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Innovation Storm Robot Set by Zmrobo. Build-and-program robotics kit for hands-on engineering and coding projects. Contact us for a quotation, classroom quantities and delivery to your school.
Color Sensor by Zmrobo. Build-and-program robotics kit for hands-on engineering and coding projects. Contact us for a quotation, classroom quantities and delivery to your school.
Gesture Sensor by Zmrobo. Build-and-program robotics kit for hands-on engineering and coding projects. Contact us for a quotation, classroom quantities and delivery to your school.
The TinkerKit Braccio is a fully working robotic arm that students assemble themselves and control through an Arduino board. It can be built in several configurations and used for tasks such as picking up and moving objects, and it can also carry add-ons like a camera or a small solar panel for more advanced projects. The arm has six servo-driven axes, a gripper that opens to about 90 mm, a reach of up to 80 cm and a maximum height of around 52 cm. It can lift roughly 150 g at a 32 cm distance, or up to 400 g in its most compact configuration. The kit contains 21 plastic parts with screws and fasteners, six servo motors, an Arduino-compatible shield, a 5V 4A power supply and basic assembly tools. An Arduino board is not included and must be added separately. Because the design is open source, it suits upper-school robotics, engineering and programming classes that explore kinematics and automation.
Arduino Alvik is a compact two-wheeled educational robot that arrives assembled, designed to help learners at different levels get into coding and robotics. Younger students can start with drag-and-drop block coding, while older students can move on to MicroPython or the Arduino language, so the same robot can grow with a class. Alvik is built around an Arduino Nano ESP32 working with an on-board STM32 microcontroller. Its built-in sensors include a time-of-flight distance sensor, an RGB color sensor, a 6-axis gyroscope and accelerometer, a three-channel line-follower array and touch buttons. It also has two motors and two RGB LEDs. For expansion, the robot offers LEGO Technic and M3 screw mounting points, a servo connector, and Grove and Qwiic I2C connectors for adding sensors. It is powered by a replaceable, rechargeable 18650 Li-ion battery charged over USB-C. Arduino provides structured courses for both block-based and MicroPython learning, making Alvik suitable from primary school through high school.
The Arduino UNO Rev3 is the entry-level microcontroller board that most people use when they first start with Arduino. It is the most used and best documented board in the Arduino family, which means students can find a very large number of tutorials, example projects and compatible add-on shields. The board is based on the ATmega328P microcontroller running at 16 MHz with 5V logic. It provides 14 digital input/output pins, six of which support PWM, plus six analog inputs. Memory includes 32 KB of flash, 2 KB of SRAM and 1 KB of EEPROM. It can be powered over USB or from an external supply, with 7-12V recommended. In the classroom, the UNO is used to read sensors, drive LEDs, motors and displays, and introduce programming concepts through the Arduino IDE. Its standard header layout fits a wide range of shields and breadboard projects, making it a dependable foundation for electronics, physical computing and robotics lessons.
The Arduino UNO R4 WiFi keeps the familiar UNO shape and pin layout while adding more processing power and wireless connectivity. It combines a Renesas RA4M1 Arm Cortex-M4 microcontroller running at 48 MHz with an Espressif ESP32-S3 module that handles Wi-Fi and Bluetooth, so students can build connected and Internet of Things projects. The board has 256 KB of flash and 32 KB of RAM on the main processor, 14 digital pins, six analog inputs and six PWM outputs. It supports UART, I2C, SPI and CAN, and adds a 12-bit DAC, an op-amp, a real-time clock and HID support. A 12x8 red LED matrix on the board can show icons, text and simple animations without extra parts. It uses a USB-C connector, includes a Qwiic connector, and accepts 6-24V input. Because it remains compatible with UNO shields and works with Arduino Cloud, it lets classes move from basic electronics to networked sensing and data projects on a single board.
