VectorOWL is the autonomous platform for systems engineering. It connects your SysML models, signal databases, spec documents, and simulation tools into a living digital thread — autonomously generating formal requirements, synthesizing complex safety assessments, reasoning about architecture, propagating change impact, managing verification evidence, and keeping your entire program in sync. No custom build required.
Under the hood, VectorOWL extends the Web Ontology Language (OWL) with native vector embeddings, deterministic anchors, and the Model Context Protocol as a coordination layer across your tool ecosystem. The same substrate holds computational-model characterization (identity, envelope, credibility pointers, lifecycle) aligned with industry patterns (see INCOSE Model Characterization Pattern v1.8.1), distinct from the AI-world “MCP” acronym.
VectorOWL is a research architecture / framework (runtime in development): OWL plus vectors plus MCP integration—it is not a replacement for Python, C++, or similar general-purpose languages.
Single source of truth: the versioned OWL graph is where governed system and data-model semantics, characterization, traces, and evidence converge. Tools feed it; they should not be the silent second book of record.
OWL is the formal ontology language for structure, constraints, and provenance in the graph.
The real integration surface is Model Context Protocol (vectorowl-mcp, stdio): register it in Claude Desktop, Cursor, or any MCP host so tools and resources talk to the runtime. A bundled SKILL.md is only optional prose for assistants; it does not replace the MCP server. (Do not confuse this with the INCOSE “Model Characterization Pattern” for computational models—that is metadata and requirements on models; see framework · characterization.)
Everything below stays the same—this section only orients readers who hit the symbols first.
What it is
Manifold-augmented ontologies with hybrid reasoning
In VectorOWL, every ontological entity (classes, individuals, and properties) carries both a symbolic identity (URI, OWL axioms) and a continuous vector representation learned from multi-modal engineering data. The two layers are reasoned over jointly.
Each entity e is formally:
e = ⟨ uri, type, AxiomSet, v ∈ ℝd, attributes ⟩
where AxiomSet holds OWL assertions and v is an embedding learned from CAD geometry, performance metrics, and historical telemetry.
Hybrid inference over two entities e₁, e₂:
Inference(e₁, e₂) = α · 𝟙(S₁ ⊢ S₂) + (1−α) · K(v₁, v₂)
α ∈ [0, 1] is learnable, balancing logical precision with statistical generalization. K is a kernel function (cosine similarity or hyperbolic distance for hierarchical structures).
Core architecture
Three interlocking layers
Layer 1
VectorOWL: the ontology
Extends OWL 2 by mapping entities into a continuous vector space ℝd alongside symbolic axioms. Every entity has a URI, an AxiomSet (symbolic), an EmbeddingManifold (vector), and a key-value attribute map.
Symbolic layer: tableaux-based OWL reasoning for consistency and satisfiability
Vector layer: kernel-based similarity (cosine / hyperbolic) for probabilistic inference
Hard predicates that override any probabilistic suggestion from the vector layer when violated. Safety-critical correctness is non-negotiable: anchors are the ground truth layer.
Scalar: f(x) ≤ θ, e.g. operating temperature < 150°C
Relational: x ∈ Neighbors(y); component A must mate to B
Functional: y = g(x₁,…,xₙ); lift-to-drag via Navier Stokes
Severity levels: Warning / Error / Critical, with full evaluation logs
Implemented via SMT solvers or custom rule engines
Layer 3
Model Context Protocol: the coordination kernel
The Model Context Protocol acts as the tool-and-assistant wiring for the architecture: a standardized interface for interoperability and governed context updates across heterogeneous engineering environments. It is not the same thing as the INCOSE Model Characterization Pattern (computational-model trust metadata).
Context Servers at each tool node (CATIA, Ansys, MATLAB)
URI-based IdentityRegistry mapping local tool IDs to global VectorOWL URIs
Asynchronous ContextUpdate events propagated through a dependency DAG
Eventually-consistent registry via consensus protocol
vectorowld (roadmap): Rust runtime with async I/O and a work-stealing queue
vectorowld: core runtime · roadmap
Rust runtime: streaming I/O and vector search
vectorowld is in active development as the production-grade runtime for VectorOWL. It is implemented in Rust for memory safety, predictable performance, and safe concurrency. The planned architecture emphasizes:
mmap: memory-mapped files for embedding manifolds and axiom sets, efficient access to large models with minimal copy overhead
Lock-free structures: RCU for read-heavy graph paths; Tokio-backed channels for inter-component messaging
HNSW / Faiss: approximate nearest-neighbor indexing for vector search, with optional GPU acceleration for large corpora
Layered stack · roadmap
Four layers, one substrate
These layers describe the same roadmap substrate: symbolic graphs, continuous embeddings, governed constraints, and MCP-mediated coordination.
