The Arduino Nano Student Kit is an all-in-one educational hardware and software learning platform designed for high school and university students, STEM educators, and self-directed beginners. Tailored to teach fundamental electronics, physical computing, and C/C++ embedded programming, the kit is centered around the breadboard-friendly Arduino Nano development board powered by the ATmega328P 8-bit AVR microcontroller. Accompanied by step-by-step modular curriculum lessons, structured online guided projects, and a comprehensive assortment of common discrete components, sensors, and actuators, this kit bridges theoretical physics and electrical engineering concepts with practical, hands-on experimentation.

Specifications

• Kit Name / Series: Arduino Education Series — Arduino Nano Student Kit
• Primary Controller: Genuine Arduino Nano (or Official Nano Rev3 Architecture)
• Microcontroller: Microchip ATmega328P (8-bit AVR RISC architecture)
• Processor Clock Frequency: 16 MHz Crystal Oscillator
• Flash Memory: 32 KB (with 0.5 KB utilized by the bootloader)
• SRAM: 2 KB | EEPROM: 1 KB
• Operating Logic Voltage: 5.0 V DC
• Recommended Input Voltage (VIN): 7.0 V to 12.0 V DC (Internal low-dropout regulator)
• USB Interface: Mini-USB / Micro-USB connector for firmware uploading and serial monitoring
• I/O Capabilities:
  • Digital I/O Pins: 14 pins (D0 to D13, including 6 hardware 8-bit PWM channels)
  • Analog Input Pins: 8 channels (A0 to A7, 10-bit resolution ADC)
  • DC Current per I/O Pin: 20 mA (40 mA absolute maximum rating)
  • 3.3V Pin Current Output: 50 mA maximum
• Online Learning Access: Free access to the Arduino online learning platform, including lesson plans, interactive guides, and sample sketches
• Prototyping Platform: Solderless Half-Size 400-Point Breadboard with standard 2.54 mm (0.1") contact pitch
• Kit Component Assortment:
  • Sensors: Phototransistors / Light Dependent Resistors (LDRs), Analog Temperature Sensor (TMP36 or NTC), Ultrasonic Distance Sensor (HC-SR04), and Tilt/Vibration Sensor
  • Visual Output: Discrete 5mm LEDs (Red, Green, Blue, Yellow), RGB Diffused LED, and 8-segment/multi-character displays
  • Mechanical & Acoustic Output: Piezoelectric Buzzer / Sounder, SG90 9g Micro Servo Motor, and Mini DC Motor
  • User Inputs & Controls: Tactile Momentary Pushbuttons, Rotary 10kΩ Potentiometers, and Slide Switches
  • Passive & Support Components: Metal-film resistor variety pack (220Ω, 1kΩ, 4.7kΩ, 10kΩ, 100kΩ), Electrolytic & Ceramic Capacitors, NPN Switching Transistors (e.g., BC547 / 2N2222), and 1N4007 Rectifier Diodes
  • Interconnects: 65-piece Multi-length M-M Jumper Wire Bundle, 9V Battery Snap Clip with 2.1mm DC barrel / header pins, and USB Host Interface Cable
• Storage Packaging: Reusable, compartmentalized impact-resistant plastic organizer box with locking latches
• Net Kit Weight: Approx. 380 g to 450 g (Packaging and hardware components combined)

Features

• Structured Curriculum Alignment: Designed alongside STEM educational standards, integrating real-world physics and math principles into hands-on electronics experiments.
• Compact Breadboard-Friendly Form Factor: The Arduino Nano plugs directly into the center trough of the included solderless breadboard, leaving both rows of terminal tie-points open for clean, organized jumper wire routing.
• Rich Sensory & Actuation Variety: Combines light, sound, motion, and distance sensing with servos and visual indicators, enabling diverse projects without requiring extra shields or daughterboards.
• Solderless Experimentation: Requires zero soldering; all circuits are assembled quickly and safely on the breadboard, allowing rapid circuit alterations, fault debugging, and immediate component reuse.
• Open-Source Arduino IDE Ecosystem: Fully compatible with the free, multi-platform Arduino IDE (Windows, macOS, Linux) and the cloud-based Arduino Web Editor, supported by thousands of open-source community libraries.

