Pasqal launches Q-PLANET to industrialize neutral‑atom quantum components across Europe

【Article Title】 Pasqal launches Q-PLANET to industrialize neutral‑atom quantum components across Europe 【Article Body】 AI TRANSLATION This article is an AI-generated translation of the original Japanese article. For the authoritative version, please refer to the original. Read the original Japanese article → (https://quantumindex.jp/pasqal-leads-q-planet-neutral-atom-pilot-line/) Pasqal will coordinate execution of the production line “Q-PLANET” for advanced chips targeting neutral‑atom quantum technologies. Over three years it will invest €50 million to industrialize components required for quantum computing, quantum sensingquantum sensingQuantum Sensing / Quantum SensingTechnology that utilizes quantum phenomena such as superposition and quantum interference to measure magnetic fields, time, gravity, and other quantities with high sensitivity.QI NoteA field of quantum technology distinct from quantum computing; practical implementations already exist. When evaluating performance, check sensitivity, resolution, and the measurement environment. and quantum communications, and to build a European supply chain. ✍️ Quantum Index Analysis The technical and business significance behind the announcement and evaluation points that are not obvious from the numbers or headlines. Read our analysis ↓ Overview of the announcement Q-PLANET is a project jointly funded by the EU Chips Joint Undertaking and national/regional authorities. Twenty‑eight partners from 11 European countries will take part to develop lasers at 461 nm, 698 nm, 795 nm and 1013 nm, atom chips for quantum sensing and quantum computing, and microfabricated vapor cells for atomic clocks and magnetic field sensors. To move research outcomes into industrial production, the project will also prepare standardized Process Design Kits (PDKs) and Assembly Design Kits (ADKs). The project plans to evaluate energy efficiency across the whole manufacturing cycle as well. Pasqal will lead development of a 1013 nm chip‑scale laser source. It will also act as an end user for the laser sources and microfabricated vapor cells by defining higher‑level specifications and participating in testing and validation. Key points • The project budget is €50 million over three years, with 28 partners across 11 European countries participating • Four laser wavelengths, atom chips and microfabricated vapor cells will be developed as industrial‑grade components • Standardized PDKs and ADKs will be prepared to transition research into industrial production • Pasqal will lead development of a 1013 nm chip‑scale laser source and participate in component specification, testing and validation • Energy efficiency will be assessed across the entire manufacturing cycle Technical and business significance Technically, the significance lies in linking the lasers, atom chips and vapor cells required for neutral‑atom approaches to standardized design and assembly processes instead of leaving them as isolated research results. The manufacturing base targets not only quantum computing but also quantum sensing and quantum communications. From a business perspective, the initiative aims to form an intra‑European supply chain for critical components and to advance industrialization between research institutions and companies. However, the announcement does not specify mass‑production capacity, performance targets, or commercialization timelines, and applications such as drug discovery and materials discovery were mentioned only as potential future use cases. What to watch next Going forward, attention will focus on whether concrete performance targets and test results are published for the lasers (including 1013 nm), atom chips and vapor cells. It will also be important to see how far PDK and ADK standardization progresses and whether the project can move from prototyping to a stable manufacturing process. In addition, results on production capacity, yield, energy‑efficiency assessments, and Pasqal’s in‑system validation of components will be key indicators of industrialization progress. ✍️ Quantum Index Analysis The important point of this announcement is that it attempts to move neutral‑atom quantum technology from being devices assembled in labs to an industry that sources standardized parts. Q-PLANET will not only develop lasers, atom chips and vapor cells, but also prepare PDKs and ADKs. This is foundational work to convert individual research results into manufacturable processes. This trend is not unique to Pasqal. Infleqtion (https://en.quantumindex.jp/infleqtion-integrated-optical-cavity-prototype/) has used Honeywell Aerospace’s photonics foundry to integrate an optical cavity used for laser stabilization onto a SiN chip. Xanadu (https://en.quantumindex.jp/xanadu-globalfoundries-300mm-photonic-quantum-manufacturing/) is also attempting to move SiN photonics and SNSPD manufacturing to GlobalFoundries’ 300 mm line. IonQ (https://en.quantumindex.jp/ionq-acquires-nexus-photonics/) has gone further by acquiring SkyWater Technology to bring foundry capability in‑house and by adding integrated photonics technology through the Nexus Photonics acquisition. Although approaches differ, these companies share a common direction: shifting from “quantum machines assembled by researchers from individual parts” to quantum machines that leverage existing semiconductor and photonics manufacturing infrastructure. This point is instructive for Japan’s quantum hardware industry as well. Domestically, development is still focused on hardware itself and on installing and selling a small number of systems; standardization of dedicated parts and a mass‑production system including external suppliers remain nascent in many areas. If companies want to scale unit sales and expand internationally, it will be important not only to improve system performance but also to establish reproducible manufacturing processes and supply chains early on. Q-PLANET is still a pilot line and does not represent a completed mass‑production system. What to watch next is which components will actually be supplied as commercial products after three years, and whether performance, yield, cost and supply capacity reach stable levels. NETWORKSee the industry network around Pasqal → (/qi-network/) Related articles • Pasqal exits defense program PROQCIMA to focus on neutral‑atom FTQC and commercial deployment (https://en.quantumindex.jp/pasqal-france-civil-ftqc-collaboration/) • USA Rare Earth, Pasqal and Riven Systems partner to explore rare‑earth separation use cases with quantum machine learning (https://en.quantumindex.jp/pasqal-quantum-machine-learning-rare-earth-separation/) • QuEra supplies existing Aquila machine to University of Maryland — research support and future customer development (https://en.quantumindex.jp/quera-capital-of-quantum-qlab-aquila/) Source Read the original announcement (https://www.pasqal.com/newsroom/pasqal-reaffirms-its-commitment-to-the-eus-quantum-ambitions-as-it-leads-q-planet-for-neutral-atom-technologies/) If you found this article useful, please consider sharing it. ──────────────────── 【AI Evaluation Request】 Evaluate the following article critically, not based on the quality of its writing, but on its **original informational value as a specialist publication**. Do not give a high rating to summaries, paraphrases, explanations of technical terms, or generic observations such as "this will be worth watching" or "the timeline remains uncertain" if they could easily be produced by a general-purpose generative AI, even if they are well written. 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Pasqal will coordinate execution of the production line “Q-PLANET” for advanced chips targeting neutral‑atom quantum technologies. Over three years it will invest €50 million to industrialize components required for quantum computing, quantum sensingquantum sensingQuantum Sensing / Quantum SensingTechnology that utilizes quantum phenomena such as superposition and quantum interference to measure magnetic fields, time, gravity, and other quantities with high sensitivity.QI NoteA field of quantum technology distinct from quantum computing; practical implementations already exist. When evaluating performance, check sensitivity, resolution, and the measurement environment. and quantum communications, and to build a European supply chain.