Ontology layer: OWL/RDF persisted in an RDF triple store with SPARQL access. Maintains symbolic axioms and supports formal reasoning over the knowledge graph.
Vector layer: HNSW / Faiss ANN index for embedding similarity search, with live ingestion from simulation and telemetry streams.
Anchor layer: constraint solver (SMT or rules engine) continuously evaluates the AnchorRegistry; violations gate or annotate downstream inference.
Model Context Protocol layer: ContextUpdate event bus, IdentityRegistry, and dependency DAG. This is the coordination plane that connects tools and context servers across the workflow (Model Context Protocol, not “model characterization” metadata).
Hands-on
Try the VectorOWL MCP bridge (Cursor & Claude Desktop)
Cursor and Claude Desktop each read one JSON file on disk. If you built vectorowl-mcp and run vectorowld, paste one matching script below. It loads any existing config, sets mcpServers.vectorowl-runtime, and writes the file back—your other MCP entries stay in place. Then fully quit and restart the application. JSON shape and prerequisites: MBSE overview · Register the MCP server; sources: VectorOWL.
Before you paste
vectorowl-mcp is on your PATH, or change the line that sets "command" to the absolute path of your binary.
After the script prints “Done,” restart Cursor or Claude Desktop (whichever config you patched).
Cursor — ~/.cursor/mcp.json (Linux, macOS, WSL)
Registers the server for all workspaces. For one repo only, edit the script: set config_path to your project’s .cursor/mcp.json path.
Cursor · ~/.cursor/mcp.json
python3 << 'EOF'
import json, os
config_path = os.path.expanduser("~/.cursor/mcp.json")
os.makedirs(os.path.dirname(config_path), exist_ok=True)
try:
with open(config_path) as f:
config = json.load(f)
except (FileNotFoundError, json.JSONDecodeError):
config = {}
config.setdefault("mcpServers", {})["vectorowl-runtime"] = {
"type": "stdio",
"command": "vectorowl-mcp",
"args": [],
"env": {
"VECTOROWL_LOG_LEVEL": "info"
}
}
with open(config_path, "w") as f:
json.dump(config, f, indent=2)
print("Done! Config written to:", config_path)
EOF
Claude Desktop — macOS (bash / zsh)
Claude Desktop · macOS
python3 << 'EOF'
import json, os
config_path = os.path.expanduser("~/Library/Application Support/Claude/claude_desktop_config.json")
os.makedirs(os.path.dirname(config_path), exist_ok=True)
try:
with open(config_path) as f:
config = json.load(f)
except (FileNotFoundError, json.JSONDecodeError):
config = {}
config.setdefault("mcpServers", {})["vectorowl-runtime"] = {
"type": "stdio",
"command": "vectorowl-mcp",
"args": [],
"env": {
"VECTOROWL_LOG_LEVEL": "info"
}
}
with open(config_path, "w") as f:
json.dump(config, f, indent=2)
print("Done! Config written to:", config_path)
EOF
Claude Desktop — Linux, WSL2, or Git Bash on Windows
Claude Desktop · Linux / WSL / Git Bash
python3 << 'EOF'
import json, os
config_path = os.path.expanduser("~/.config/Claude/claude_desktop_config.json")
os.makedirs(os.path.dirname(config_path), exist_ok=True)
try:
with open(config_path) as f:
config = json.load(f)
except (FileNotFoundError, json.JSONDecodeError):
config = {}
config.setdefault("mcpServers", {})["vectorowl-runtime"] = {
"type": "stdio",
"command": "vectorowl-mcp",
"args": [],
"env": {
"VECTOROWL_LOG_LEVEL": "info"
}
}
with open(config_path, "w") as f:
json.dump(config, f, indent=2)
print("Done! Config written to:", config_path)
EOF
Claude Desktop — Windows (PowerShell — paste as one block)
Writes %APPDATA%\Claude\claude_desktop_config.json. Uses a here-string so you do not need bash. If python is not found, try py -3 in place of python.
