#iqmquantumcomputers

[govindhtech]

Leibniz Supercomputing Centre LRZ Launches Euro-Q-Exa

The Leibniz Supercomputer Centre

Euro-Q-Exa, the first EuroHPC quantum computer deployed in Germany, was launched by the European Commission and EuroHPC Joint Undertaking (JU). The system, headquartered in the Bavarian Academy of Sciences and Humanities' Leibniz Supercomputing Centre (LRZ), changes the continent's approach to advanced computing.

A Digital Sovereignty Strategy

European researchers and startups depend on non-European enterprises' cloud-based quantum gear access. This changes with the opening of Euro-Q-Exa, a local facility.

The “sovereign” strategy aims to provide European specialists deep operational understanding. Europe manages hardware and its surroundings to keep private industry research and sensitive scientific data within its digital limits. Jointly funded, the project costs €25 million. Money is split among:

| €10 million EuroHPC JU

The BMFTR: €12 million

Bavarian State Ministry of Sciences and Arts and StMWK: €3 million

Technical Architecture: IQM Radiance Platform

The system was built using IQM Quantum Computers' Radiance platform. Current Euro-Q-Exa uses 54 superconducting qubits.

Due to its scalability and compatibility with existing microfabrication technologies, superconducting qubits lead the "quantum advantage" race.

Euro-Q-Exa's architecture is heavily integrated for HPC environments. A lattice architecture with tunable couplers and high-fidelity gates reduces latency and speeds data flow. This is crucial for “hybrid” procedures, when a quantum processor and a traditional supercomputer tackle a problem simultaneously.

Integration with SuperMUC-NG

This deployment's logical and physical interface to LRZ's SuperMUC-NG supercomputer is unique. The Munich Quantum Software Stack (MQSS) lets developers use Qiskit and PennyLane to construct and execute hybrid algorithms.

The LRZ is creating a “quantum-classical” hybrid by pairing a quantum processor with one of Europe's most powerful classical supercomputers to solve problems neither system could solve alone.

Addressing “Real-World” Issues

Euro-Q-Exa's major goal is to use quantum power to global issues, in addition to theoretical research. Research is currently focused on three topics:

Climate modeling simulates complex atmospheric interactions to better predict and mitigate global warming. Computational Pharmacology: By simulating molecular interactions at a level that classical machines cannot, computational pharmacology speeds up drug discovery. Neurodegenerative Disease Research: Studying Parkinson's and Alzheimer's complex biochemical processes.

A Growth Roadmap

Launching the 54-qubit system is just the beginning. Euro-Q-Exa's roadmap includes two major upgrades:

Another, more powerful CPU with over 150 qubits will be installed by 2026.

Another “substantial upgrade” is planned for early 2027 to increase the system's capabilities.

This phased process from small-scale proofs of concept to large-scale industrial simulations allows researchers to enhance their skills alongside hardware.

Pan-European Ecosystem

Euro-Q-Exa is not independent. Six quantum systems are placed in Europe's most advanced supercomputing centers. More: Czechia, France, Italy, Poland, Spain.

This well-coordinated network provides an innovative environment for European researchers to access cutting-edge quantum technology worldwide.

[govindhtech]

IQM Halocene Brings 150-Qubit Quantum Computer by 2026

IQM Halocene Brings Quantum Computing to the Next Level with Error Correction

The advent of IQM Halocene, a new product line from European superconducting quantum technology leader IQM Quantum Computers, represented a turning point in the global hunt for viable quantum processing. This product range of open and modular on-premises quantum computers for rigorous quantum error correction (QEC) research is a major step towards Fault-Tolerant Quantum Computing (FTQC).

Quantum computing could transform materials science and medicine, but quantum inaccuracy has hindered it. Environmental shocks can decoherence and dramatically increase processing mistakes in qubits, which exploit brittle quantum states like entanglement and superposition. Noisy Intermediate-Scale Quantum processing complexity and dependability are limited by this instability.

Halocene symbolises IQM's strategic departure from NISQ equipment. The Halocene line addresses these issues by providing a solid platform for researchers and industry partners to build, test, and validate cutting-edge QEC procedures.

Technical Specifications and Error Correction Law The IQM Halocene series' first 150-qubit quantum computer is planned to be commercialised. This version emphasises system stability for error correction, not merely qubit count. A 150-qubit device using an IQM Crystal Quantum Processing Unit (QPU) strives at 99.7% physical two-qubit gate integrity.

