Grid and historian signal fabric
SCADA-adjacent exports, EMS/DMS context, historian trends, alarm logs, substation events, telemetry snapshots, safe operating limits, and read-only operational records.
VDF.AI sits above the grid, asset, outage, field, customer, market, and compliance systems energy teams already run. It coordinates agents for predictive maintenance, outage summaries, field knowledge, SOP drafting, regulatory reporting, customer operations, and market analysis. Read-only. Air-gapped capable. No path to control-system commands. Every action traceable.
Historian exports, OMS events, asset records, GIS layers, market signals, field notes, customer context, regulatory obligations, and engineering knowledge stay where they are. VDF.AI reads approved context, applies OT-boundary and compliance gates, activates the right agents and tools, and returns advisory execution with evidence.
VDF.AI · energy · model agnostic · sovereign cloud · air-gapped capable · any LLM
SCADA-adjacent exports, EMS/DMS context, historian trends, alarm logs, substation events, telemetry snapshots, safe operating limits, and read-only operational records.
EAM, CMMS, inspection notes, work orders, asset health, maintenance history, transformer records, parts data, vendor manuals, and field crew reports.
OMS events, GIS network context, call-center notes, smart-meter signals, restoration updates, customer impact, crew assignment data, and service commitments.
Load forecasts, generation availability, tariff rules, demand-response programs, market prices, weather feeds, imbalance signals, and customer program data.
NIS2, NERC CIP, IEC 62443, environmental filings, safety procedures, regulator correspondence, audit findings, training records, and control evidence.
Set the target: reduce outage reporting time, prioritize asset maintenance, find field procedures faster, prepare NERC or NIS2 evidence, improve customer response, or synthesize market risk.
Enforce read-only mode, Purdue boundary separation, role and zone permissions, approved sources, model routing, human review, safety escalation, and no-control-command policies before agents execute.
The platform ranks actions by service impact, safety context, asset criticality, customer impact, market exposure, compliance deadline, evidence quality, zone policy, and required human approval.
Correlates outage events, alarms, GIS context, call notes, field updates, and crew records to assemble timelines and restoration briefs.
Surfaces procedures, asset histories, fault context, inspection patterns, likely maintenance drivers, and cited answers for engineers and crews.
Maps NIS2, NERC CIP, IEC 62443, safety, environmental, and market obligations to evidence, reviewers, deadlines, and report outputs.
Grounds customer responses, connection queries, demand-response briefs, tariff analysis, forecasting summaries, and planning memos in approved data.
Runs on-premise, private cloud, sovereign cloud, segmented OT-adjacent environments, or air-gapped enclaves with approved models and governed read-only tool access.
Stores objective, source, retrieval, anomaly, recommendation, model route, reviewer, output, disposition, and lessons learned for future operations and audits.
Events, field notes, customer impact, root-cause context, restoration actions, and post-incident reports assembled.
Asset health, anomaly signals, inspection history, parts context, and work-order evidence ranked for human decision.
Procedures, manuals, P&IDs, safety guidance, and asset records retrieved with source citations and access controls.
Procedures drafted from approved material, routed to SMEs, versioned, and retained with approval trace.
Obligations, control evidence, incident records, model logs, reviewer sign-off, and regulator-ready PDFs compiled.
Customer updates, program answers, tariff context, demand-response summaries, and market-risk briefs drafted with evidence.
VDF.AI starts with the operating outcome, then coordinates agents, read-only tools, approvals, and evidence so utility teams move faster without weakening the OT boundary.
Connect approved read-only context from SCADA-adjacent exports, historians, EMS, DMS, OMS, EAM, CMMS, GIS, CIS, billing, market, security, document, and compliance systems without changing control infrastructure.
Zero rip-and-replaceReduce outage reporting from days to hours, prioritize high-risk assets, answer field questions in seconds, close NERC evidence gaps, draft customer updates, or synthesize demand and market risk.
Objective-first executionOutage, reliability, field knowledge, compliance, market, customer, and procedure agents call only approved tools with zone, role, safety, source, model, and human-approval policies enforced.
Advisory by designThe platform records sources, retrievals, anomalies, recommendations, model routes, approvals, outputs, and outcomes while building institutional memory for operations, field teams, and auditors.
Auditable at executionEnergy operators face outage pressure, aging assets, field knowledge loss, complex regulatory evidence, customer expectations, market volatility, and hard OT boundaries. AI must improve decision support without becoming a new operational risk.
Historian data, OMS events, asset records, GIS layers, work orders, customer impact, market signals, procedures, and compliance evidence live across separate systems.
AI must not become a write path into grid or plant controls. Utility teams need read-only, advisory execution with clear separation from SCADA, EMS, DMS, substations, and safety systems.
Restoration updates, post-incident reports, NIS2 notifications, NERC evidence, safety reviews, and regulator questions require speed and precision when teams are already stretched.
Procedures age, asset quirks sit in field notes, senior engineers retire, and lessons from incidents disappear unless the system captures and reuses them.
No migration
The agentic layer connects approved read-only context.
VDF.AI connects to operational records, historian exports, engineering documents, asset systems, outage systems, customer platforms, market data, risk registers, and compliance repositories through governed tools. Data stays inside your perimeter; agents receive only the scoped access needed for the objective.
