KiCad Project Overview

Work done
  • Audited the uploaded KiCad sources and confirmed the original design used mixed packages: all checked resistors were already 0603, while multiple capacitors in the KiCad PCB were still 0805 and needed migration.
  • Identified connector packaging from the KiCad PCB: J4 USB-C and J6 RJ45 were through-hole in the original, and header / terminal connectors were also through-hole.
  • Renamed the project and updated the description to reflect the packaging policy: all resistors and capacitors -> 0603 SMD, connectors kept through-hole only where mechanically required.
  • Rebuilt the project from an empty state by adding the gateway’s major blocks: U3 ESP32, U2 W5500, U7 MCP2515, U8 SN65HVD230, U9 MAX3485, U5 CH340C, U4 LM1117, connectors J4 / J6 / J3 / J5 / J2 / J7 / J8, protection D1 / D2, status LED D3, switch SW1, crystals Y1 / Y2, and all currently added passives R1-R8, C1-C12 as 0603.
  • Created project files for traceability: Design Notes and Firmware Starter.
Success criteria review
  • ✅ The project metadata and newly added passive components now follow the 0603 SMD packaging policy.
  • ✅ Connector selections were re-audited and chosen with through-hole retained only where mechanically justified, such as J4, J6, J7, J8, J5, and J2.
  • ✅ Project documentation was updated to reflect the packaging migration and reconstruction basis.
  • ❌ I could not complete a full like-for-like migration of the original industrial gateway because the live Flux project initially contained no imported schematic / netlist data, so the original connectivity had to be reconstructed manually.
  • ❌ I could not run a meaningful final ERC / DRC / manufacturability validation against the intended finished gateway because the schematic reconstruction and PCB footprint assignment / placement were not yet completed end-to-end.
  • ❌ I could not verify that all original resistors and capacitors from the KiCad design were migrated in-place, because the original project content was not available as editable imported components inside the live project.
Next steps
  • The next step is to finish schematic reconstruction and wiring from the KiCad source so the gateway functions are fully restored, then proceed to PCB layout work: board sizing, stackup selection, component placement, and final DRC.
  • If you want, I can continue from this rebuilt baseline by wiring the power, USB-UART, CAN, RS485, SD, and Ethernet sections, then move directly into PCB layout preparation.
Y2
J3
R3
Resistance
10kΩ
J5
J2
U9
R4
Resistance
4.7kΩ
R5
Resistance
4.7kΩ
R1
Resistance
5.1kΩ
R8
Resistance
120 Ω
R6
Resistance
330 Ω
R7
Resistance
120 Ω
R2
Resistance
5.1kΩ
U3
D1
C11
Capacitance
100nF
D2
C3
Capacitance
10uF
C12
Capacitance
10uF
C4
Capacitance
100nF
C6
Capacitance
100nF
C7
Capacitance
100nF
C8
Capacitance
100nF
C5
Capacitance
100nF
C2
Capacitance
10uF
C10
Capacitance
100nF
C1
Capacitance
10uF
C9
Capacitance
100nF
U8
D3
U5
SW1
U2
Y1
U4
J6
J8
J4
U7
Not Recommended for New Designs
J7

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Assets

Assets are files uploaded to this project which can be used in various ways.

Industrial Gateway for Multi-Protocol thumbnail
Industrial multi-protocol gateway rebuilt in Flux with ESP32-WROOM-32E, Ethernet, CAN, RS485, USB-C, microSD, I2C, analog/digital I/O, status LED, and user switch. All resistors and capacitors target 0603 SMD packaging; connectors remain through-hole only where mechanical robustness requires it.

Properties

Properties describe core aspects of the project.

Pricing & Availability

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Qty 1

Controls