Overview of the announcement

Q-PLANET is a project jointly funded by the EU Chips Joint Undertaking and national/regional authorities. Twenty‑eight partners from 11 European countries will take part to develop lasers at 461 nm, 698 nm, 795 nm and 1013 nm, atom chips for quantum sensing and quantum computing, and microfabricated vapor cells for atomic clocks and magnetic field sensors. To move research outcomes into industrial production, the project will also prepare standardized Process Design Kits (PDKs) and Assembly Design Kits (ADKs). The project plans to evaluate energy efficiency across the whole manufacturing cycle as well. Pasqal will lead development of a 1013 nm chip‑scale laser source. It will also act as an end user for the laser sources and microfabricated vapor cells by defining higher‑level specifications and participating in testing and validation.

Key points

• The project budget is €50 million over three years, with 28 partners across 11 European countries participating
• Four laser wavelengths, atom chips and microfabricated vapor cells will be developed as industrial‑grade components
• Standardized PDKs and ADKs will be prepared to transition research into industrial production
• Pasqal will lead development of a 1013 nm chip‑scale laser source and participate in component specification, testing and validation
• Energy efficiency will be assessed across the entire manufacturing cycle

Technical and business significance

Technically, the significance lies in linking the lasers, atom chips and vapor cells required for neutral‑atom approaches to standardized design and assembly processes instead of leaving them as isolated research results. The manufacturing base targets not only quantum computing but also quantum sensing and quantum communications. From a business perspective, the initiative aims to form an intra‑European supply chain for critical components and to advance industrialization between research institutions and companies. However, the announcement does not specify mass‑production capacity, performance targets, or commercialization timelines, and applications such as drug discovery and materials discovery were mentioned only as potential future use cases.

What to watch next

Going forward, attention will focus on whether concrete performance targets and test results are published for the lasers (including 1013 nm), atom chips and vapor cells. It will also be important to see how far PDK and ADK standardization progresses and whether the project can move from prototyping to a stable manufacturing process. In addition, results on production capacity, yield, energy‑efficiency assessments, and Pasqal’s in‑system validation of components will be key indicators of industrialization progress.

✍️ Quantum Index Analysis

The important point of this announcement is that it attempts to move neutral‑atom quantum technology from being devices assembled in labs to an industry that sources standardized parts. Q-PLANET will not only develop lasers, atom chips and vapor cells, but also prepare PDKs and ADKs. This is foundational work to convert individual research results into manufacturable processes.

This trend is not unique to Pasqal. Infleqtion has used Honeywell Aerospace’s photonics foundry to integrate an optical cavity used for laser stabilization onto a SiN chip. Xanadu is also attempting to move SiN photonics and SNSPD manufacturing to GlobalFoundries’ 300 mm line. IonQ has gone further by acquiring SkyWater Technology to bring foundry capability in‑house and by adding integrated photonics technology through the Nexus Photonics acquisition. Although approaches differ, these companies share a common direction: shifting from “quantum machines assembled by researchers from individual parts” to quantum machines that leverage existing semiconductor and photonics manufacturing infrastructure.

This point is instructive for Japan’s quantum hardware industry as well. Domestically, development is still focused on hardware itself and on installing and selling a small number of systems; standardization of dedicated parts and a mass‑production system including external suppliers remain nascent in many areas. If companies want to scale unit sales and expand internationally, it will be important not only to improve system performance but also to establish reproducible manufacturing processes and supply chains early on.

Q-PLANET is still a pilot line and does not represent a completed mass‑production system. What to watch next is which components will actually be supplied as commercial products after three years, and whether performance, yield, cost and supply capacity reach stable levels.

NETWORKSee the industry network around Pasqal →

Related articles

• Pasqal exits defense program PROQCIMA to focus on neutral‑atom FTQC and commercial deployment
• USA Rare Earth, Pasqal and Riven Systems partner to explore rare‑earth separation use cases with quantum machine learning
• QuEra supplies existing Aquila machine to University of Maryland — research support and future customer development

Source

Read the original announcement