a historic family from Valencian high society bets on photonic semiconductors

The Valencian saga that has made part of its fortune bottling soft drinks is now taking a technological leap: a chip factory that uses light instead of electronswith almost 25 million of public money. The general overview. The Council of Ministers has approved almost 25 million in public financing for Attypics Photonicsas reported exclusively He Confidential. The company, 100% controlled by Baladre Capital (the holding company of Álvaro Gómez-Trénor, director of Coca-Cola Europacific Partners), plans a total investment of 50 million to build a photonic chip plant in Paterna, a municipality a few kilometers from the Valencian capital. The State enters with 49% through the Perte Chipthe semiconductor program linked to Next Generation funds. The context. The Gómez-Trénor They are an old acquaintance of Valencian high societywith two centuries of history that starts with an Irishman named Thomas Trenor Keating: He founded the Trenor Bank, traded in guano and got involved in the region’s agri-food industry. Nine generations later, the saga accumulates noble titles, historical properties (from the monastery of Sant Jeroni de Cotalba to buildings in the center of Valencia, passing through a park for public use in Torrent) and a reference position in the province’s business community. In detail. Attypics was born in April 2026 from a team of researchers from the Polytechnic University of Valencia with more than fifteen years manufacturing photonic chips. The integrated photonics processes and transmits information using light instead of electrons: more speed, less energy consumption. The company wants to be the European private benchmark in the model Lab-to-Fab (from the laboratory to the factory) covering from prototyping to the manufacture of 200 and 300 millimeter wafers. The first phase includes 1,240 square meters of clean rooms and 100 direct jobs. The second would expand the facilities to more than 7,500 square meters and would exceed 300 jobs. Why is it important. Photonic chips are destined to be infrastructure in AI data centers, quantum telecommunications and high-performance computing. Europe has been trying for years to reduce its dependence on Asia and the United States for semiconductors, but private projects that actually materialize are rare. That a family with its own capital, stable dividends from Coca-Cola Europacific Partners and no need for advertising decides to commit 50 million to this niche says a lot about how certain family assets are reading the next decade. Entering now, with state support and a consolidated scientific team from the UPV, has overwhelming logic. Yes, but. Attypics is barely three months old. Integrated photonics is a field where the gap between the laboratory and industrial-scale production has brought down projects with more muscle than this. Depending on the Perte Chip also implies being exposed to the rhythms of the public administration, whose management of European technology funds has a bittersweet history in Spain. And the Gómez-Trénors, much more accustomed to collecting dividends than managing semiconductor factories, will have to demonstrate that the scientific capital of the UPV can become a sustainable business without the university umbrella. In Xataka | “My family tells me, but where are your products?”: inside the Spanish institute that is putting its chips on Mars Featured image | Ayar Labs

Intel and TSMC lead the revolution of photonic chips. His problem is that China has just done fully in this war

Douglas Yu, a TSMC executive, The biggest chips manufacturer on the planetwith responsibility in the field of systems integration Explain clearly The disruptive capacity of integrated photonic circuits: “If we manage to implement a good system of integration of silicon’s photonics We will trigger a new paradigm. We will probably be placed at the beginning of a new era. “ The photonic silicon seeks to develop the technology of this chemical element to optimize the transformation of electrical signals into light pulses. The most obvious field of application of this innovation is the implementation of high performance links that, on paper, can be used both to solve communications between several chips and to optimize the transfer of information between several machines. Advanced packaging technologies with which the main semiconductor manufacturers work, such as TSMC, Intel or Samsung, can benefit a lot from a communication mechanism between very high performance chips. And the large data centers in which it is necessary to connect a large number of machines, too. However, there is a particular discipline to which it would be wonderful about the advantages proposed by the photonic silicon: the artificial intelligence (AI). China plans to use this technology in AI, 6G communications and quantum computers Intel and TSMC are some of the companies that have been working on the development of their technologies linked to the photonic silicon, and, as we can intuit, this innovation is no stranger to Chinese companies and research centers. In fact, in mid -May 2024 the Institute of Information Technology and Microsystems of Shanghai (China) in collaboration with the Lausanian Institute of Technology (Switzerland) reached a crucial milestone. Until that time one of the fundamental ingredients of the integrated photonic circuits was the lithium niobate. The lithium tantalate allows the manufacture of large -scale photonic chips and with much lower costs This synthetic salt intervenes in the manufacture of these integrated circuits because its physicochemical properties allow it to optimize the conversion of electricity into light, but it has a problem: the industrial exploitation of this technology is conditioned by The high cost that each wafer hasand also for the size of each of them. What these scientists have achieved is to replace the lithium niobate with other semiconductor material whose properties are even more attractive: the lithium tantalate (litao3). Ou Xin, one of the scientists who have led this project, assures That in addition to paying better than the lithium niobate, the lithium tantaloate allows the manufacture of large -scale photonic circuit and with much lower costs. This is because the manufacturing processes are similar to those currently used to produce conventional silicon semiconductors. This is the context in which, according to SCMPthe chips center for integrated photonics Xplore (Chipx) of the Jiao Tong University of Shanghai has announced that it has started the production of 6 -inch wafers for photonic chips. Interestingly, this production line Use Lithium Niobateso it still has a room to advance and take advantage of the properties of the lithium tantalate. Be as Professor Jin Xianmin, the director of CHIPX, says that the photonic integrated circuits have a huge potential not only in the training and inference of AI models, the classical supercomputing and Quantum computersbut also in the development of communications 6g. Image | TSMC More information | SCMP In Xataka | Today China and the US have parked their differences for a good reason: they will analyze together the risks of AI

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