Bring back the nostalgic arcade vibes with this minimalist Snake Game built using an Arduino, a joystick, and a 0.96" OLED screen.
Control the snake, eat the food, and grow longer — all in just 64 pixels!

• Arduino UNO
• 0.96" OLED Display (SSD1306, I2C)
• Joystick Module (Analog)
• Jumper Wires & Breadboard
• Optional: 10kΩ resistors (if needed for joystick voltage divider)

• Real-time snake movement using analog joystick input
• Auto food spawning (never on snake body!)
• Self and wall collision detection
• Game over animation and auto-reset
• Adjustable speed via moveDelay
• Compact and optimized for 128x64 OLED

• OLED graphics with Adafruit GFX library
• Analog joystick input handling
• Arrays and game logic on microcontrollers
• Collision detection
• Procedural food spawning

👉 Watch on YouTube Shorts
👉 Find Code on GitHub

• If the joystick feels reversed, just swap X/Y pins or logic in readJoystick()
• To increase difficulty, reduce moveDelay
• Expand the project by adding a score counter, splash screen, or level system!

Navigate through 5 progressively challenging mazes using a joystick on a 128x64 OLED screen.
This project combines logic, memory-efficient graphics, and satisfying pixel movement — a perfect hands-on learning experience in embedded game design.

• Arduino UNO
• 0.96" OLED Display (SSD1306, I2C)
• Analog Joystick Module
• Jumper Wires & Breadboard
• Optional: Pull-up resistors (10kΩ for joystick button)

• 5 levels of handcrafted maze puzzles
• Pixel-perfect joystick navigation (analog input to digital move)
• Dynamic maze drawing from PROGMEM to save RAM
• Win animation and auto-restart
• Button press supported for future upgrades (pause, reset, etc.)

• Drawing 2D levels using arrays in PROGMEM
• Display graphics with Adafruit GFX & SSD1306
• Handling analog joystick input and debouncing movement
• Coordinate-based logic and collision detection
• Game state logic and level progression

👉 Watch on YouTube Shorts
👉 View Code on GitHub

A full-featured Brick Breaker game built using an Arduino UNO, joystick, and 128x64 OLED.
Use the joystick to control the paddle, bounce the ball, break all the bricks, and advance through 3 exciting levels. Game Over and Victory screens included!

• Arduino UNO
• 0.96" OLED Display (SSD1306, I2C)
• Analog Joystick Module (connected to A0)
• Jumper Wires & Breadboard

• Joystick-based paddle control (analog input)
• OLED rendering with Adafruit GFX + SSD1306
• Ball physics with basic collision detection
• Brick grid with collision response
• Game states: win, lose, reset
• Level progression with increasing difficulty
• Memory-efficient display updates using clearDisplay() and fillRect() logic

• Paddle: Controlled via joystick (X-axis)
• Ball: Bounces off walls, paddle, and bricks
• Bricks: Destroy on impact, earn points
• Levels:
  • Level 1 → 2 rows of bricks, slower ball
  • Level 2 → 3 rows of bricks, medium speed
  • Level 3 → 4 rows, faster ball
• Win: Clear all bricks in Level 3
• Lose: Ball falls below paddle

👉 Watch the YouTube Short
👉 View Source Code on GitHub

🧱 Dodger Game on OLED with Joystick Description: Dodge falling blocks like a pro in this fast-paced Pixel Dodging Game made with an Arduino UNO, a joystick, and a 0.96" OLED screen. Three levels, increasing speed, and randomized block drops make it a thrilling challenge for hobbyists and students alike!

🎮 Components: Arduino UNO

0.96" OLED Display (SSD1306, I2C)

Joystick Module (Analog)

Jumper Wires & Breadboard

Optional: 10kΩ resistors (for joystick stabilization)

🔍 Features: Player-controlled dodging using analog joystick input

3 progressive levels with increasing difficulty

Dynamic obstacle sizing and randomized fall paths

Real-time score tracking and level display

Smooth win/lose animation and automatic reset

Optimized for 128x64 OLED using Adafruit GFX library

🧠 Concepts Covered: OLED graphics with Adafruit SSD1306 & GFX library

Analog input handling for joystick

Game loop timing and collision detection

Random obstacle generation

State management (level system, win/lose screens)

👉 Watch on YouTube Shorts
👉 View Code on GitHub

✅ Quick Tips: Obstacle speed increases slightly with every dodge

Each level includes 10 dodges before progressing

Want to increase difficulty? Decrease updateInterval or increase speed scaling

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Built with 💙 by Hobitronics Let’s make electronics exciting — one pixel at a time!