Claude Desktop · PowerShell
@'
import json
import os
from pathlib import Path
appdata = os.environ.get("APPDATA")
if not appdata:
raise SystemExit("APPDATA is not set.")
config_path = Path(appdata) / "Claude" / "claude_desktop_config.json"
config_path.parent.mkdir(parents=True, exist_ok=True)
try:
config = json.loads(config_path.read_text(encoding="utf-8"))
except (FileNotFoundError, json.JSONDecodeError):
config = {}
config.setdefault("mcpServers", {})["vectorowl-runtime"] = {
"type": "stdio",
"command": "vectorowl-mcp",
"args": [],
"env": {
"VECTOROWL_LOG_LEVEL": "info"
}
}
config_path.write_text(json.dumps(config, indent=2), encoding="utf-8")
print("Done! Config written to:", config_path)
'@ | python -
Git Bash or WSL on Windows can use the Linux script above. If python - does not read stdin on your install, save the Python lines (without the PowerShell wrappers) into patch_claude_mcp.py and run python patch_claude_mcp.py.
Prefer raw JSON?
Copy the block from MBSE overview · Register the MCP server into the right file (~/.cursor/mcp.json vs Claude’s path). If the file already lists other MCP servers, add only the vectorowl-runtime object inside mcpServers.
Industry alignment
Model Characterization Pattern × VectorOWL
The MBSE community’s Model Characterization Pattern (same “MCP” acronym as in the MBSE wiki—not Anthropic’s Model Context Protocol) is the official S*Pattern for universal characterization and labeling of computational models: stakeholder and technical requirement groups, VVUQ, lifecycle, interoperability, and trusted reuse across supply chains—exactly as summarized in the v1.8.1 specification’s stated purposes. VectorOWL aligns with that intent as governed-graph substrate: OWL individuals and properties hold structured characterization; vectors support similarity search across model families and evidence; Anchors encode non-negotiable limits in review; Model Context Protocol (the AI tool protocol) connects authoring and execution tools so evidence stays attached to URIs. We do not claim a complete, out-of-the-box encoding of every configurable feature group in the pattern PDF—implementation evolves in the VectorOWL codebase.
VectorOWL connects airworthiness requirements from FAR Part 25 through system architecture down to verification test records. When a design change touches a safety-critical function, anchors block progression until all affected verification items are resolved. The graph surfaces the full traceability chain on demand so teams spend less time hunting evidence and more time on engineering decisions.
Similarity search over historical CFD and FEA results
Scalar and functional anchors for structural and thermal limits
MCP synchronization across CAD, FEA, and PLM tools in real time
FAA complianceCFD / FEADesign reuse
Automotive
Closed-loop failure detection
Embed real-time vehicle fleet telemetry continuously into the VectorOWL space. When telemetry anomalies cluster near known failure modes in the vector space, MCP-based alerts fire to the design engineering team immediately, before failure, not after.
Continuous telemetry ingestion into the embedding manifold
Anomaly detection via ANN proximity to known-bad clusters
Automated MCP ContextUpdate propagation to engineering tools
The transition from model-driven to autonomous engineering represents the final stage of industrial digitalization. In this vision, the engineering system is no longer a static blueprint or a manually maintained artifact. It is a continuously synchronized, learning program that generates its own requirements, detects its own change impacts, and closes its own verification loops as new data arrives.
VectorOWL provides the unified substrate to realize this future: a system that bridges formal logic and high-dimensional data, anchors statistical learning in deterministic constraints, propagates real-world signals autonomously into the model graph, and maintains trust-grade characterization for computational models alongside system architecture. Safely, traceably, and at scale.
"VectorOWL + MCP: A Hybrid reasoning architecture for agent-ready systems engineering," Vector Stream Systems, April 2026. For research and decision support only.
White paper
VectorOWL + MCP: A Neuro-Symbolic Architecture for AI-Native Systems Engineering
Read the full paper directly on this page. The embedded viewer supports in-place scrolling, zoom, and browser-native PDF controls.
VectorOWL is the autonomous systems engineering platform for safety-critical programs. If you work in aerospace, automotive, defense, or infrastructure and want to connect your engineering toolchain to generate requirements, synthesize complex safety assessments, reason about architecture, track change impact, and close verification loops automatically, reach out.