Skip to the content
PCBKitNew board
2 layersP10, the printed circuit board in 3D

MakerAI hardware-agent research, whitepaper, lab artifacts, and MVP pipeline

Copper layers
2
Thickness
1.6 mm
Parts
10
Nets
7
Pads
40
Tracks, vias
0, 0
Routed
Not yet
KiCad
KiCad 10.0 (file 20260206)
Created
14 Jun 2026
Updated
20 Aug 2026

Overview

P10 is an open-source printed circuit board by chainstart, from the chainstart/makerai-lab repository on GitHub. It is a 2-layer board with 10 parts on 7 nets.

Its parts include 8 capacitors and 2 transistors.

README

README.md

MakerAI

MakerAI is an AI-native hardware runtime and manufacturing platform. The board design path turns reviewed, structured engineering inputs into auditable KiCad schematics and PCBs; it does not treat a rendered image or an autorouter return code as proof that hardware is ready to build.

Current Board-Design Route

The sole active EDA implementation is skills/makerai-board-design. It targets low-voltage, low-power, low-speed, module-based embedded boards and provides:

  • typed board specifications as the electrical source of truth;
  • critical-part evidence and explicit engineering assumptions;
  • versioned, source-linked circuit-block templates;
  • deterministic multi-page KiCad schematic generation;
  • exact specification/KiCad netlist equivalence checks;
  • KiCad ERC/DRC plus independent semantic, SKiDL, geometry, render, connectivity, reference-plane, and manufacturing gates; and
  • explicit separation between automated review candidates and human-approved releases.

The fixed smart-pot MVP and the earlier Hardware-DSL/KiCad script experiment are archived under legacy/. They are not current design backends.

Repository Layout

text
skills/
  makerai-board-design/       Current schematic, PCB, routing, and review skill.
    assets/                   Schemas, examples, evidence, profiles, and templates.
    references/               Engineering policies and workflow documentation.
    scripts/                  Deterministic generators, checkers, and exporters.
    tests/                    Fast workflow and policy regression tests.

legacy/
  pcb-mvp/                    Archived fixed smart-pot manufacturing MVP.
  kicad-script-demo/          Archived natural-language/Hardware-DSL EDA prototype.
  lab/                        Archived tool evaluations and experiment evidence.
  reports/                    Archived project reports and presentations.
  research/                   Archived market, module, and ecosystem research.

docs/                         White papers, proposals, and design discussions.
reports/                      Reports produced by the current skill route.

Generated skill environments, downloaded tools, and scratch runs live below the skill as .venv/, .tools/, and .runs/; they are intentionally ignored by Git. Reproducible inputs, lock files, source code, and policies are versioned.

Engineering Source of Truth

The current route keeps concerns separate:

  1. design.json owns components, exact pins, nets, footprints, and constraints.
  2. design.evidence.json owns primary-source evidence, assumptions, waivers, and mandatory human-review boundaries.
  3. Schematic and PCB layout profiles own presentation and physical intent, not electrical connectivity.
  4. Versioned block templates own qualified local presentation and source links.
  5. Deterministic generators emit KiCad files from those inputs.
  6. Independent checkers compare the emitted artifacts back to the original specification and fail closed when a required gate does not pass.

See the skill instructions, architecture, and professional schematic workflow for the authoritative process.

Quick Start

Bootstrap and verify the isolated EDA environment:

bash
SKILL_DIR="$PWD/skills/makerai-board-design"
"$SKILL_DIR/scripts/bootstrap.sh"
"$SKILL_DIR/scripts/doctor.py" --strict
"$SKILL_DIR/.venv/bin/python" -m pytest -q "$SKILL_DIR/tests"

Generate and review the reference ESP32-S3 schematic in a fresh output directory:

bash
SKILL_DIR="$PWD/skills/makerai-board-design"

"$SKILL_DIR/scripts/run_professional_schematic.py" \
  "$SKILL_DIR/assets/examples/esp32-s3-sensor-hub.json" \
  --profile "$SKILL_DIR/assets/schematic-layouts/esp32-s3-sensor-hub-professional-v1.json" \
  --evidence "$SKILL_DIR/assets/examples/esp32-s3-sensor-hub.evidence.json" \
  --template-dir "$SKILL_DIR/assets/schematic-templates/blocks" \
  --source-catalog "$SKILL_DIR/assets/template-sources.lock.json" \
  --output build/esp32-s3-sensor-hub-schematic

The command refuses to overwrite a non-empty output directory. A passing result is SCHEMATIC_AUTOMATED_REVIEW_PASSED: an engineering-review candidate that still requires the documented human checks. PCB placement, routing, and release commands are documented in the skill instructions.

Safety Boundary

The automated route does not cover mains, high-energy batteries, medical or automotive safety functions, motor power stages, discrete RF, DDR, PCIe, Ethernet PHY layout, isolation barriers, or certification sign-off. Those cases require a qualified engineer and a design-specific review plan.

Never describe an automatically generated design as production-ready. Use these states consistently:

  • generated: files exist, but required gates have not all passed;
  • review-candidate: automated gates pass and human review remains;
  • release-approved: a named human reviewer completed the release checklist;
  • blocked: at least one required gate failed or the design is outside scope.

Historical Material

The archived implementations and their selected outputs remain in legacy/ so earlier results can be inspected and reproduced. New features, board families, validation rules, and release decisions must use the current skill route.

