Science - Quantum Phenomenon, Possibilities & Truth

A quantum computer based on quantum particles instead of classical bits, can in principle outperform any classical computer. However, it still remains an open question, how fast and how efficient quantum computers really may be able to work.

A dose of hydrogen or helium can render the "super material" graphene even more useful, as shown by physicists.

In a remarkable feat of micro-engineering, physicists have created a working transistor consisting of a single atom placed precisely in a silicon crystal. The tiny electronic device uses as its active component an individual phosphorus atom.

Philosophy | I continue to believe that quantum field theory is a concept that we physicists don't do nearly enough to explain to a wider audience.

All finite phenomenal frequencies of matter and energy exist on various integers; wavelengths or channels of the same cosmic octave of space and each form of matter/energy has a different threshold of infinite depth that is accessed by its quality centered on a different octave/channel to every other form of matter/energy of the same quantified space. However it isn't a linear depth as in down but a within inward centralised depth so Gravity being the most expansive phenomena encompasses all other frequencies of depth, thus like Russian dolls next comes epsilon waves, gamma, ultraviolet, infra-red/heat/light, sound, electromagnetism and then atomic. they all exist with same volume of space but at various wavelengths of depth which are shorter than gravity...hence gravity encompasses them, because it is expansive it cycles slower and has a more permeable quality about it.

Heisenberg's Uncertainty principle is arguably one of the most famous foundations of quantum physics. It says that not all properties of a quantum particle can be measured with unlimited accuracy.

Researchers have succeeded in combining the power of quantum computing with the security of quantum cryptography and have shown that perfectly secure cloud computing can be achieved using the principles of quantum mechanics.

Scientists have achieved a 100-fold increase in the ability to maintain control the spins of electrons in a solid material, a key step in the development of ultrafast quantum computers.

Scientists have found a way to turn common carbon fiber into graphene quantum dots, tiny specks of matter with properties expected to prove useful in electronic, optical and biomedical applications.