Scale – From personal AI to organisational AI: why copilots plateau, and what an AI operating system changesRegister →
RESILIENCE & CONTINUITY

Secure the
Backbone of Society

Grid, network, and fleet each generate torrents of operational data, but IT and OT live in separate worlds — and cloud AI is not allowed anywhere near the OT network. That is the problem we solve: one live operational picture of grid, network, and fleet, with real-time anomaly detection and predictive maintenance — frontier sovereign Data & Agentic AI running in air-gapped environments, so you protect energy grids, transport networks, and digital infrastructure without giving up control.

Grid Resilience

Balance loads and detect faults in real-time across distributed energy resources.

OT/IT Convergence

Unified visibility across legacy SCADA systems and modern cloud analytics.

Built for NIS2

Incident detection, audit evidence and risk records that support your NIS2 reporting and risk-management obligations.

Take it with you

The same thirty questions, read with NIS2 and operational technology in mind.

Enterprise AI to production: the checklist

About thirty questions to put to your own team, grouped under grounding, governance, orchestration and sovereignty. Tick what is true for you today and see a score per dimension. One page, yours to print.

We use it to answer, and to know which organisation is asking. Nothing else. We handle your details as described in our Privacy policy.

Operational Scenarios

Mission-Critical Applications

Ensuring continuity and safety across vital sectors.

Secure Supply Chain Logistics

Logistics

Challenge

Managing sensitive hardware transport requires real-time coordination, but cloud-based logistics platforms expose location data to foreign entities.

Solution

Sovereign agents monitor IoT sensors on edge devices, re-routing shipments based on threat data and weather, communicating only via encrypted channels.

Read more

Resilient automated logistics that functions intermittently offline and leaks no metadata to third-party providers.

Predictive Infrastructure Maintenance

Public Works

Challenge

Reactive maintenance of roads, bridges, and utilities leads to costly emergency repairs and service disruptions.

Solution

Analytics models process data from IoT sensors and historical reports to predict failures before they happen, scheduling preventative maintenance.

Read more

40% reduction in emergency repair costs and extended lifespan of critical public infrastructure.

Crisis Response Coordination

Emergency Services

Challenge

During natural disasters, fragmented data from various agencies delays critical decision-making and resource allocation.

Solution

A unified command centre powered by AI that aggregates real-time data streams to direct first responders and optimise supply chains.

Read more

Faster response times and more efficient deployment of emergency resources during critical events.

Predictive Grid Maintenance

Energy & Utilities

Challenge

Equipment failures in remote substations cause cascading blackouts and costly emergency repairs.

Solution

Edge AI agents analyse vibration and thermal sensor data locally, predicting component failure weeks in advance without uploading terabytes of raw data.

Read more

40% reduction in unplanned downtime and optimised maintenance schedules.

WHAT ENTERPRISE AI MEANS HERE

Enterprise AI for critical infrastructure

For a grid operator, a water utility, a transport authority or a telecoms operator, enterprise AI has to cover both halves of the business: the IT side — asset management, work orders, planning, customer operations — and the operational side, where telemetry from the network is the signal that matters. The data is sensor history, alarms, inspection reports and topology, and it describes infrastructure whose failure is a public event rather than an internal one.

It stalls at the boundary. Operational technology is deliberately isolated, and an AI service that needs outbound connectivity cannot cross that line. NIS2 makes the operator answerable for supply-chain risk and incident reporting, so adding an outside dependency to the control estate is a regulatory decision rather than an IT one. And the historian's tags are rarely described well enough for a model to learn anything dependable from them.

Three things have to hold before it reaches production. The platform runs as a sovereign cluster inside the operator's own perimeter, air-gapped where the control network requires it. Assets, sensors and services are described once, so forecasts and agents reason over the same model. And the control room keeps the decision, with every proposal and approval logged. That is enterprise AI for critical infrastructure.

Newsletter

Keep an eye on this space

What changed for your sector in European AI sovereignty, and what we learned in the field. A few times a year, no drip campaign.

A few times a year. No drip campaign, unsubscribe in one click. Privacy policy

100% European Sovereignty

Your Data, Your AI, Your Control

Deploy the Scrydon platform where it makes sense for you — from air-gapped environments to public cloud — with sovereignty, compliance, and auditability built in.

Deployed on-premises, air-gapped or in a sovereign cloud, no data leaves your jurisdiction. No black-box AI. No compromises on control.

This is sovereignty by design.

Take it into the room

Read for NIS2: what still runs with the cable unplugged, and who holds root when it does.

“Sovereign” is not a label on a datasheet

It is five tests you can run against a live system. Score any vendor on jurisdiction, keys, operating staff, disconnected mode and exit — plus whether the offer covers all four layers, and whether each answer was demonstrated or asserted. Twelve questions, nothing leaves your browser.

Score a vendor
  • Jurisdiction
  • Keys
  • Operating staff
  • Disconnected mode
  • Exit
  • Four layers

Run it once per name on the shortlist — including the incumbent, and including us.

