
Communications
UART Communication Virtual Lab
This simulation demonstrates UART (Universal Asynchronous Receiver/Transmitter) communication, a common protocol for serial data transfer between devices like microcontrollers (MCUs).
- It’s Asynchronous: No shared clock signal is needed; timing is based on the agreed-upon Baud Rate.
- It’s Serial: Data is sent one bit at a time over a single wire (TX for Transmit, RX for Receive).
- It uses a Frame Format: Each data byte is wrapped with Start, optional Parity, and Stop bits for synchronization and basic error checking.
Use the controls at lab to configure the UART parameters, send data between the two simulated MCUs, and observe the process!

Analog Electronıcs
Interactive PWM Signal Generator Lab
Explore how Pulse Width Modulation (PWM) works by adjusting its parameters.
Our live simulator empowers you to directly manipulate the core parameters: frequency and duty cycle. Watch the oscilloscope waveform update instantly, visualize the resulting effective (RMS) voltage, and see the direct impact on connected virtual components like LEDs and motors. It’s the ideal way to explore PWM concepts visually and build your intuition. Start experimenting now!
Circuit Theory
Kirchhoff’s Laws Interactive Lab
This virtual lab brings Kirchhoff’s fundamental circuit laws to life through real-time interactive simulations. Explore Kirchhoff’s Voltage Law (KVL) and Kirchhoff’s Current Law (KCL) by adjusting voltage sources and resistors in different circuit configurations.
Observe how voltage distributes across a series loop (KVL) and how current splits or combines at junctions (KCL). A combined simulation challenges you to apply both laws together — just like you would in real-world circuit analysis.
Perfect for students, educators, and hobbyists who want to visualize and experiment with core circuit theory concepts in a hands-on way.
Digital Electronics
Logic Gate Simulator Lab
This virtual lab allows you to interactively explore the behavior of basic logic gates — AND, OR, NOT, XOR, NAND, and NOR. Logic gates form the foundation of all digital circuits, and understanding their behavior is essential in digital electronics, computer engineering, and embedded systems.
Use this simulator to toggle inputs, observe output changes in real time, and visually reinforce your understanding of Boolean logic. Ideal for students, hobbyists, and professionals looking to strengthen their grasp on digital fundamentals.

COMMUNICATIONS
Modbus RTU Message Decoder
Are you spending valuable time manually deciphering complex Modbus RTU messages or wrestling with potential errors in your checksum calculations? Eliminate the frustration and guesswork! Simply paste your complete hexadecimal Modbus message string into our intuitive, free online decoder.
Select the appropriate CRC algorithm used by your device – whether it’s the standard CRC-16-MODBUS, CCITT, or CRC-32 – and instantly receive a clear, structured breakdown of the slave address, function code, and data payload, along with meticulously validated checksums.
Gain confidence in your data, simplify your debugging process, and ensure the integrity of your Modbus communications. Take control of your Modbus analysis – try the essential Modbus RTU decoder right now!

COMMUNICATIONS
Modbus RTU Message Generator
Need to construct Modbus RTU request messages quickly and accurately? Our intuitive generator makes it easy! Simply select the desired function code, enter the slave address and required data fields (like start address and register count), and choose your preferred CRC algorithm.
The tool automatically formats the message and calculates the correct checksum (CRC-16-MODBUS, CCITT, CRC-32, etc.), eliminating manual errors and saving you valuable time. Start building your valid Modbus RTU messages effortlessly right now!
COMMUNICATIONS
I2C Virtual Lab & Simulator
Are you learning embedded systems, working with sensors, or just trying to get a solid grasp on the I²C protocol? Reading datasheets and theory is one thing, but truly understanding the timing, addressing, and data flow often requires seeing it in action. Physical hardware setups can be time-consuming and require debugging tools.
This I²C Virtual Lab is your interactive sandbox! It bridges the gap between theory and practice by simulating I²C communication right in your browser. Configure scenarios with multiple MCUs or sensors, set unique device addresses, and define the data you want to send – just like a real-world project.