KiCad - the KiCad Bridge

{
 "prepare": {
  "file": "prepare.mp3",
  "sha1": "873d0e172d85",
  "text": "KiCad tour, step 1 of 7. The bridge is fetching a real Adom board from the wiki, the E S C G 4 3 1 motor controller, and installing its S T M 32 microcontroller into your KiCad library."
 },
 "symbol": {
  "file": "symbol.mp3",
  "sha1": "391b0e1853b5",
  "text": "Step 2 of 7, the symbol. This is the S T M 32 G 4 3 1 in your own Symbol Editor, lifted straight from the board's schematic."
 },
 "footprint": {
  "file": "footprint.mp3",
  "sha1": "58cd187ab343",
  "text": "Step 3 of 7, its footprint. A 48 pin L Q F P on half millimetre pitch, taken from the board itself."
 },
 "footprint3d": {
  "file": "footprint3d.mp3",
  "sha1": "65b6556363f9",
  "text": "Step 4 of 7, the chip in 3 D, with KiCad's own L Q F P body sitting on its pads."
 },
 "schematic": {
  "file": "schematic.mp3",
  "sha1": "8d5f11df2a84",
  "text": "Step 5 of 7, the schematic. The whole E S C: over two hundred symbols, six power MOSFETs, gate drivers, sensing and connectors."
 },
 "board": {
  "file": "board.mp3",
  "sha1": "72cc97063272",
  "text": "Step 6 of 7, the board in 2 D. One hundred and forty nine footprints, the MOSFETs around the edge and the M C U in the middle."
 },
 "board3d": {
  "file": "board3d.mp3",
  "sha1": "095fa1fc7961",
  "text": "Step 7 of 7, the board in 3 D. From one symbol to a rendered assembly, every step on your own machine, each window brought to you once and then left alone."
 },
 "done": {
  "file": "done.mp3",
  "sha1": "55079ac26b31",
  "text": "Tour complete. Everything you saw was your real KiCad, driven by the bridge. The remote and the captions were Adom Bridge."
 },
 "symbol-a": {
  "file": "symbol-a.mp3",
  "sha1": "2fdabeac8bf3",
  "text": "Opening the Symbol Editor. Loading the S T M 32 G 4 3 1, the microcontroller from the E S C board, straight from your own library."
 },
 "symbol-b": {
  "file": "symbol-b.mp3",
  "sha1": "42daf50bee3a",
  "text": "Here is the symbol. Forty eight pins, grouped by function: power, the clock, U S B, and the timers that drive the motor. The bridge zooms in on the part, pans across the pins, and pulls back out."
 },
 "footprint-a": {
  "file": "footprint-a.mp3",
  "sha1": "db3a70556eb1",
  "text": "Opening the Footprint Editor and loading the L Q F P 48 footprint for that same chip."
 },
 "footprint-b": {
  "file": "footprint-b.mp3",
  "sha1": "29c3ef16970c",
  "text": "The footprint: forty eight pads on a half millimetre pitch, the silkscreen outline, the pin one mark, and the courtyard the assembler keeps clear. Zooming in on the pads, then back out."
 },
 "footprint3d-a": {
  "file": "footprint3d-a.mp3",
  "sha1": "4c9d4d1e8f71",
  "text": "Opening the 3 D viewer for the footprint."
 },
 "footprint3d-b": {
  "file": "footprint3d-b.mp3",
  "sha1": "9baf60411cda",
  "text": "The chip in 3 D: KiCad's own L Q F P body sitting on its pads. Tilting to an isometric view and orbiting around the package."
 },
 "schematic-a": {
  "file": "schematic-a.mp3",
  "sha1": "7bc27672c723",
  "text": "Opening the schematic of the whole board, the E S C G 4 3 1 motor controller."
 },
 "schematic-b": {
  "file": "schematic-b.mp3",
  "sha1": "b519539f0d65",
  "text": "The full schematic: over two hundred symbols, six power MOSFETs, gate drivers, current sensing and connectors. Zooming in on the microcontroller block at the heart of it, then back out to the whole sheet."
 },
 "board-a": {
  "file": "board-a.mp3",
  "sha1": "e52b846c40a5",
  "text": "Opening the P C B editor with the finished two D board."
 },
 "board-b": {
  "file": "board-b.mp3",
  "sha1": "3402d85af849",
  "text": "The board in two D: one hundred forty nine footprints, the MOSFETs around the edge, the M C U in the middle. Zooming in on the M C U and its decoupling, then back out."
 },
 "board3d-a": {
  "file": "board3d-a.mp3",
  "sha1": "eae640ae65e3",
  "text": "Opening the 3 D viewer for the whole board."
 },
 "board3d-b": {
  "file": "board3d-b.mp3",
  "sha1": "5dddbc31a614",
  "text": "The board in 3 D, as it will come off the line. Tilting to isometric, orbiting around the MOSFETs and the microcontroller, then settling back. Everything you saw was your real KiCad, driven by the bridge."
 }
}