#quantumnetwork

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Telecom-Compatible Quantum Nodes via Erbium-Doped EuCl3

Rare-Earth Crystal Advancements Allow a Quantum Internet Compatible with Telecom Service

Telecom-Friendly Quantum Nodes

A multinational team of scientists created telecom-compatible quantum nodes using a dual-species rare-earth crystal, advancing global quantum communications. This research discusses how doping erbium ions into a europium-based host could improve optical interface and quantum storage.

The initiative involved the International Quantum Academy, Australian National University, and Shenzhen SUSTech experts. Quantum networking requires quantum repeaters that can store data for a long period and work with regular telecommunications infrastructure. Their research addresses this.

Quantum Gap Filling

A quantum internet uses quantum repeaters as relay stations to extend quantum messages over long fiber-optic cable distances. These repeaters require a platform to transmit and store quantum states with telecom wavelength photons.

The team employs erbium-doped stoichiometric EuCl3 ⋅ 6H2O crystals. Both rare-earth elements serve complimentary roles in this “dual-species” system. The scientific community knows europium's (Eu3+) extraordinary coherence, which is essential for long-term quantum storage. Erbium (Er3+) is ideal for optical interfacing with standard fiber networks due to its direct telecom-band emission and microwave compatibility.

“Frozen Core” Innovation

The study's discovery of a “frozen core” influence is surprising. The researchers used the spins of the erbium ions to shield the quantum states of the europium ions by cooling the crystal to 60 mK and applying a modest magnetic field of 0.1 T.

This raised Eu3+ optical coherence time from 62 to 162 microseconds, which the authors say is approaching the theoretical lifespan limit. This interaction enabled hour-long hyperfine state lifetimes, which are necessary for ultra-long-term quantum storage and may help satisfy the 10-hour criteria proposed in related high-performance research.

The researchers also measured the intensity of Er3+ and Eu3+ ion contact, which ranged from tens to hundreds of kilohertz. This interaction shifts the optical transition frequencies of europium ions, creating “satellite lines” in the absorption profile for accurate quantum control.

A Global Future Technology Collaboration

The team developed the project concept with F. Wang, R. Ahlefeldt, M. Sellars, and M. Zhong. At SUSTech, Mucheng Guo and Wanting Xiao spearheaded the experimental effort, while numerous Shenzhen and Canberra team members did theoretical modeling and analysis.

This project received financing from the National Natural Science Foundation of China and the National Science and Technology Primary Project of China. This investment shows the strategic importance of rare-earth materials in photonic quantum technology development.

Toward Quantum Network

The consequences of this work reach beyond the lab. The team has proven that combining the stabilizing and linking features of erbium and europium may develop a promising quantum node material.

Rare-earth-doped antiferromagnets and single erbium ions in solids have been studied, but the dual-species stoichiometric crystal can be used in telecom-compatible architectures. As safe, fast quantum communication becomes more important, these crystals could form a global quantum internet.

Researchers say these findings show rare-earth systems' exceptional potential for quantum information processing and its eventual usage in quantum repeaters and optics. As the study is finalized, scientists expect to integrate this dual-species platform into broader quantum networks.

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RoNaQCI: Romania’s Quantum Network by IonQ & ID Quantique

Romania's Historic Quantum Network (RoNaQCI) Protects Over 1,500 Kilometres of National Infrastructure with IonQ and ID Quantique

Overview

By building a massive quantum communication network in Romania, IonQ reached a major cybersecurity milestone in Europe. This infrastructure protects essential data transfers from sophisticated internet threats with over 1,500 kilometers of fiber and Quantum Key Distribution. The project links six major metropolitan areas and several academic institutions as part of EuroQCI. Quantum-secure technologies defend government, healthcare, and banking nationally, as shown by this deployment. This achievement strengthens the company's position as the world's premier quantum networking solutions provider.

RouNaQCI: Romanian National Quantum Communication Infrastructure

ID Quantique (IDQ), a subsidiary of IonQ (NYSE: IONQ), announced today that it has deployed the technology behind the Romanian National Quantum Communication Infrastructure (RoNaQCI). This milestone built one of Europe's largest and most complex operational Quantum Key Distribution (QKD) networks. This deployment is second only to Chinese infrastructure in importance worldwide.

