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The displays have arrived — from AI render to real hardware
6 hours ago • 0 commentsThe displays arrived today, and I couldn’t resist trying out the odometer and navigation prompts on them.
I grabbed a Waveshare ESP32 development board, connected a display and asked Codex to write the code. Three minutes later, it was working.
It looks fantastic — just like the AI render, only now it’s real hardware in my hand.
![Odometer and trip display running on the round screen]()
The first odometer and trip screen on the real display. ![Navigation prompt with a right-turn arrow and 500 metres on the round display]()
A first look at the navigation prompt: turn right in 500 metres. ![The newly arrived round display modules in their cases]()
The round displays, fresh out of the delivery box. One small surprise: SPI, not I²C
The displays turned out to use SPI rather than I²C. Not a big problem: I²C was still shown as the display connection in the first block diagram, so that label needs updating. There are enough microcontroller pins for everything.
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First design results: from real parts to a Fusion layout
a day ago • 0 commentsOn 20 September 2026, I reached the first concrete results of the instrument-panel design.
Starting with the most critical parts
At the start of development, I received the parts that were most critical to my design: the gauge motors and needles ordered from AliExpress. I wanted to base the layout on the actual components, so I carefully measured them and created 3D models for accurate packaging and mechanical design.
I also checked that the motors worked using an Arduino and a very simple sketch.
![Gauge motors and needles received from AliExpress]()
The actual motors and needles: the starting point for measurements, 3D models and the instrument layout. From measurements to a mechanical layout
Using the measured component models, I put together the first instrument layout in Autodesk Fusion. This lets me work out how the motors, shafts, needles, dial plates and display openings fit together, and check clearances as the design develops.
The exterior render and both Fusion views are available in the project gallery.
How the panel could look on my motorcycle
I then made a visual mock-up to get a first impression of how the new panel would look on my GPX 250 Twin. This is an early look at its appearance and proportions from the riding position.
![Concept visualization of the twin-instrument panel on my GPX motorcycle]()
The panel on my motorcycle — an AI-assisted concept visualization, not an installed working prototype. A first electronics architecture
I also drew the first electronics block diagram. The architecture uses an ESP32 main unit connected over RS-485 to two identical STM32F103 instrument modules. Each module has four motors, a display, RTC, an ambient light sensor, its own regulators and two bright LED indicator lamps.
![First electronics block diagram]()
Proposed architecture, first version. Hardware and firmware are still being developed.
What is working, and what is next
The motors have passed an initial functional check. The complete cluster is still in development, with mechanical refinement, electronics and power management next.
The renders communicate the intended appearance, but contain errors introduced by AI. Scales, labels and display graphics still need work. The speedometer/tachometer positions also differ between the exterior render and the block diagram; I will reconcile these as the design develops.
Follow the full development log at dashboard.smartmoto.asia. Documentation and design images are in the project repository.
Sergei




