PHYSICS-INFORMED SYSTEMS • DETERMINISTIC CONTROL • GRID INTELLIGENCE

Designing deterministic, physics-informed intelligence that transforms complex control systems into operational, verifiable, and adaptive realities.

At the intersection of embedded logic, real-time operating systems, AI orchestration, and grid-scale infrastructure. My work translates high-stakes technical complexity into systems that are predictable, legible, and deployable in safety-critical environments.

Connecting live market intelligence, flagship repositories, research trajectory, and implementation signals to demonstrate coherent execution paths across both the immersive portfolio and the developer surface on GitHub.

Global Orientation

Operational Time Zones

Lima08:17:46Policy & capital markets
Toronto09:17:46Operational home base
New York09:17:46Infrastructure & energy markets
Frankfurt15:17:46Infrastructure & energy markets
Beijing21:17:46Global deployment horizon
Lima08:17:46Policy & capital markets
Toronto09:17:46Operational home base
New York09:17:46Infrastructure & energy markets
Frankfurt15:17:46Infrastructure & energy markets
Beijing21:17:46Global deployment horizon
About the Work

A portfolio engineered for technical credibility in physics-informed systems.

I do not treat AI, software, infrastructure, energy, and robotics as isolated domains. I integrate them into deterministic physics-informed systems where every layer — from RTOS scheduling to AI orchestration — is verifiable and safety-critical.

This site and my GitHub profile form two complementary surfaces of the same mission: one cinematic and immersive, the other precise and developer-first.

Deterministic Physics-Informed AI Systems

I design control architectures where embedded logic, RTOS scheduling, and real-time signal integrity guarantee predictable, safety-critical behavior.

Grid Intelligence & DER Coordination

I build operational platforms that translate distributed energy resources, grid telemetry, and market signals into verifiable control loops.

AI-Native Orchestration Layers

I create middleware that fuses high-level AI reasoning with low-level hardware constraints, making complex systems legible to operators and engineers.

Verification & Validation (V&V)

Every system I deliver includes formal verification pathways, simulation harnesses, and hardware-in-the-loop testing to ensure deterministic execution.

Physics-Informed Intelligence Layer

Where the Laws of Physics Meet Deterministic AI

Physics-informed intelligence does not stop at pattern recognition. It constrains learning with the same governing equations that define the physical system.

Total objective = Data fidelity + Physics penalty
The model is penalized whenever its predictions violate the governing dynamics of the system.
Ltotal = Ldata + λLphysics
Lphysics = ‖∂u/∂t + N[u]‖²

Next evolution of GridOS + NeuralBridge

Real-time surrogate models for Optimal Power Flow and inverter control — systems that are not merely intelligent, but operationally trustworthy under physical constraints.

2025 RWTH AACHEN MASTER THESIS
LIVE PRODUCTION DEMO

Data Modeling in a Cross-domain Ontology for Cyber Intelligence in Smart-Grids Using Reinforcement Learning

Vincenzo Grimaldi • Matriculation No. 353970 • RWTH Aachen University • June 2025

This thesis establishes the first systematic integration of the Common Information Model (CIM) with the ThreMA cybersecurity framework, creating unified semantic representations that connect physical power components with security concepts including vulnerabilities and protective measures.

CIM–ThreMA Cross-Domain Ontology5 Formal Semantic MappingsIEEE 9-Bus Cyber Testbed4 Documented Attack ScenariosQ-Learning RL Security AgentCross-Domain SNR Metric
🚀 LAUNCH LIVE THESIS SIMULATORView Full Source on GitHub →

Validated on enhanced IEEE 9-Bus system with realistic network infrastructure and documented attack scenarios

Architecture of Value Creation

The projects form layers of one coherent physics-informed systems thesis.

Embedded Control Layer

RTOS + Signal Integrity

Hard real-time kernels, interrupt handling, and deterministic scheduling that guarantee bounded latency in safety-critical environments.

Grid Operating Layer

GridOS

Digital command surface for observability, coordination, and closed-loop control of smart grids and DER fleets.

AI Orchestration Layer

NeuralBridge

Middleware that connects human intent, large language models, and physical actuators while preserving deterministic guarantees.

Autonomous & Sensing Layer

Robotics & LiDAR Fusion

Perception pipelines and embodied intelligence that translate sensor data into verifiable physical actions.

Flagship Systems

Selected initiatives that demonstrate depth, direction, and execution quality.

LIVE PRODUCTION DEMO

physics-informed

Production-grade interactive simulator for cross-domain CIM + ThreMA ontology, physics-informed neural networks, RL security agents, and IEEE 9-Bus cyber-physical validation (Grimaldi 2025 RWTH Aachen Master Thesis)

Developer Surface

The same mission, inspected in code.

All flagship systems are open source on GitHub. Star them to support the work.

Open GitHub Profile →
Live Intelligence Hub

Relevant market value and news context, and momentum.

Refreshing live signals...

Market Context Aligned with CPS Interests

Compute & Model Infrastructure

Monitoring the economics of AI infrastructure to inform deterministic orchestration strategies.

Energy Transition & Grid Flexibility

Live signals that shape the operational context of my grid intelligence and DER work.

Industrial Systems Execution

Companies translating technological possibility into verifiable, large-scale deployment.

Quantified Value Generation

Proven impact in simulation and deployment

22% reduction
grid curtailment via DERIM + MARL
Sub-8 ms
deterministic latency (NeuralBridge)
99.999% uptime
RTOS + PINN-augmented V&V
15–40% higher
renewable penetration
Professional Experience

Grid Networks Engineer – Deutsche Bahn

ITk Fachspezialist – Digitisation of High-Voltage Assets
DB InfraGO AG • Aug 2024 – Present

Leading digitalisation strategy for railway traction HV grids; IT/OT convergence, KRITIS-compliant cybersecurity governance, and resilience engineering.

Industrial Engineering Intern – High-Voltage Maintenance
DB Fahrzeuginstandhaltung GmbH & DB Netz AG • Jun 2022 – Sep 2024

Lifecycle management of traction power substations, asset condition monitoring, and critical systems maintenance.

Standards Mastery

Protocols & Frameworks

IEC 61850 • CIM • OCPP • SunSpec
ROS 2 • HELICS • TLA+
IEC 62351 • NERC CIP • NIS2 • EU CRA
Trusted Ecosystem

Institutions and platforms that anchor the domains I operate in.

Engage & Payments

Work together — settle securely in seconds.

Consultation deposits, advisory retainers, and invoice payments through encrypted Stripe checkout. Cards, mobile wallets, and SEPA accepted — with an instant receipt.

Consultation

from €25060-minute session

A focused technical deep-dive on grid intelligence, cyber-physical systems, or physics-informed AI.

  • Live working session
  • Written follow-up summary
  • Booked within 48h
Reserve a session

Pay an Invoice

customagreed amount

Settle an existing engagement securely. Enter the amount from your invoice at checkout.

  • Any agreed amount
  • Instant receipt
  • Card · wallet · SEPA
Pay invoice
Continue the Conversation

If this systems-level thinking resonates, the next step should be immediate.

Whether you are exploring AI-native middleware, smart-grid operating systems, embedded control platforms, robotics, or large-scale research collaboration — both surfaces (this portfolio and GitHub) are structured to make technical value visible.