2 open source boards using the ST1L05CPU33R
Real designs built with the ST1L05CPU33R, from public GitHub projects: a quick way to see how others power, decouple and connect it. Each board comes with its KiCad files, full parts list and a render — and you can simulate its firmware on HardLabs.
Kicker Board (Initial design by A Ryll -Tigers)
LiU-SeeGoals
140 × 85.4 mm63 parts2LNo license0
STM32STM32H755ZI breakout board
70 × 95 mm38 parts4LNo license0
The ST1L05CPU33R in open source designs
The gallery holds 2 open source boards using the ST1L05CPU33R from 1 GitHub repository; a typical one measures about 105 × 90.2 mm and carries around 51 components.
50% are two-layer designs, the rest use four layers or more, and 0% carry an open source license.
The most starred is Kicker Board (Initial design by A Ryll -Tigers) by LiU-SeeGoals.
Microcontrollers on boards using the ST1L05CPU33R
What boards using the ST1L05CPU33R are built for
ST1L05CPU33R: common questions
Where can I find a ST1L05CPU33R reference design?
Each of the 2 boards on this page is a real design using the ST1L05CPU33R. Open one to see how it is wired up, with the full BOM, a render of the layout and links to its KiCad files.
Which microcontrollers do boards using the ST1L05CPU33R use?
Most are built on STM32 (1).
How big is a typical board using the ST1L05CPU33R?
The median is 105 × 90.2 mm, and 50% are two-layer designs.
What is the most popular open source board using the ST1L05CPU33R?
By GitHub stars, Kicker Board (Initial design by A Ryll -Tigers) by LiU-SeeGoals, with 0 stars.
Can I simulate one of these boards using the ST1L05CPU33R before building it?
Yes. HardLabs turns a board's netlist and BOM into a working simulation, so you can boot and test firmware against it with no hardware on your desk.