National Science and Technology University To deploy RoNaQCI, POLITEHNICA Bucharest and RoEduNet, Romania's research and education network, collaborated. This countrywide network uses solely IonQ's commercially available QKD technology, proving that quantum-secure communications are scalable and functional for national infrastructure.

A New European Quantum Security Benchmark

The deployment is essential in the EU's objective to protect vital communications from cyberthreats, particularly those from powerful quantum computers. Romania is a leader in the EuroQCI effort to build a continental quantum communication network utilizing this technology.

The Romanian network is vast. The 36 quantum-secured wires extend nearly 1,500 kilometers. Interestingly, this one country project has installed almost 20% of Europe's terrestrial quantum communications equipment.

"IonQ is proud to support this extensive quantum-secure communications network across Europe," commented Niccolo de Masi, chairman and CEO of IonQ. He noted that the deployment shows QKD's potential to scale to protect national security and private data in government, healthcare, research, education, and data centers.

Links major metropolitan hubs

Bucharest, Iași, Timișoara, Craiova, Cluj-Napoca, and Constanța—six of Romania's biggest cities—are connected by the high-security RoNaQCI network. End-to-end encryption keys ensure data security on the network.

Wavelength Division Multiplexing is used in the advanced design. This allows the transmission of quantum keys in the C-band alongside ordinary data traffic in the network's urban areas, indicating quantum security is possible in present telecommunications infrastructures.

Prof. Pantelimon George Popescu, Head of the Quantum Computing Laboratory at POLITEHNICA Bucharest, says the infrastructure provides a “practical foundation for secure data exchange” and promotes the European goal of interoperable quantum networks.

A Teamwork Success

A collaborative approach made RoNaQCI deployment successful. Twelve Romanian institutions, seven research institutes, and three government organizations joined the effort. ID Quantique supplied all national QKD systems to ensure network performance and compatibility.

Grégoire Ribordy, vice president of science at IonQ and co-founder of ID Quantique, said the network is the result of over 20 years of work to make quantum key distribution a reliable infrastructure for businesses and governments. He added that the project shows that present telecommunications infrastructure can support large, complex networks.

IonQ Expands throughout Europe

IonQ has taken several risks to accelerate quantum-secure communications in EMEA, including Romania. These are recent firm activities:

Slovakia will establish its first quantum communication network with the Slovak Academy of Sciences.

Launch of Geneva Quantum Network.

Italy: Supporting the Q-Alliance with Italian authorities.

Oxford, UK: IonQ's EMEA headquarters shows its commitment to European quantum efforts.

Leading Quantum Era

IonQ is smashing quantum computing and networking records. The company set a global record of 99.99% two-qubit gate fidelity in 2025. IonQ Tempo, their next computer, will help partners like AstraZeneca, NVIDIA, and Amazon Web Services innovate in financial modeling, materials research, and medication development.

IonQ is becoming the top “merchant supplier” of integrated quantum solutions with operations in South Korea, Switzerland, networking, computing, and sensing with over 1,300 employees.

The RoNaQCI network begins operations and serves as a model for other EuroQCI countries, ushering in the “Quantum Era” of communication.

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Entanglement Summoning Explained For The Quantum Internet

Quantum networking took a major step forward when University of Waterloo and Perimeter Institute for Theoretical Physics researchers solved the long-standing question of how to control “spooky action at a distance” within a physical network. The study, led by Lana Bozanic, Alex May, and Stanley Miao, provides the first comprehensive “instruction manual” for producing and disseminating quantum entanglement in complex networks.

Knowing Entanglement Summoning

Quantum challenges must be understood to understand the breakthrough. A traditional network simply copies and sends files between sites. The quantum domain has different rules:

The core principle of the No-Cloning Theorem prevents the creation of identical copies of unknown quantum states.

The theory of relativity states that no information can move faster than light.

Causal Connections: Many networks restrict communication to specific laboratories and routes.

Entanglement summoning avoids these problems. Despite communication issues, parties work together to fulfill urgent quantum state needs.

“Two-Clique” Breakthrough

Deceptively simple mathematical rules for bidirected causal linkages are the Waterloo and Perimeter Institute team's main breakthrough. Graph theory defines a “clique” as a set of nodes that are all connected.

The researchers showed that entanglement summoning in a two-way (bidirected) network is possible only if its "causal graph" (map of communication links) admits a two-clique split. Two fully connected groups are required in the network.

