import create_app # noqa: E402
from semantica.explorer.routes.ontology import ( # noqa: E402
OntologyEntry,
_convert_ontology_to_graph,
_node_belongs_to_ontology,
)
from semantica.explorer.routes.ontology import OntologyEntry # noqa: E402
from semantica.explorer.session import GraphSession # noqa: E402
from starlette.testclient import TestClient # noqa: E402
@@ -135,181 +131,6 @@ def test_health_returns_dimensions_and_issues(client):
assert isinstance(payload["issues"], list)
def test_ontology_graph_returns_editable_schema_nodes_and_edges(client):
response = client.get(
"/api/ontology/graph",
params={"uri": "http://example.org/onto-a"},
)
assert response.status_code == 200
payload = response.json()
node_ids = {node["id"] for node in payload["nodes"]}
assert "http://example.org/onto-a" in node_ids
assert "http://example.org/onto-a#Person" in node_ids
assert "http://example.org/onto-a#name" in node_ids
assert any(
edge["source"] == "http://example.org/onto-a#name"
and edge["target"] == "http://example.org/onto-a#Person"
and edge["type"] == "rdfs:domain"
for edge in payload["edges"]
)
def test_ontology_graph_rejects_unregistered_namespace(client):
response = client.get(
"/api/ontology/graph",
params={"uri": "http://example.org"},
)
assert response.status_code == 404
def test_ontology_graph_excludes_separately_registered_nested_ontology(client):
graph = client.app.state.session.graph
nested = "http://example.org/onto-a/nested"
nested_class = f"{nested}#PrivateClass"
graph.add_node(nested, node_type="owl:Ontology", content="Nested Ontology")
graph.add_node(nested_class, node_type="owl:Class", content="Private Class")
response = client.get(
"/api/ontology/graph",
params={"uri": "http://example.org/onto-a"},
)
assert response.status_code == 200
node_ids = {node["id"] for node in response.json()["nodes"]}
assert nested not in node_ids
assert nested_class not in node_ids
def test_ontology_graph_prefers_explicit_ownership_over_uri_namespace(client):
graph = client.app.state.session.graph
explicit_member = "http://unrelated.example/Person"
graph.add_node(
explicit_member,
node_type="owl:Class",
content="Explicit Member",
scheme_uri="http://example.org/onto-a",
)
response = client.get(
"/api/ontology/graph",
params={"uri": "http://example.org/onto-a"},
)
assert response.status_code == 200
assert explicit_member in {node["id"] for node in response.json()["nodes"]}
def test_ontology_graph_excludes_inward_edges_from_other_ontologies(client):
graph = client.app.state.session.graph
foreign_prop = "http://example.org/onto-b#recordOf"
graph.add_node(
foreign_prop,
node_type="owl:ObjectProperty",
content="record of",
scheme_uri="http://example.org/onto-b",
)
# onto-b's property points its domain at onto-a's class: an inward
# reference that must not pull the foreign property into onto-a's graph.
graph.add_edge(foreign_prop, "http://example.org/onto-a#Person", edge_type="rdfs:domain")
response = client.get(
"/api/ontology/graph",
params={"uri": "http://example.org/onto-a"},
)
assert response.status_code == 200
payload = response.json()
assert foreign_prop not in {node["id"] for node in payload["nodes"]}
assert all(edge["source"] != foreign_prop for edge in payload["edges"])
def test_ontology_graph_excludes_unregistered_nested_namespace(client):
graph = client.app.state.session.graph
nested_class = "http://example.org/onto-a/vocab#Term"
graph.add_node(nested_class, node_type="owl:Class", content="Nested Term")
response = client.get(
"/api/ontology/graph",
params={"uri": "http://example.org/onto-a"},
)
assert response.status_code == 200
assert nested_class not in {node["id"] for node in response.json()["nodes"]}
def test_node_belongs_to_ontology_nested_namespace_matrix():
parent = "http://example.org/onto-a"
child = "http://example.org/onto-a/nested"
def node(node_id):
return {"id": node_id, "properties": {}}
assert _node_belongs_to_ontology(node(f"{parent}#Person"), parent, {parent})
assert _node_belongs_to_ontology(node(f"{parent}/Person"), parent, {parent})
# An unregistered nested namespace is not absorbed into the parent,
# whether fragment-based or path-based
assert not _node_belongs_to_ontology(node(f"{child}#Term"), parent, {parent})
assert not _node_belongs_to_ontology(node(f"{child}/Term"), parent, {parent})
# Once registered, the nested namespace owns its nodes
assert not _node_belongs_to_ontology(node(f"{child}#Term"), parent, {parent, child})
assert _node_belongs_to_ontology(node(f"{child}#Term"), child, {parent, child})
assert _node_belongs_to_ontology(node(f"{child}/Term"), child, {parent, child})
def test_load_fallback_import_without_declaration_is_editable(client):
turtle = """
@prefix ex: <http://data.example.org/people#> .
