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XMG Announces the Fusion 15 and Core 15 Gaming Laptops

With the XMG FUSION 15 and CORE 15, XMG unveils its first 15.3-inch laptops in 16:10 format. The two compact devices, which are very similar except for a few details, differ primarily regarding their CPUs: the FUSION 15 is powered by Intel's Core i9-14900HX or i7-14650HX and either an NVIDIA GeForce RTX 4060 or 4070, while the CORE 15 combines an AMD Ryzen 7 8845HS with an RTX 4060. Apart from that, the gaming laptops, which weigh around 2 kg and are 21.9 mm high, offer a WQXGA display with a brightness of 500 nits and an almost entirely aluminium chassis with a clean and elegant design.

The design language of the XMG FUSION 15 (E24) and the XMG CORE 15 (M24) focuses on understated elegance. The laptops share an identical, black anodised and torsion-resistant aluminium chassis. At 342.5 x 245 x 21.9 mm, these two 15.3-inch devices are very compact, while a reduced weight of just 2.0 kg (XMG CORE 15) or 2.1 kg (XMG FUSION 15) offers good portability.

Quantinuum's H1 Quantum Computer Successfully Executes a Fully Fault-tolerant Algorithm

Fault-tolerant quantum computers that offer radical new solutions to some of the world's most pressing problems in medicine, finance and the environment, as well as facilitating a truly widespread use of AI, are driving global interest in quantum technologies. Yet the various timetables that have been established for achieving this paradigm require major breakthroughs and innovations to remain achievable, and none is more pressing than the move from merely physical qubits to those that are fault-tolerant.

In one of the first meaningful steps along this path, scientists from Quantinuum, the world's largest integrated quantum computing company, along with collaborators, have demonstrated the first fault-tolerant method using three logically-encoded qubits on the Quantinuum H1 quantum computer, Powered by Honeywell, to perform a mathematical procedure.

Honeywell Quantum Solutions and Cambridge Quantum Merge to Create Quantinuum - The Largest Quantum Computing Company

The two leading companies in the quantum computing industry have combined to create Quantinuum, thereby accelerating the development of quantum computing and innovation of quantum technologies in a platform agnostic manner to deliver real-world quantum-enabled solutions for some of the most intractable problems that classical computers have not been able to solve.

Cambridge Quantum, the pioneer in quantum software, operating systems, and cybersecurity, and Honeywell Quantum Solutions, which has built the highest-performing quantum hardware, based on trapped-ion technologies, today announced they have satisfied all of the conditions required to close the business combination and formed the new company, now called Quantinuum.

Honeywell Announces the World's Most Powerful Quantum Computer

Honeywell, a multinational conglomerate specializing in the quantum computing field, today announced they have created the world's most advanced quantum computer. Their new solution brings about a quantum computing volume set at 64 - twice the quantum volume of the world's previous most powerful quantum computer, the IBM Raleigh. You might be looking at that 64 quantum volume, wondering what that means - and where did the qubits metric go. Well, the thing with quantum computers is that the number of qubits can't really be looked at as a definite measure of performance - instead, it's just a part of the "quantum volume" calculation, which expresses the final performance of a quantum system.

When you make operations at the quantum level, a myriad of factors come into play that adversely impact performance besides the absolute number of qubits, such as the calculation error rate (ie, how often the system outputs an erroneous answer to a given problem) as well as the qubit connectivity level. Qubit connectivity expresses a relationship between the quantum hardware capabilities of a given machine and the ability of the system to distribute workloads across qubits - sometimes the workloads can only be distributed to two adjacent qubits, other times, it can be distributed to qubits that are more far apart within the system without losing data coherency and without affecting error rates - thus increasing performance and the systems' flexibility towards processing workloads. If you've seen Alex Garland's Devs series on Hulu (and you should; it's great), you can see a would-be-quantum computer and all its intricate connections. Quantum computers really are magnificent crossovers of science, materials engineering, and computing. Of course, the quantum computing arms race means that Honeywell's system will likely be dethroned by quantum volume rather soon.
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Apr 23rd, 2024 17:17 EDT change timezone

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