Technology Never Stands Still, and Neither Do We
Validated Mini-ITX platforms engineered for reliable deployment in industrial, edge, and embedded system environments.
Industrial Mini-ITX Hardware & Engineering Since 2010
Industrial Mini-ITX Motherboards for OEM and Embedded Systems
Industrial Mini-ITX motherboards and configurable Mini PC platforms for OEM systems, backed by custom board engineering, validation, manufacturing and lifecycle support from prototype to production.
Since 2010Mini-ITX hardware & engineering
40+ CountriesOEM project delivery
10-Day TargetPrototype target on selected projects*
8 USB · 6 COM · 8 LANSelected board configurations*
*Examples vary by board and project. I/O count, prototype timing, thermal limits, compliance scope and lifecycle terms are confirmed for the selected SKU or custom design.
Selected customer and project references
Mini-ITX Product Categories
Start with the Right Mini-ITX Board Family
Choose the closest board family first, then compare the exact I/O, compute, power, thermal, mechanical and lifecycle limits that matter to your system.
Fanless & Low-Power
Low-power and passive-cooling boards for compact systems where power draw, thermal path and enclosure volume are constrained.
Fanless & Low-Power Mini-ITX Boards →
Industrial I/O
COM, GPIO, CAN and display-rich boards for control equipment, HMI and field-device integration.
Industrial I/O Mini-ITX Boards →
Network & Security
Multi-LAN platforms with 2.5/10GbE, SFP+ and selected PoE options for firewall, gateway and network appliances.
Network & Security Mini-ITX Boards →
Edge AI & High-Performance
Core Ultra, Ryzen Embedded, Jetson and PCIe expansion platforms for sustained edge AI, vision and compute workloads.
Edge AI & High-Performance Mini-ITX Boards →
Application-Specific
Board configurations shaped around storage, signage, vision, vehicle and diagnostic system requirements.
Application-Specific Mini-ITX Boards →Engineering Decision Paths
Choose by Requirement, Engineering Service, or Design Tool
Start from the constraint you need to solve, the engineering work you need completed, or the calculation you need to verify.
USB Topology
Budget USB by Controller, Bandwidth and Power
Map each device to xHCI resources, USB generation and power, then validate full-population enumeration.
Engineering checks
- xHCI root-port and hub topology
- USB 2.0 480 Mb/s · USB 3.x 5/10 Gb/s
- Per-port current and cable retention
- Full-load enumeration and suspend/resume
Selected configuration references
- Port count
- Up to 8×
- Signaling
- 480 Mb/s · 5 · 10 Gb/s*
- Use cases
- Vision · DAQ · HMI
Industrial Serial I/O
Specify Each COM Port Electrically, Not Just by Count
Define RS-232/422/485 mode, isolation, termination, pinout and OS enumeration per channel.
Engineering checks
- RS-232 / RS-422 / RS-485 mode per port
- RS-485 120 Ω end termination where required
- Isolation and ground reference by field circuit
- Header / DB9 pinout and OS enumeration
Selected configuration references
- Port count
- Up to 6× COM
- Protocols
- 232 · 422 · 485
- Typical loads
- HMI · Modbus · PLC
Ethernet Architecture
Allocate LAN Ports Against NIC and PCIe Resources
Port count is secondary to controller topology, lane budget, media and sustained traffic.
Engineering checks
- 1 / 2.5 / 10GbE controller mapping
- PCIe generation and lane width
- RJ45 / SFP+ / PoE implementation
- Wire-rate load and NIC temperature
Selected configuration references
- Port count
- Up to 8× LAN
- Link classes
- 1 · 2.5 · 10GbE
- Use cases
- Firewall · NAS · Edge
Industrial DC Input
Lock the Input Window Before Board Release
Design from VIN min/max, startup peak and transients—not nominal voltage alone.
Engineering checks
- 12 V / 19 V / 24 V project families
- UVLO and brownout behavior
- Surge and reverse-polarity protection
- Connector and wire current rating
Design inputs
- Source
- VIN min / max
- Load
- Peak + sustained
- Protection
- UVLO · surge · reverse
Fanless Thermal Path
Size the Thermal Path from Sustained Power
Use ΔT, sustained package power and enclosure conditions to set the required °C/W path.
