MiniITXBoard · Since 2010

Years of Building. Lessons That Last.

We started with industrial Mini-ITX hardware. Since then, real projects have taught us what matters after a board leaves the bench.

MiniITXBoard industrial embedded computing engineering
Built small. Learned the hard way. Years of real projects taught us to care about the details people only notice when they go wrong.
2010 → Present

Experience Changed the Questions.

MiniITXBoard was founded in 2010 around industrial Mini-ITX computing. At first, the job looked simple: make useful computing fit into a smaller space. Then real projects began teaching us what a drawing and a spec sheet cannot.

2010
Where it began

Make the board fit the machine

The early work was practical. The board had to fit, connect, power up, and keep working inside the equipment it was chosen for.

The Work
What projects taught us

The details started talking back

A cable with nowhere to bend, a hot SSD, a BIOS setting, or one substitute part could turn a small detail into a real field problem.

Growing Up
What became clearer

Repeat builds changed the question

Once projects moved into production, the question was no longer only “Does it work?” It became “Can we build it again and know what changed?”

Today
What stayed with us

Now we think about the years after release

Today we think about who will service the system, replace a part, update the firmware, and understand the design when the original conversation is long over.

2010 marks the beginning. The chapters that follow reflect how our engineering approach evolved through years of real projects.

What We Learned

A Chain Is Only as Strong as Its Weakest Link.

In a compact system, the weak link can be surprisingly small: a connector, a cable, a power rail, a line of firmware, or one assumption nobody wrote down.
01

A spec sheet does not know your system

Numbers matter, but only the complete system can tell you whether the design really works.

02

Small changes can travel a long way

A different SSD, BIOS revision, connector, or thermal material can quietly change a result that once looked settled.

03

The field gets the final vote

The lab can tell you a lot. Heat, dust, cables, users, vibration, power loss, and time usually tell you the rest.

04

Write it down for the next person

Good engineering should survive a handover. Someone new should be able to see what was chosen, what was tested, and why.

How We Work

Solve the Expensive Problems While They Are Still Cheap.

That usually means asking the awkward question early, testing the risky assumption, and making the mistake while it can still be fixed with a conversation instead of a redesign.

See How We Create →
  1. 01

    Ask the awkward question

    Understand what the system really has to do, where it will live, and what cannot be allowed to fail.

  2. 02

    Test the thing that can hurt you

    Use the real hardware, firmware, peripherals, enclosure, and workload when their interaction can change the result.

  3. 03

    Leave a clear trail

    Keep the released configuration clear enough that the next build does not have to rediscover the same lesson.

What We Carry Forward

Good Work Should Outlive the Hands That Made It.

Industrial hardware can stay in service for years. People change, suppliers change, parts change, and memories fade. The work should still make sense.

Clarity

Say what you know

Clear limits are more useful than confident guesses.

Traceability

Make changes easy to follow

When something changes, people should be able to see what changed and what that change touches.

Continuity

Think past the first shipment

Replacement parts, field failures, updates, repairs, and second production runs are part of the product’s real life.

Learning

Pass the lesson forward

If one project teaches us something useful, the next one should not have to learn it from scratch.

Our Next Chapter

The Tools Change. The Craft Remains.

Edge AI, faster networking, new x86 and Arm platforms, and emerging architectures will keep changing compact computing. We welcome new tools. We still judge them by an old standard: do they make the real product better?

AI

Use new compute where it earns its place

More intelligence is useful only when the product can power it, cool it, integrate it, and maintain it.

ISA

Choose the tool that fits the work

x86, Arm, and emerging platforms are tools. The application should decide which one belongs.

LTS

Make the next generation easier to live with

Better systems should be easier to understand, change, support, and rebuild than the ones that taught us these lessons.

KNOW

Turn experience into something useful

Knowledge should not stay trapped in old projects. It should become better guidance for the people who build the next one.

Work With MiniITXBoard

Tell us what you are trying to build.

We will start with the system around the board and the things that still matter after launch.