Standard 3.5mm TRRS audio jack connector
Breakout pins for Tip, Ring1, Ring2, and Sleeve
Supports stereo audio and microphone signals
Compact CJMCU PCB design
Easy integration with Arduino, ESP32, Raspberry Pi, and other development boards
Ideal for audio interface, headset projects, and signal routing
Durable PCB with clearly labeled pins
Suitable for DIY electronics, robotics, and embedded systems
Heavy-Duty 3D Printed Structure – Durable and lightweight construction for reliable operation.
Strong Mechanical Grip – Precisely designed jaws provide secure object handling.
Servo Motor Compatible – Works with common servo motors for smooth control.
Compact & Efficient Design – Ideal for small robotic arms and automation prototypes.
Easy Assembly – Simple installation with screws and standard hardware.
Modular Design – Easily replace or modify parts for custom robotics projects.
High Precision Movement – Enables accurate pick-and-place operations.
Product Type: Robotic Arm Gripper / Robot Claw
Manufacturing Method: 3D Printed Components
Control Method: Servo Motor Control
Compatible Servo: SG90 / MG90S / similar micro servos
Operating Voltage (Servo): 4.2V – 6V
Material: High-strength PLA / ABS plastic
Control Interface: PWM signal from microcontroller
Mounting: Robotic arm or mechanical platform
The AUTOBOTIX 3D Duty Robot Gripper is suitable for many robotics and engineering applications, including:
Robotic arm projects
Pick and place robots
Arduino robotics experiments
STEM education kits
Industrial automation prototypes
Object sorting systems
DIY robotics competitions
AUTOBOTIX designs robotics components specifically for students, hobbyists, and professional developers who want reliable and affordable robotics hardware. The 3D Duty Robot Gripper offers a perfect balance between durability, precision, and ease of integration, making it an essential component for robotic arm systems.
Whether you are building a gesture-controlled robotic arm, automated pick-and-place machine, or educational robotics project, the AUTOBOTIX 3D Duty Robot Gripper provides strong gripping performance and flexible integration.
Designed for N20 Gear Motors – Perfectly compatible with standard N20 micro gear motors.
High-Grip Rubber Tire – Provides excellent traction for smooth robot movement.
D-Shape Shaft Slot – Securely fits 3mm D-shaft motors without slipping.
Compact Size – Ideal for small robots and miniature vehicles.
Lightweight Construction – Reduces load on motors for better efficiency.
Durable Material – Long-lasting rubber and plastic construction for repeated use.
Stable Performance – Balanced design ensures smooth and controlled motion.
Easy Installation – Simply push-fit onto the N20 motor shaft.
Wheel Diameter: 34 mm
Shaft Type: D-shape shaft slot
Shaft Diameter Compatibility: 3 mm (N20 motor shaft)
Tire Width: ≈ 6.5 mm
Wheel Thickness: ≈ 14 mm
Weight: ≈ 3.2 g
Material: Rubber Tire with Plastic Hub
Color: Black / White (varies by stock)
The AUTOBOTIX 34mm N20 wheel is suitable for a wide range of robotics and electronics projects:
Line follower robots
Obstacle avoiding robots
Arduino and microcontroller robot cars
STEM education robotics kits
Mini RC vehicles
DIY robotic platforms
Smart automation prototypes
Its compact design and high-grip rubber surface make it a reliable choice for small mobile robots and precision movement applications.
AUTOBOTIX components are designed for makers, students, and robotics developers who require reliable and easy-to-use hardware for their projects. The AUTOBOTIX 34mm N20 Motor Wheel ensures smooth motion, better traction, and simple installation, making it a perfect addition to any robotics kit.
Whether you are building a gesture-controlled robot, smart car, or educational robotics project, this wheel provides the stability and performance needed to bring your innovation to life.
Dual H-Bridge Motor Driver – Control 2 DC motors or 1 stepper motor simultaneously.
Wide Voltage Range – Supports motor supply from 2.7V to 10.8V, ideal for battery-powered applications.
High Current Capability – Provides up to 1.5A continuous current and 2A peak per motor channel.
PWM Speed Control – Compatible with PWM signals from microcontrollers for precise speed control.
Low On-Resistance MOSFETs – Ensures higher efficiency and reduced power loss.
Compact & Lightweight Design – Perfect for small robotics and embedded projects.
Low Power Sleep Mode – Reduces power consumption during standby.
Built-in Protection – Includes overcurrent protection, thermal shutdown, and undervoltage lockout for safer operation.
Driver IC: DRV8833
Motor Supply Voltage: 2.7V – 10.8V
Continuous Current: 1.5A per channel
Peak Current: 2A per channel
Motor Support: 2 DC Motors / 1 Stepper Motor
Control Interface: Digital Logic / PWM
Logic Compatibility: 3.3V and 5V systems
Operating Temperature: -40°C to +85°C
Protection: Overcurrent, Overtemperature, Undervoltage Lockout
The AUTOBOTIX DRV8833 Motor Driver Module is suitable for a wide range of electronics and robotics applications, including:
Arduino and microcontroller robotics projects
Gesture-controlled robots and smart vehicles
Line follower and obstacle-avoiding robots
DIY RC cars and robotic platforms
Smart automation systems
Educational STEM electronics kits
Small CNC and stepper motor control systems
AUTOBOTIX ensures high-quality components designed for makers, students, and robotics enthusiasts. The module provides stable performance, easy interfacing with microcontrollers, and efficient motor control for modern DIY electronics projects.
With its compact design, powerful performance, and built-in safety features, the AUTOBOTIX DRV8833 Motor Driver Module is an essential component for anyone working with robotics, automation, and embedded systems.
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🧠 Intelligent robot that moves automatically and avoids obstacles in real-time
📏 Uses an ultrasonic sensor (HC-SR04) to detect nearby objects using sound waves
💻 Controlled by an Arduino Uno microcontroller which acts as the brain of the car
🔄 A servo motor rotates the sensor left and right to scan for clear paths
📊 Based on sensor readings, the car decides to move forward, turn, or stop
⚙️ L298N motor driver controls the left and right DC motors for smooth movement
🔋 Powered by a rechargeable battery pack (6V–12V)
🧰 Built on a robotic chassis with two wheels and one balancing caster
🧑💻 Programmed using the Arduino IDE in C/C++
❌ No remote control needed – it’s a completely autonomous system
🤖 Demonstrates basic principles of robotics, automation, and embedded systems
🚀 Can be upgraded with Bluetooth, WiFi, AI camera, or GPS
🔐 Real-life applications: self-driving cars, delivery robots, warehouse automation
📚 Great for science fairs, engineering exhibitions, school/college projects
🔄 Encourages understanding of sensor logic, decision-making, and motion control
💡 Teaches practical concepts in STEM: Science, Technology, Engineering & Math
🔧 Develops skills in problem-solving, coding, electronics, and innovation
🏆 A fun, educational, and impressive project for beginners and enthusiasts alike
Aluminium Electrolytic Capacitor, 100uF/25V, Pack of 10 
Nema 23 25 Kg-cm 4 Wire Bipolar Stepper Motor High Torque for 3D Printer CNC Robotics DIY Projects AB0154 