This simple condition allows engineers to quickly determine if a network structure can handle high-priority entanglement demands without trial-and-error.

Creating State Design from Communication

A major breakthrough of this research is the connection between communication theory and quantum state engineering. The group demonstrated that establishing a quantum state with specific entanglement properties is similar to summoning it.

An entanglement sharing approach is like bidirected edge entanglement summoning. Participants hold subsystems of a larger quantum state to recover entangled states using local operations. By using a graph from the causal network's “complement” to solve summoning problems, researchers can use present entanglement sharing knowledge.

This move shifts quantum networking from “sending” a state via a wire to “summoning” it from a pre-distributed field of entanglement by using multi-party entangled states as a “buffer” or buffer.

What This Means for the Future Quantum Internet

Real-world infrastructure, like rivers, rarely operates in one direction, but 2024 and previous research focused on “one-way” summoning. Modern nodes like satellites and quantum repeaters require two-way communication.

This research resolves the bidirected case, providing tools for the Quantum Internet:

Optimizing Resources: Engineers can save quantum resources to be “summoned” when needed.

Bypassing Bottlenecks: Requests can be processed even if some nodes cannot communicate at the time they are made.

Reliability Assessment: It provides a mathematically guaranteed benchmark for networks that sustain entanglement distribution.

Security, Spacetime Processing

The consequences of this work go beyond data transport. It immediately passes Quantum Position Verification, a security method that uses light to verify a user's position. These techniques require spacetime entanglement to detect deception.

Entanglement summoning is essential for complex scenarios like:

Secure Communication: creating unbreakable distance connections. Distributed quantum computation: Linking quantum computers worldwide to form a massive processor.

Distributed entanglement improves measurement precision in advanced quantum sensing.

To conclude

Bozanic, May, and Miao laid the mathematical groundwork for a universe where quantum entanglement can be summoned by giving both necessary and sufficient conditions. Establishing the necessary and sufficient conditions for bidirected entanglement summons provides the mathematical foundation for a global quantum network.

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QuantumSavory For Quantum Computing and Networking

QuantumSavory, the New Open-Source Toolkit Quantum Network Simulation Gap Filling QuantumSavory

Despite the rapid growth of quantum computing and networking, researchers have struggled to easily transition from high-level protocol design to low-level numerical simulation. Scientists previously had to choose between abstract models without physical reality or computationally intensive high-fidelity simulations. Moving between these realms sometimes required rewriting codebases.

A multi-institutional partnership introduced QuantumSavory, a single framework to address friction. The toolset, developed by researchers from the Flatiron Institute, UM Amherst, and UA's NSF-ERC Centre for Quantum Networks, allows “write once, run anywhere” quantum models. By separating the symbolic description of a system from its numerical simulation, QuantumSavory lets researchers swiftly evaluate accuracy-performance tradeoffs.

Architecture: Symbolic Blueprints and Numerical Engines

The main innovation of QuantumSavory is its decoupled design. A symbolic frontend lets users build quantum protocols, gates, and network topologies using abstract mathematical terms. This frontend defines the system's behaviour without forcing the user to dictate how the computer computes results. Numerous numerical backends connect to this blueprint. Researcher needs can determine simulation method: High-precision, small-scale wavefunction for simulations. Stabiliser formalisms for huge systems. Tensor networks for complex many-body dynamics. This separation allows a scientist to accurately test a novel routing protocol on a small scale and scale the simulation to a large network by switching to a performance-oriented backend with little code changes.

A Full-Stack Quantum Internet Approach

Due to its full-stack design, QuantumSavory covers all quantum networking layers. It simulates high-level networking protocols, classical control software, qubits, and their noise. One of its best features is discrete-event execution, which replicates quantum and classical component timing and interactions. This is necessary to imitate “asynchronous” real-world events like a photon reaching a detector or a classical acknowledgement (ACK) message going across a fibre optic connection. The toolkit adds heterogeneous register abstraction. QubitSavory can simulate mixed systems in which multiple qubit types with different physical properties and noise profiles interact and coordinate.