QEC requires excellent gate integrity. The quantum computation threshold theorem states that merging more physical qubits into a protected logical qubit can exponentially reduce computational errors if the physical gate error rate drops below a very high threshold. The 99.7% fidelity criterion set by IQM allows real-world QEC demonstrations.

With the IQM Halocene architecture, users can conduct QEC research and create intellectual property on logical qubits. A single logical qubit is a durable, error-proof object consisting of many tightly connected physical qubits. QEC algorithms like the Surface Code monitor this ensemble to find and resolve issues without losing quantum information. It may take hundreds or thousands of physical qubits to generate one stable logical qubit, illustrating the massive overhead required for this operation.

To facilitate this research, the 150-qubit Halocene system's hardware and software were upgraded. These advances enable research of up to five logical qubits. The construction, preservation, and manipulation of an error-corrected logical qubit is a significant scientific and engineering feat. The system supports Clifford gates, which are fundamental to various error-correction sequences.

An Open, Modular Ecosystem Growth Architecture The IQM Halocene system directly expands the IQM Radiance product line, which originally supported NISQ quantum computation, to add cutting-edge QEC capabilities using verified superconducting hardware.

The Halocene line is known for its open and modular architecture. The modular decoder has an open and visible quantum error correcting stack. Openness allows quantum researchers to tweak or replace QEC components like the decoder algorithm or encoding scheme to compare performance and encourage innovation.

IQM Halocene supports NVIDIA NVQLink. This integration allows researchers to leverage classical parallel processing for control operations and decoding, which are necessary for real-time QEC. It also ensures smooth interaction with HPC environments.

Dr. Jan Goetz, co-CEO of IQM Quantum Computers, stressed teamwork in this development. He claimed Halocene built a robust quantum ecosystem by co-developing technology stack with partners and clients. Goetz said this launch will influence “the next frontier in error-corrected quantum computing, transforming research into technologies that will drive industrial innovation and economic growth.”

Commercial Strategy and Roadmap

The IQM Halocene begins FTQC's aggressive and obvious commercialisation plan. Commercialisation of the 150-qubit system is expected in 2026. IQM plans to release larger products with more than 1,000 physical qubits after this first release. This scaling plan supports the company's 2030 goal of building a fault-tolerant quantum computer demonstrator. This roadmap displays the consensus that error correction is the direct path to practical quantum computation and that this transition phase is nearing.

IQM's business plan is to deliver Halocene on-premises. This mode—where the quantum computer is physically installed at the customer's site, such as national labs or supercomputing centers—is ideal for strategic clients who require the highest security, system control, and integration with high-performance classical infrastructure.

Business operations manager Mikko Välimäki positioned the new product line to meet market demand. After the first installations in 2026, Välimäki said the company is ready to produce and ship on-premises systems worldwide. He claimed “IQM Halocene is the market demand for big, error-corrected next-generation quantum computers which can empower entire quantum ecosystems”. IQM is known for its collaborative research and development with customers, providing systems worldwide and fostering commercially active quantum ecosystems.

IQM Halocene marked a turning point and gave the international quantum community a powerful new tool. By providing an open, high-fidelity framework for studying logical qubits and QEC, IQM is helping the industry move past the NISQ period and towards game-changing applications. This will bring reliable, fault-tolerant quantum computation closer to reality.

[govindhtech]

IQM Quantum Computers Company Secures $320M To M-Qubit

IQM Quantum PCs

IQM Quantum Computers Gets Record $320 Million Series B Funding for Million-Qubits and Global Growth

The global leader in full-stack superconducting quantum computers, IQM Quantum Computers, raised $320 million (€275 million) in Series B funding. With $600 million in capital, the company may accelerate technology and worldwide expansion.

The company may expedite technological breakthroughs and international expansion with this $600 million investment. Ten Eleven Ventures led IQM's debut in the American investor market with the Series B deal. Further supporting the financing round was Finnish private equity and venture capital firm Tesi, which increased its commitment.

Popular pension funds like Elo Mutual Pension Insurance and Varma Mutual Pension Insurance, strategic corporate investors like Winbond Electronics Corporation and Schwarz Group, and sovereign wealth funds like EIC and Bayern Kapital contributed. IQM's sole placement agency, Goldman Sachs International, took part in this Series B transaction.

