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A fix to the “Phase Difference Between Sound Waves Simulation”
In response to valuable feedback about the simulation “Phase Difference Between Sound Waves Simulation,” highlighting the slight inaccuracy of the obtained speed of sound of air, which was found to be about 349 m/s, this inaccuracy was fixed, so now it gives 346 m/s as it is supposed to give at room temperature.

Phase Difference Between Sound Waves Simulation
With this rich simulation, you can visualize and measure the phase difference between two sound waves using two microphones connected to an oscilloscope. Moreover, you can determine the speed of sound in air by measuring the distance between the two microphones when their waveforms are in phase, taking into account the frequency of the sound wave that is controlled by the sine wave generator.

Long Division Simulation – Float
If you or your student or child are having difficulties in learning long division, then you will find this simulation comprehensive and instructional, that guides the learner through the process step by step. This application is for long division with float quotient. Another application on long division with remainder is also available in the simulations section.

Simulation Manual: Virtual Oscilloscope
A complete manual for the phase difference between sound waves simulation, including a short introduction and a user guide.

Updates to Stroboscope Simulation
I updated the graphical user interface for easier interaction and better fitting in the browser. I also optimized the code.

Virtual Oscilloscope
A useful simulation for the students in their studies and for the physics teachers in their presentations of electricity lessons.
The simulation includes alternating generators (AC) and direct generators (DC).
In this simulation, the oscilloscope can display waves coming from generators similar to the real ones.