Skip to content
Deploint

Industry 02

Digital intelligence for industrial operations.

Deploint engineers sensor-to-decision systems for industrial environments: industrial IoT, edge AI, predictive maintenance and digital twins that connect assets and operational technology to the people who run them.

02 / Industrial

System pattern

Engineered for

  • OT safety
  • Edge latency
  • Intermittent networks
  • Brownfield assets

Typical system flow

06 stages

  1. 01Sensors
  2. 02Edge
  3. 03AI
  4. 04Cloud
  5. 05Digital twin
  6. 06Operations

Focus areas

  • Industrial IoT
  • Predictive maintenance
  • Digital twins
  • Edge AI
  • Asset monitoring

01Solutions

From sensor data to operational decisions.

Industrial AI is only useful when it reaches the people running the plant. Each solution connects physical assets to a decision someone can act on.
  • 01

    Industrial IoT

    Sensor, PLC and historian data collected over industrial protocols and published through a secure, structured data pipeline.

  • 02

    Predictive maintenance

    Condition models on vibration, thermal, current and process data that rank assets by risk and show the signals behind each recommendation.

  • 03

    Digital twins

    Live models of assets, lines and sites that combine telemetry, maintenance history and engineering data for monitoring and what-if analysis.

  • 04

    Computer vision

    Camera-based monitoring of safety zones, equipment state and process conditions, with inference running close to the camera.

  • 05

    Edge AI

    Models packaged, deployed and updated on edge hardware, with local inference that keeps working when the cloud connection does not.

  • 06

    Factory automation

    Integration between MES, SCADA and enterprise systems that removes manual handoffs, without changing validated control logic.

  • 07

    Asset monitoring

    Condition and performance monitoring across fleets of assets, with alert thresholds, trend views and work-order integration.

  • 08

    Production analytics

    Throughput, downtime and OEE analytics built on consistent event definitions across lines and sites.

  • 09

    Robotics

    Software integration for robotic cells and mobile robots: fleet telemetry, task orchestration and connections to plant systems.

  • 10

    Supply-chain intelligence

    Supplier, inventory and demand signals combined with production data to anticipate shortages and plan around them.

02Use cases

Where industrial AI meets the operation.

Use cases are chosen where data already exists, failure is costly and an operations team is ready to act on the output.
  1. 01

    Predictive maintenance programs

    Moving maintenance from fixed intervals toward condition-based planning, starting with the asset classes where failures cost the most.

    • Vibration sensors
    • Edge gateways
    • CMMS
  2. 02

    Remote operations

    Central visibility into distributed sites with live telemetry, alarms and operational context for remote teams.

    • SCADA
    • Historians
    • Operations views
  3. 03

    Process optimization

    Analysis of process parameters against quality and throughput to recommend setpoint ranges for operator review.

    • Process data
    • ML models
    • Operator review
  4. 04

    Safety monitoring

    Vision and sensor-based detection of zone intrusions and abnormal conditions, routed to supervisors as alerts.

    • Computer vision
    • Edge inference
    • Alerting
  5. 05

    Asset performance management

    One view of asset health, maintenance history and performance across sites, linked to the digital twin.

    • Digital twin
    • Asset registry
    • CMMS

03Reference architecture

Sensors to operations, one governed path.

Decisions that cannot wait run at the edge. Fleet-level learning runs in the cloud. The digital twin ties both to the physical asset and the team responsible for it.

Vibration, temperature, pressure, current and vision sensors, alongside PLC and historian data from existing control systems.

  • Vibration
  • Thermal
  • PLC tags
  • Historians
  • Cameras

04Engineering considerations

Constraints that shape industrial systems.

Industrial software runs next to equipment that can hurt people. Safety, segmentation and brownfield reality are design inputs, not afterthoughts.
  • Constraint 01

    Operational safety

    Software that touches operational technology must never compromise the safety functions of the plant.

    Engineering response

    • Read-only integration by default
    • Control logic stays with control engineers
    • Defined fail-safe behavior when software fails
  • Constraint 02

    OT network security

    OT networks were not designed for cloud connectivity. Every new connection is a potential path into the plant.

    Engineering response

    • Zone and conduit segmentation informed by ISA/IEC 62443
    • Outbound-only connections through a DMZ broker
    • Certificate-based device identity
  • Constraint 03

    Latency and connectivity

    Many decisions cannot wait for a round trip to the cloud, and many sites have constrained or intermittent links.

    Engineering response

    • Edge inference for time-sensitive decisions
    • Store-and-forward buffering
    • Bandwidth-aware aggregation
  • Constraint 04

    Brownfield integration

    Plants run equipment and control systems that span decades and vendors.

    Engineering response

    • Protocol adapters for legacy equipment
    • Historian integration rather than replacement
    • Retrofit sensing where no data exists
  • Constraint 05

    Data quality

    Sensor drift, gaps and inconsistent tag naming undermine models before they are trained.

    Engineering response

    • Asset and tag modeling standards
    • Quality checks at ingestion
    • Calibration and drift monitoring
  • Constraint 06

    Trust on the floor

    Operators and planners act on recommendations only when they understand them.

    Engineering response

    • Explainable signals behind each alert
    • Feedback captured from maintenance outcomes
    • Thresholds tuned with operations teams

07FAQ

Common questions.

What engineering leaders ask us about industrial systems.
01Do you modify PLC or control system logic?

Our default is read-only integration with control systems through historians, OPC UA servers or gateways. Where a project needs to write to control systems, that work is scoped with your control engineers, who keep ownership of control logic and safety functions.

02Can industrial AI run without a reliable cloud connection?

Yes. Edge deployments are designed to keep running inference, alerting and buffering locally during network outages, then synchronize with the cloud when connectivity returns.

03Which industrial protocols do you work with?

Common protocols include OPC UA, Modbus, MQTT and vendor historian interfaces. For equipment without accessible data, we evaluate retrofit sensing. Support for specific equipment is confirmed during discovery.

04How do you start a predictive maintenance program?

With one asset class where failures are costly and data is available. We establish the data pipeline and a baseline, validate models against maintenance records, and only then expand to more assets or sites.

Industrial engineering

Connecting industrial assets to decisions?

Bring us the assets, the data and the operational problem. We'll help architect the system from sensor to operations.