With this large capital infusion, IQM will launch many strategic efforts to strengthen its leadership in quantum computing. The company aims to scale from thousand-qubit quantum systems to million-qubit ones by accelerating its technological roadmap to error-corrected systems. To produce fault-tolerant quantum computing quickly, this requires significant R&D. Advanced chip fabrication in Finland is necessary for quantum error reduction and correction technologies and scaling up to one million qubits. The funding will strengthen IQM's capabilities.

Investment will boost IQM's business growth, especially in the US and other key foreign markets, while improving technology. IQM Quantum Computers co-founder and co-CEO Dr. Jan Goetz said, “This funding round will fuel our company growth, with an accelerated tech roadmap towards error corrected systems from thousand to million qubits.” This expansion is strategic.

The appealing on-premises quantum computing technologies and the recently announced cloud offering upgrade promote substantial business growth in the US and other international markets. The company will grow its commercial footprint, data centre infrastructure, and assembly lines globally while upgrading its on-premises and cloud offerings to meet rising demand.

Ten Eleven Ventures being IQM's first U.S. investor was a "catalytic event," says Dr. Goetz. He stressed the need to find “the right venture partner in the U.S. one that could help us scale of technology and deliver value to it partners and customers.” Ten Eleven's vision and history of category leadership made our partnership ideal.

Co-founder and managing general partner Alex Doll explained Ten Eleven Ventures' strategic rationale. Over decades, we have worked with innovative, worldwide teams scaling portfolio firms. Quantum and cybersecurity are linked by stakeholder communities.

Due to our overlap, we can provide the IQM team connections, capital, and advise, Doll said. He said, “We believe that collaborating with businesses at the forefront of the quantum era will be crucial for the future of secure computing, and Ten Eleven’s investment reflects that belief.” IQM's board will also include Alex Doll as part of this large investment.

IQM's rise to global dominance has long impressed Tesi. Tesi's Director of Venture and Growth Investments, Juha Lehtola, said, “IQM has distinguished itself from competitors over the years with significant advancements in its technology roadmap, production capabilities, and client deliveries. We're glad Tesi's new investment strategy helped us spend more in IQM's next phase of growth. Tesi's tireless effort shows its confidence in IQM's technology and business possibilities.

After receiving large Series B funding, IQM Quantum Computers may increase its market share in the US and other key international markets while preserving its European leadership. Investment shows industry trust in IQM's fault-tolerant quantum system vision and rising demand for its cutting-edge quantum computing technologies.

To realise quantum computing's potential and progress beyond noisy intermediate-scale quantum (NISQ) devices, the company is creating error-corrected million-qubit systems. Quantum computers promise computing capacity beyond supercomputers, making such advancements essential for solving complex problems in materials science, drug discovery, financial modelling, and cybersecurity. This round of funding invests in the future of computing, pushing technological limitations, not just in a business.

[govindhtech]

Space Moths, first quantum-powered MMOG by MOTH & Roblox

Space Moths: Understanding Quantum-Powered Video Games The quantum technology company MOTH and independent Roblox game developer Onwards Studios produced the revolutionary massively multiplayer online game (MMOG) “Space Moths” for Roblox. When it launches at Gamescom 2025, this game will revolutionise gaming with quantum computer-generated levels. With its launch, “Space Moths” advances quantum technology beyond research labs and into mainstream entertainment. Quantum Core: ON-Demand Level Generation

