AI-Powered Systems Modeling
Transform requirements documents, engineering diagrams, and natural language instructions into validated SysML v2 models with full traceability. Deployed entirely on-premise with zero external data dependency.
Model-Based Systems Engineering adoption in aerospace remains limited despite decades of advocacy. The barriers are structural, not aspirational.
Requirements pulled from PDFs by hand, taking weeks per document with significant error rates.
Visio, PowerPoint, and whiteboard diagrams cannot be automatically ingested into formal MBSE tools.
SysML proficiency requires years of training. Months to onboard new systems engineers.
Manual trace links break under every change, causing audit failures and costly rework.
DO-178C, ARP4754A verified manually, leading to late-stage certification surprises.
Capella, Cameo, DOORS don't communicate natively, requiring manual copy-paste integration.
Bud MBSE Co-Pilot is a sovereign, multi-agent AI system that enables aerospace and defence organizations to perform end-to-end Model-Based Systems Engineering using natural language, vision, and structured tooling.
LLM + VLM extract and classify requirements in minutes, not weeks.
Upload any diagram and get a formal model. Legacy archives unlocked.
Describe in English, get validated SysML v2 with 100% syntax validity.
Capella, Cameo, DOORS via one protocol. Tool-agnostic agents.
A hierarchical multi-agent system with clear responsibility boundaries, well-defined interfaces, and independent scalability.
NL chat, diagram upload, model browser, review, compliance
Each agent is a self-contained unit with defined inputs, outputs, and access to specific knowledge stores.
Uses LLM + VLM to identify, classify, and structure requirements from PDFs, Word documents, images, and regulatory standards. Applies INCOSE writing rules.
Vision-language model extracts shapes, text labels, spatial relationships, and flow directions from architecture diagrams. Supports hand-drawn, Visio, PowerPoint, and photographs.
Core generation pipeline: specification extraction, template retrieval, GRAG context, SysML v2 generation, and ANTLR validation with self-correction loop.
Four-tier validation: syntactic (ANTLR grammar), semantic (constraint checking), completeness (requirement allocation), and consistency (no dangling references).
Generates and maintains bidirectional trace links across the full V-model. Performs real-time impact analysis when any model element is modified.
Architecture pattern detection, quality metrics computation, coupling/cohesion analysis, and design review preparation using reasoning-class LLMs.
Automated compliance checking against aerospace standards: DO-178C, ARP4754A, ARP4761, ECSS, MIL-STD-882E. Evidence mapping and gap analysis.
Multi-objective optimization with deep reinforcement learning, Pareto frontier analysis. Integrates with Simulink for simulation-based evaluation.
Generates formatted documents from model content: System Specification, Interface Control Document, V&V Plan, Compliance Matrix, Design Justification.
Unlike naive RAG that loses relationships when chunking, GRAG retrieves textual subgraphs that preserve the topological relationships between requirements, components, interfaces, and constraints.
This enables the system to answer questions like "What is the impact of changing requirement REQ-042 on the thermal subsystem?" through graph traversal rather than text similarity.
Neo4j with APOC + GDS for multi-hop reasoning and traceability
50+ aerospace domain models for few-shot generation
Vector DB with DO-178C, ARP4754A, ECSS, MIL-STD-882E
Redundancy, watchdog, sensor fusion, command patterns
Session history, user corrections, organizational conventions
Air-gapped operation on Bud Pod with zero external dependency. All AI inference runs locally with no data leaving the deployment boundary.
All MBSE tools exposed via MCP servers for tool-agnostic orchestration. Capella, Cameo, Rhapsody, DOORS, Simulink unified under one protocol.
Complete infrastructure from GPU orchestration to agent runtime. Production-grade, not research prototype.
Structured, auditable control flow meeting aerospace compliance requirements. Full observability with immutable audit trail.
ANTLR validation with up to 3 self-correction iterations guarantees 100% syntactic validity for all generated models.
Configurable HITL checkpoints with side-by-side comparison, one-click approve/reject/modify, and batch review capability for safety-critical systems.
Every MBSE tool interaction is wrapped in a Model Context Protocol (MCP) server exposing standardized tools for tool-agnostic orchestration.
create_element, modify_element, query_model, export_diagram
Python4Capella APIcreate_bdd, create_ibd, add_requirement, run_validation
Cameo REST APIcreate_model, add_block, set_property, link_trace
IBM ELM REST APIcreate_package, create_part_def, validate_syntax
OMG SysML v2 APIimport_requirements, create_trace_link, export_module
DOORS Next REST APIrun_simulation, extract_parameters, set_conditions
MATLAB Engine APIDiscover how Bud MBSE Co-Pilot can accelerate MBSE adoption in your aerospace and defence programs with sovereign, AI-augmented modeling.