Solving Complexity with Tag and Query

An innovative communications architecture called Tag and Query helps QuantumSavory handle distributed network complexity. Instead of tight object graphs or proprietary message plumbing, simulated network nodes coordinate by publishing and consuming “semantic facts”. Tags attach organised classical metadata to quantum registers, while searches use wildcards or predicates to retrieve or filter such metadata. This creates a data-driven control plane where nodes can exchange resource availability, pairing relationships, and protocol outcomes without manually monitoring each classical bit. This strategy improves composability and reuse as models become more complex.

Faster Protocol Development and Innovation

QuantumSavory's “out of the box” components let researchers focus on protocol development rather than fundamental physics reconstruction for each experiment. The toolbox includes reusable libraries for major building blocks: Quantum Key Distribution (QKD): Testing cryptographic key security and speed across large distances. Quantum Repeaters: mimicking entanglement switching and purification to extend network range. QEC: Simulating code behaviour in noisy, realistic situations. These libraries allow little “glue code” to assemble, alter, and compare full-stack applications like qTCP and entanglement distribution. Future: Machine Learning and Scalability Development team members Hana KimLee, Leonardo Bacciottini, Abhishek Bhatt, Andrew Kille, and Stefan Krastanov are considering future upgrades. One of the most ambitious goals is surrogate component integration. The team aims to create machine learning-based “learnt models” that simulate complex sub-simulations. This would boost speed without sacrificing precision. Future versions aim to provide more robust tensor network capabilities, higher-fidelity channel models, and an open-source graphical user interface to make the tool more accessible to scientists and engineers who are not numerical physicists. Conclusion: Global Reality Catalyst There are various technical trade-offs to a workable quantum internet. Hardware decisions affect software, and protocols that work in principle often go down in practice. QuantumSavory gives scientists a “sandbox” for quick optimisation and failure. It is a key infrastructure that could accelerate quantum networking from academic curiosity to global reality. More than a simulator. Its open-source nature encourages international cooperation, ensuring that quantum technology is understood and controlled as it evolves. Imagine an architect (the researcher) who can construct a single skyscraper blueprint (the symbolic protocol) to see this framework's possibilities. The same architect can utilise QuantumSavory to instantly see how the structure would look in carbon fibre, steel, or wood (the numerical backends) without redrawing the design. It separates material physics from structural vision.

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Quantum Internet in the Sky Using Satellites, UAVs, and FSO

The Quantum Internet in the Sky envisions ubiquitous communication using UAVs and satellites.

Quantum Internet in the Sky

Researchers are exploring the possibility of a “Internet in the Sky” since a global internet requires communication links that transcend terrestrial infrastructure. Satellites and UAVs provide safe, long-distance quantum communications using free-space optical (FSO) channels in this global-scale hypothetical network. This method overcomes terrestrial fibre optics' distance limits, which produce exponential loss for quantum transmissions.

Phuc V. Trinh and Shinya Sugiura of the University of Tokyo are leading this ubiquitous connection research. Their effort involves installing quantum communication terminals on non-terrestrial platforms and solving intrinsic difficulties through system designs and analysis. The study provides a big step towards global connectivity by integrating enhanced communication with compute and AI to support many users.

Multi-Layer Quantum Network Design

The intended “Quantum Internet in the Sky” envisions a multi-layered airborne platform network. This design distributes quantum information like entangled photons across an enhanced three-dimensional mesh network to overcome the disadvantages of ground-based quantum communication.

Multiple layers make up the architecture:

Ground Layer: This layer includes terrestrial free-space links and classical fibre networks for connecting metropolitan quantum nodes.

Low-altitude platform stations (LAPS) are the UAV layer. Drones below five km provide a movable, adaptive infrastructure. They aid on-demand local and regional connectivity, especially “last-mile” key exchange in urban or catastrophe situations.

High-Altitude Platform Stations (HAPS): These stratospheric platforms give significant regional coverage at 20 km. HAPS are vital relay nodes that stabilise communication since they fly above most atmospheric disturbance.

Satellite Layer: Low Earth Orbit (LEO) satellites 500–2,000 kilometres above the ground form the world's backbone. QKD and transcontinental entanglement distribution over thousands of kilometres are conceivable due to space's near-vacuum, which greatly reduces signal loss.

Free-Space Optics Aids Quantum Security

This aerial network aims to provide quantum keys and entanglement to faraway nodes. Free-Space Optics (FSO) sends quantum information into space using direct line-of-sight communications and laser beams.

