A JOURNEY FROM THE CLASSICAL TO THE QUANTUM WORLD

In Quantum Technology, students begin with the fundamental question: Why does classical physics fail when we look at atoms, electrons and photons? From there, they explore wave-particle duality, quantized energy levels, probability, uncertainty, superposition, spin and tunneling.

But quantum physics should not remain only as equations. Students will first encounter the phenomena through experiments. What happens when light passes through a double slit? Can electrons also produce an interference pattern? Why do atoms emit only specific colours of light? Through experiments such as double-slit interference, electron diffraction, atomic spectra, polarization and photoelectric-effect demonstrations, the strange rules of quantum mechanics start becoming visible.

Next, the journey moves from phenomena to technology. How can a quantum state become a sensor? How can spin be used to detect extremely weak magnetic fields? How can individual photons carry information securely? Students are introduced to the principles behind quantum sensors, atomic clocks, quantum communication and quantum computing.

The program also connects quantum ideas to technologies students already know. Semiconductor devices, lasers, LEDs, photodetectors and modern imaging systems all rely on quantum physics at their core.

Finally, students look toward the next generation of technology — ultra-sensitive quantum sensors, quantum networks, quantum materials and new forms of computation.

By the end, students should not see quantum mechanics only as a difficult theory. They should see it as a set of physical rules that can be experimentally observed, controlled and engineered into technology.