@prefix rdf: <http://www.w3.org/1999/02/22-rdf-syntax-ns#> .
@prefix rdfs: <http://www.w3.org/2000/01/rdf-schema#> .
ex:Employee a rdfs:Class ;
rdfs:label "Employee" .
ex:manager a rdf:Property ;
rdfs:label "manager" .
"""
with patch(
"semantica.ingest.ontology_ingestor.OntologyIngestor.ingest_ontology",
side_effect=RuntimeError("force fallback parser"),
):
loaded = client.post(
"/api/ontology/load",
json={"content": turtle, "format": "turtle"},
)
assert loaded.status_code == 200
uri = loaded.json()["uri"]
assert uri.startswith("urn:semantica:onto:")
response = client.get("/api/ontology/graph", params={"uri": uri})
assert response.status_code == 200
payload = response.json()
node_ids = {node["id"] for node in payload["nodes"]}
assert uri in node_ids
assert "http://data.example.org/people#Employee" in node_ids
def test_ontology_graph_ignores_unrelated_data_when_enforcing_size_limit(client):
graph = client.app.state.session.graph
for index in range(5_001):
graph.add_node(
f"urn:unrelated:{index}",
node_type="owl:Class",
content="Unrelated",
scheme_uri="http://example.org/onto-b",
)
response = client.get(
"/api/ontology/graph",
params={"uri": "http://example.org/onto-a"},
)
assert response.status_code == 200
assert "http://example.org/onto-a#Person" in {
node["id"] for node in response.json()["nodes"]
}
def test_shacl_generate_and_shapes(client):
response = client.post(
"/api/ontology/shacl/generate",
@@ -875,29 +696,6 @@ def test_ontology_load_does_not_swallow_422_from_ingestor_success_path(client):
fallback_parse.assert_not_called()
def test_convert_ontology_uses_standard_property_types_and_scheme_uri():
ontology_uri = "http://example.org/onto"
nodes, _ = _convert_ontology_to_graph(
{
"uri": ontology_uri,
"name": "Example Ontology",
"classes": [
{"uri": f"{ontology_uri}#Person", "name": "Person"},
],
"properties": [
{"uri": f"{ontology_uri}#name", "name": "name", "type": "data"},
{"uri": f"{ontology_uri}#knows", "name": "knows", "type": "object"},
],
}
)
by_id = {node["id"]: node for node in nodes}
assert by_id[f"{ontology_uri}#Person"]["properties"]["scheme_uri"] == ontology_uri
assert by_id[f"{ontology_uri}#name"]["type"] == "owl:DatatypeProperty"
assert by_id[f"{ontology_uri}#knows"]["type"] == "owl:ObjectProperty"
assert by_id[f"{ontology_uri}#name"]["properties"]["scheme_uri"] == ontology_uri
# ---------------------------------------------------------------------------
# refresh_ontology — single combined add_nodes_and_edges() coverage (#775)
# ---------------------------------------------------------------------------
@@ -991,3 +789,5 @@ def test_refresh_ontology_missing_source_url_returns_422(client):
response = client.post(f"/api/ontology/{encoded_uri}/refresh")
assert response.status_code == 422
assert "source url" in response.json()["detail"].lower()
@@ -1,94 +0,0 @@
"""Framework/control entity keys must not be inferred as datatype properties.