QKD, which provides information-theoretically secure communication, is the most urgent use case. QKD immediately alerts the chatting parties to any eavesdropper attempt to measure the quantum state. Satellites and unmanned aerial vehicles can also transmit entangled photon pairs. This allows Entanglement Swapping, which creates “virtual” entangled connections between nodes without physical links, for long-distance quantum teleportation and distributed quantum computing.

Technical Solutions for Airborne Communication Issues Quantum links employing airborne platforms are complicated by platform movement, atmospheric turbulence, and signal attenuation. Researchers have designed and tested rigorous system designs to solve these issues.

A minimal transmission divergence of 33 microrad achieves fidelity above 80% even during the day, according to studies. To maintain high performance, researchers recommend a beam-divergence control system that dynamically adjusts beam size to balance fidelity and connection availability.

Ground stations use aperture-averaging effects to mitigate turbulence-induced signal fluctuations with 0.4–1.5-meter telescope apertures.

Analysis showed the importance of wavelength selection and adaptive optics. Research shows that 1550 nm is more turbulence-resistant than 810 nm for LEO satellite communications. A cutting-edge adaptive optics system with a 1.5 kHz control bandwidth and 80-degree zenith angles can correct 1550 nm turbulence-induced wavefront aberrations. Use of advanced superconducting nanowire single-photon detectors requires low-loss coupling of the free-space beam into a single-mode fibre. By combining adaptive optics and fine-tracking, this is achieved.

Implementing Quantum Intelligence for Global Services

This work lays the framework for intercontinental terrestrial-non-terrestrial quantum networks. Quantum communication must be combined with cutting-edge quantum technologies like intelligence, processing, and sensing, according to the study.

AI and high-dimensional multipartite quantum communications are the final steps to a fully functional Quantum Internet. This advanced infrastructure promises real-time environmental monitoring and optimized autonomous vehicle operation, enabling ubiquitous quantum services.

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QuNET Project: Germany’s in Hybrid Quantum Key Distribution

German Fibre and Mobile Networks Reach Historic Hybrid Quantum Key Distribution

QuNET Project

Germany made a major step towards secure digital communication by proving quantum key distribution (QKD) works over hybrid and mobile networks. QuNET researchers accomplished this. QuNET is preparing to expand these systems from regional test locations to a countrywide quantum network linking many German cities.

Quantum Security Strengthens Technological Sovereignty

This accomplishment shows Germany's commitment to cybersecurity technical sovereignty and advances quantum-secured networks. Due to developing computer technologies' limitations to classical encryption, quantum communication is growing in importance.

QKD uses quantum physics to build secure digital keys. Most QKD signals contain only a few photons, therefore keys cannot be copied without detection. This advancement is supported by the German Federal Ministry for Research, Technology, and Space, which has donated €125 million (US $145 million) to QuNET.

QuNET's key partners include Fraunhofer IOF, Fraunhofer HHI, Max Planck Institute for the Science of Light, Friedrich-Alexander University Erlangen-Nuremberg, and DLR Institute of Communication and Navigation.

Combining Protocols and Links Several experiments in the latest study show significant gains in integrating different technologies into a workable system. Dr. Matthias Goy of Fraunhofer IOF said the team proved that “different QKD protocols and link types can be integrated into a functioning overall network”. No global publication has shown this integration heterogeneity.

Over the past four years, the consortium has completed several practical tests to prove its practicality under difficult conditions:

Two federal agencies had the first quantum-secured virtual conference in 2021. In 2023, Jena demonstrated ad hoc point-to-point connectivity.

The Berlin municipal fibre network transmitted personal data safely in 2024.

In 2025, researchers delivered quantum data to a DLR research plane to check mobile compatibility.

Each benchmark revealed how effectively the system worked in increasingly complex and realistic circumstances.

Mobility in Secure Networks

The researchers struggled with stability because quantum signals degrade quickly, especially in turbulent air. The team tried many Jena systems that employed free-jet technology to convey keys through air columns to tackle this problem.

Creating secure long-distance, transitory, and mobile channels requires this method. Researchers can also bridge communication gaps in locations lacking fibre infrastructure.

Hardware and software integration was key. The networks must combine future satellite nodes, fibre, and free-space optical communication. Tests show that diverse architectures can coexist without compromising system security.

The effort helps Germany develop technological understanding and reduce dependency in a future security-critical subject, Dr. Goy added. These developments demonstrate progress towards creating a scalable, future-proof system that can adapt to quantum hardware.

