Quantum computers process information in the form of Qubits. The major difference is that there is a well-established system that is reserved just for fixing the errors on personal computers, while the same is not true for quantum computers. Just like a personal computer, Quantum Computers are also built with imperfect parts. However, there is a field where Quantum Mechanics is being used increasingly over the years – Quantum computing. The only work around to this problem is to restrict the use of Quantum Mechanics to evaluate objects of certain sizes. The other explanation for these errors is that physics lacks clear facts and certain possibilities that are beyond our recognition. There are only two real explanations we have to come to terms with the problem.Įither the Quantum Mechanics is not universally applicable and hence, cannot be applied in terms of large objects. So what do we conclude?Įven now, with all our technological might, the errors of Quantum mechanics when scaled to macro proportions still stay elusive. However, when micro and macro mechanics interact, they don’t provide answers for each other, creating errors in the calculations and findings. We cannot have the same level of understanding of the quantum realm that we have today without Quantum Mechanics. When we take larger objects, the Theory of Relativity gives us accurate information on how the object responds and behaves in the presence of certain forces.Īnd, when we study the smallest particles in the universe, Quantum Mechanics paints a clear picture of their existence and how they interact with each other. We cannot disregard both theories as both are equally right in their own ecosystem. This is obviously a contraction to how Quantum Theory views things.Īnd this is where the errors that we talked about comes in. However, according to Einstein, space and time are relative. According to Quantum Mechanics, the passage of time and space are fixed. Courtesy: ETH Zurich.Īnother aspect of Quantum Mechanics is that it fails to explain Gravity. Image: Quantum correlations between two beryllium ions. This doesn’t fit well in the macro world that we live in as the objects around us, be it a table or a ball, exists only in one place at a time. These subatomic particles are governed by a different set of rules than the laws of physics.įor instance, Quantum theory states that particles like electrons have both particle nature and wave nature, and they are also capable of existing in two places at the same time. In Quantum Mechanics, we study atom and even smaller particles like electrons. To understand the gap between Quantum Mechanics and Theory of Relativity, we have to understand both in their basic definition and how they apply to the world. In a more science-oriented definition, we can say that Quantum Mechanics doesn’t bode well with the General Relativity that Einstein proposed. No, contrary to this common belief, using quantum theory to explain large objects often returns false values. But since the field of Quantum Mechanics is so advanced, we can even stretch it to explain the larger things, more specifically the everyday things around us, right? When we talk about Quantum Mechanics, we always associate it with atoms. Quantum Mechanics and Relativity – Why They Don’t Mix!? In this article, let’s discuss some of the puzzling complexities of Quantum Mechanics, how they result in errors and how scientists are trying to correct them. Any change from the original value will result in an error, and Quantum Error Correction or (QEC) is used to keep the values in order. However, Quantum information is subject to change based on many extenuation factors. With Quantum Mechanics, we have been able to study how very small particles in the world, in the range of atoms, electrons, and photons, behave in the world.Īnd their most noteworthy contribution to the world? Quantum Computers, Laser communication technologies, transistors, electron microscopes, etc.
Quantum Mechanics is one of the revered branches of science, where the subject of study is about subatomic particles. Errors in Quantum Computing, Solving the IssueĬoping with Errors in Quantum Computing.
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