Course Details
Turn your child’s curiosity into creation. Over 8 action-packed weekends (16 sessions), students will step into the shoes of real engineers. We move beyond simple snap-together toys, diving hands-on into actual circuits, smart sensors, and Arduino programming.
Quick Details:
- Duration: 8 Weeks (16 Days)
- Schedule: Weekends | 2 Hours per Session
- Format: 100% Hands-On & Project-Based
The Day-by-Day Learning Journey
Week 1: Hardwired for Fun (Circuits & Basics)
- Day 1 – Intro to Robotics & Electrical Basics
- What is a robot? (Inputs, Controllers, and Outputs)
- Mastering breadboard basics, voltage, and current
- Hands-on: Building your first LED and button circuit
- Day 2 – Logic Gates Using Hardware
- Discovering the "secret language" of computers
- Building AND, OR, and NOT gates using physical switches
- Visualizing machine decisions with truth tables
Week 2: The Logic Puzzle & Meet the Brain
- Day 3 – series parallel connections
- Multiple buttons in series and parallel
- Multiple outputs in circuit
- Day 4 – Arduino Intro & First Program
- Breadboard project demonstration from student
- Meet the Arduino UNO microcontroller
- Navigating the Arduino IDE and pin layouts (digital vs. power)
- Hands-on: Writing your first real C++ code to blink an LED
Week 3: Coding the Brain & Giving it Vision
- Day 5 – Logic Gates in Code
- Upgrading from physical switches to software
- Learning digital input/output commands
- Coding AND, OR, and NOT logic directly in Arduino
- Day 6 – LED Toggling & IR Sensors
- Programming a push-button to act as a toggle switch
- Giving the robot "vision" with an IR obstacle sensor
- Hands-on: Wiring and coding the sensor to detect objects
Week 4: Light Sensing & The First Milestone
- Day 7 – LDR & Digital Sensors
- Exploring Light Dependent Resistors (LDRs)
- Understanding how automated streetlights work
- Mastering the difference between digital and analog sensing
- Day 8 – 🛠️ Mini Project 1: Sensor Sequences
- Combining knowledge of IR and LDR sensors
- Designing custom, environment-reactive LED sequences
- Hands-on: Complete circuit building and coding
Week 5: The Power of Control (Analog Mastery)
- Day 9 – Analog Signals & ADC
- Moving beyond ON/OFF logic to read analog signals
- Understanding Analog-to-Digital Converters (ADC)
- Reading live sensor values using the Serial Monitor
- Day 10 – Potentiometers & Brightness Control
- Introducing variable resistance
- Using a potentiometer as a precision dial
- Hands-on: Controlling LED brightness in real-time
Week 6: Smart Systems & PWM
- Day 11 – 🛠️ Mini Project 2: Smart Indicator
- Combining analog readings with LDRs
- Building an automated nightlight dimmer
- Creating systems that react intelligently to room brightness
- Day 12 – Motion & PWM Signals
- Preparing for mechanical movement
- Understanding Pulse Width Modulation (PWM)
- Controlling the speed and power intensity of components
Week 7: Make It Move!
- Day 13 – Servo Motor Control
- Discovering how precision servo motors work
- Wiring the motor to the Arduino board
- Coding mechanical rotation from 0 to 180 degrees
- Day 14 – 🛠️ Mini Project 3: Servo Systems
- Bringing motion to life
- Student-advised designs (e.g., automated boom barriers, waving robots)
- Hands-on: Mechanical assembly and custom coding
Week 8: The Innovator's Showcase
- Day 15 – Final Project Development
- The ultimate test of creativity and engineering
- Planning a custom mini-robot from scratch
- Full session dedicated to wiring, coding, and debugging
- Day 16 – Final Demonstration & Graduation
- Live project presentations
- Demonstrating functional robots to peers
- Evaluations and Level 1 course completion celebration
🛠️ Why Choose This Course?
- Real Engineering Skills: True hardware logic and software fundamentals, setting a professional foundation for future innovators.
- The Ultimate Starter Kit: Hands-on experience with real-world components—LEDs, servos, LDRs, and Arduino boards.
- Confidence Building: Moving from "How does this work?" to "I built this!" in just 16 sessions.
Equipment List: Level 1 (Per Student/Group)
Component Name | Quantity | Primary Usage in Curriculum |
|---|---|---|
Arduino UNO R3 Board | 1 | The main microcontroller ("the brain") used throughout the course, starting from Week 2. |
USB Cable (A to B) | 1 | Connecting the Arduino UNO to the computer for programming and power. |
Breadboard (Half-Size) | 1 | Prototyping circuits without soldering, introduced in Week 1. |
Jumper Wires (Male-to-Male) | 20-30 | Making connections on the breadboard and between components. |
Jumper Wires (Male-to-Female) | 10 | Connecting sensors and the servo motor directly to the Arduino pins. |
LEDs (Assorted Colors) | 5-10 | Output devices used in early logic circuits, the Blink program, and sequence projects. |
Resistors (220Ω or 330Ω) | 5-10 | Current limiting resistors to protect the LEDs. |
Resistors (10kΩ) | 5 | Used as pull-up or pull-down resistors for buttons and logic gate circuits. |
Push Buttons (Tactile Switches) | 10 | Input devices used for hardware logic gates (AND/OR) and basic toggle circuits. |
Slide Switches or Toggle Switches | 5 | (Optional but helpful) Easier physical switches for demonstrating hardware logic gates. |
IR Obstacle Sensor Module | 2 | Providing "vision" for the robot, used in Week 3 and Mini Project 1. |
LDR (Light Dependent Resistor) | 2 | Sensing ambient light levels, used in Week 4 and Mini Project 2. |
Potentiometer (10kΩ) | 2 | Providing variable analog input for LED brightness control in Week 5. |
Servo Motor (SG90 Micro Servo) | 1 | Providing mechanical motion and angle control in Week 7 and Mini Project 3. |
Course Curriculum
Ramzan
DeveloperI am a web developer with a vast array of knowledge in many different front end and back end languages, responsive frameworks, databases, and best code practices