Research Vision

Industrial Intelligence Research — Where Physics Meets Intelligence.

We build interpretable, multiscale digital twins and Autonomous Engineering Agents

to design safer products, orders-of-magnitude faster, with full Accountability. Engineering × AI × Sovereignty

EU Sovereign Explainable by Design From Lab to Factory
Our Thesis

The Future of Engineering is Neural + Physical

AI without physics is fragile. Physics without AI is slow. Neodustria unifies both.

Neodustria’s thesis: hybrid, physics-integrated intelligence — validated by simulation, explained by design, governed by provenance — will define the next decade of industrial R&D.

We focus on four outcomes:
  • Speed — orders-of-magnitude faster cycles
  • Robustness — validated surrogates + uncertainty
  • Traceability — lineage for every artifact
  • Sovereignty — EU-hosted, partner-friendly data control and compliance.
Physics-Integrated Models
The Future of Engineering is Neural + Physical
Research Pillars

The Six Pillars of Our Research

Physics-Integrated Models

Physics-Integrated Models

Neural operators & PINNs with constraints and uncertainty.

Multiscale Digital Twins

Multiscale Digital Twins

From material micro-structure to full system behavior for Predictive Manufacturing.

Autonomous Engineering

Autonomous Engineering Agents

Agents that plan experiments, Orchestrate simulations, and justify steps (Explainability).

AI-driven Design Intelligence

Vision for CAD/Mesh

3D understanding of CAD/mesh/hypermesh for design intelligence.

Sim-to-Real Transfer

Sim-to-Real Transfer

Domain adaptation, calibration, and error bounds.

Explainability & Governance

Explainability & Governance

Model cards, lineage graphs, approvals, and audit evidence.

Every pillar is measured by explanation depth, validation evidence, and transferability to production.
Reinforcement Learning (RL) for Design Space

Research Methods and Tooling

Neural Operators / PINNs

Constrained PDE learning with stability guarantees. We embed physics constraints and uncertainty calibration to ensure reliable behavior across regimes.

Graph & Ontology Learning

Knowledge graphs linking CAD, BOM, process, and markets. Ontologies harmonize Engineering Intelligence semantics across design, simulation, and supply data.

Surrogate Modeling

We train Physics-Aware Surrogates for thermodynamics, aerodynamics, ergonomics, and electronics. Each surrogate ships with uncertainty calibration, sensitivity, and unit tests—so engineers know when to trust it (XAI).

RL for Design Space

Search and optimization with safety constraints. Autonomous Engineering Agents explore design spaces, respect hard limits, and propose explainable trade-offs (XAI).

3D Vision

Mesh/CAD tokenization, shape programs, and topological priors for robust perception of geometry— grounding Industrial Intelligence suggestions in manufacturing reality.

From Lab to Product

Translation Loop

Hypothesis

Formalize the physics + data assumptions.

Prototype

Constrained learning, ablations, and XAI.

Validate

Benchmarks, uncertainty calibration, robustness tests.

Transfer

APIs into the Engineering Platform / Market Intelligence.

Benchmarks
Benchmarks
Dashboards
Dashboards
XAI Report
XAI Report
Platform API
Platform API
Publications & White Papers

Research Teasers

Physics-Guided Neural Nets in Industrial CFD

Integrating PDE constraints and uncertainty calibration for robust fluid simulations.

Multiscale Digital Twins for Mechatronics

Linking micro-structure to system behavior across mechanical and electronic subsystems.

Audit Trails for Autonomous Engineering Agents

Provenance, approvals, and explainability for agent decisions in regulated industries.

Collaboration Model

Academia × Industry

Co-Research Tracks

Shared milestones and dedicated IP lanes to accelerate discovery and transfer.

Data & Compute Stewardship

Sovereign Cloud Hosting, secure enclaves, and governance to protect research-grade assets.

Joint Validation

Real-world rigs, shared dashboards, and evidence packs for decisions.

Research Infrastructure

Built for Science-to-Production

EU Cloud & On-Prem

Data residency, isolation, and secure deployment options across EU regions.

Experiment Tracking

Lineage, reproducibility, and model cards for every artifact and release.

Simulation Farm

CFD/FEA pipelines orchestrated with policy agents for scalable physics workloads.

Graph Backbone

Ontologies linking product, process, and market for end-to-end traceability.

Governance, XAI & Ethics

Accountability Built-In

Explainability by Default

Feature attribution, counterfactuals, and narratives for each decision.

Policy Agents

Guardrails for data minimization, PII scanning, and compliance-aware flows.

Audit & Traceability

Signed artifacts, approvals, and immutable logs across the lifecycle.

We build research that stands up to audits—by design, not as an afterthought.
Open Problems

Call for Partners

UQ for Nonlinear Multi-Physics

Production-grade uncertainty bounds for coupled systems.

Causal Graphs in CAD/CAE

Linking design intent to outcomes via causal structure.

Few-Shot Mesh Understanding

Learning under label scarcity for 3D meshes and assemblies.

RL with Safety Guarantees

Closed-loop optimization with hard constraints and proofs.

FAQ

Research — Questions & Answers

We release selective tools and evaluations; core assets, including Physics-Aware Models and data artifacts, are shared via partner programs.
Co-research tracks, funded pilots, joint PhD/industrial programs, and contributions to open problems.
Automotive, Rail, Aerospace, Naval, and Energy (Initial Focus). Precision Manufacturing and IoT are leveraged horizontally across all domains.
EU-based, with strict isolation, contract-level controls, and Sovereign Cloud hosting.
We enforce Accountability Built-In through Policy Agents, Audit & Traceability, and Explainability by Default to ensure all research adheres to strict data minimization and compliance-aware flows.
Yes. Our models are tracked using Experiment Tracking (including lineage and model cards) and validated through external benchmarks and Audit & Traceability protocols.
We prioritize joint research on Open Problems related to Uncertainty Quantification (UQ), Causal Graphs, Few-Shot Learning, and Safety Guarantees in complex industrial systems.

Let’s push the frontier—responsibly.