MOTH's advanced generative quantum AI algorithm drives “Space Moths”. This cutting-edge algorithm creates “unpredictable yet structured playable worlds” and “endless new game levels” in real time. In contrast to typical game development, “Space Moths” employs live quantum technology to construct its levels in real time. IBM Quantum, IQM Quantum Computers, and VTT provide the foundational quantum computing capacity for this new generation. This united effort shows MOTH's commitment to prove that quantum computing can give players worldwide exciting experiences. According to MOTH CTO Spencer Topel, “With Space Moths, it shows that quantum computers are not just lab-bound experiments, they're usable today.” He adds, “It can create immersive worlds that feel genuinely alive by harnessing quantum dynamics to generate truly unique universes.” An Industry and Innovation Milestone The introduction of “Space Moths” changed the media, entertainment, and quantum sectors. The longstanding issue of simplifying quantum technologies for a wider audience is dealt with. Existing quantum devices may “struggle with errors and scaling issues,” but they have “immense potential to vastly outperform classical, conventional computers on certain tasks.” Recent quantum advancements indicate that “scalable, industry-disrupting quantum computers are closer than previously thought a matter of years, not decades away.” The efficiency of MOTH's quantum approach for "Space Moths" is impressive. It generates “high quality on-demand quantum AI-generated game levels with considerably reduced training sequences”. This feature lets game creators display AI-generated content in unexpected but contextually relevant formats. The game shows how quantum computers might give “real world value today” by offering global gaming experiences. As “the quantum answer to Spacewar,” MOTH CSO James Wootton calls “Space Moths” a huge advancement. He claims MOTH has taken “a significant step beyond any previous quantum game demo and opened the door to a future where creativity is empowered by quantum tools” by employing quantum hardware to generate content on demand in a massively multiplayer game. From Generative Music to Quantum Gaming “Space Moths” builds on MOTH's May generative music experience “RECURSE [infinite mix],” which proved successful. This project showcased MOTH's quantum AI system, a new sort of generative AI developed in collaboration with artist ILĀ. It created changing music from the artist's samples alone. MOTH consciously employed “the same quantum generative engine” in “Space Moths” to construct interactive worlds instead of music. This seamless shift from “quantum-powered music to fully fledged quantum games” showcases MOTH's quantum AI's flexibility and adaptability and advances its aim to generate products and content across the entertainment and media industries. Experience “Space Moths” at Gamescom 2025. Gamescom 2025 participants can play “Space Moths” at MOTH's Stand F052g. In addition to gaming, MOTH has organised some fun activities: The Roblox crew will have a “fireside chat” with MOTH on their stage on Wednesday, August 20th at 12 PM. MOTH's CSO, CTO, and game developer will answer questions and discuss quantum games for Roblox. On Thursday, August 21st at 12 PM, Roblox will host a unique gameplay session on their stage. Visitors can play the game and unlock “secret” content during this session. Importantly, “Space Moths” will be available on Roblox at Gamescom to ensure global participation in this quantum gaming revolution for those who cannot attend.

[govindhtech]

IQM Spark Ignites Quantum era for Students and Researchers

Superconducting Quantum Computing News

Wroclaw University of Science and Technology will launch Poland's first quantum computer in the second quarter. World-leading superconducting quantum computer manufacturer IQM Quantum Computers built it.

The installation of a full-stack quantum computer marked a technological turning point for the nation. The institution can lead computer science research using the 5-qubit quantum computer “IQM Spark.” Computer science undergraduates, researchers, and PhD candidates can use the system. The university's Qubit Quantum Computing Club will likely execute apps on the device initially.

The first low-temperature superconducting qubit quantum computer in the country and Eastern Europe. Polish students will have direct access to a quantum computer for quantum computing programming. Professor Wojciech Bożejko of WUST's Faculty of Information and Communication Technology claimed that the superconducting quantum computer goal involves training IT workers and doing research.

After launching an office in Poland last year, IQM began efforts to assist the country build a quantum computing ecosystem. These include collaborating with key stakeholders, investing in local talent, and accelerating quantum solution market acceptability.

“We are proud to deliver the nation's first quantum computer to strengthen its position as a leading hub in quantum development in Central and Eastern Europe, elevate research, and have the potential to transform modern science and industry,” says IQM Quantum Computers co-CEO Mikko Välimäki.

Sylwia Barthel de Weydenthal, IQM's Chief Commercial Officer and Country Director for Central and Eastern Europe (CEE), says Poland's strengths in physics, mathematics, engineering, and computer science make it ideal for developing indigenous talent and a new generation of scientists and engineers.

The university plans to unveil the system at the Wrocław Centre for Networking and Supercomputing to celebrate its 30th anniversary.

Key Points

Poland's First Superconducting Quantum Computer

IQM Quantum Computers, “a global leader in superconducting quantum computers,” will build Poland's first low-temperature qubit quantum computer. It is a “critical milestone in the country’s technological advancement.”

Timing and Location

The 5-qubit “IQM Spark” system at WUST should launch in the second quarter of 2025. The system is set to be inaugurated at the 30th anniversary of the Wrocław Centre for Networking and Supercomputing.

Mission: Research and Education

The IQM Spark supports “computer science research and education.” With it, researchers, PhD candidates, and computer science students will have “direct access to the actual quantum computer for practical programming in quantum computing”. Early adopters will be university "qubit quantum computing club" members.

Regional Strategic Goals of IQM

The deployment supports IQM's objective to “build a sustainable quantum ecosystem in Central and Eastern Europe.” This strategy involves local partnerships with key players.

Local talent development funding.

This quantum computer demonstrates infrastructure deployment.

Market adoption of quantum solutions accelerated.

