Skip to main content

The speed limit for quantum computers

 The speed limit for quantum computers




An artistic illustration of a matter-wave rolling down a steep potential hill. Credit: Enrique Sahagún – Scixel (ScitechDaily/Quantum Marbles in a Bowl of Light – The Speed Limit for Quantum Computations)


The minimum time that the quantum gate needs to react is the time that is the absolute limit for quantum computers. The quantum gate is the gate that cuts the data line, and the speed of that gate is the thing that determines the maximum speed of quantum computers. 

The fact is that all people who worked with quantum technology know that there are speed limits even for quantum computers. The speed of light is not the problem because long-distance superposition and entanglement between particles can surround the cosmic speed limit. But if we want that the superpositioned and entangled particles would bring visible or meaningful benefit for quantum systems. 

The distance between the systems must be enormous. The thing is that superpositioned and entangled particles are acting as quantum sticks. When another side of quantum entanglement is moving also other side is moving. But that thing doesn't remove the need for a quantum gate. 

So it separates the data packages and sends them to the right addresses. But the thing is that the quantum gate (quantum logic gate)  is more complicated than the gate (logic gate). 

The speed of that gate is enormous. But always when there is something that has mass. The speed has limits. One of the solutions for increasing the speed of that gate could benefit things like some atoms. The system can pump energy to the atom. And that thing can cause that the size of an atom can change. 

That thing can cut the photonic interaction. The other version is to use hydrogen atoms, and then the electromagnetic stress will cause changes to the trajectories of electrons. That thing can let the energy travel through protons and electrons. 

The error correlation is the problem with quantum computers. The error correction is the thing that is necessary for making a practical quantum system. The answer is to use two quantum systems that are getting the same data. The splitting photons can make sure. The data that is sent to two quantum systems is identical. 

And if there is some kind of difference between the answers. There is some kind of anomaly in the system. If the answers are also identical. The answer should be correct. And when the number of data handling lines increases. The possibility to find errors is also increasing. That increases the trust and accuracy of the quantum systems. 


https://scitechdaily.com/important-milestone-reached-in-quantum-computing-with-error-correction/


https://scitechdaily.com/quantum-marbles-in-a-bowl-of-light-the-speed-limit-for-quantum-computations/


https://en.wikipedia.org/wiki/Logic_gate


https://en.wikipedia.org/wiki/Quantum_logic_gate


Image: https://scitechdaily.com/quantum-marbles-in-a-bowl-of-light-the-speed-limit-for-quantum-computations/

Comments

Popular posts from this blog

Quantum breakthrough: stable quantum entanglement at room temperature.

"Researchers have achieved quantum coherence at room temperature by embedding a light-absorbing chromophore within a metal-organic framework. This breakthrough, facilitating the maintenance of a quantum system’s state without external interference, marks a significant advancement for quantum computing and sensing technologies". (ScitechDaily, Quantum Computing Breakthrough: Stable Qubits at Room Temperature) Japanese researchers created stable quantum entanglement at room temperature. The system used a light-absorbing chromophore along with a metal-organic framework. This thing is a great breakthrough in quantum technology. The room-temperature quantum computers are the new things, that make the next revolution in quantum computing. This technology may come to markets sooner than we even think. The quantum computer is the tool, that requires advanced operating- and support systems.  When the support system sees that the quantum entanglement starts to reach energy stability. I

The anomalies in gravity might cause dark energy.

"Physicists at UC Berkeley immobilized small clusters of cesium atoms (pink blobs) in a vertical vacuum chamber, then split each atom into a quantum state in which half of the atom was closer to a tungsten weight (shiny cylinder) than the other half (split spheres below the tungsten). (ScitechDaily, Beyond Gravity: UC Berkeley’s Quantum Leap in Dark Energy Research) By measuring the phase difference between the two halves of the atomic wave function, they were able to calculate the difference in the gravitational attraction between the two parts of the atom, which matched what is expected from Newtonian gravity. Credit: Cristian Panda/UC Berkeley" (ScitechDaily, Beyond Gravity: UC Berkeley’s Quantum Leap in Dark Energy Research) Researchers at Berkeley University created a model that can explain the missing energy of the universe. The idea is that the particles and their quantum fields are whisk-looking structures. Those structures form the superstrings that are extremely thi

Neon and time crystals can be the new tools for quantum computing.

"New research investigates the electron-on-solid-neon qubit, revealing that small bumps on solid neon surfaces create stable quantum states, enabling precise manipulation. This research, supported by multiple foundations, emphasizes the importance of optimizing qubit fabrication, moving us closer to practical quantum computing solutions." (ScitechDaily, Quantum Riddle Solved? How Solid Neon Qubits Could Change Computing Forever) Researchers created a superposition in solid neon. And those neon ions, where the system creates superposition in their surfaces.  Making it possible to manipulate those atoms. The atom-based qubit has one problem. Orbiting electrons cause turbulence in their quantum fields. The thing that can solve the problem is to use the quantum fields for the superposition.  If the system can position electrons at a certain point, it can make a small hill to the atom's surface. And the system can use that thing for making quantum superposition between the mos