Engineering checks
- Sustained package power versus TDP
- Tamb and enclosure internal temperature
- TIM, spreader, heatsink and conduction path
- Steady-state throttle margin
Thermal references
- Inputs
- P · Tamb · Tlimit
- Relation
- θ ≈ ΔT / P
- Proof
- Sustained load
Temperature Qualification
Qualify the Complete SKU Across Temperature
The CPU rating is not the system rating; memory, storage, PHYs, power and connectors must survive the same envelope.
Engineering checks
- Component temperature ratings by BOM
- Cold-start power and storage behavior
- Hot-load throttling and component temperature
- I/O link stability at temperature limits
Validation focus
- Site reference*
- -20 to +60°C
- Burn-in*
- 48–72 h
- Proof
- Cold start + hot load
Mechanical Envelope
Freeze Z-Height and Keep-Outs Before Enclosure Tooling
The 170 × 170 mm footprint is only the start; rear I/O, heatsink, cables and PCIe define usable volume.
Engineering checks
- 170 × 170 mm board footprint
- Rear-I/O and connector Z-height
- Heatsink, storage and cable-bend clearance
- PCIe and enclosure keep-out zones
Mechanical references
- Footprint
- 170 × 170 mm
- Focus
- Low-profile stack
- Use cases
- Kiosk · HMI · Panel PC
Edge AI Architecture
Size AI Compute from Model, I/O Path and Thermal Limit
Choose GPU, NPU or Jetson only after mapping runtime, memory, ingress bandwidth, PCIe and sustained power.
Engineering checks
- GPU / NPU / Jetson accelerator path
- PCIe generation, lane width and M.2 resources
- CSI / USB / 10GbE / storage ingress
- Runtime, memory and sustained thermal limit
Architecture references
- Compute
- GPU · NPU · Jetson
- Interfaces
- PCIe · M.2 · CSI
- Use cases
- Vision · Robotics · Inference
Custom Mini-ITX Design & ODM
Turn System Constraints into a Production-Ready Embedded Motherboard
Engineer Mini-ITX, Thin Mini-ITX and project-specific custom form factors around the required CPU/SoC, I/O, power, thermal and mechanical constraints.
Engineering checks
- Mini-ITX, Thin Mini-ITX or project-specific mechanical datum
- PCIe, USB, LAN, COM and display resource map
- Power tree, reset/boot and thermal review
- IPC-2221 / IPC-7351 design references where specified
Release package
- Form factor
- Mini-ITX · Thin · Custom
- Design refs
- IPC-2221 · IPC-7351
- Release
- Gerber · BOM · Rev
Box Build & System Integration
Release Board, Harness, PSU and Enclosure as One Tested System
Mechanical fit alone is not enough; startup current, cable routing, cooling and service access must close at system level.
Integration checks
- 12 / 24 VDC PSU and startup-current margin
- Harness pinout and continuity; IPC/WHMA-A-620 where specified
- Storage, heatsink and cable-bend clearance
- Final functional test against the released configuration
Release controls
- Power
- 12 / 24 VDC
- Harness
- IPC/WHMA-A-620
- Output
- Assembly + FCT
BIOS & Firmware Engineering
Lock UEFI, TPM 2.0 and Recovery Behavior to the Production SKU
Firmware is part of the released configuration, not a post-build setting. Boot, security and recovery behavior must remain reproducible by revision.
Firmware checks
- UEFI boot order and AC-loss auto power-on
- TPM 2.0, Secure Boot and PXE requirements
- Watchdog, GPIO and recovery behavior
- BIOS, driver and OS baseline under ECO/ECN control
Release controls
- Security
- TPM 2.0
- Boot
- UEFI · PXE
- Change
- ECO · ECN · Rev
Engineering Validation
Define Test Conditions and Acceptance Limits Before Production Release
A validation result is useful only when the SKU, BIOS, workload, ambient, duration and pass/fail criteria are recorded.
Validation checks
- Thermal steady-state at target ambient and workload
- IEC 60068-2-6 vibration / IEC 60068-2-27 shock where required
- IEC 61000-4-2 ESD: ±4 kV contact / ±8 kV air reference
- I/O population, power-cycle and recovery testing
Evidence record
- ESD
- ±4 / ±8 kV
- Mechanical
- IEC 60068-2-6 / -27
- Trace
- SKU · BIOS · Rev
PCB & PCBA Manufacturing
Build the Released Revision to Named IPC Acceptance Criteria
The production package should identify PCB requirements, BOM revision, solder process, inspection plan and functional test.