The _CONTROL_FIELDS skip set mirrors exactly what the framework writes to a
merged entity's top level (see MergeStrategyManager._merge_entities): no extra
guesses, so business attributes that merely share a common name (e.g. source)
keep getting inferred.
"""
from semantica.deduplication.merge_strategy import MergeStrategyManager
from semantica.ontology.property_generator import PropertyGenerator
def _merged_entity():
"""Run a real merge so the entity carries the framework's actual top-level keys."""
manager = MergeStrategyManager(default_strategy="keep_most_complete")
result = manager.merge_entities(
[
{"id": "b1", "name": "Hangzhou Branch", "type": "ORG", "employee_count": 120},
{"id": "b2", "name": "Hangzhou Branch", "type": "ORG"},
]
)
return result.merged_entity
def test_framework_fields_not_inferred_as_data_properties():
entity = _merged_entity()
classes = [{"name": "Organization", "metadata": {"inferred_from": "ORG"}}]
properties = PropertyGenerator().infer_properties([entity], [], classes)
names = {p["name"] for p in properties}
for framed in (
"properties",
"relationships",
"metadata",
"merged_from",
"merge_strategy",
):
assert framed not in names, f"framework field {framed} leaked as a property"
def test_business_attributes_still_inferred():
entity = _merged_entity()
classes = [{"name": "Organization", "metadata": {"inferred_from": "ORG"}}]
properties = PropertyGenerator().infer_properties([entity], [], classes)
names = {p["name"] for p in properties}
assert "name" in names
assert "metadata" not in names
def test_source_field_still_inferred_as_business_attribute():
"""A top-level 'source' is a business attribute, not a framework field."""
entity = {
"id": "b1",
"name": "Hangzhou Branch",
"type": "ORG",
"source": "doc-42",
}
classes = [{"name": "Organization", "metadata": {"inferred_from": "ORG"}}]
properties = PropertyGenerator().infer_properties([entity], [], classes)
names = {p["name"] for p in properties}
assert "source" in names
def test_unmerged_graphbuilder_entities_infer_business_attributes():
"""Flat entities from GraphBuilder (merge_entities=False) must not lose business
attributes through _CONTROL_FIELDS: name and domain-specific fields must be
inferred, and none of the framework keys should appear in the output."""
from semantica.kg.graph_builder import GraphBuilder
builder = GraphBuilder(merge_entities=False, resolve_conflicts=False)
graph = builder.build(
{
"entities": [
{"id": "c1", "name": "Chengdu Plant", "type": "ORG", "headcount": 300},
{"id": "c2", "name": "Wuhan Plant", "type": "ORG", "headcount": 450},
],
"relationships": [],
}
)
entities = graph["entities"]
classes = [{"name": "Organization", "metadata": {"inferred_from": "ORG"}}]
properties = PropertyGenerator().infer_properties(entities, [], classes)
names = {p["name"] for p in properties}
assert "name" in names, "name must be inferred from flat GraphBuilder entities"
assert "headcount" in names, "domain business attribute must be inferred"
for framed in ("properties", "relationships", "metadata", "merged_from", "merge_strategy"):
assert framed not in names, f"framework field {framed!r} must not appear"
@@ -1,142 +0,0 @@
"""Tests for WeaviateStore.delete_vectors (#1374)."""
from unittest import TestCase
from unittest.mock import MagicMock, patch
from semantica.context.erasure import STATUS_ERASED, ErasureCoordinator
from semantica.utils.exceptions import ProcessingError
from semantica.vector_store import VectorStore
from semantica.vector_store.weaviate_store import WeaviateStore
class WeaviateStoreDeleteVectorsTest(TestCase):
def setUp(self):
self.patches = [
patch("semantica.vector_store.weaviate_store.WEAVIATE_AVAILABLE", True)
]
for p in self.patches:
p.start()
def tearDown(self):
for p in reversed(self.patches):
p.stop()
def _store(self, error=None):
"""Return (store, data) where data records delete_by_id calls."""
