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AutoPhi V19 PCIe 5.0 QSFP28 Optical - BGA-1536 Editable KiCad Design Source

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APV19-SRC-1536-V1

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First to market

Publicly online since 2010 · U.S. patent applications since 2012 · inventions offered since 2014. The work of Christopher Gabriel Brown, independently documented.

First posted:
Editable KiCad design source

AutoPhi V19 PCIe 5.0 QSFP28 Optical β€” BGA-1536 Editable KiCad Design Source

The complete, editable engineering design. Not gerbers. Not a datasheet. The actual KiCad project, opened and modified on your own bench.

What this is

This is the flagship carrier β€” the largest ball field in the family, sized for 64-plus SerDes lanes, dual QSFP28 optical cages and a dense management fabric. You receive the design as source: the full hierarchical schematic, the routed board, every library the project references, the 3D models, the ball-map spreadsheets, and a netlist exported from the schematic so you can audit connectivity before you ever launch KiCad. Open board/*.kicad_pro in KiCad 10 and the entire project loads with its libraries already wired up.

AutoPhi ships blueprints. You take the design to whichever fabricator and whichever volumes you already trust β€” there is no tooling lock, no per-unit royalty, and no obligation to come back to us to build it.

The board at a glance

Outline 256.68 Γ— 112.0 mm
Copper layers 12
Routed track segments 8,388
Vias 1,997 β€” 1,753 through Β· 222 microvia Β· 22 blind
Nets 1,708
Placed components 525 across 3,804 pads
Schematic sheets 28

Component census: 383 Γ— C Β· 62 Γ— R Β· 32 Γ— U Β· 9 Γ— FB Β· 8 Γ— RT Β· 6 Γ— TP Β· 5 Γ— J Β· 4 Γ— CS Β· 4 Γ— MH

Layer stackup

Twelve copper layers in an HDI arrangement, with dedicated ground and power planes interleaved between the signal layers so every high-speed pair has a reference plane adjacent to it.

1TOPsignal
2GND1plane
3SIG1signal
4SIG2signal
5POWER1plane
6SIG5signal
7SIG6signal
8POWER2plane
9SIG3signal
10SIG4signal
11GND2plane
12BOTTOMsignal

Copper pours: GND on 10 layers Β· +3.3V on 1 layer Β· 1V0 on 1 layer.

Routing, layer by layer

BOTTOM582 segments
SIG11,704 segments
SIG2859 segments
SIG31,028 segments
SIG4379 segments
SIG51,176 segments
SIG6590 segments
TOP2,070 segments

Via geometry in use (pad / drill): 0.30/0.15 mm Γ—1,077 Β· 0.50/0.30 mm Γ—485 Β· 0.35/0.20 mm Γ—409 Β· 0.34/0.24 mm Γ—11 Β· 0.36/0.26 mm Γ—10 Β· 0.60/0.35 mm Γ—5.

Design rules and netclasses

This is an HDI-class design. Confirm your fabricator can hold these before quoting β€” the annular ring and laser drill sizes are the numbers that decide whether a shop can build it.

Minimum track width0.0762 mm
Minimum clearance0.0762 mm
Minimum via diameter0.2032 mm
Minimum via annular ring0.05 mm
Minimum through-hole0.127 mm
Minimum microvia drill0.0762 mm
Hole-to-hole0.2032 mm

Eleven netclasses are defined, so the router and DRC treat a PCIe lane differently from a 12 V rail rather than applying one global rule:

Class Clearance Track Via βŒ€/drill Β΅Via βŒ€/drill
Default0.150.150.35 / 0.20.2 / 0.1
Control0.150.20.35 / 0.20.2 / 0.1
DDR_ADDR0.10.1250.35 / 0.20.2 / 0.1
DDR_CLK0.10.1250.35 / 0.20.2 / 0.1
DDR_DQ0.10.1250.35 / 0.20.2 / 0.1
Ground0.150.40.5 / 0.30.2 / 0.1
I2C0.150.20.35 / 0.20.2 / 0.1
PCIe50.10.10.3 / 0.150.15 / 0.075
Power0.150.40.5 / 0.30.2 / 0.1
Power_12V0.30.60.6 / 0.350.2 / 0.1
QSFP0.10.10.3 / 0.150.15 / 0.075

All dimensions in millimetres.

The schematic β€” 28 sheets

A hierarchical design, not one enormous page. The root sheet indexes the pages below; each is self-contained and connected by global labels, so the same net name means the same net everywhere in the project.

  1. 01 central processor β€” the BGA site itself β€” the accelerator's ball field, its decoupling and its escape fan-out
  2. 02 pcie retimers redrivers β€” DS80PCI810 retimers conditioning the PCIe lanes between the edge fingers and the die
  3. 03 pcie x16 edge connector β€” the x16 gold-finger interface, all 164 pins, with PCIe-spec pin naming
  4. 04 power tree β€” rail derivation and distribution across the card
  5. 05 compute β€” the compute cluster and its local support
  6. 06 telemetry clock β€” clock generation and the telemetry path
  7. 07 optical thermal β€” optical front end and thermal sensing
  8. 08 esd protection array β€” ESD clamps on every externally exposed line
  9. 09 bracket i o connectors β€” the QSFP28 cages and bracket-edge I/O
  10. 10 mounting test β€” mounting holes, fiducials and test points
  11. 11 passives β€” the bulk passive population
  12. 12 retimer decoupling β€” per-retimer decoupling networks
  13. 13 pcie ac coupling β€” AC-coupling capacitors on the high-speed pairs
  14. 14 ddr3 aux β€” DDR3 auxiliary support
  15. 15 power supplements β€” supplementary rail conditioning
  16. 16 ddr3 flyby term β€” fly-by topology termination for the DDR3 address/command bus
  17. 17 ddr3 chip β€” the DDR3 device and its byte lanes
  18. 18 boot eeprom leds β€” boot EEPROM and status indication
  19. 19 power tree main β€” the main power tree
  20. 20 clock si5351 β€” Si5351 programmable clock generation
  21. 21 charger usbc β€” USB-C side-channel and charging
  22. 22 esd protection β€” further ESD protection
  23. 23 telemetry β€” telemetry acquisition
  24. 24 mcu msp430 β€” the MSP430 housekeeping controller
  25. 25 power filter β€” rail filtering
  26. 26 heatsink mounting β€” heatsink mounting provisions
  27. 27 qsfp cage β€” the first QSFP28 cage
  28. 28 qsfp cage 3 β€” the second QSFP28 cage