Common Applications

• Classroom STEM Instruction: Structured lab exercises in secondary schools, vocational technical institutes, and university introductory robotics courses.
• Independent Electronics Learning: Self-paced foundational training in basic circuit theory, Ohm's law, digital logic states, and microcontroller firmware programming.
• Interactive Mechatronics Projects: Building automated smart nightlights, digital distance rulers, mini automated greenhouse alarms, and temperature-controlled fans.
• Basic Robotics Prototyping: Creating dual-axis servo camera pan-and-tilt platforms, obstacle-detecting sensor rigs, and motor speed controllers.
• Science Fair & Maker Demonstrations: Prototyping interactive electronic games, sound synthesizers, and environmental data loggers.

Usage Tips

• Driver Installation & Port Configuration:
  • Depending on the specific board revision in the kit, the USB interface chip may be the FTDI FT232R or the WCH CH340.
  • If your computer does not automatically detect the virtual COM port upon plugging in the USB cable, download and install the appropriate USB-to-UART bridge driver for your operating system.
  • In the Arduino IDE under the Tools menu, select Board: "Arduino Nano" and select the processor as "ATmega328P" (or "ATmega328P (Old Bootloader)" if code uploads fail with a timeout error).
• Current Limits & Pin Protection (CRITICAL):
  • Each digital I/O pin on the ATmega328P can safely source or sink a maximum of 20 mA continuous (absolute max 40 mA).
  • Always include a current-limiting resistor (typically 220Ω to 330Ω) in series with standard LEDs to prevent burning out the internal microcontroller output driver FETs.
  • Never connect inductive loads (such as DC motors or solenoids) directly to an Arduino I/O pin. Always drive motors using an intermediate transistor (like the included NPN transistor) paired with a 1N4007 flyback diode across the motor terminals to suppress reverse EMF spikes.
• Servo Motor Power Considerations:
  • While a single 9g micro servo can often be tested directly from the Nano’s 5V pin during light, no-load bench tests, active servo motion causes sudden current dips that can reset the microcontroller.
  • For stable operation, power the servo's power leads (Red and Brown/Black) from an external 5V–6V battery pack or regulated supply, ensuring the external power supply ground is tied together with the Arduino Nano GND pin.
• Breadboard Placement Alignment: When inserting the Nano into the breadboard, press firmly and evenly near both ends of the PCB to seat the header pins without bending them. Orient the USB port facing toward the outer edge of the breadboard for easy cable access.
• Component Storage & Static Care: Keep semiconductor ICs and sensors organized in their designated organizer compartments when not in use. Avoid handling the bare pins of sensitive sensors on high-static surfaces (e.g., synthetic carpets) to prevent electrostatic discharge (ESD) damage.

Kit Includes

• 1 x Nano Board
• 1 x USB To Mini Type B USB Cable
• Approx.10 x Long Jumper wire Male to Female
• Approx. 40 x Short Jumper Cables Male to Male
• 1 x MB-102 830TP Project Board Breadboard Solderless
• 1 x Propeller Soft Fan Blade
• 20 x LED Light: Red, Green, Yellow, White, Blue
• 1 Pack Resistors
• 1 x 100k Volume Control
• 1 x 74LS595 8-bit Shift Register (74HC595)
• 1 x Passive Buzzer
• 1 x LDR
• 5 x Tactile Push Button
• 1 x IR Remote
• 1 x Small DC Motor
• 4 x 2N2222A NPN
• 2 x 1N4007 Diode
• 1 x Thermistor
• LED 5mm RGB Clear