
Explore pcb basics, including structure, components, and types; learn copper traces, vias, silkscreen, solder mask, single and multilayer boards, and through-hole versus surface-mount packaging.
Master computer aided design basics for pcbs, including the three steps of schematic design, pcb layout, and outputs such as job files and bill of materials, plus routing copper traces.
Explore free EDA softwares such as Geico, Eagle, circuit maker, Upverter, and Altium Designer, and learn that the course uses a browser-based EDA tool and how to generate job files.
Create a new project by adding a schematic file and a pcb file, then name and save it within the project.
Explore the schematic editor in a new project, adjust the canvas background, toggle the visible grid, use snap for precise component placement, and rename sheets for organized schematics.
Place resistors, capacitors, lcd, and a battery from the common library onto a schematic, connect with the wiring tool, and explore the extended library for symbol, footprint, and 3d model.
Adjust the snap grid and snap size to move components in discrete steps from 2.54 mm down to 1.27 mm, while ratlines visualize schematic-to-pcb connections to guide routing.
Place, rotate, and wire components in the PCB area, group and align them with left/right and distribute tools, save and update PCB, then move to routing.
Explore the 3d view to inspect true components, top and bottom traces, silkscreen, solder mask, and copper layers, and use breakout view to separate layers for clarity.
Discover how auto routing places pcb tracks, while an experienced designer remains essential. Run the autorouter on top or bottom layers and view results in a 3d view.
Place mounting holes on the PCB with the hole tool, using snap grid. Create a cutout by converting a track to a board outline, and review the 3d result.
Generate the bill of materials and the job file from your PCB design, export the BOM CSV, perform a design rule check, and download the ZIP with all manufacturing files.
Watch how a PCB is manufactured step by step, from substrate drilling and copper deposition to imaging, plating, solder mask application, silkscreen, and automated continuity testing.
Design an ESP-12F relay board schematic by selecting parts, adding a 90–264v ac to 5v power module and a 3.3v regulator, and wiring four relays with a transistor and diode.
Design an esp-12f esp8266 relay board pcb by arranging components into blocks, separating high and low voltage areas, routing on top and bottom layers, then generating gerber files and bom.
Four-layer pcb basics use top and bottom signal layers with two inner planes for ground and power, lowering impedance, improving signal integrity, and detailing through, blind, and buried vias.
Convert a two-layer PCB to a four-layer design by configuring inner signal and plane layers, routing with power and ground planes, and validating with DRC.
There's a moment in every maker's journey when a breadboard isn't enough anymore, when you want a real, professional circuit board you can hold, use, and be proud of. This course takes you there: from a blank screen to a production-ready PCB, using software that's completely free and runs right in your browser.
You don't need expensive tools or prior design experience. With just a web browser and EasyEDA, you'll learn to design your own boards from the ground up and by the end, you'll know how to get them manufactured and delivered to your door.
I'm a Lead Hardware Engineer with 7+ years in industry, and I've designed 2- and 4-layer boards that went all the way from concept to shipping product. I built this course for new graduates, new engineers, and hobbyists, so everything is explained in plain, approachable language, with no assumed background and no jargon left unexplained.
You'll start with the terminology and concepts that make everything else click, then draw the schematic for your own circuit. From there you'll lay out single-layer, double-layer, and 4-layer PCBs, and learn how design and manufacturing influence each other: The knowledge that separates boards that work from boards that merely look right. Finally, you'll export your design and order it from an online manufacturer, closing the loop from idea to physical product.
This is a complete, start-to-finish path: zero to production-ready, with a real board in your hands at the end. Already comfortable with a soldering iron? This is the perfect next step, design the board, then build it yourself.
Over 20,000 engineers and makers have learned from my courses. Bring your circuits off the breadboard and into the real world.