Utility control infrastructure should not be disrupted to adopt AI. A governed advisory layer starts with read-only workflows and expands across the operating model.
Advisory layer above existing utility systems
Objective engine
The plan is ranked by service impact, safety, risk, deadline, and evidence quality.
Examples of objective-first utility execution:
Grid · asset · field · customer · compliance
Advisory autonomy
Each workflow gets the authority level it deserves.
VDF.AI lets operations, engineering, compliance, customer, market, and security leaders define autonomy at the workflow level:
Assistive · delegated · escalated
Each workflow combines a defined advisory-agent pattern with tools that retrieve evidence, enforce permissions, summarize operational data, verify sources, request approval, generate records, and export the audit trail.
Correlates historian, condition, inspection, and work-order data to prioritize assets and likely failure drivers.
Builds event timelines, restoration summaries, impact context, root-cause hypotheses, and response records.
Drafts switching, field, safety, maintenance, and compliance procedures from approved source material.
Answers questions from manuals, drawings, P&IDs, asset records, safety notes, and maintenance history with citations.
Maps obligations to evidence, drafts compliance reports, and preserves reviewer sign-off for regulators.
Grounds customer responses, tariff answers, connection processes, demand-response briefs, and market memos.
Unifies governed retrieval across asset, document, telemetry, customer, market, and compliance data surfaces.
Ingests advisories and internal signals, maps relevance to utility assets, and drafts action-ready briefs.
| Requirement | VDF AI Capability |
|---|---|
| Deployment model | On-premise, private cloud, sovereign cloud, segmented utility environment, disconnected site, or fully air-gapped deployment options |
| Control-system boundary | Advisory layer on approved read-only data surfaces; no commands to SCADA, EMS, DMS, PLCs, IEDs, substations, plants, or safety systems |
| Data sovereignty | Models, embeddings, prompts, historian extracts, engineering documents, asset records, customer data, compliance evidence, tool calls, logs, and outputs remain inside your perimeter |
| System posture | Overlay architecture above SCADA-adjacent exports, historians, EMS, DMS, OMS, EAM, CMMS, GIS, CIS, MDM, billing, market, security, document, and compliance systems |
| Private RAG | Manuals, P&IDs, drawings, switching procedures, SOPs, maintenance history, field notes, tariff rules, regulatory evidence, and prior decisions stay in governed vector indexes |
| Role-based access | Agents, tools, knowledge, and outputs scoped by operations, engineering, field, customer, market, compliance, security, region, asset class, zone, and role |
| Model routing | Policy-aware routing by data class, workflow risk, safety adjacency, document complexity, confidence need, latency, cost, and approved model inventory |
| Autonomy controls | Assistive, delegated, autonomous, and escalated modes configured by operational risk, safety context, customer impact, market exposure, compliance deadline, and approval policy |
| Audit logs | Immutable logs for objective, source data, retrieval, anomaly signals, tool calls, model route, policy checks, approval, output, and disposition |
| Integration examples | Historian exports, EAM/CMMS, OMS, GIS, CIS, MDM, billing, data warehouse, SIEM, GRC, document stores, field service, market systems, and regulatory repositories |
| Encryption | At-rest and in-transit encryption, customer-managed keys, deployment-specific key separation, and SIEM export |
| Operations | High-availability clustering, backup and restore, offline update packages, health monitoring, long-term evidence retention, and local model operations |
Energy and critical-infrastructure operators run essential services under NIS2 and strict OT security constraints. On-premises and network-isolated AI agents bring modern assistance to engineering and operations without introducing external dependencies.
For operators' CIOs, CISOs, OT security leaders, and heads of engineering and operations.
A strategic procurement brief for regulated critical infrastructure & energy environments.
NIS2-aligned, network-isolated AI for essential services.
No. VDF.AI sits above utility operations, asset, engineering, outage, customer, market, security, and compliance systems as an advisory control plane. Your SCADA, EMS, DMS, OMS, historians, EAM, CMMS, GIS, CIS, MDM, billing, market, document, and compliance platforms remain the systems of record. VDF.AI coordinates agents and tools across approved read-only data surfaces.
Yes. VDF.AI can run on-premise, in a private cloud, sovereign cloud, segmented utility environment, or fully air-gapped enclave. Models, embeddings, prompts, operational records, engineering documents, asset context, tool calls, and audit logs remain inside your controlled perimeter with no unmanaged external runtime calls.
No. VDF.AI is advisory by design. It can retrieve procedures, summarize logs, correlate alarms, draft reports, prepare recommendations, and route work for approval, but it does not write to SCADA, EMS, DMS, PLCs, IEDs, substations, plants, or other control systems. Operators, engineers, and field supervisors retain authority for switching, dispatch, safety, restoration, and control decisions.
Agents can map obligations to controls, retrieve approved evidence, monitor regulatory change, summarize incident timelines, draft notifications, compile compliance packs, and preserve the full review trail. Every source, retrieval, model route, recommendation, approval, and output is logged so utility teams can defend the record.
Start with one objective: outage reporting, field knowledge, predictive maintenance, SOP drafting, regulatory evidence, customer operations, market analysis, or threat advisory synthesis.