Skip to main content
Naval patrol vessel underway at sea
Naval vessel

Your operators keep the picture. Even when the link goes down.

When comms are jammed, degraded, or just expensive, most monitoring platforms stop working. Helin keeps running, processing sensor data locally on the vessel, vehicle, or site, without a cloud in the loop.

  • Purpose-built for OT environments
  • NIS2-ready architecture
  • Deployable in air-gapped networks
  • No cloud dependency for core function

TL;DR

  • Your asset keeps producing sensor data whether or not it has a connection. Helin processes it locally, so awareness doesn't depend on a link that may not be there.
  • Legacy OT protocols (Modbus, DNP3, CAN bus) are supported natively. No middleware layer between Helin and what's already installed.
  • Operational data stays on the asset or on-premises. No telemetry routed through third-party cloud. Air-gapped deployment is a supported configuration, not a workaround.
  • When a comms window opens, Helin syncs what you configure it to sync. Bandwidth isn't wasted pushing everything.
  • NIS2 requirements around data residency and network segmentation are met by the architecture, not added to it afterwards.

The gap most monitoring platforms don't survive

Connectivity dependency
Most OT monitoring tools route telemetry through cloud infrastructure. In contested or remote environments, that's a single point of failure. If the link drops, so does your awareness. Helin's local processing keeps the picture intact regardless of what's happening upstream.
Legacy OT protocol debt
Defense platforms run Modbus, DNP3, CAN bus, and proprietary fieldbuses. Most modern monitoring vendors won't touch them without custom middleware. Helin connects natively. No gateway to procure, no protocol converter to maintain, no additional failure point.
NIS2 and defense-grade cyber posture
NIS2 now covers defense-adjacent infrastructure operators in the EU. Air-gapped deployment, local data residency, and zero cloud dependency are compliance requirements for an increasing number of contracts. Helin's architecture was built for this from the start.
Crew as the detection layer
When monitoring fails, crew notice something is wrong after a system already has. Instrument failure, thermal anomaly, vibration signature: these show up in sensor data minutes to hours before they show up in behavior. Without edge processing, that window closes.

Operational Blind Spot Exposure

600 hrs

50%

Your fleet's annual unmonitored exposure:

3,000 hours

This is how long your platforms operated last year without reliable situational awareness. Not a cost figure — an availability figure. The question is whether that number is acceptable.

Platforms × degraded communications hours per platform × monitoring lost (%). Illustrative projection based on your inputs, not a measured historical total.

Your assets keep running. Your people stay visible. Your data stays inside the perimeter.

Five environments where losing the link cannot mean losing control.

Everything you're managing separately, running as one.

Key features by capability

  • Edge control01

    Edge runtime

    Applications execute at the asset. Control logic runs locally, with or without a connection. When comms are degraded or denied, operations continue. Nothing waits for a cloud response before acting.

  • Edge control02

    Hardware-agnostic deployment

    Helin provisions from the OS up. Runs on existing edge hardware across vessels, vehicles, and fixed sites. No vendor lock-in, no hardware replacement project before you can start.

  • Edge control03

    Edge buffering

    Data queues locally during any outage and transmits in sequence when the link returns. No gaps in the operational record, no data written off when satellite drops.

  • Edge control04

    Over-the-air (OTA) updates

    OS updates, application patches, and security fixes deploy to every node across the fleet without a site visit. Staged rollout: tested on a subset before it reaches the production fleet.

  • Edge control05

    Fleet and device management

    Provision, configure, monitor, and patch every edge node from one console. No engineer on-site for routine management. Anomalies surface as alerts rather than field reports.

What changes when the architecture is right

01

Edge control

Your platforms generate sensor data whether or not they have a connection. Helin processes it at the asset. Control decisions, fault detection, and crew alerts happen locally. When comms are degraded or denied, operations continue. When connectivity returns, data syncs. Nothing in the operational picture depends on a link that may not be there.

02

Security by design

Every device on your network has a verifiable cryptographic identity before it connects. Every access event is logged. Remote access requires MFA approval and leaves a full audit trail. OTA updates deploy through a governed pipeline. NIS2 compliance evidence is generated automatically in normal operation — not assembled before an audit. Air-gapped configurations are supported by design, not by exception.