Manufacturing controls
- IPC-6012F / IPC-A-600M for rigid PCB acceptance
- J-STD-001J / IPC-A-610J for soldered assemblies
- AOI plus X-ray for hidden-joint risks such as BGA/QFN
- FCT, serialization and lot/revision traceability
Acceptance basis
- PCB
- 6012F · A-600M
- PCBA
- J-STD-001J · A-610J
- Inspection
- AOI · X-ray · FCT
Electronic Component Sourcing
Approve Alternates by MPN, Electrical Fit and Lifecycle—not Availability Alone
A pin-compatible substitute can still change power, timing, thermals, firmware behavior or qualification status.
Sourcing controls
- Manufacturer part number, AVL and supplier identity
- MSL 1–6 handling per J-STD-033 where applicable
- Engineering approval before alternate-part release
- PCN/EOL, lot and date-code traceability
Supply controls
- Identity
- MPN · AVL
- Handling
- MSL 1–6
- Lifecycle
- PCN · EOL
Mechanical & Enclosure Manufacturing
Release Datums, Tolerances and Finish Before Cutting Metal
Board fit depends on I/O apertures, standoffs, Z-height, cable bends and heatsink contact—not enclosure width alone.
Mechanical controls
- Board, rear-I/O and enclosure datums by released drawing
- Sheet metal, CNC or extrusion drawing by revision
- ISO 2768 general tolerances only where specified on drawing
- First-article fit, finish and service-access inspection
Release controls
- Board
- Mini-ITX · Custom
- CAD
- 2D · STEP · Rev
- Quality
- FAI · Drawing
Engineering Tool
Mini-ITX Power Budget Calculator
Sum CPU, accelerator, memory, storage, USB and PCIe loads before selecting the DC source.
Use it to check
- CPU, GPU/NPU and memory load
- Storage, USB and PCIe device power
- Peak margin beyond nominal consumption
- PSU handoff before source selection
Core inputs
- Compute
- CPU · GPU · NPU
- Peripherals
- USB · storage · PCIe
- Output
- Total W + margin
Engineering Tool
12V / 24V Power Supply Calculator
Use P = V × I to convert system watts into source current, then add project margin.
Use it to check
- Current draw from total wattage
- 12 V versus 24 V source sizing
- Design margin for transients and growth
- Connector and wiring current expectations
Core relation
- Formula
- P = V × I
- Sources
- 12 V · 24 V
- Output
- Current + margin
Engineering Tool
Thermal Resistance Calculator
Use θ = ΔT / P to estimate the °C/W target before choosing the thermal path.
Use it to check
- Allowable temperature rise
- Power dissipation under target load
- Required θJA or θJC path
- Ambient assumptions before thermal freeze
Core relation
- Formula
- θ = ΔT / P
- Temperatures
- Tj · Tc · Tamb
- Output
- °C/W target
Engineering Tool
Mini-ITX Size & Clearance Checker
Check the 170 × 170 mm footprint against I/O zones, Z-height, cable bends, PCIe and enclosure keep-outs.
Use it to check
- 170 × 170 mm board footprint
- I/O connector and cable-bend zones
- Heatsink and component Z-height
- PCIe and enclosure keep-out space
Mechanical references
- Board
- 170 × 170 mm
- Height
- Heatsink + I/O
- Clearance
- Cables · PCIe
Map Platform Resources
Compare CPU/SoC, PCIe, I/O and power limits before board selection.
Close Integration Risks
Resolve connector, thermal, firmware and enclosure conflicts before release.
Release with Evidence
Tie validation to SKU, PCB/BOM revision and firmware baseline.
Control Change
Track ECO/ECN, PCN/EOL and approved substitutions through production.
Platform Architecture
Choose the Platform Architecture Before the Exact Board
Intel
Intel Embedded Platforms
Atom, Core and selected Xeon options for Windows/Linux industrial control, HMI, networking and virtualization where x86 software compatibility and PCIe expansion are key selection criteria.
Intel Mini-ITX Platform Options →AMD
AMD Embedded Platforms
Ryzen Embedded options for x86 workloads that prioritize graphics, machine vision, edge compute or higher-throughput networking, with Radeon graphics on selected platforms.
