Turning an idea into a physical product is one challenge. Turning it into a connected product — one that senses, logs, monitors, or reports back over the network — is another. This is where mechanical design, electronics, firmware, and software all have to work together, and it’s exactly the combination I specialise in.

Most IoT development shops can write firmware or build an app, but stop there. My background is different: I come from Design for Manufacturing, which means the enclosure, the wiring, the assembly, and the electronics all get designed as one product from day one — not bolted together after the fact.

What’s Included

  • Embedded hardware selection & prototyping — choosing and working with microcontrollers (Arduino/ATMEL, ESP8266, STM32) suited to your product’s power, connectivity, and cost requirements
  • Sensor integration & data acquisition — custom firmware and software that reads real-world signals (current, voltage, temperature, and other sensor data) reliably and continuously
  • Enclosure design for electronics — housings engineered for heat, vibration, ingress protection, and ease of assembly, ready for 3D printing, injection molding, or sheet metal production
  • Remote monitoring & control dashboards — web-based interfaces (React/Node) so you or your customers can see device status and data from anywhere
  • DFM oversight throughout — every part of the design is checked against how it will actually be manufactured and assembled at volume, not just whether the prototype works

Typical Project Types

  • Remote equipment monitoring — e.g. inverter, generator, or power system monitoring with live status reporting
  • Connected enclosures — smart housings for PCBs and sensors that need to survive real-world conditions
  • Custom data loggers & measurement instruments — hardware that captures and records real-world data over time
  • Companion dashboards — a web or app interface that turns raw sensor data into something a customer can actually read and act on

How a Project Runs

  1. Concept & feasibility — define what the device needs to sense, control, or report, and what’s realistic within your budget and timeline
  2. Hardware prototyping — get a working proof-of-concept on a dev board before committing to custom electronics
  3. Firmware development — write the code that runs on the device itself
  4. Enclosure & mechanical design — engineer the housing for real production, not just a 3D-printed shell
  5. Dashboard or app development (where needed) — build the interface for monitoring and control
  6. Production handoff — hand over a design that’s ready to manufacture at the volume you need

Tools & Technologies

  • Embedded: Arduino / ATMEL, ESP8266, STM32
  • CAD & Mechanical: Autodesk Inventor, Fusion 360
  • Software & Dashboards: ReactJS, Node.js/Express
  • Rendering: Keyshot

Ready to Build a Connected Product?

Whether you’re starting from a rough idea or already have a working prototype that needs to become manufacturable, get in touch for a free consultation.