The broader product direction remains documented under docs/, while historical tool evaluations, reports, and research evidence remain under legacy/.

License and Dependencies

The board-design skill source is MIT licensed. Optional upstream tools are kept at process boundaries and retain their own licenses. Review upstream licenses before redistributing tool binaries or copied material.

Parts

10
QtyValueFootprintReferences
8100nFtest:C_0805C1, C2, C3, C4, C5, C6, C7, C8
2IMT65R033M2Htest:IMT65R033M2HQ1, Q2

Questions

What parts does the P10 use?

10 parts. The full list of its parts is on this page, with links to each part's symbol and footprint where PCBKit's library has them.

Where can I download the P10 KiCad files?

From the chainstart/makerai-lab repository on GitHub, at the commit this page was made from: the board is legacy/lab/section6-tool-tests/outputs/PCBSchemaGen-sample-results/p10_results/p10.kicad_pcb. PCBKit opens the board in the browser, with nothing to install.

Can I use the P10 design in my own project?

Its repository states no licence, so its author keeps all rights: ask chainstart before reusing the design.

More from chainstart/makerai-lab

12
  • 2 layers120 × 100 mmSmart planter unrouted, the printed circuit board in 3D

    Smart planter unrouted

    chainstart/makerai-lab

    MakerAI hardware-agent research, whitepaper, lab artifacts, and MVP pipeline

    41 parts
  • 2 layersP17, the printed circuit board in 3D

    P17

    chainstart/makerai-lab

    MakerAI hardware-agent research, whitepaper, lab artifacts, and MVP pipeline

    39 parts
  • 2 layers60 × 38 mmSensor node ref unrouted, the printed circuit board in 3D

    Sensor node ref unrouted

    chainstart/makerai-lab

    MakerAI hardware-agent research, whitepaper, lab artifacts, and MVP pipeline

    23 parts
  • 2 layers100 × 80 mmMakerai smart pot.autorouted, the printed circuit board in 3D

    Makerai smart pot.autorouted

    chainstart/makerai-lab

    MakerAI hardware-agent research, whitepaper, lab artifacts, and MVP pipeline

    23 parts
  • 2 layers60 × 38 mmScripted sensor node, the printed circuit board in 3D

    Scripted sensor node

    chainstart/makerai-lab

    MakerAI hardware-agent research, whitepaper, lab artifacts, and MVP pipeline

    22 parts
  • 2 layers60 × 38 mmSensor node ref autorouted, the printed circuit board in 3D

    Sensor node ref autorouted

    chainstart/makerai-lab

    MakerAI hardware-agent research, whitepaper, lab artifacts, and MVP pipeline

    22 parts
  • 2 layers60 × 38 mmSensor node autorouted, the printed circuit board in 3D

    Sensor node autorouted

    chainstart/makerai-lab

    MakerAI hardware-agent research, whitepaper, lab artifacts, and MVP pipeline

    22 parts
  • 2 layersP16, the printed circuit board in 3D

    P16

    chainstart/makerai-lab

    MakerAI hardware-agent research, whitepaper, lab artifacts, and MVP pipeline

    22 parts
  • 2 layersP6 results, the printed circuit board in 3D

    P6 results

    chainstart/makerai-lab

    MakerAI hardware-agent research, whitepaper, lab artifacts, and MVP pipeline

    11 parts
  • 2 layersP8 results, the printed circuit board in 3D

    P8 results

    chainstart/makerai-lab

    MakerAI hardware-agent research, whitepaper, lab artifacts, and MVP pipeline

    10 parts
  • 2 layersP9 results, the printed circuit board in 3D

    P9 results

    chainstart/makerai-lab

    MakerAI hardware-agent research, whitepaper, lab artifacts, and MVP pipeline

    10 parts

Similar boards

  • 2 layers57 × 55.2 mmLogicAnalyzer, the printed circuit board in 3D

    LogicAnalyzer

    gusmanb/logicanalyzer

    24 channel, 100Msps logic analyzer hardware and software

    10 parts5.1kGPL-3.0
  • 2 layers32.2 × 15.4 mmProtector, the printed circuit board in 3D

    Protector

    byrantech/laptop

    anyon_e, a highly integrated, high end, open source laptop. Attempt the impossible.

    10 parts4.3kMIT
  • 2 layers26 × 18 mmConn, the printed circuit board in 3D

    Conn

    yaqwsx/KiKit

    Automation tools for KiCAD

    10 parts2.1kMIT
  • 2 layers44.3 × 30.5 mmLime2-SATA RevA, the printed circuit board in 3D

    Lime2-SATA RevA

    OLIMEX/OLINUXINO

    OLINUXINO is Open Source / Open Hardware, low cost from EUR 24 Linux Industrial grade Single Board Computer capable to operate -25+85C

    10 parts1.5k
  • 2 layers17.8 × 43.2 mmNano Adapter, the printed circuit board in 3D

    Nano Adapter

    VoronDesign/Voron-Hardware

    Cool Hardware designed by the Voron Design group

    10 parts1.1kGPL-3.0
  • 2 layers53.9 × 23.2 mmBuffer, the printed circuit board in 3D

    Buffer

    hoglet67/RGBtoHDMI

    Bare-metal Raspberry Pi project that provides pixel-perfect sampling of Retro Computer RGB/YUV video and conversion to HDMI

    10 parts1kGPL-3.0