Circuit Design, Simulation and PCB Fabrication Bundle

Design clean schematics by arranging components for short, straight connections, rotating parts to a rectangular layout, and exporting a professional, full-resolution schematic to share or insert into documents.

Export circuit designs as image or pdf in high definition for documentation. Use file > export as image, choose format, save to a folder, and verify high‑resolution output.

Learn how to clean a PCB board, remove unnecessary bend points, adjust trace width for reliable etching, and set wire configurations to build robust boards.

Explore PCB board cleaning and etching techniques within the circuit design, simulation and PCB fabrication bundle to produce reliable printed circuit boards.

Explore drilling in pcb fabrication within circuit design and simulation, and understand how these elements relate to each other across the course bundle.

Install Proteus professional, download the evaluation or demo version from their website, and learn to activate or modify installation, then prepare to add Arduino libraries for simulation.

Design, draw, and test a simple circuit with five LEDs using ISIS, then connect components, add a ground and a resistor, set power, and simulate to see the LEDs light.

Learn how to create a custom electrical element in Proteus ISIS, name pins, configure device packaging, and save it to a library for reuse, while noting it cannot be simulated.

Design, draw, and test an advanced circuit by adding resistors, capacitors, and buttons, while using default naming and lambda nets to create a production-ready PCB design.

Learn to navigate the Eris interface in the ARES suite, using the main toolbar, design area, auto route, package mode, and track mode to connect elements and set dimensions.

The lecture contrasts manual routing, using left-click connections between elements, with automatic routing that finds the shortest path while highlighting conflicts and unconnected lines.

Finalize your circuit for mass production by confirming exact dimensions, clearing warnings, reviewing 3d views, and adjusting clearances to speed fabrication, then prepare the print-ready pcb file.

Learn to use crocodile technology 3d electronic simulator to design and simulate circuits in 3d, including 2d circuit design tools, microcontroller simulations, and measurement techniques.

Learn to add a microcontroller to crocodile technology and control it with a flowchart, display a number on a seven-segment display, and synchronize multiple microcontrollers in a 3D environment.

Modify a microcontroller program to drive a seven-segment display, counting from zero to nine with one-second delays, incrementing the counter and stopping after nine.

Explore mechanism and mechanical parts using a simulation tool, configuring a constant speed motor, gears, chain drives, crank, flywheel, and analyzing angular velocity, acceleration, mass, and moment of inertia.

Explore the course contents from smoldering tools and shouldering accessories through preparation, smoldering, cleaning, and tips, and learn how temperature control and tool choice impact circuit boards.

Choose soldering irons by wattage and temperature control for different joints; compare frozen core and acid core solders (50/50, 60/40, 63/37) and their power sources.

Explore essential soldering accessories, including tip sizes and types (pointed, flat, spade), stands, clamps, magnifying glass, desoldering wick, and solder suckers for PCB fabrication.

Learn practical soldering tips and tricks, from managing heat and avoiding movement of the joint to keeping the tip clean and using the right metal and flux for copper joints.

Learn to perform a basic soldering joint by heating the iron, cleaning the tip, applying solder to a wire and connector cup, and securing with pliers for a shiny finish.

Learn the correct method to clean a soldering tip before and after use by heating, applying flux, and wiping with a damp cloth, ensuring safe, clean reuse.

Learn how to solder correctly by heating from both sides at about 45 degrees, applying flux, and flowing solder to create an even, mountain-shaped joint on a PCB.

Master practical soldering techniques to assemble and troubleshoot circuits, integrating hands-on pcb fabrication within the circuit design, simulation and pcb fabrication bundle.

Explore the interface menu and its functions, including loading hex files for microcontrollers, saving and loading workspace settings, configuring boards, and using the serial terminal for simulation.

The main window includes a menu, a frequency selection, and an on/off button for debugging; load hex files via file load hex or ICSP, and toggle the board with 1–4.

Explore the IMC lab simulation of PIC microcontroller boards—PIC16F84, PIC16F628, and PIC16F648—featuring LEDs, seven-segment displays, switches, and on-board programming; learn to study schematics and test code.

Explore the MCLab2 lab tool development board for PIC16F and PIC18F, including LCD and seven-segment displays, LEDs, push buttons, potentiometer, sensors, and pin mappings for coding.

