When my Virtual Oscilloscope was mistaken for just a picture!
This story always reminds me how much work we still have to do in Lebanon to bridge the gap in technological literacy among educators!
This story always reminds me how much work we still have to do in Lebanon to bridge the gap in technological literacy among educators!
In creating interactive educational tools, simplicity is power. A minimalist design doesn’t just look clean; it helps learners focus on what truly matters. Instead of overwhelming the user with unnecessary details, focus on providing a clear, interactive interface that mirrors the real-world experience.
That moment stuck with me. It showed me how powerful simulations can be in breaking down complex ideas. It’s the reason I decided to learn how to develop science simulations to make learning easier for others.
Sometimes, all it takes is one moment to change your path!
Designed to replicate the functionality of a real oscilloscope, the Virtual Oscilloscope has captivated the attention of students, educators, and electronics enthusiasts alike. Its intuitive interface and accurate waveform representations have garnered positive feedback, making it an invaluable resource for anyone interested in circuit analysis and electronic waveforms. I extend my gratitude to all those who have supported me and invite others to join this immersive learning experience.
In this game, you must employ the projectile equations to win.
The game consists of three levels, each of which must be completed by scoring at least 8 out of a possible 10 tries. In the first level, you must hit a ground target that shifts position after each attempt. In the second level, you will need to alter the ball’s trajectory to pass over a wall. In the third level, the target flies and changes position both horizontally and vertically in each trial.
توقفت عن التفكير كمبرمج في تلك المرحلة وعدت إلى التفكير كفيزيائي. لقد أذهلني كيف يمكننا محاكاة الظواهر الفيزيائية ببضعة أسطر من التعليمات البرمجية.