Important Figures' Comments:Professor Wojciech Bożejko of WUST emphasised the significance of having the first quantum computer in Eastern Europe using low-temperature superconducting qubit technology. He said the goal is to “conduct research and educate IT specialists” by giving students instant, practical access.

After receiving the country's first quantum computer, IQM Co-CEO Mikko Välimäki said the company hopes to “strengthen its position as a leading hub in quantum development in Central and Eastern Europe, elevate research, and have the potential to transform modern science and industry.”

Sylwia Barthel de Weydenthal, CCO and Country Director of CEE, IQM, called Poland's strengths in “physics, mathematics, engineering, and computer science” the “ideal foundation for nurturing cultivating a new generation of scientists and engineers and supporting local talent.”

Recent Polish Expansion of IQM

The previous year, IQM launched a Polish office, showing its commitment to the region.

Tech Specificity

The report states that the IQM Spark employs “low-temperature superconducting qubit technology,” a quantum computing hardware class.

Implications

Polish deployment of the first superconducting quantum computer has several implications:

Polish Quantum Computing Advancement

It provides a tangible resource for studying and teaching in a rapidly changing field, perhaps making Poland a quantum technology leader in Central and Eastern Europe.

Develop Talent

Students and researchers need hands-on quantum computing experience to learn and master it.

Innovation Potential

This technology may inspire innovation in many sectors by making quantum algorithms and their uses more accessible.

Regional Impact

By developing a bigger quantum ecosystem in the area, IQM's larger approach may lead to future partnerships and advances.

[scienza-magia]

Dalla Finlandia a Bologna Iqm Radiance 54

Calcolo e ricerca al Cineca di Bologna, il computer quantistico più potente d’Italia. Sarà integrato nel supercomputer Leonardo. La dg Poggiani: “Sviluppo rivoluzionario per la nostra attività”. Ecco cosa può fare il dispositivo da 54 qubit e quando arriverà La nuova frontiera del supercalcolo è quella dei computer quantistici. Ed è in arrivo a Bologna il computer quantistico più potente d’Italia: si chiama Iqm Radiance 54, sarà pronto tra pochi mesi (entro settembre) e avrà 54 qubit, la versione quantum dei bit.  Il tutto è frutto della partnership tra il Cineca, uno dei maggiori centri di calcolo in Italia e uno dei più avanzati al mondo per il calcolo ad alte prestazioni, e Iqm Quantum Computers, un’azienda leader globale nell’ambito dei computer quantistici superconduttivi con sedi in tutto il mondo.  L’integrazione con il computer Leonardo Il computer quantistico sarà integrato in Leonardo, uno dei supercomputer più veloci al mondo, con un passo avanti importante in termini di tecnologia e innovazione, con un miglioramento notevole in termini di prestazioni nell’analisi dei dati. 

Il nuovo computer quantistico è realizzato dalla finlandese Iqm e lavorerà al fianco del supercomputer Leonardo Sviluppo rivoluzionario per Cineca “Si tratta di uno sviluppo rivoluzionario per Cineca, che rafforza ulteriormente il nostro ruolo nella gestione di infrastrutture tecnologiche all'avanguardia”, afferma il direttore generale Alessandra Poggiani. "Siamo fiduciosi - ha proseguito - che il nostro lavoro nel calcolo quantistico possa rapidamente tradursi in nuove opportunità, a vantaggio dei nostri membri del consorzio e dell'intero ecosistema che serviamo". “Siamo entusiasti di installare uno dei nostri computer quantistici più potenti al Cineca e di contribuire alla crescita dell'ecosistema quantistico in Italia”, è il commento di Mikko Välimäki, Co-Ceo di Iqm Quantum Computers. Cosa può fare Iqm Radiance 54 “Il nostro computer quantistico a 54 qubit - spiega Välimäki - fornisce una piattaforma all'avanguardia per ricercatori e sviluppatori per iniziare a esplorare nuovi casi d'uso quantistici, che non possono essere emulati su nessun hardware classico”. In un’intervista rilasciata alla fine del 2023, l’ex rettore dell’Università di Bologna Francesco Ubertini ne aveva preannunciato l’arrivo: “Parliamo di una tecnologia emergente. – aveva spiegato - Leonardo fa 250 milioni di miliardi di operazioni al secondo. Per capirci: un’ora di lavoro di Leonardo equivale a 920 anni di lavoro di un computer portatile. Il quantistico è una macchina ancora più potente e rapida, ma consuma meno". Read the full article