
Discover the basics of printed circuit boards. See how copper conductor tracks on an insulating substrate carry electrical signals between components.
Explore the evolution of printed circuit boards from manual wiring in the 1950s–80s to modern PCB design, including insulating bases, copper traces, and soldered components that form reliable electronic circuits.
Discover why printed circuit boards replace breadboards for permanent, manufacturable hardware. Understand how pcb design enables rapid validation and commercial productization from prototype to production.
Discover the basic steps of PCB fabrication, from Altium Designer schematic capture and CAD design to manufacturing handoff, copper traces, drilling, masking, silk screening, routing, and testing.
Begin pcb design by sketching a schematic of component connections, then define footprints based on each component’s data sheet morphology and pin spacing in Altium Designer.
design a pcb by drawing the schematic with cad tools, then import the schematic to the pcb and craft a single-layer board with accurate footprints, holes, pads, and masking.
Explore the basic elements of a pcb, including the substrate for mechanical support and insulation, copper traces for signals, and the solder mask and silkscreen for protection and labeling.
Explore the types of PCB, including single-layer and multilayer boards, and compare mounting techniques such as through-hole technology and surface mount technology, with notes on gold-plated through-hole components.
Explore PCB design terminology in Altium Designer, including symbols, footprints, overlays, copper traces on top and bottom layers, drilling holes, and units like millimeters or inches.
Download the altium designer 21 trial, open the program, and create a new project named my first pcb in a chosen folder, then add a schematic and save.
Explore the properties of the schematic layout in Altium Designer, including grids, selection filters, units, fonts, borders, and page options, to control design precision.
Learn to design a half-wave rectifier schematic in Altium Designer by selecting devices and footprints, placing a diode and battery, and wiring the circuit with ground.
Designate components in the schematic, assign signatures and footprints, and name parts like batteries before exporting to the pcb. Use the selection filter to isolate wires or components.
Import footprints from your schematic into the PCB layout in Altium Designer, manage grid and room settings, align components, and prepare footprints for routing.
Learn to create copper traces between footprints using top or bottom layers, and perform manual interactive routing (Ctrl+W) to route within a single layer, with color cues indicating layers.
Enable auto routing in PCB designing in Altium Designer by selecting top or bottom copper layer settings, then review routing and adjust hole width and hole radius as needed.
Modify hole properties and solder pad dimensions in Altium by adjusting radius, shape, and solder mask expansion to prevent short circuits and ensure copper trace connections.
Learn how to create and manage polygon pours in Altium Designer, perform polygon actions to report all, and merge the ground across top and bottom layers for a common ground.
Design and position texts on the PCB top overlay in Altium Designer by editing top-layer properties, setting the company name and font size, and preparing files for the manufacturer.
Learn to generate and export Gerber X2 files from Altium Designer by configuring fabrication options and selecting top and bottom layers for manufacturing.
Design a custom symbol and footprint for LM7805 in Altium Designer using the data sheet; configure three pins and 2.5 mm spacing, then attach to the schematic library.
Design the schematic symbol and footprint for an eight-pin NE555 timer in Altium Designer, then link the footprint and compile the integrated library.
In this course, you will learn
1. The basic elements of a Printed Circuit Board.
2. The need for PCB and evolution of the same.
3. Steps involved in fabrication of a PCB
4. Steps involved in the design of a PCB
5. Types of PCB
6. Mounting Technologies - PTH, SMT
We will understand that PCB is a circuit board that connects all the electrical and electronic components through copper conductive tracks. The copper conductive tracks are embedded on a substrate which is basically a fiber.
After that, we will get into the Altium Designer Software in order to learn how to design a Printed Circuit Board.
1. Learning how to create a schematic and a PCB in the Altium Designer.
2. Understanding all the widgets and tools in the software.
3. Understanding how to route the footprints in a PCB - Both Manual and Auto Routing.
4. Analyzing the morphology of holes and solder pads.
5. Printing the texts in Top Overlay.
6. Creating libraries for two or three terminal components.
7. Creating libraries for some standard IC's.
8. Getting the 2D and 3D Layouts of the PCB.
At the end of this course, you will be able to design a PCB in Altium Designer for your circuit knowing all the fundamentals of a Printed Circuit Board.