Moving to a National Hybrid Network

The next critical step is creating a hybrid national quantum network connecting Berlin, Jena, Erlangen, and Oberpfaffenhofen beyond local testing. This massive concept uses fibre lines, free-space connectivity, and optical ground stations for satellite communications.

This connection prepares the shift from small test sites to scalable networks, Dr. Goy said.

The long-term goal of QuNET is to build a sovereign quantum network for infrastructure, business, and government. This rollout establishes a secure communication age across Europe and marks a major step from experimentation to deployment.

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IonQ & Swiss Consortium’s Geneva’s Citywide Quantum Network

IonQ and Swiss Consortium Launch Geneva's First Citywide Quantum Network

IonQ and Swiss Consortium

World-leading quantum business IonQ established the first citywide quantum network for communication and research in Geneva, Switzerland. A unprecedented public-private partnership with respected Swiss partners includes this achievement. The Geneva Quantum Network (GQN) is the country's first specialised quantum network that unites regional institutions.

GQN was founded to promote quantum communications and cybersecurity cooperation, research, and innovation.

Leading Academic, Business, and Public Institutions Consortium

The Geneva Quantum Network required top-tier public, business, and academic organisations. CERN, UNIGE, Rolex SA, OCSIN, and HEPIA are IonQ consortium members.

IonQ Chairman and CEO Niccolo de Masi said this partnership with Rolex and CERN showcases IP and quantum cybersecurity and communication leadership. He said partnership with Geneva's leading government, corporate, and academic institutions is enabling practical quantum communications, speeding up research, and growing IonQ's ecosystem across many economic sectors.

Quantum Communication with Existing Infrastructure Effective use of present infrastructure was key to GQN deployment. IonQ used hundreds of miles of fibre optic infrastructure to connect Geneva partners.

Installation of IDQ's quantum key distribution (QKD) and quantum detection devices throughout the OCSIN fibre optic backbone supports the network's design. Early GQN experiments will study the dispersion of entangled photons between CERN, UNIGE, and HEPIA to study quantum information transfer across distances.

Partner Contributions to Sensing and Precision

The Swiss consortium partners' distinctive contributions are crucial to the network's functionality:

Rolex SA produces precise time signals. The company's cutting-edge optical rubidium atomic clock generates these pulses.

White Rabbit synchronisation technology, developed at CERN, will be used by the GQN to distribute precise time signals. These precise signals are necessary for basic communications and time measurement.

The installation of a distributed temperature sensor along network fibres falls under HEPIA. This sensor's high spatial resolution comes from single photon detectors.

QKD and quantum detection devices are implemented across a Cantonal Office for Information devices and Digital Technology fibre optic backbone.

Global Strategy and Quantum Leadership at IonQ

The GQN brings together industry, government, and academic stakeholders to help IonQ build scalable quantum infrastructure worldwide by combining quantum networking, sensing, and computation. The GQN builds on IonQ's recent global announcements. Oxford is IonQ's EMEA headquarters, the company is Korea's National Quantum Centre of Excellence's major quantum partner, and the Italian government wants Italy to be a quantum hub.

IonQ, Inc., the world's premier quantum corporation, address humanity's most complicated problems. In 2025, the company broke the global quantum computing performance record with a two-qubit gate fidelity of 99.99%. IonQ Forte Enterprise and IonQ Tempo quantum computers have helped NVIDIA, AstraZeneca, and Amazon Web Services reach 20x performance results.

Accelerating Quantum Future

IonQ's tech roadmap is advancing quickly. With two million qubits, the company wants to build the most powerful quantum computers by 2030. This endeavour aims to accelerate innovation in cybersecurity, materials research, financial modelling, logistics, pharmaceutical development, and defence. IonQ's recent quantum networking advancements, including GQN, strengthen its role as a quantum internet pioneer.

With sites in Sweden, South Korea, Switzerland, the UK, Toronto, Washington, California, and Maryland, IonQ operates globally. Forbes' 2025 Most Successful Mid-Cap Companies, Fortune Future 50, and Newsweek's 2025 Excellence Index 1000 recognize the company's breakthrough innovations and quick development. IonQ sells its devices through all major cloud providers to spread quantum technology.