data = MagicMock()
data.delete_by_id = MagicMock()
coll = MagicMock()
coll.data = data
if error is not None:
data.delete_by_id.side_effect = error
store = WeaviateStore()
store.collection = coll
return store, data
def test_delete_single_id_calls_delete_by_id(self):
store, data = self._store()
ret = store.delete_vectors(["abc"])
data.delete_by_id.assert_called_once_with("abc")
self.assertEqual(ret, {"delete_count": 1})
def test_delete_many_ids_calls_each(self):
store, data = self._store()
ret = store.delete_vectors(["a", "b", "c"])
self.assertEqual(data.delete_by_id.call_count, 3)
self.assertEqual(ret, {"delete_count": 3})
def test_delete_skips_ids_that_report_missing(self):
store, data = self._store()
def _fake(uuid):
return uuid != "missing"
data.delete_by_id.side_effect = _fake
ret = store.delete_vectors(["present", "missing", "also-here"])
self.assertEqual(data.delete_by_id.call_count, 3)
self.assertEqual(ret, {"delete_count": 2})
def test_delete_drops_empty_ids(self):
store, data = self._store()
store.delete_vectors(["", "abc"])
data.delete_by_id.assert_called_once_with("abc")
self.assertEqual(data.delete_by_id.call_count, 1)
def test_delete_empty_ids_is_noop(self):
store, data = self._store()
ret = store.delete_vectors([])
self.assertEqual(ret, {"delete_count": 0})
data.delete_by_id.assert_not_called()
def test_delete_without_collection_raises(self):
store = WeaviateStore()
with self.assertRaises(ProcessingError):
store.delete_vectors(["a"])
def test_delete_backend_error_raises_processing_error(self):
store, _ = self._store(error=RuntimeError("connection reset"))
with self.assertRaises(ProcessingError):
store.delete_vectors(["a"])
class WeaviateErasureIntegrationTest(TestCase):
"""ErasureCoordinator reaches the real WeaviateStore.delete_vectors path."""
def setUp(self):
self._patch = patch(
"semantica.vector_store.weaviate_store.WEAVIATE_AVAILABLE", True
)
self._patch.start()
def tearDown(self):
self._patch.stop()
def _bind_weaviate_as_vector_store(self):
vs = VectorStore(backend="weaviate", config={"dimension": 3})
weaviate = WeaviateStore()
data = MagicMock()
coll = MagicMock()
coll.data = data
weaviate.collection = coll
vs._backend_store = weaviate
return vs, data
def test_erasure_reports_erased_when_delete_runs(self):
vs, data = self._bind_weaviate_as_vector_store()
coord = ErasureCoordinator(vector_store=vs)
receipt = coord.erase_entity("customer-4471")
data.delete_by_id.assert_called()
self.assertEqual(receipt.stores["vectors"]["status"], STATUS_ERASED)
def test_erasure_reports_erased_when_nothing_was_found(self):
"""delete_by_id returns False (404) for an id that is not in the store.
For erasure that still means the goal is met: nothing remains under
that id. The receipt keeps the honest zero count in backend_result
instead of raising a false failed status.
"""
vs, data = self._bind_weaviate_as_vector_store()
data.delete_by_id.return_value = False
coord = ErasureCoordinator(vector_store=vs)
receipt = coord.erase_entity("customer-4471")
self.assertEqual(receipt.stores["vectors"]["status"], STATUS_ERASED)
self.assertEqual(
receipt.stores["vectors"]["backend_result"], {"delete_count": 0}
)
def test_erasure_backend_name_is_weaviate(self):
vs, _ = self._bind_weaviate_as_vector_store()
coord = ErasureCoordinator(vector_store=vs)
receipt = coord.erase_entity("customer-4471")
self.assertEqual(receipt.stores["vectors"]["backend"], "weaviate")
def test_facade_delete_vectors_forwards_to_weaviate(self):
vs, data = self._bind_weaviate_as_vector_store()
def _fake(uuid):
return uuid != "missing"
data.delete_by_id.side_effect = _fake
ret = vs.delete_vectors(["present", "missing"])
self.assertEqual(data.delete_by_id.call_count, 2)
self.assertEqual(ret, {"delete_count": 1})