03

Data to control

Defense platforms fail in predictable ways. Thermal signatures appear before a component fails. Vibration patterns shift before a bearing goes. Fuel consumption changes before an engine shows a fault code. That data exists on your assets. Helin processes it locally and closes the loop — the AI model runs at the asset, acts on what it finds, and does not wait for a human to review a dashboard. Your engineers see the pattern before it becomes a maintenance event.

04

Your expertise, running at the edge

Your teams know your platforms, your protocols, and your operational logic. Helin provides the foundation: runtime, device management, security layer, deployment pipelines, and native support for Modbus, DNP3, CAN bus, OPC-UA, NMEA 2000, and IEC 61850. Build the application once. Run it across every asset in the fleet without rebuilding the infrastructure underneath for each one.

If connectivity is not guaranteed, your monitoring shouldn't depend on it.

Helin runs on the asset. We can walk you through the architecture, the protocol support, and what deployment looks like in your environment: air-gapped, hybrid, or fully connected.

Architecture comparison

Helin edge-native architecture compared with cloud-first OT monitoring
CapabilityHelin edge-nativeCloud-first OT monitoring
Works without connectivityYes — local processing runs regardlessNo — awareness stops when link drops
Data residencyOn-asset or on-premisesThird-party cloud infrastructure
OT protocol supportNative — no additional layerOften requires middleware or gateway
NIS2 / air-gap compatibleYes, by designRarely without significant custom work
Sync behaviorSelective sync on connectivity returnAlways-on required
Alert latencyGenerated locally, immediateDepends on cloud round-trip
Deployment in contested environmentsDesigned for itNot viable

Specifications

Helin Platform specifications for defense
Supported protocolsModbus RTU/TCP, DNP3, OPC-UA, CAN bus, NMEA 2000, IEC 61850, proprietary fieldbuses on request
Deployment modesEdge-only (air-gapped), edge + selective cloud sync, hybrid (edge primary, cloud secondary)
Data residency optionsOn-asset, on-premises server, private cloud, or hybrid
Connectivity requirement for core functionNone — Helin operates fully offline
Sync behaviorConfigurable by data type, frequency, and available bandwidth
HardwareDeployable on ruggedised industrial edge hardware or customer-specified compute
Cybersecurity postureNIS2-compatible; zero external data dependency; supports network segmentation and air-gap requirements
IntegrationREST API, MQTT, existing SCADA/DCS systems; no replacement of existing control infrastructure required
Supported asset typesVessels, vehicles, fixed sites, remote infrastructure

Frequently asked questions

No. Core processing, alerting, and local display run entirely on the edge node. Connectivity is only needed if you want data synced to a central operations view, and even then Helin handles intermittent connectivity without data loss.

Yes. Air-gapped deployment is a supported configuration, not an exception. We can walk you through what that looks like in your specific environment.

Helin syncs according to your configured rules: which data types, at what frequency, and at what fidelity. It doesn't push everything when a link comes up. You control the bandwidth budget.

No. Helin sits alongside existing OT infrastructure and reads from it. Your control systems stay in place.

Local data processing and storage, no mandatory cloud dependency, and support for network segmentation satisfy the core architecture requirements under NIS2. We can provide documentation for your compliance team.

Modbus RTU/TCP, DNP3, OPC-UA, CAN bus, NMEA 2000, IEC 61850, and proprietary fieldbuses on a case-by-case basis. If you have a specific protocol question, bring it to us directly.

Yes. We deploy on ruggedised industrial compute or customer-specified hardware. If you have specific environmental or form-factor requirements, raise them early in the conversation.

What this is not

Not a cybersecurity product

Helin monitors operational technology: asset health, sensor data, system performance. It does not replace intrusion detection, endpoint security, or network security tooling.

Not a control system

Helin reads from existing control infrastructure rather than replacing it. If your requirement is a new control system, that's a different procurement.

Not a cloud analytics platform

Helin processes data at the edge. If you need a cloud-first analytics layer with centralized data aggregation as the primary function, that's a different architecture.

Not an intelligence or personnel tracking system

Helin monitors mechanical and electrical systems on assets you operate. It does not handle signals intelligence, ISR, or personnel tracking use cases.

Edge intelligence, once a month.

Field notes from industrial operations running control at the asset: deployment patterns, compliance changes, and what we learn on site. No product marketing.

One email a month. Unsubscribe at any time.

Last updated: . Information is subject to change.