Next-generation simulations can be exciting even without brain-implanted microchips.

    Next-generation simulations can be exciting even without brain-implanted microchips. 

Supercomputers are still important tools. The Top 500 list of supercomputers tells what binary supercomputers are the fastest on Earth. The slowest quantum computers are 47 years faster than the fastest binary computers. But still today. Supercomputers have their place in science and other operations. 

Supercomputers are slow. Because they can make only one operand per time, the quantum computer's power base is in the ability to make multiple operations at the same time. And that makes all codes, made of binary computers vulnerable to quantum computers. 

So quantum computers cannot stuck, because some other layer can help the stuck layer. The quantum computer is a complex system.  That requires a very advanced support system. And the binary computers required to transport data into the qubit. In those binary systems, the AI-based systems follow the qubit's behavior. The binary systems adjust the quantum computers and coordinate their lasers and other systems that maintain the quantum environment. 

The next-generation simulations made by using quantum computers help to make better computers and make interaction between binary and quantum systems more effective. In some visions, the next-generation internet operates in this system using 3D virtual technology. 

Virtual reality, or VR glasses or screens, that use augmented reality are safer than regular screens. And they are safer than brain-implanted microchips. The camera and microphone connected to VR glasses can make it possible. The person can use a computer using virtual keyboards and voice commands. Those pocket-size systems can connect the user to the internet. 

The operator can use robots as external bodies. And those robots can send their sensor data to the VR glasses. VR and AI can render those physical robots look like anything that the user wants. And those robots can be the physical avatars that the system makes look like whatever the user wants. 

AI created this image of the future office, where robots operate under remote control or fully AI-controlled. 

In that highly advanced virtual reality person can meet workmates who are virtual characters and avatars who work in the virtual workspace. The virtual workspace can be unique, which means it's different for each user. When some avatar asks other avatar to sit on some red chair, the system can make the chair at the front of the user. Or the AI can make a small image of space that other avatar sees. 

Supercomputers are used for many simulations and animation works. The limits of those animations normally are in displays and display adapters. The supercomputer can make realistic-looking 3D models of cities and other things. But quantum computers can make much larger-scale 3D simulations that are impossible to distinguish from real things. The large-area virtual 3D simulations can make it possible to make the entire virtual world, where all details are modeled to the virtual world. 

Earth's digital twin makes it possible to make ultimate solutions for industrial, education, and entertainment purposes. In that giant 3D digital twin could be possible to sit in virtual lectures, meet virtual persons, and do many nasty things that are not possible in real life. The person can go to the virtual office in the morning, and then communicate with other workmates who are avatars in that space. 

When a factory starts some new operation or project, every object needed in that project can scanned. Then the system uses virtual models to test how the objects fit to each of them. 

When that person steps out of the room of the digital workplace, that person can go to the cinema room, where that user can go to the virtual movie theater. Or maybe our person would click in the hyperrealistic 3D computer game, where that person in it connected in virtual reality.