Everything in the download (13.7 MB)

  • schematic/ β€” the root sheet plus all 28 child pages
  • board/ β€” the routed .kicad_pcb, the .kicad_pro project carrying the rules and netclasses above, and both library tables
  • libraries/ β€” every symbol and footprint library the design references, including the AutoPhi BGA symbols, the BGA-1536 footprint, the 164-pin PCIe x16 edge connector, the DDR3 x16 FBGA and the DS80PCI810 retimer
  • 3d/ β€” the 3D models used by the footprints, so the board renders and mechanically checks straight out of the box
  • pinmaps/ β€” the ball-to-signal assignment as CSV, which is the document you will actually work from when adapting the design
  • netlist/ β€” a netlist exported from this schematic (1,708 nets), so connectivity can be verified with a text editor and no KiCad install
  • KNOWN-ISSUES.txt β€” see below
  • README.txt β€” orientation and verification steps

Read this before you buy β€” known gaps

The signal path is complete and routed. PCIe 5.0, QSFP28 optical and DDR are laid out across 8,388 track segments and 1,997 vias, and pass DRC against the netclasses listed above. That work β€” the escape from the ball field, the lane routing, the plane structure β€” is where the value of this design sits, and it is finished.

The power regulation section is not finished. Five LDO regulators are placed but unwired, and marked do-not-populate. They also have no supporting passives: no input or output capacitors, no feedback divider for the adjustable regulator, no output-programming straps for the ANY-OUT part. Fitting them as drawn would give unstable regulators with undefined output voltages. Completing this section is circuit design work, not a wiring correction.

U1 is wired above its absolute maximum. It is a TPS75725 sitting on a 12 V rail against a 6 V limit, and will fail on first power-up as drawn. The intended architecture is a two-stage rail β€” 12 V into the 36 V-capable TPS7A4700, then 5 V into the low-voltage regulators β€” but that intermediate stage is part of the unfinished section above.

15 parts are marked do-not-populate and are excluded from the bill of materials and from both pick-and-place files, so an assembly house will not attempt to fit them:

  • J4 β€” WonderPhi_TF
  • U12 β€” TSSOP-28
  • U22 β€” TPS75725
  • U23 β€” TPS735
  • U24 β€” SFH2400
  • U26 β€” SFH2400
  • U27 β€” SFH2400
  • U28 β€” SFH2400
  • U30 β€” SOT-23-6
  • U42 β€” TPS7A4700
  • U43 β€” TPS735
  • U45 β€” SOT-23-6
  • U46 β€” LP3878-ADJ
  • U47 β€” SOIC-8 narrow
  • U50 β€” TSSOP-28

Five of those carry a package name where a part number should be β€” the component has not been selected yet, so nobody could wire them until it is.

Who this is for

Teams standing up a PCIe 5.0 accelerator prototype who would rather start from a routed HDI carrier than draw a 1536-ball escape from scratch. The ball-field escape, the plane structure and the high-speed lane routing represent the largest block of layout time in a design like this, and it is done. What remains is the power section, which is well-defined work with a known architecture.

If you need a finished, fully-populated design you can send straight to assembly, this is not that, and the section above says so plainly. If you want the hard layout done and are equipped to close out a power tree, this will save you weeks.

Delivered as a ZIP (13.7 MB, 113 files). Licensed for your own fabrication and modification. Christopher Gabriel Brown β€” CRI-ONE.COM

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Copyright Β© 2009-present Christopher Gabriel Brown. All rights reserved. "STRICT INTELLECTUAL PROPERTY NOTICE: All content, code, scripts, and styles in this file are the exclusive intellectual property of Christopher Gabriel Brown. DO NOT COPY, DISTRIBUTE, OR USE WITHOUT EXPRESS WRITTEN PERMISSION." Under no circumstance is there to be a transfer of Intellectual Property. Christopher Gabriel Brown presents a portfolio of advanced technologies across computing, energy, defense, and data systems. The site features products including the AutoPhi Quantum Processor (3.5 ExaFLOPS with quantum capabilities), Quantum Battery (unlimited energy storage with zero degradation), War Satellite (autonomous defense platform with global surveillance), Electric Jet (zero-emission supersonic propulsion), and specialized systems like nuclear waste recycling, blockchain security infrastructure, and smart wearable platforms. Each product includes complete documentation, manufacturing blueprints, patent protection, and implementation resources, positioning them as production-ready solutions for enterprise, government, and research applications. The collection spans quantum computing, renewable energy, aerospace, cybersecurity, and IoT, emphasizing innovation, patent protection, and technical depth. **Preferred Contact Methods** Christopher Gabriel Brown accepts communication by **email and postal mail only**. No phone calls please. **Email:** crioneaka@outlook.com **Mail:** 1341 Wellington Cove, Lawrenceville, GA 30043-5255, USA | USA-ONLY SALES | United States Dollars only | Email-only contact | No non-US orders accepted