Technology Never Stands Still, and Neither Do We
Validated Mini-ITX platforms engineered for reliable deployment in industrial, edge, and embedded system environments.
Industrial Automation
Industrial Automation Mini-ITX Computing Platforms
Our custom Mini‑ITX boards support PLC integration, SCADA and HMI workloads, industrial connectivity, and reliable embedded computing for modern automation systems.
Driving the Factory of the Future
Automation Hardware Built Around the Control Architecture
Factories need precise, always-on hardware to run PLCs, SCADA, and HMI systems without a hitch. We build Mini‑ITX boards to fit the factory workflow and control architecture rather than forcing the application around a generic desktop platform.
Custom Automation Hardware in Action
Where Mini-ITX Platforms Fit in Automation Systems
Mini‑ITX platforms can serve as compact control, gateway, HMI, logging, and edge-computing nodes when their interfaces, software stack, power, thermal design, and timing behavior are validated for the application.
Assembly Line Control System
Compact nodes can coordinate conveyor, motion, machine-interface, and supervisory tasks when the required fieldbus controllers, I/O, operating system, and timing behavior are validated together.
Industrial IoT Gateway
A Mini‑ITX gateway can collect machine telemetry, bridge industrial networks, and run local analytics when LAN, serial, CAN, storage, expansion, and software support match the deployment.
Predictive Maintenance Gateway
Sensor acquisition, local processing, messaging, and optional AI acceleration can be combined for vibration, temperature, and equipment-condition monitoring.
What Stops Your Automated Processes?
Engineering Requirements Before Board Selection
Deterministic behavior, mixed industrial networks, and continuous operation cannot be confirmed from a CPU model or connector count alone. Validate the complete hardware, software, power, thermal, and I/O path.
| Requirement | Engineering Consideration | Verify Before Selection |
|---|---|---|
| Deterministic Control | Timing depends on the operating system, drivers, fieldbus stack, controller design, and workload. | Cycle time, worst-case latency, jitter target, interrupt behavior, and application validation. |
| Fieldbus Integration | PROFINET, EtherCAT, Modbus, CANopen, and serial networks require the correct controller, transceiver, driver, and software stack. | Protocol role, physical interface, isolation, termination, drivers, topology, and certification requirements. |
| 24/7 Operation | Long-running systems need a validated thermal path, stable power, storage strategy, watchdog behavior, and controlled component lifecycle. | Ambient range, enclosure, transients, thermal load, storage endurance, recovery behavior, and BOM control. |
| HMI & SCADA | Display, USB, LAN, serial, storage, graphics, and OS requirements vary by visualization and supervisory software stack. | Display count, resolution, touch interface, software version, network load, storage, and remote management. |
System Architecture
Place the Mini-ITX Node at the Correct Layer
In most automation systems, the industrial PC or Mini‑ITX node complements rather than automatically replaces the PLC. Control responsibility should remain explicit across field, control, supervisory, edge, and enterprise layers.
- Field DevicesSensors, actuators, drives, meters
- PLC / ControllerMachine logic and time-sensitive I/O
- Mini-ITX Edge NodeHMI, protocol gateway, logging, local compute
- SCADA / MESSupervision, visualization, alarms, production data
- Enterprise / CloudAnalytics, reporting, remote services
PLC & SCADA Integration · Multi-Fieldbus I/O · HMI
I/O and Connectivity Must Match the Actual Devices
Start with the connected equipment and signal requirements. Then map the required serial modes, LAN interfaces, GPIO, CAN, display, USB, expansion, and DC input to a board configuration.
- RS-232 / RS-485
- PLC, meter, drive, controller, and legacy equipment integration.
- Industrial Ethernet
- SCADA, HMI, gateway, controller, and plant-network connectivity.
- GPIO / CAN
- Direct digital signals and CAN-based equipment where the electrical interface is verified.
- Display / USB
- Operator interfaces, touchscreens, service peripherals, cameras, and local HMI devices.
- PCIe / M.2
- Fieldbus controllers, wireless modules, storage, accelerators, or other expansion.
- DC Power
- Match the equipment supply, startup current, transient behavior, connector, and protection strategy.
Platform Decision Guide
Select the Platform from the Workload and System Constraint
Processor family is one decision inside a larger system selection. Begin with workload, I/O, power, thermal, graphics, expansion, operating system, and lifecycle requirements.
| Workload | Starting Point | Selection Note |
|---|---|---|
| Compact control / HMI | Intel Platforms | Common starting point for fanless control, gateway, HMI, and embedded workloads. |
| Graphics / multicore HMI | AMD Platforms | Consider when graphics performance or a different performance-per-watt balance is required. |
| AI inspection / vision | NVIDIA Platforms | Relevant when the automation node includes GPU-driven vision or edge inference. |
| High serial-device density | Multi-COM Platforms | Verify electrical mode, isolation, termination, pinout, controller resources, and drivers. |
Recommended Solutions
Three Practical Starting Points
These products are starting configurations, not universal automation boards. Confirm interfaces, electrical requirements, software, thermal design, power, mechanical fit, and lifecycle before selection.
Engineering Support
Ready to Automate Your Factory?
Get a tailored recommendation for the Mini‑ITX platform, I/O configuration, thermal design, power input, operating system, and lifecycle requirements behind your automation project.
FAQ
Industrial Automation Hardware Questions
Can a Mini-ITX industrial PC replace a PLC?
Not automatically. PLCs are typically the safer control layer for machine interlocks, sequence logic, and time-sensitive I/O. A Mini‑ITX industrial PC can run HMI, SCADA, gateway, logging, analytics, and some control workloads, but control responsibility and timing behavior must be validated.
What interfaces matter most for PLC and SCADA integration?
Start with the actual connected equipment. Common requirements include RS‑232/422/485, Ethernet, GPIO, CAN, USB, display outputs, and expansion for fieldbus controllers. Verify electrical mode, isolation, termination, pinout, drivers, and software support.
How should we select a CPU platform for industrial automation?
Select from the workload and system constraints: control or supervisory role, graphics, AI, I/O, operating system, power budget, thermal design, expansion, lifecycle, and mechanical requirements.
What should be checked for continuous industrial operation?
Validate ambient temperature, enclosure, cooling path, sustained workload, power quality, startup and transient behavior, storage endurance, watchdog and recovery behavior, component lifecycle, and the complete software stack.
Automation Insights & Best Practices
Stay current with tutorials on real‑time control, fieldbus integration, and SCADA security.
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