Symbol + footprint reconstructed from manvalan/DigiRadio's EasyEDA
project (same method as the FSC-BT1035 footprint), cross-checked
against the manufacturer datasheet found in that same project. The
datasheet's own circuit diagram shows two independent, mechanically
-ganged contact pairs (not a simple SPST), reproduced faithfully in
the symbol. Pin numbering preserved exactly as extracted, kept
internally consistent between symbol and footprint.
Extracted 52 pad records + silkscreen geometry from the raw JSON-Lines
document format inside manvalan/DigiRadio's fabricated EasyEDA Pro
project (epro2kicad couldn't handle this project's newer multi-doc
export format, so the relevant FOOTPRINT document was located and
parsed directly). Pad size/pitch independently match the official
FSC-BT1035 datasheet's mechanical spec exactly; pad numbering follows
the same perimeter walk as the datasheet's own pin table, so pad N =
pin N. The underlying component was originally a SnapEDA export for the
mechanically-compatible FSC-BT806 (same 13x26.9mm 52-pad family
package), relabeled BT1035 by the designer -- documented in README.
Validated with kicad-cli fp export + visual SVG comparison against the
datasheet's own footprint layout figure before import. No 3D model.
Realtek Gigabit Ethernet PHY, imported from a SnapEDA KiCad export zip
(symbol + QFN40P500X500X90-41N footprint + STEP 3D model, all bundled
together). This is the first real-world use of scripts/import_snapeda.py.
Imports ESP32-C3/C5/C6/H2/S2/S3 MINI/WROOM/WROVER/SOLO modules and
ESP8684-WROOM-02C/U from the official espressif/kicad-libraries repo,
each with symbol + footprint + 3D model. Skipped bare SoC/die symbols
(no footprint of their own) and DevKit board symbols (not components
you'd place on your own board).
ESP32-S31-WROOM-3 is replaced: the previous easyeda2kicad.py export had
a fatal unquoted-URL syntax bug (fixed in an earlier commit, but the
official symbol/footprint/3D model is simply better -- real chip is
brand new, Espressif's own library already supports it).
All 19 footprints referenced their 3D model via ${KICAD8_3RD_PARTY} /
${KICAD9_3RD_PARTY} (KiCad Plugin & Content Manager install path, not
defined since this library isn't PCM-installed). Repointed to
${KIPRJMOD}/3dmodels/microcontrollers/ using the STEP files copied in
alongside each part, so every model resolves without PCM.
Adds ADAU1467WBCPZ300RL (the SigmaDSP chip previously missing), plus
PCM1808QPWRQ1, PCM9211PTR, Combo384, MW-1466CORE (ADAU1466 core module),
LME49720MA, CS8421-CZZ, PCM1861DBT, FDC608PZ, IMN10T108, AK5384.
Source repo used legacy KiCad .lib/.dcm format; converted via
kicad-cli sym upgrade. Parts already covered by the official mirrored
libraries (PCM5102A, INA194, AZ1117-3.3, ADAU1452) were intentionally
skipped to avoid duplication. PCM1681-Q1 skipped (KiCad 'extends'
variant, can't stand alone without duplicating PCM1681).
Fixed real defects found in the source footprints during import:
- PCM1808QPWRQ1 had an absolute 3D model path pointing at the upstream
maintainer's own machine (/Users/HILO/...)
- ADAU1467WBCPZ300RL and PCM9211PTR each had two dead 3D model
references (${KICAD_USER_TEMPLATE_DIR} and a bare filename)
All three now use a single ${KIPRJMOD}-relative reference to the STEP
files under 3dmodels/audio/.
LME49720MA imported symbol-only, Footprint property repointed at the
existing MIKILAB_ipc_soic:IPC_SOIC127P600X175-8N instead of duplicating
a generic SOIC-8 footprint.
- scripts/generate_global_tables.py generates sym-lib-table.global /
fp-lib-table.global using a custom env var (default MIKILAB) instead
of ${KIPRJMOD}, for use across every KiCad project
- README §1 now has concrete, tested install steps for this machine's
KiCad 10.0 setup (per-project vs. global), including a merge script
and a note about stale kicad-personal-library entries already
present in the user's global sym-lib-table
michele