Forward-looking statements

Press release contains forward-looking information. This document's non-historical material is forward-looking. Risks, uncertainties, and assumptions may cause these estimates to yield dramatically different results. Based only on press release-date predictions and assumptions of future events. Forward-looking statements are only current as of the date they were made, therefore investors should not overuse them. IonQ does not update forward-looking statements unless required by law.

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ASP Isotopes News: Barium-137 Order For Quantum Computing

ASP Isotopes news

ASP Isotopes Gain Vital Barium-137 Order, Demonstrating Their Function in Next-Generation Quantum Computing Scaling

A important milestone in ASP Isotopes Inc.'s quantum technology commitment was announced. Advanced materials company ASP Isotopes Inc. develops isotope manufacturing technology for many sectors. A U.S. consumer ordered enhanced barium-137 from the company. This highly specialised substance is expected in Q1 2026.

Scalable quantum machines depend on barium-137. The announcement highlights how enriched Barium-137 is becoming more commonly recognised as essential for ion-trap quantum computing. One of the most promising technologies for large-scale quantum machine development is ion-trap quantum computing.

Because enriched Barium-137 is a reliable qubit platform, its purity is critical. This homogeneity improves quantum processor reliability and reduces control system complexity. The material's consistency is beneficial and important for quantum system scaling. It helps bridge the huge gap between today's modest research devices and the fault-tolerant quantum computers planned to handle difficult real-world problems.

Additionally, elevated Barium-137 has visual benefits. It operates well at visible light wavelengths that are accessible. These features aid future quantum architecture development and hardware integration. Future architectures include quantum networking and modular systems, which combine CPUs to boost processing power.

Enriched barium-137 is expected to become a major component as industrial demand for larger, economically viable quantum computers rises across numerous industries. Because of its reliable performance, it is crucial to the industry's shift from lab research to scalable, real-world technology.

Strategic Advanced Materials Market Positioning ASP Isotopes CEO Robert Ainscow stressed the strategic relevance of the recent order. He called the enriched Barium-137 purchase order a “important achievement” in the company's aim to become a significant supplier of cutting-edge materials to quantum computing.

Ainscow expects customer demand to rise because to enriched Barium-137's revolutionary potential for scalable quantum structures. He expressed trust in ASP Isotopes' ability to successfully produce and distribute several industrial isotopes, such as Barium-137 and Silicon-28. He concluded by expressing the company's passion for promoting breakthrough technologies and bringing quantum computing from research labs to commercial applications.

ASP Isotopes' Chief Commercial Officer, Viktor Petkov, explained how the purchase order fits within the company's market strategy. Petkov calls the order a “testament” to ASP Isotopes' “multi-isotope, multi-use, multi-customer electronic gases strategy” of where their products fit.

Petkov calls the electronic gases and novel materials market one of the most exciting and significant growth sectors. In addition to quantum computing, semiconductors, AI, data centre development, and other high-tech applications require isotopically pure gases and materials. ASP Isotopes intends to build a scalable business model that will support future-changing technology and efficiently serve multiple sectors from its central location in this increasing supply chain.

ASP Isotopes' Technology and Portfolio Growth

ASP Isotopes Inc. develops novel materials. It develops proprietary technology and processes to manufacture isotopes for various businesses. The company's distinctive technology is the Aerodynamic Separation Process (ASP).

The company's main focus is producing and selling highly enriched isotopes for technology and healthcare. The company is developing Quantum Enrichment technology for nuclear energy isotope enrichment. Enrichment facilities are operated by ASP Isotopes in Pretoria, South Africa. Only light isotopes of elements with low atomic masses are enriched at these facilities.

The demand for specific isotopes is rising rapidly. Silicon-28, like Barium-137, is intended to aid quantum computing. Additionally, unique and developing medicinal uses require isotopes including nickel-64, zinc-68, ytterbium-176, molybdenum-100, and molybdenum-98. Uranium-235, lithium-6, and chlorine-37 are also sought for green energy. According to the business, its ASP technique is perfect for enriching low and heavy atomic mass compounds. ASP technique is ideal for enriching low and heavy atomic mass compounds, according to the business.

In conclusion

This purchase order for enriched Barium-137 is a major step towards ASP Isotopes' entry into the fast-growing quantum computing market. Due to its ability to allow scalable, modular designs and provide reliable qubit performance, the material is vital for global quantum technology commercialisation.