AMD Ryzen Embedded Platform Options →Arm
Arm Embedded Platforms
NXP i.MX, Rockchip and other Arm SoCs for low-power gateways, HMI and IoT where Linux/Yocto BSP support, field I/O and power envelope drive selection.
Arm Mini-ITX & BSP Options →NVIDIA
NVIDIA Jetson Platforms
Jetson modules and carrier boards for CUDA/TensorRT inference, multi-camera vision, robotics and video analytics where GPU acceleration and JetPack compatibility are key selection criteria.
NVIDIA Jetson Carrier Board Options →Project Execution
How an OEM Hardware Project Moves to Production
One controlled path from requirement definition to an approved production configuration.
Requirements & Platform Selection
Freeze workload, I/O, power, thermal, mechanical and OS constraints; select the closest platform.
Custom Engineering
Close the required board, firmware, BOM and system-level changes against one project baseline.
Prototype & Validation
Verify the prototype against agreed functional, thermal, mechanical and project-specific validation criteria.
Production & Lifecycle Support
Release the approved configuration to production, then manage revision, supply and lifecycle changes under control.
Application Architecture
Mini-ITX Hardware for Industrial and Edge Applications
Use the application to expose the dominant constraints, then select the board by compute, I/O, power, thermal and lifecycle requirements.
Industrial Control
PLC, SCADA, motion, machine-control and DAQ systems requiring RS-232/422/485, GPIO/CAN, watchdog, industrial networking and long-lifecycle hardware.
Mini-ITX for Industrial Control →AI & Edge Computing
Vision, inference and robotics workloads requiring GPU/NPU acceleration, PCIe expansion, NVMe storage, high-speed networking and sustained thermal control.
Mini-ITX for AI & Edge Computing →Network Appliance & Security
Firewall, VPN, SD-WAN and edge-gateway systems requiring multi-LAN topology, 2.5/10GbE, PCIe lane planning, storage and secure platform features.
Mini-ITX for Network Appliances →HMI & Panel PC
Operator interfaces and panel systems requiring LVDS/eDP/HDMI, touch, serial/GPIO, fanless cooling, low-profile I/O and controlled mechanical integration.
Mini-ITX for HMI & Panel PC →Project Delivery Evidence
Selected Results from OEM Projects
Examples of delivery, engineering response and long-term support from completed projects.
500 Boards · 14-Day Delivery
After configuration and production approval, 500 boards were delivered within a 14-day production window.
David H · Industrial Display Program · Product Manager
Response in Hours · Fix Closed Within One Week
The engineering issue received an initial response within hours; schematic feedback and the agreed design fix were closed within one week.
Sophia Z · Medical Device Program · Hardware Engineer
10+ Years · Multiple Product Generations
Support continued through repeat production and multiple product generations over more than ten years.
Oliver Ortega · Networking OEM · Director of Supply Chain
After Production Release
Keep the Released Configuration Controlled
After release, the job shifts to revision traceability, support response, warranty/RMA, component change control and lifecycle continuity.
Service Level Agreement
Response targets, support scope and escalation paths defined for the applicable service agreement.
Service-Level Commitments →
Certifications & Quality Standards
Separate company certification, manufacturing acceptance criteria and product-specific compliance evidence so each claim has a defined scope.
Mini-ITX Quality & Compliance Standards →Support & After-sales Service
Documentation, BIOS guidance, warranty/RMA, PCN/EOL handling and revision support for deployed hardware.
After-Sales & Lifecycle Support →Engineering Knowledge
Latest Engineering Insights
Recent technical articles on Mini-ITX architecture, integration and deployment constraints.
SCADA Systems Guide: Architecture and Industrial Hardware
Map SCADA layers, PLC relationships, communication paths and the hardware constraints behind supervisory control systems.
SCADA Architecture & Hardware Guide →
Mini-ITX Motherboards with Thunderbolt 4: Support and Design Checks
Verify controller support, PCIe routing, display tunneling and power behavior before treating USB-C or USB4 as Thunderbolt 4.
Thunderbolt 4 Design Checks →
Mini-ITX Boards with 4 RAM Slots: Limits and Options
Four-DIMM Mini-ITX designs face real routing and mechanical limits inside 170 × 170 mm; compare the tradeoffs before fixing memory architecture.
4-DIMM Mini-ITX Design Limits →