FAQ

Frequently asked questions

What does sovereign AI for critical infrastructure mean, and why does air-gapped or OT isolation matter?+
Sovereign AI means the entire platform — models, data, identity and audit — runs under your control within European or national boundaries, never exposed to a foreign cloud operator. For critical infrastructure this matters because operational technology (OT) governing grids, water and transport must remain isolated from the public internet to limit the attack surface. Our platform deploys air-gapped on-premises alongside operational systems, so AI delivers value without ever breaching that isolation.
How does the platform support NIS2 and cyber resilience, and is it auditable?+
The platform is built to align with NIS2 obligations around risk management, supply-chain security and incident reporting, though alignment is not a substitute for formal certification. Every action — by humans and AI agents alike — is captured in a tamper-evident audit trail tied to federated identity, giving you full attribution and traceability. Zero-trust controls and confidential computing harden the environment so security posture can be demonstrated to regulators and auditors.
Can we run AI in air-gapped or OT environments alongside our operational systems?+
Yes. The platform is designed to run fully air-gapped, with open-weight models served on-premises via vLLM and no dependency on outbound cloud connectivity. It sits alongside SCADA, historians and other OT systems through controlled, one-way or brokered interfaces that respect existing network segmentation. This lets you apply agentic AI to operational data without introducing new pathways into protected control networks.
How can agentic AI improve grid resilience, renewables integration and resilient supply chains?+
Agentic AI can continuously monitor grid telemetry, forecast demand and renewable output, and propose balancing actions that operators review and approve. Grounded in a shared ontology, agents reason across assets, weather and market signals to anticipate congestion or instability before it cascades. The same approach extends to supply chains, where agents flag single points of failure and surface alternative sourcing to keep critical operations running.
We ran an AI pilot — how do we move to organisation-wide, governed AI across our operations?+
Most operators succeed with a contained pilot but stall when scaling, because production demands governance, identity, security and integration that a proof of concept never needed. Our AI OS provides that organisational foundation: federated identity, zero-trust access, a unifying ontology and full audit, so AI can be rolled out across teams and operations under consistent control. This turns isolated pilots into governed, production-grade infrastructure rather than a patchwork of disconnected tools.
How are identity, attribution and audit handled for AI agents acting on critical systems?+
Every AI agent operates under a verifiable identity through federated identity and zero-trust controls, so its permissions are scoped and enforced just like a human operator's. All actions are logged with who, what and why in an immutable audit trail as part of our AI governance, giving you complete attribution for any agent that reads or acts on critical systems. This ensures accountability and supports forensic review whenever an agent influences an operational decision.
How do we keep operational data protected from the cloud operator?+
The platform supports deployment models from fully air-gapped on-premises through to confidential computing in the cloud, where data stays encrypted even during processing. With confidential compute, workloads run inside hardware-isolated enclaves that the cloud operator cannot inspect, so sensitive operational data is never exposed to the underlying provider. You choose the posture that matches each workload's sensitivity without surrendering control of your data.
Is the platform model-agnostic and able to run open-weight models on-premises to avoid lock-in?+
Yes. The platform is model-agnostic and runs open-weight models on your own infrastructure using vLLM, so you are never tied to a single vendor's API or pricing. You can adopt new models as they emerge, fine-tune on your own data, and keep weights and inference entirely within your sovereign environment. This protects against lock-in and ensures long-term control over the AI that supports your critical operations.
Is our historical SCADA and sensor data actually usable for AI, or does it need cleaning up first?+
Usually not as-is. The platform includes an AI-ready data layer that cleans, contextualises and grounds raw OT and sensor history in the ontology before any model sees it, so agents and predictive models reason over well-described, trustworthy data instead of raw, poorly labelled tag streams. This shortens the path from historical telemetry to a production-ready predictive model.
Can we give an AI agent narrow, auditable access to OT systems without a shared service account?+
Yes. Every agent authenticates under its own federated identity with least-privilege, time-boxed permissions, so an agent authorised to read telemetry can never also write control setpoints unless explicitly granted that scope. Every access is individually attributable rather than hidden behind a shared account, which closes off a major class of risk when agents operate near OT systems.
Do you partner on tenders and framework contracts?+
Yes, always. We are always looking to partner with primes, integrators and consortia on tenders, RFPs, framework contracts and European programmes, as the sovereign AI and data platform inside a larger bid or as a specialist subcontractor. If you are preparing a bid, talk to us early.

Or write to us

Tell us what you are working on and who should reply. A person reads it and replies within one business day.

We only use these details to reply to you. Privacy policy

Prefer to write? Email hello [at] scrydon.com and we will get back to you.

NEXT STEPS

Keep going

Three routes from here: the rules you will be measured against, the platform these outcomes run on, and the sessions where we walk through them.

Next webinar

Scale – From personal AI to organisational AI: why copilots plateau, and what an AI operating system changes

13 Oct 2026, 09:00

Part 4 of the Sovereign AI series, for CIOs, COOs and the people who own processes and AI Centres of Excellence — in any sector. Personal AI raises the productivity of a person; organisational AI changes the outcome of a process. The gap is not a better model but four missing things: shared context (an ontology, not each person's chat history), governed action (agents that act on systems under policy), identity and permissions that follow the work across teams, and evidence a board or regulator will accept. A live contrast between a personal assistant and the AI OS on the same question, then one end-to-end process run by agents with people in the loop.

Partners

Building the future of Data & AI together with leading innovators. Learn more.
Partners
Delaware logo
Member of
NVIDIA Inception logo