Quantum computers require binary supercomputers to drive information into the quantum state.

"Supercomputers, distinguished from ordinary computers by their ability to process vast amounts of data, are instrumental in solving complex scientific problems. They consist of interconnected nodes and require extensive infrastructure and expertise for operation, exemplified by facilities like the Argonne National Laboratory, which uses its supercomputers for groundbreaking research." (ScitechDaily, Science Simplified: What Is Supercomputing?)

The supercomputers can collect data from the environment of quantum computers. The new ultra-accurate atom clocks along with new ultra-cold qubits can make the new accuracy for measuring gravity waves and removing the electromagnetic effect in qubits increasing their power. The new cryogenic qubits are 700 % more powerful than regular qubits. Removing electromagnetic noise made the new quantum leap in quantum computing.

But the thing is that quantum computers require binary supercomputers to observe and control their temperature. The supercomputer can turn binary information into quantum states and it can observe things like gravity waves that can affect quantum entanglement.

"The biggest challenge in the development of the quantum computer consists of the magnetic and electrical noise that disturbs the quantum effect, and therefore the processor QPU (Quantum Processing Unit) is cooled down to the lowest possible temperature just above the absolute zero point of -273 degrees. This happens in the cryostat, which can be seen in the picture. The processor is located at the bottom of the cryostat. Credit: Ola J. Joensen, NBI" (ScitechDaily, Noise Fuels Quantum Leap, Boosting Qubit Performance by 700%)

Supercomputing is an amazing tool. Even without quantum computers. And the quantum computer network is the only thing that can beat networked supercomputers.

Supercomputers make many simulations better than regular- or table-class computers. Researchers can make supercomputers using the same components that are used in PCs. The difference between a supercomputer and a PC is the power. The supercomputers played a vital role in everyday calculations in science. Before quantum computers came into common use. The next step in supercomputers can be the quantum computers.

The limit of quantum computers is that the system has no programs yet. The second limit is that qubits are more complicated and sensitive than regular bits. It's possible. Quantum computers have operated through supercomputers for a long time. The supercomputers adjust the qubit and drive information from binary and quantum systems.

The network of binary supercomputers is a more powerful tool. In morphing AI-driven networks, the supercomputers can share their missions. Some computers drive different types of simulations. And the other computers adjust the environment and raw materials. In that two-stage model, the system makes a simulation before it makes anything in the physical reaction chamber. The networked supercomputers can simulate protein polymerase.

"A photo of the atomic clock setup complete with the bisecting cavity. CreditJILA/Ye Group" (ScitechDaily, Atomic Clocks Surpass Fundamental Precision Limits Through Quantum Entanglement)

The system can collect information from multiple sources. And then compare it with a controlled environment. The only thing that can win networked supercomputers is networked quantum computers. The quantum system can act like remote supercomputers.

Those systems can be in the caves and interact with field systems using remote-control applications. But quantum computers require support from the supercomputers. Supercomputers can use similar algorithms that are used to control nuclear reactors to control the physical environment around the quantum computer. And it takes a long time to develop stand-alone quantum computers.

But so-called traditional supercomputers can run the same Linux-, Mac, or Windows programs as PCs. And that makes them easier to use than quantum computers. There is the possibility that the supercomputers make it possible to turn full-scale submarines into drones. There is lots of room in nuclear submarines. And that allows to installation of supercomputers that can drive complicated algorithms into those nuclear submarines.

https://scitechdaily.com/atomic-clocks-surpass-fundamental-precision-limits-through-quantum-entanglement/

https://scitechdaily.com/noise-fuels-quantum-leap-boosting-qubit-performance-by-700/

https://scitechdaily.com/science-simplified-what-is-supercomputing/

Schrödinger's cat: and the limits of that idea.

"In quantum mechanics, Schrödinger's cat is a thought experiment concerning quantum superposition". (Wikipedia, Schrödinger's cat). But the same thing can use as model for many other thought experiments. Sooner or later, or at least in the ultimate end of the universe, the Schrödinger's cat will turn into wave movement. The information that this cat involved exists but the cat does not exist in its material form. The information doesn't ever vanish. It just turns its shape. We are all trapped in the universe and time. The universe is the space that is entirety to us. There are no confirmed other universities. But the multiverse is a logical continuum for the expanding galactic megastructures. The problem with natural things is this. They are black and white. They exist or do not exist. Could there be something, that exists and not exists at the same time? Scrödinger's cat is thinking experiment about case their cat is not dead or not alive. But in this...

The string theory offers a new way to calculate Pi.

"Scientists discovered a new series for pi through string theory research, echoing a 15th-century formula by Madhava. By combining Euler-Beta Functions and Feynman Diagrams, they modeled particle interactions efficiently. Credit: SciTechDaily.com" (ScitechDaily, String Theory Unravels New Pi Formula: A Quantum Leap in Mathematics) People normally think that. The pi is the ratio of the circumference circle's circumference to the circle's diameter. The Pi is a mathematical constant 3.14159..., the endless decimal number. The Pi is interesting because developers can use that decimal number to make the encryption algorithms stronger. The idea is that the encryptions program hides the message's original ASCII numbers by multiplicating those numbers with some decimal number. Or the system can add some numbers to those ASCII numbers. "Aninda Sinha (left) and Arnab Saha (right). Credit: Manu Y" (ScitechDaily, String Theory Unravels New Pi Formula: A Quantum Le...

There are always more than three actors in the real world.

"An international research team is advancing precision timekeeping by developing a nuclear clock using thorium isotopes and innovative laser methods, potentially transforming our understanding of physical constants and dark matter. (Artist’s concept.) Credit: SciTechDaily.com" (ScitechDaily, Unveiling the Thorium Nuclear Clock and Its Time-Twisting Secrets) From Three-body problem... There are no pure three-body systems in nature. There are always more than three components in the system. For making real three-body systems we must separate those three bodies from the environment. Otherwise, there are stable effects. But nobody can predict some effects like distant supernova explosions or sun eruptions. And one of those things that affect all bodies is time. When radioactive materials decay. That affects the stability and symmetry of the object. Energy levels affect the existence of things like neutrons. The thorium atom clocks are next-generation tools for time measurement....

Cogito ergo sum. I think; therefore I am (René Descartes, French philosopher)

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