The Arduino Nano is the smallest of the classic Arduino boards, designed to plug straight into a breadboard. It offers functionality similar to larger boards such as the UNO but in a much smaller package, which makes it a good choice for compact builds, wearable prototypes and small robots. The Nano uses the ATmega328 microcontroller at 16 MHz with 5V logic. It has 32 KB of flash memory, 2 KB of SRAM and 1 KB of EEPROM, 14 usable digital pins of which six provide PWM, and eight analog inputs. It supports I2C and SPI communication, connects to a computer through a Mini-B USB cable, and measures just 18 x 45 mm. Students program the Nano with the same Arduino IDE and code used for other Arduino boards, so skills transfer directly between projects. In class it is useful when a design needs to fit inside an enclosure or a small model, or when several boards are used together on breadboards.
The Arduino Mega 2560 Rev3 is designed for projects that need many more connections than a standard board can offer, such as robots with multiple motors and sensors, 3D printers or large interactive installations. It is ready to use out of the box and can be powered over USB or from an external supply. It is built on the ATmega2560 microcontroller running at 16 MHz with 5V logic. The board provides 54 digital input/output pins, 15 of which can output PWM, along with 16 analog inputs and four hardware serial ports (UARTs). Memory includes 256 KB of flash, 8 KB of SRAM and 4 KB of EEPROM, giving room for longer programs. The Mega is compatible with most shields designed for the UNO and earlier boards, so students can reuse the same accessories and Arduino IDE skills while scaling up. It is well suited to advanced classes and project teams that have outgrown the pin count or memory of smaller boards.
The Arduino Starter Kit introduces coding and electronics together through hands-on projects. It is aimed at newcomers, schools and STEM programs, and walks learners through core ideas such as current, voltage and digital logic, then on to programming, sensors, actuators and signal processing. A printed projects book of about 170 pages guides students through 15 projects, starting with getting to know the tools and progressing to builds such as touch-responsive devices and controlling a computer from the board. The kit is available in several language editions, including Arabic. Inside the box are an Arduino UNO board with a USB cable, a 400-point breadboard, a wooden base, jumper wires and a 9V battery snap. Components include LEDs, resistors, capacitors, diodes, transistors, potentiometers, pushbuttons, a temperature sensor, phototransistors, a tilt sensor, a 16x2 LCD, a DC motor, a servo, a piezo and a motor driver. Everything needed to complete the book's projects is included, making it a ready-made unit for introductory electronics classes.
The Arduino Student Kit lets learners explore the basics of electronics, programming and coding with no prior knowledge needed. It was designed to work for teachers running remote or hybrid classes, for homeschooling families and for students learning on their own, with each kit giving one learner everything required. The course consists of nine lessons of about 90 minutes each plus two open-ended projects. Lessons build on one another and include step-by-step instructions, concept-checking exercises, a digital logbook and short features on real inventions. Teachers get guidance, solutions and classroom management support through an online platform, and the content is aligned with US Common Core STEM and CSTA computer science standards. The kit includes an Arduino UNO board with USB cable, a breadboard and mounting base, a multimeter, a 9V battery and snap, LEDs, resistors, potentiometers, capacitors, pushbuttons, a temperature sensor, a phototransistor, a piezo, a servo motor, jumper wires and an access code for the online lessons.
The Arduino Science Kit R3 helps students investigate physics through hands-on experiments using ready-to-use sensors and live data. It was designed with science teachers and does not require any coding: the board comes preloaded, and students' phones or tablets become data loggers. The kit pairs an Arduino Nano RP2040 Connect with the Arduino Science Carrier R3, which has built-in sensors for measurements such as temperature, humidity, pressure, light and air quality. Data streams over Bluetooth to the free Science Journal app on Android or iOS, where students record, graph and interpret their results in real time. The box also includes storage and assembly parts, and experiments use common household items. Four AA batteries and a mobile device are needed. The accompanying Explore Physics course follows the scientific method and covers forces and motion, waves and oscillations, energy transfer and the properties of matter. Experiments can be taught in any order and are aligned with curricula such as NGSS, IB and UK Key Stages 3 to 5, making the kit suitable for middle and high school science.
We build bundles for 24–30 students with storage and charging, and can install and train your teachers.
