Matthew Griffin, described as “The Adviser behind the Advisers” and a “Young Kurzweil,” is the founder and CEO of the 311 Institute, a global futures think tank working between the dates of 2020 to 2070, and is an award winning futurist, and author of “Codex of the Future.” Regularly featured in the global media, including AP, BBC, CNBC, Discovery, RT, and Viacom, Matthew’s ability to identify, track, and explain the impacts of hundreds of revolutionary emerging technologies on global culture, industry and society, is unparalleled. Recognised for the past six years as one of the world’s foremost futurists, innovation and strategy experts Matthew is an international speaker who helps governments, investors, multi-nationals and regulators around the world envision, build and lead an inclusive, sustainable future. A rare talent Matthew’s recent work includes mentoring several Education and Lunar XPrize teams, building the first generation of biological computers and re-envisioning global education with the G20, and helping the world’s largest conglomerates ideate the next 20 years of intelligent devices and machines. Matthew's clients include three Prime Ministers and several governments, including the G7, Accenture, Bain & Co, BCG, BOA, Blackrock, Bentley, Credit Suisse, Dell EMC, Dentons, Deloitte, Du Pont, E&Y, HPE, Huawei, JPMorgan Chase, KPMG, McKinsey, PWC, Qualcomm, SAP, Samsung, Sopra Steria, UBS, and many more.
WHY THIS MATTERS IN BRIEF
The physics behind Quantum Mechanics mean scientists have discovered a way to read information directly from within blackholes, which is just awesome.
Black holes are gravitational monsters, squeezing gas and dust down to a microscopic point like great cosmic trash compactors, and they’re getting a lot of attention at the moment – especially as scientists to take the first ever photo of one, and even created a molecular sized one in their lab… Today, physics dictates that, after being consumed, information about this matter should be forever lost to the universe but a new experiment suggests that there might be a way to use quantum mechanics and quantum entanglement, the same quirky physics that we’re using to build tomorrow’s ultra-powerful Quantum Computers and the first teleporters, to gain some insight into the interior of a black hole.
“In quantum physics, information cannot possibly be lost,” Kevin Landsman, a physics graduate student at the Joint Quantum Institute (JQI) at the University of Maryland. “Instead, information can be hidden, or scrambled” among subatomic, inextricably linked particles.
Landsman and his co-authors showed that they could measure when and how quickly information was scrambled inside a simplified model of a black hole, providing a potential peek into the otherwise impenetrable entities. The findings, which appeared a couple of weeks ago in the journal Nature, could also help in the development of the quantum computers I mentioned before.
Black holes are infinitely dense, infinitely small objects formed from the collapse of a giant, dead star that went supernova. Because of their massive gravitational pull, they suck in surrounding material, which disappears behind what’s known as their event horizon — the point past which nothing, including light, can escape.
In the 1970s, the famous theoretical physicist Stephen Hawking proved that black holes can shrink over their lifetimes. According to the laws of quantum mechanics – the rules that dictate the behaviour of subatomic particles at tiny scales – pairs of particles spontaneously pop into existence just outside a black hole’s event horizon. One of these particles then falls into the black hole while the other is propelled outward, stealing a tiny smidgeon of energy in the process. Over extremely long timescales, enough energy is pilfered that the black hole will evaporate, a process known as Hawking Radiation.
But there’s a conundrum hiding in the black hole’s infinitely dense heart. Quantum mechanics says that information about a particle – its mass, momentum, temperature and so on – can never be destroyed. The rules of relativity simultaneously state that a particle that has zoomed past a black hole’s event horizon has joined with the infinitely dense crush at the black hole’s center, meaning that no information about it can ever be retrieved again. Attempts to resolve these incompatible physical requirements have been unsuccessful to date; theorists who have worked on the problem call the dilemma the black hole information paradox.
In their new experiment, Landsman and his colleagues showed how to get some relief for this issue using the outward-flying particle in a Hawking radiation pair. Because it is entangled with its in-falling partner, meaning its state is inextricably linked to that of its partner, measuring the properties of one can provide important details about the other.
“One can recover the information dropped into the black hole by doing a massive quantum calculation on these outgoing [particles],” Norman Yao, a physicist at the University of California, Berkeley, and member of the team, said in a statement.
The particles inside a black hole have had all their information quantum-mechanically “scrambled.” That is, their information has been chaotically mixed together in a way that should make it impossible to ever extricate. But an entangled particle that gets jumbled up in this system could potentially pass information to its partner.
Doing this for a real-world black hole is hopelessly complicated, and besides, black holes are hard to come by in physics labs. So the group created a quantum computer that performed calculations using entangled quantum bits, or qubits – the basic unit of information used in quantum computing. They then set up a simple model using three atomic nuclei of the element Ytterbium, which were all entangled with each other.
Using another external qubit, the physicists were able to tell when particles in the three-particle system became scrambled and could measure how scrambled they became. More importantly, their calculations showed that the particles were specifically scrambled with each other rather with other particles in the environment, said Raphael Bousso, a UC Berkeley theoretical physicist who was involved in the project.
“It’s a wonderful accomplishment,” he added. “It turns out that distinguishing which of these things is actually happening to your quantum system is a very difficult problem.”
“The results show how studies of black holes are leading to experiments that can probe small subtleties in quantum mechanics,” Bousso said, “which could become helpful in the development of future quantum-computing mechanisms.” And, let’s not forget, read information out of the most destructive forces in the universe… it’s just another day at the office for Team Scientists!