People occasionally ask how I work, what I have in the lab, what equipment I use. This post answers some of those questions and serves as a reference when we’re discussing a project and I want to show you concretely what I have available.
The office/lab occupies a dedicated room in my home, configured to cover the full cycle: design, debug, physical prototyping and hardware security testing. In practice, this is the bench where Hard Probe work happens — the diagnostics that close intermittent HW/FW faults, and the physical and logical security assessments on real devices. No remote-only theory: the device gets put on this bench and probed.
Development workstation
The main workstation is split into two areas: software/firmware development on the right, hardware work and testing on the left.
You see a laptop on the desk: my mobile setup, the one that travels with me to clients or ends up on the treadmill when I need to move while I think.
On the right, the main desktop: Arch Linux, with Windows and Linux VMs on dedicated external SSDs — one per client, all encrypted. Keeping the disks physically separate isn’t paranoia (well, maybe a bit): it’s basic operational hygiene when running parallel confidential projects under NDA. It’s also the same isolation discipline a security engagement demands when a client’s proprietary firmware ends up on my machine — the material stays compartmentalised, and it leaves nothing behind on shared storage. The case is RGB because, besides being my primary work machine, it’s also my gaming rig. I’ve been doing embedded engineering for 25 years, not taking vows, and real nerds play games.
On the shelf behind: four modified Prusa Mini+ FDM printers, used mainly for fixtures, enclosures, custom supports, and fast mechanical prototypes.
Instrumentation and soldering bench
The main working bench, and where most of the Debug work gets done. Left to right:
- Isolation transformer and stabilizer: first thing that gets switched on, always, when working on mains-powered circuits. Non-negotiable.
- Soldering station and hot air station: for SMD rework down to very fine packages — and for the physical access a security assessment often needs, like lifting a flash chip off a board to read it out or tap a bus.
- Programmable power supplies: voltage and current settable with precision, essential during bring-up and for reproducing out-of-spec supply conditions. The same control is what lets me push a device outside its rated envelope on purpose — the entry point for fault-injection work in a Cybersec assessment.
- Stereo microscope: for visual inspection of solder joints, damaged components, lifted pads, and rework on fine-pitch parts (yes, my eyes are getting old). It’s also how you find the test point a vendor left on the board and forgot to document.
- Digital oscilloscopes and generator: more than one, with different bandwidths and characteristics depending on the analysis domain. This is the core of intermittent-fault diagnosis — the fault you can’t reproduce in a report is the one you catch on a scope trace.
- Bench multimeter and portable ones: precision DC measurements, continuity, component testing.
- ESD-safe mats: covers the entire bench surface. Grounding strap on, dissipative sandals on, always, before touching anything. The whole lab is EPA. Also non-negotiable.
Testing and rapid prototyping area
The most hybrid area of the lab: secondary measurement equipment, resin printers, and the assembly/test bench for physical prototypes.
On the shelf: books, manuals, plenty of evaluation boards and development kits, harnesses and custom-built fixtures. On top: fast FDM printers for prototype and small-series production, suitable for technical and composite materials.
The two resin printers on the bench serve two distinct purposes: PCB photolithography at prototype scale, and fixture production — custom probes, mechanical adapters, jigs for test benches. This matters directly for both services: when a Debug session needs to reach a signal on a non-standard connector, or a security assessment needs a probe on a test point the design never intended to expose, I print the adapter with the exact geometry required. Prototyping times are measured in hours, not weeks — which is why a diagnostic loop here doesn’t stall waiting on tooling.
High-volume FDM printing
High-speed delta FDM printers, all modified from stock configuration. They handle volume when I need multiple parts in parallel or different materials running simultaneously. All are suitable for high-temperature and composite materials.
In the corner, the treadmill: laptop on top, low speed, hours of walking while reading documentation or writing. Not a quirk: it’s the only way to avoid sitting for fourteen hours straight without running into health problems.
The black unit between the treadmill and the first printer is a wood stove. I live in a small mountain village in the Italian Alps, and I heat with wood. In winter, the lab stays warm, the carbon footprint stays honest, and the whole place feels considerably less like a data centre and more like what it actually is: a craftsman’s workshop.
What it actually looks like during a project
That’s how the instrumentation bench looks most of the time. PCB on the antistatic mat, probes connected, cables everywhere, microscope aimed at the DUT. The tidy lab you see in the other photos is the idle state — this is the operational state, and it’s what a Debug or Cybersec engagement actually looks like from the inside.
If you’re evaluating a collaboration and want to know whether I have the specific equipment for your use case, get in touch. The first step is a short, qualified discovery call — if it’s a fit, the device ends up on the bench above.
