This should not be interpreted as an interpretation that two objects exist simultaneously in multiple spaces, but rather that it should be understood that where an object will exist has not been determined prior to interaction.
A method that eliminates absolute coordinates and infinite data and operations must be the secret of quantum mechanics. The design that makes it possible is likely to be learned by designing a cosmic-scale simulation rather than experimentation and observation.
슈뤠딩거 방정식이 양자역학의 운동방정식
Quantum mechanics Notion
Quantum mechanics interpretations
Scientists Put A Tardigrade In A Strange Quantum State And It Survived
Scientists have successfully managed to perform yet another boundary-breaking experiment on a tardigrade, this one more complex than any before it. Tardigrades - sometimes referred to as water pigs for their cute, chubby piglet-like shape - are invisible to the naked eye, ranging from between 0.5mm to 1.2mm in length.
쉽게 풀어쓴 양자역학과 다중우주론
이세계에선 내가 먼치킨...? 최근 이세계, 다중세계 관련된 소설과 웹툰, 애니메이션등이 인기를 끌고 있습니다. 하지만 우주 어딘가의 어떤 행성에서 또 다른내가 실재할 것 같지 않나요? 양자역학의 관점에서 해석한 다중우주론을 함께 살펴보시죠! The most elegant interpretation of quantum mechanics is the universe is constantly splitting A portion of this video was sponsored by Norton. Get up to 60% off the first year (annually billed) here: https://bit.ly/32SM0yd or use promo code VERITASIUM Special thanks to: Prof. Sean Carroll https://www.preposterousuniverse.com His book, a major source for this video is 'Something Deeply Hidden: Quantum Worlds and The Emergence of Spacetime' Code for solving the Schrödinger equation by Jonny Hyman available here: https://github.com/jonnyhyman/Quantum... I learned quantum mechanics the traditional 'Copenhagen Interpretation' way. We can use the Schrödinger equation to solve for and evolve wave functions. Then we invoke wave-particle duality, in essence things we detect as particles can behave as waves when they aren't interacting with anything. But when there is a measurement, the wave function collapses leaving us with a definite particle detection. If we repeat the experiment many times, we find the statistics of these results mirror the amplitude of the wave function squared. Hence the Born rule came into being, saying the wave function should be interpreted statistically, that our universe at the most fundamental scale is probabilistic rather than deterministic. This did not sit well with scientists like Einstein and Schrödinger who believed there must be more going on, perhaps 'hidden variables'. In the 1950's Hugh Everett proposed the Many Worlds interpretation of quantum mechanics. It is so logical in hindsight but with a bias towards the classical world, experiments and measurements to guide their thinking, it's understandable why the founders of quantum theory didn't come up with it. Rather than proposing different dynamics for measurement, Everett suggests that measurement is something that happens naturally in the course of quantum particles interacting with each other. The conclusion is inescapable. There is nothing special about measurement, it is just the observer becoming entangled with a wave function in a superposition. Since one observer can experience only their own branch, it appears as if the other possibilities have disappeared but in reality there is no reason why they could not still exist and just fail to interact with the other branches. This is caused by environmental decoherence. Schrodinger's cat animation by Ivy Tello Wave functions, double slit and entanglement animation by Jonny Hyman Filming of opening sequence by Casey Rentz Special thanks to Mithuna Y, Raquel Nuno and Dianna Cowern for feedback on the script Music from https://epidemicsound.com "Experimental 1" "Serene Story 2" "Seaweed" "Colorful Animation 4"