World’s Most Powerful Quantum Processor “Eagle” Launched

IBM this week launched a 127-cube quantum computing chip called Eagle, showing a new asset in the race to build the most powerful quantum computer. Their chips will match those of the National Laboratory for Physics at the University of Science and Technology in China, Google, and Microsoft University.

Eagle is a quantum processor that is about a quarter. Unlike ordinary computer chips, which encode information as 0 or 1 bits, quantum computers can represent information in something called a QBIT, which can only be valued at the same time, 0 , 1, or both because there is a unique property called superposition. , IBM says that by placing more than 100 qubits in the chip, Eagle could increase the memory space needed to run the algorithm, allowing theoretic quantum computers to take on more complex problems.

People have been very happy with the prospect of quantum computers for decades because we’ve understood that you can run algorithms or processes on these machines that you can’t run on a traditional or classic computer, said David Gosset, associate professor. The University of Waterloo Quantum Computing Institute works with IBM on research that can accelerate the solutions to specific problems.

What is known about the new chip and this quantum computing in general?

Here are ways quantum computers could be helpful:

All these luxury technologies beg the question: What is a quantum chip?

According to scientists’ quantum computer theory, three major work categories can improve conventional machines. When physicists Richard Feynman and David Dutash first proposed a quantum computer in the 1980s, they thought it should be used to observe molecules such as molecules, which could be precisely controlled through classical algorithms and conventional computers. It can be controlled with. It cannot be depicted.

Quantum computers also specialize in mathematical operations such as factoring integers, the first use case proposed by mathematician Peter Shor in the 1990s. Some cryptographic systems that encrypt data on the Internet depend on the problem’s difficulty. Quantum computers can indeed be used to solve some of the current encryption used on our classic machine,” Gosset quoted saying. There is a new classic cryptosystem. The objective is to be resistant to damage to the sector.

Finally, a quantum computer can search through unusual databases faster than classic computers, thanks to an algorithm first introduced by computer scientists. In the more modern era, some IBM customers use quantum computers to simulate molecules or dynamics in chemical problems. In contrast, others have tried to apply them to machine learning and optimization tasks.

The Eagle chip journey began in 2016, when IBM released a 5-quantum quantum computer on the cloud called the Quantum Experience. Since then, the company has released a sequence of chips with an increasing number of chips — all just to name birds, and each has a range of technical challenges.

IBM quantum computing hardware consists of superconducting circuits. The qubit itself is made of a superconducting material called niobium. The system layout looks like an initiative parallel to the capacitors. Both of these elements control the flow of currents in the circuit, and the initiative is a non-central element called a Josephson junction, an aluminum oxide nano-intersection. This type of superconductor qubit is a pioneer at Yale, and in practice, it resembles an artificial atom that a sequence of microwave pulses can control.

Falcon and Hummingbird Flight:

Initially, all quantum chips are connected to a control system that contains the electronics used to operate the quantum processor. They can provide quality pulses through cables. Professor at the Quantum Institute “Professor of the Quantum Institute” Christopher Wilson of Waterloo.

On the Falcon 27-cubit chip, IBM engineers must find that they have set the Josephson intersection correctly. “When you build it, their construction will dissipate some of the total energy, which is where this orbit ends,” said Jerry Chow, director of quantum hardware systems development at IBM Quantum. To make a large number of Qabled, each of which has the right energy, they appear laser technology with annealing, which allows them to adjust the frequency of the Qibit at the right place after the chip is made. Chip 65 is left just before Eagle. There are constraints about how the individual qubits are read.

With all these QBibit, you need to bring in the cables to control it, the cables to read them, and to cool it, your whole system [for the cryostat],” Chou said. We said. Designed. This way, we can use one single chain reading for every 8 stops. This affects the total number of components placed in the cooling system.

Elang, their current chip, requires an efficient cabling scheme. When you reach level 100 [cubits], it’s very difficult to carry a cable to cross each of them. It’s just a real estate problem, Chou said. In the previous version, the chips are “bump bonded”, meaning one chip is committed and the other chips are with multiple cables. “Even in this case, when you are older, it is very difficult to get all the cables in the right place.