the IMEC chip laboratory has manufactured the first qubit with ASML’s High-NA machine

Manufacture a qubit, the physical device that implements the minimum unit of information in the quantum computersit is not at all a piece of cake. There are several types: superconductors, ion traps, neutral atoms or ions implanted in macromolecules, among other variants. Not all of them are equally complexbut all are difficult to produce and manipulate. In fact, the ideal is to be able to manufacture them on a large scale in order to make possible the arrival of quantum machines equipped with many more qubits than the current ones. The first step in this direction was taken by Intel and QuTech, the research institute specialized in quantum computing that belongs to the Technical University of Delft, in the Netherlands. At the end of March 2024 they announced that they had managed to produce the first qubit industrially and using the same processes and technology that is currently used for manufacture semiconductors. However, it is now IMEC (Interuniversity Microelectronics Center), the most experienced laboratory in the development of new integration and nanotechnology technologies that we have in Europe, which has signed a very important milestone: has managed to manufacture a qubit using extreme ultraviolet (UVE) and high aperture (High-NA) photolithography equipment from ASML. Currently this is integrated circuit manufacturing machine most advanced that exists. Caressing the dream of industrial manufacturing of qubits for quantum machines IMEC’s ​​main laboratory resides in Leuven, Belgium and has collaborated closely with ASML for more than four decades. Thanks to this collaboration you have access to the most advanced lithography equipment of the Netherlands company. The qubit produced using ASML’s High-NA equipment is a silicon quantum dot spin type. These qubits are very interesting because they are considered the most promising candidates for industrial scaling. In fact, as IMEC assuresthey are known as “the qubits of industry.” IMEC has shown that the manufacturing of these qubits is largely compatible with the production of CMOS chips The really relevant news is that IMEC has demonstrated that the manufacturing of these qubits is largely compatible with the production of integrated circuits using CMOS technology (Complementary Metal-Oxide-Semiconductor or complementary metal oxide semiconductor). And therefore it is possible manufacture them in conventional semiconductor plants. An important note: CMOS is the transistor manufacturing technology behind virtually all modern chips. Sofie Beyne, the director of this project at IMEC, maintains that “We can leverage decades of semiconductor innovation and repurpose the entire silicon scale-up ecosystem, taking quantum devices beyond laboratory experiments into large-scale, fabricatable systems. This is where silicon-based qubits have a clear advantage.” Experts who research in the field of quantum computing they are convinced that having machines with millions of qubits will lead to the arrival of error correction technology, which is the holy grail of these computers. Broadly speaking, silicon quantum dot spin qubits confine an electron within a silicon nanostructure, so that the spin state of the trapped electron is used to store quantum information. This architecture requires that the spaces between the different doors be minimal in order to reduce environmental noise and minimize errors. Be that as it may, what is really important is that IMEC has managed to manufacture a network of qubits with spaces of just 6 nm. Thanks to the nanoscale of this component, millions of qubits could theoretically be integrated into a single chip. Image | IMEC More information | IMEC In Xataka | China has reached one of the holy grails of quantum physics. So says Peter Zoller, father of quantum computers

Malaga gets fully into the chips industry. It is due to IMEC, the most important laboratory in Europe

The Interuniversity Microelectronics Center or IMEC (Interuniversity Microelectronics Center) It is not a research center. It is the most experienced laboratory in the tuning of New integration technologies to manufacture integrated circuits and nanotechnology that we have in Europe. In fact, its engineers They work side by side with ASML techniciansTSMC, Intel or Samsung with the purpose of jointly developing new semiconductor packaging technologies or avant -garde photolithography techniques. This research center is housed in Leuven (Belgium), but in 2030 it will have a new laboratory that will be located in Malaga Techpark, an ambitious technological park installed in this Andalusian capital. José Luis Escrivá, the former Minister of Digital Transformation and Public Function, announced the arrival of Imec to Malaga In January 2024, but a year and a half later we have more important information. According to Malaga today The total cost of these facilities will amount to 615 million euros. The central government will contribute 500 million and the Junta de Andalucía the remaining 115. On the other hand, the Malaga Center of IMEC will have a total area of ​​51,300 square meters, and, more importantly, it will use 200 people of high qualification. After all, these researchers will participate in the search for alternatives to the silicon in integrated circuit production processes, as well as in the development of new photolithography technologies that will pursue make possible the manufacture of chips below 1 Nm. However, in addition to these direct jobs, this research center will attract Malaga to other important companies involved in the semiconductor industry. This is the most ambitious IMEC project: to manufacture 3 angstroms chips According to Imec In 2035 integrated circuit manufacturers will begin large -scale production of 3 angstroms chips (0.3 Nm). This milestone is very important because presumably these will be the first semiconductors made of the UVE Hyper-á lithography equipment in which ASML is already working. However, of course, these machines will not arrive that year; They will be ready much earlier. That will be the time when Chips manufacturers will start large -scale production, but possibly this machine will be prepared at the end of this decade. In 2039 chips manufacturers will go beyond the 2 angstroms Anyway, the interesting thing is that the opening of the optics of these avant -garde lithography equipment will be, again according to IMEC, of ​​0.75 in the face of the opening of 0.55 UVE UVE MACHINESor 0.33 in Conventional UVE teams. In any case, the itinerary of this laboratory anticipates that In 2037 the integrated circuits of 2 angstroms will arriveand in 2039 chips manufacturers will pass this barrier and go beyond the 2 angstroms. In the article we dedicate to Rayleight criteria We explain in a lot of detail what the ‘Na’ parameter consists (Numerical Aperture), But in this text it is enough to know that this variable identifies the opening value of the optics used by the lithographic equipment. In this context this parameter essentially reflects the same as the opening value when we talk about The optics of a photo cameraso it conditions the amount of light that the optical elements They are able to collect. As we can intuit, the more light gathens, the better. Image | Laura Ockel | Wikimedia More information | IMEC In Xataka | China needs to develop a new type of immune chips to US sanctions. And their scientists have just achieved it

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