The proposed physical product

The Lab.

Not a magical box that replaces an electronics engineer. A practical way to let a computer see the same board through several instruments at once.

The first rule is deliberately unglamorous: keep the instruments that already work. Add the missing pieces for safe control, shared timing, board context, fixtures and repeatable evidence.

Concept illustration of a modular family of electronics boards and test hardwareProposed hardware

Industrial-design study, not a shipping product photograph.

Imagine that a board suddenly restarts after ten minutes of hard work.

An engineer might watch the power on an oscilloscope, read text scrolling past in a serial window, put a finger near a warm regulator, then point a thermal camera at the board. The clues are there. The difficult part is joining them into one event and then choosing the next test without changing five things at once.

The Lab is meant to turn that messy bench episode into something repeatable: same board, same fixture, same software, same test, same limits, synchronized measurements, preserved raw evidence.

A modular family, not one monolith

Build only the parts the experiment needs.

01 / CORE

Bench controller

The quiet coordinator. It discovers connected instruments, starts tests, timestamps events, records the evidence and keeps the hard safety rules local even if the higher-level software crashes.

It should speak ordinary instrument protocols and open APIs. It should not force people to replace a perfectly good scope just because we want a branded box.

02 / FIXTURE

Repeatable board holder

A board-specific plate with known contacts, connectors and physical reference points. The boring mechanical part that makes “run it again” actually mean the same thing.

Instead of hand-placing probes after every revision, important signals, power, reset, debug and communication lines can be reached in known positions.

03 / EYES

Thermal + visible cameras

One camera sees the board as people see it. Another sees temperatures as measurements. Their view is registered to the board so a hotspot can be associated with a real component rather than “the red blob near the corner.”

We should begin by integrating existing radiometric cameras. Building a thermal camera from scratch is not the valuable problem.

04 / POWER

Controlled power & load

The board can be switched on, stressed, reset and measured inside limits agreed before the run.

Current, voltage and temperature ceilings belong in local executable rules. A language model should never be able to talk its way around them.

05 / BRIDGE

Your existing instruments

Scopes, logic analysers, power supplies, loads and signal generators remain measurement authorities. The Lab connects them to the same experiment record.

The adapter layer translates capabilities without hiding the original data, instrument identity, settings or calibration information.

06 / DEBUG

Software meets the board

Boot logs, firmware flashing, reset lines, JTAG/SWD, CAN, UART and other interfaces let a physical test include the software state that created it.

A hardware revision and the software needed to boot it should travel through the project together.

The thing we may genuinely need to invent

A common clock for a messy bench.

Different instruments live on different clocks. A thermal camera may capture tens of frames per second. A scope may sample millions or billions of times per second. A USB log arrives when the operating system gets around to delivering it.

If the website draws all of those traces on one perfect timeline, it must not pretend they were measured with precision they do not have.

Some experiments can share a hardware trigger. Others can use a local event box that timestamps stimulus and capture edges. Slow logs may only be aligned to a window of uncertainty.

Being explicit about that uncertainty is part of the product.

A useful result is not “everything happened at 08:43.217.” It may be: “the power event definitely came first; the software log followed within this measured window; the thermal change was slower.”

Three sizes, one idea

Bench. Node. Commons.

Bench

For one engineer. Adds board context, evidence capture and adapters to equipment already on the desk.

Node

For repeatable unattended or supervised testing. Adds dedicated power control, cameras, a fixture and local safety logic.

Commons

For a hackerspace or shared lab. Publishes what the lab can measure and lets open projects request repeatable experiments.

First build philosophy

Integrate before we manufacture.

KEEP
Existing scopes, thermal cameras, logic analysers and programmable supplies when they already expose usable computer control.
BUILD
The coordination hardware, fixture conventions, trigger/timestamp layer, safety controller and board-awareness that are genuinely missing.
PROVE
One three-sensor physical experiment before attempting a beautiful all-in-one enclosure.
OPEN
The interfaces early enough that another lab can add equipment we never anticipated.