With recent high-profile security decryption cases, encryption is more important than ever. Much of your browser usage and your smartphone data is encrypted. But what does that process actually entail? And when computers get smarter and...

Polarizability (Part 1/2)

Scott Aaronson is a computer scientist at MIT who studies computational limits and quantum computers. He has been awarded the 2012 Alan T. Waterman Award

A TALENTED mechanic has built Australia’s first 'hyper car' – in his shed. The Quantum GP700 was born out of the seven-year passion project of its creator, Jeff David. Aimed at producing breathtaking performance in a road legal car – the...

NIST physicist Ray Simmonds discusses his work in quantum physics and NIST's efforts to create a quantum computer. He also describes a qubit and a quantum bus, along with explaining how he was inspired to become a scientist.

Faster-than-light communications might not be a possibility now — our current understanding of natural laws don’t allow for it. But who knows what innovations await us just beyond the horizon?

This week on Blockchain Central: we'll talk about quantum computers and the potential threat it has on blockchain technology. Thank to revolutionary computational power, these computers can easily encrypt the keys that are protecting...

This week on Blockchain Central: we'll talk about quantum computers and the potential threat it has on blockchain technology. Thank to revolutionary computational power, these computers can easily encrypt the keys that are protecting...

This week on Blockchain Central: we’ll take a closer look at Qtum, a unique blockchain that attempts to link existing crypto currencies and make them interchangeable.

NIST physicist Krister Shalm talks about NIST's participation in the November 30, 2016, BIG Bell Test, a worldwide project to bring human unpredictability (randomness) to cutting-edge physics experiments. But it's not just NIST...

You may have heard of quantum computing, but what is it, and what problems can it solve? Plus, what makes quantum computing different from classical computing, and how can enterprises access and harness the technology? Serdar Yegulalp,...

QM Applications: Particle-in-a-Box (Derivation)

Intel CEO Brian Krzanich discusses the future of artificial intelligence with WSJ Chief News Editor Jason Anders at the WSJ D.Live conference in Laguna Beach, Calif.<br/>

In this video, we use the following equations to interconvert between and do calculations with Frequency (λ), Wavelength (𝝂), & Energy: 1) E=h𝝂 2) 𝝂=c/λ 3) E=hc/λ

How can technologies like edge and quantum computing and advanced automation be best deployed?

Polarizability (Part 2/2)

In this video, I do one example for determining whether or not two quantum operators commute [kinetic energy & momentum (x-dir)]. ***Next example (Example #2)

This week on Blockchain Central: we’ll see what’s been going on with the Crypto market lately, analyze why it’s been dipping and show you a few potential reasons for that recent slump.

This version of the film is missing a shot.

In its first year of operations, NASA's Fermi Gamma-ray Space Telescope has mapped the entire sky with unprecedented resolution and sensitivity in gamma-rays, the highest-energy form of...

En este video conoceremos una introducción a la historia y a los conceptos básicos de la mecánica cuántica, también llamada "física cuántica". En próximos videos podremos detallar más cada uno de los conceptos o experimentos,...

A particle physics take on Drake's "Started From the Bottom," explaining the Higgs-to-bottom-quark decay pathway and shot on site at the Large Hadron Collider

In this video, I do one example for determining whether or not two quantum operators commute [position & momentum (x-dir)]. Previous example (Example #1)

Now that we've covered the particle in a box, we are familiar with the concept of a quantum problem. Let's move on to our second quantum problem, that of the quantum barrier potential. With this one, we don't have an infinite square well...

I explain the basic idea of Bohmian Mechanics and how it gives the same results as Quantum Mechanics with out saying things like "a particle is in more than one place at a time"