01
Understand
RoxForge analyzes the product requirements from your natural-language description.
AI Electronics Engineering
From idea
to PCB.
Turn an electronics idea into a validated schematic, production-oriented PCB and interactive 3D design.
Hardware shouldn't start
with a blank schematic.
Tell RoxForge what you're building.
Creates a new workspace every time — never reuses an old design.
- Prompt
- →Architecture
- →Schematic
- →PCB
- →3D
One description.
An entire electronics design.
RoxForge generates requirements, architecture, components, schematic wiring, PCB placement and routing, validation and a KiCad-compatible export — from a single product brief.
roxforge — workspace
How RoxForge works
A structured electronics pipeline — not a black-box image generator.
02
Architect
Selects appropriate components and system architecture for the product.
03
Connect
Creates electrical connectivity, nets and an interactive schematic.
04
Route
Places components and routes copper with net-class and layout awareness.
05
Validate
Runs ERC / DRC and signal-integrity oriented checks before manufacturing gates.
06
Manufacture
Exports a KiCad-compatible project you can continue refining in your toolchain.
Not a picture of a PCB.
A PCB.
RoxForge generates structured electronics designs that can be validated, inspected and exported — real components, footprints, nets, routing and board geometry.
- Real components & footprints
- Real nets & pin mapping
- Board outline & layers
- ERC / DRC checks
Manufacturing readiness is gated by validation — we only mark a design ready when checks pass.
See the hardware
before you build it.
Inspect board outline, layers, routing and component placement in an interactive 3D view inside the workspace — rotate, examine and verify before export.
- XYZ inspection
- Front / back orientation
- Copper layers & routing
- Component models where available
Engineering intelligence,
not just generation.
An engineering copilot for hardware — not a replacement for engineers. RoxForge reasons about connectivity, placement and routing constraints as it builds.
Component compatibility
Pin mapping
Power requirements
Signal integrity awareness
EMI / noise zones
Routing priorities
Return path / ground planes
RF antenna keepouts
Board-edge connectors
Manufacturing clearance
Good electronics
is more than connectivity.
Common failure modes
- Spaghetti routing
- Oversized unused board area
- Unnecessary vias & congestion
- Poor functional placement
- Noise-sensitive paths ignored
RoxForge goals
- Clustered, role-aware placement
- Board outline fitted to geometry
- Net-class & EMI-aware routing
- Multilayer stackup when needed
- ERC / DRC gated manufacturing state
Design beyond
two dimensions.
Dense designs can use multilayer stackups with dedicated ground and power distribution — supporting return paths and cleaner signal routing.
L1
Signal + components
L2
GND plane
L3
Power / signals
L4
Signals
Your design.
Your tools.
Export your RoxForge design to a KiCad project and continue engineering with the toolchain you already trust.
Explore KiCad exportBuilt for real hardware
Smart devices
Wearables, smart speakers and connected IoT products.
Robotics
Motor controllers, sensors and compact robotic subsystems.
Embedded systems
ESP32, STM32 and MCU-centered product designs.
Prototyping
Rapid hardware iteration and proof-of-concept boards.
Case study
Built with RoxForge.
RoxLab Home
Smart speaker architecture with ESP32-S3, INMP441, MAX98357A and Li-ion power — progressing from prompt through architecture, schematic, multilayer PCB and 3D inspection.
ESP32-S3INMP441MAX98357ALi-ion power4-layer PCB
- Prompt
- →Architecture
- →Schematic
- →PCB
- →3D