Examine the PIC Genios development board and an Arduino board in the simulator, interfacing LEDs, keypad, seven-segment displays, LCD, potentiometer, relays, buzzer, sensors, and serial communications.

Demonstrate turning LEDs on and off and reading input from RB0, RB1, and RB2 buttons using a 16F877A microcontroller in mikroC, including wiring, delays, and loading hex files.

Learn seven segment multiplexing to drive four displays with shared pins and four transistors, and encode digits in binary or hex for common cathode or anode displays in simulation.

Explore pwm-driven fan control, infrared speed sensing, and buzzer triggering on a microcontroller board using RC0 and RC1, with alarm 35 temperature sensing via analog input.

Explore training kits with boards that host big microcontrollers, in-circuit programming, and modular components for developing big circuits. Connect modules, LCDs, DC motors, and serial interfaces via easy female sockets.

Explore add-on modules for your training kit, such as lcd sockets, seven-segment displays, usb/communication modules, leds, and motor drive circuits. Learn to expand circuits with no limit.

Explore printed circuit board design, a thin copper layer on a non-conductive substrate with single, double, or multilayer configurations, featuring conductive tracks and through holes, the final circuit board.

Choose professional circuit design software to simulate high and low microcontroller code in a mixed-mode virtual system, speeding pcb development and lowering costs through easier board creation and testing.

add dual sockets to each big board for easy wiring and ground connections, with a 9-volt main supply and plus 5 volts renamed to vtc to unify connections.

Discover how to buy components for your training kit from online shops such as ali express, Alibaba, and eBay, selecting copper, etching liquid, and photo-sensitive ink.

install and add the Arduino library to Proteus, configure an Arduino board in a new project, and connect an LED with resistors to run code in simulation.

Download and install the Arduino software version 1.8.1 on Windows, then open the coding interface and the simulation environment to run Arduino sketches.

Edit the code to set pin 13 as an output and toggle it high and low, then verify, compile, and retrieve the hex file from the build folder.

Discover the Altium designer interface, including the main menu, libraries, documents, and project explorer, then learn to create a new project, add schematics, and save files.

Rename all pins on the schematic, update designators, save the schematic, and add component descriptions and comments before adding a footprint in the next lesson.

Create an IBC compliant footprint for a 32a package by using the datasheet values e, de, and related side measurements, and save the 2d/3d footprint in the ECB library.

Create the Atmega footprint by using the was art tool to generate an IBC-compliant 32A footprint, input e and d values from the datasheet, and save in the library.

Select and add required components from an arduino nano schematic, install and manage libraries, and place items—regulators, diodes, switches—by dragging and dropping them into your circuit design.

Design and wire a voltage regulator circuit with capacitors, ground, and a 5-volt supply, add a resistor array and LED indicators, and prepare a programming header for PCB fabrication.

Annotate schematic elements to remove question marks by numbering them, then compile the project, review the messages window for errors, and verify connections with the attached PDA file.

Solve design errors in a PCB design project by tracing error messages, correcting net names and connections, and successfully combining and updating the design for a clean final board.

Learn to place icsp switch, resistor array, crystal, and microusb header in a pcb design, update schematics, fix errors, and optimize layout for auto routing.

Learn hands-on pcb design and layer management by placing an FTDI regulator, capacitors, and connectors for an Arduino Nano setup, with bottom-layer routing and precise placement.

Navigate circuit design challenges by comparing manual routing and auto routing for multilayer pcbs, learning to route components, manage layers, and place vias efficiently.

Learn how auto routing handles multi-layer PCB connections, overcome blocked paths, and refine routing by manual adjustments, with tips and common errors highlighted for circuit design and PCB fabrication.

Learn to improve autorouting by removing green items, organizing the ground and pcc layers, and adjusting via size and route width for faster auto routing with fewer errors.

Design a simple schematic around an 18f2550 microcontroller with a 20 mhz oscillator, two 22 pf capacitors, ground, vcc, and usb/isp connections, and explore Proteus simulation and pcb fabrication.

Burn the bootloader hex file into a big microcontroller using a universal programmer with a zif socket, and load the hex file via the provided software.

Blink an LED on the penguin board using an Arduino-like sketch. Set up pin mode to output, toggle LED in the loop with a delay, and upload from the IDE.