QuiX Quantum’s Post

Thanks to the QuiX Quantum team for sharing my SDxCentral article. It was a fascinating story to cover, particularly the focus on building quantum systems designed to integrate with existing data center infrastructure rather than remaining confined to the lab.

The Post-Error Era of Quantum Computing is Here. Introducing the Kagometa™ K-256T QPU. For years, the quantum computing industry has been locked in a battle against decoherence, requiring million-dollar dilution refrigerators and millions of error-correcting physical qubits just to perform basic operations. I am incredibly proud to announce that the team at Borealis Energy Systems has shattered this paradigm. We have successfully developed and validated the Kagometa™ K-256T—the world’s first ambient-pressure, fault-tolerant topological quantum processor. By engineering a proprietary metastable metamaterial anchored in Kagome lattice geometry, we have moved quantum information storage away from fragile electrical charges and into the physical topology of the material itself. What this means for the future of enterprise computing: Zero-Error Topological Protection: Data is encoded via Majorana edge modes. Environmental noise cannot disrupt the computational braids, entirely eliminating the need for massive software error-correction overhead. A True 1-to-1 Logical Ratio: The K-256T delivers 256 fully usable, topological logical qubits, providing the computational density required for intractable supply chain optimization and molecular simulation. Rack-Ready Architecture: We have eliminated the need for liquid helium. The K-256T operates at liquid nitrogen temperatures (-196°C) and remains stable at ambient pressure. It is packaged in a standard PCIe 6.0 form factor, ready to integrate directly into existing high-performance data centers. Zero-Drift Reliability: In our longitudinal 72-hour endurance benchmarks, the processor exhibited zero calibration drift and maintained an impeccable logical state. We are not just scaling quantum computing; we are fundamentally changing the hardware that drives it. I want to extend my deepest gratitude to everyone who supported this vision. The transition from theoretical condensed matter physics to a manufacturable, commercial-grade quantum processor has been the challenge of a lifetime, and we are just getting started. Welcome to the future of rack-ready quantum supercomputing. #QuantumComputing #DeepTech #TopologicalMaterials #Superconductivity #Innovation #BorealisEnergySystems #Semiconductors #FutureOfCompute

🚀 A New Milestone in Room-Temperature Quantum Computing SAXON Q has introduced a promising advancement in quantum hardware with its diamond-based quantum systems designed to operate at room temperature—eliminating the need for cryogenic cooling. This represents a fascinating alternative approach to scaling quantum computing. Instead of relying on ultra-cold infrastructure, SAXON Q is exploring synthetic diamond and nitrogen-vacancy (NV) center technology, which could make quantum hardware more practical, accessible, and easier to deploy. Why this matters: ✅ Room-temperature operation ✅ No dilution refrigerators ✅ Lower infrastructure complexity ✅ Greater potential for real-world experimentation and commercialization While this is an exciting development, the true measure of progress will depend on key performance metrics such as: • Coherence time • Error rates • Benchmarking results • Independent validation • Scalability The future of quantum computing isn't just about increasing the number of qubits—it's about building systems that are practical, reliable, and capable of solving real-world problems. What do you think will define the next breakthrough in quantum computing? 🔹 Higher qubit count? 🔹 Better hardware practicality? 🔹 Improved fidelity and error correction? I'd love to hear your perspective in the comments. #QuantumComputing #QuantumTechnology #Innovation #DeepTech #ArtificialIntelligence #FutureTech #Research #Computing #Technology #SAXONQ

Check out the research study that shows quantum entanglement can be transmitted over existing 24.4-km fiber-optic networks while regular high-speed classical data is being sent at the same time. By carefully choosing wavelengths and using narrow filters, this study team maintained good quantum signal quality even alongside 36-Tbps classical communication, showing that quantum networks could be added to current communication infrastructure without replacing it. #quantumnetworks #innovation #research

512 qubits. Room temperature. No dilution refrigerator. 🤯 Quantum computing may have just taken a major step toward becoming practical. SAXON Q has announced the SXQ512, a 512-qubit quantum computer powered by diamond NV-center qubits that operates at room temperature. 🚀 Unlike traditional quantum systems that require temperatures colder than outer space, this approach aims to eliminate complex cooling infrastructure and make quantum hardware far more accessible. That doesn’t automatically make it the most powerful quantum computer. In quantum computing, qubit count is only part of the story. Fidelity, error rates, connectivity, and real-world benchmark performance will ultimately determine how significant this breakthrough is. Still, if these claims are validated independently, this could mark an important shift toward practical quantum computing beyond research labs. The race isn’t just about building more qubits anymore. It’s about building usable quantum computers. ⚛️ #QuantumComputing #SAXONQ #Innovation #DeepTech #FutureOfTechnology #AI #Computing #TechNews

Why Quantum Computing Could Be the Biggest Technological Shift of This Decade While artificial intelligence dominates current headlines, scalable quantum computing is quietly approaching a major inflection point. Featuring advanced hardware architecture and rapid microsecond operations, quantum systems are set to transform complex problem-solving across engineering, science, and industry. How soon do you believe quantum computing will surpass traditional supercomputers? Let us know in the comments. For the latest news → @hassanadx Source: Instagram / @hok_consulting Disclaimer: This content is informational purposes only and based on available reports. #QuantumComputing #Technology #FutureTech #Innovation #Computing #TechNews #HassanAdx

Quantum computing’s biggest number may be its most misleading. More qubits ≠ more useful computing. The real breakthrough is not building the biggest machine. It is keeping enough qubits stable, connected and error-corrected long enough to solve a valuable problem—reliably. In my new white paper, Beyond the Qubit Count, I examine what the headlines often miss: ⚡ Physical qubits versus logical qubits ⚡ The enormous cost of error correction ⚡ Why fault tolerance remains the real frontier ⚡ Seven questions every technology leader should ask Quantum computing is real. But counting qubits is not the same as measuring progress. 📘 Read the white paper. Challenge the metric. Rethink the future. If qubit count is not the right measure, what should be? #QuantumComputing #DeepTech #Innovation #FutureTech #TechnologyLeadership #DigitalTransformation #LokeshNara

Quantum Computing Quantum computing could transform science, security and industry. But breakthrough technology requires new foundations: precision infrastructure, secure environments and resilient power. The next computing revolution must be built for it. #QuantumComputing #DeepTech #CriticalInfrastructure #Innovation #UKTechCorp

Great paper by Mikhail Korobko and his colleagues about hyperloss in squeezed light quantum networks. Have a look to learn about its effects and what can be done about it.

We all know that loss is bad. Especially if you're trying to build an optical quantum network: a sensor, a quantum computer or a gravitational-wave detector. Sometimes even a few % of loss have a significant performance impact. Imagine how bad could be...𝗵𝘆𝗽𝗲𝗿loss?! Our new paper in Nature Communications is exactly about that: https://lnkd.in/evmBZQET In this paper we tell about our discovery of this hyperloss mechanism with squeezed light. Hyperloss can completely destroy quantum correlations in the network even at the same few % of power loss. Not just destroy them: starting with a highly quantum state, you end up with a thermal-like state (which is way worse than not using quantum at all). All it takes is a coupling to another spatial optical mode at the nodes of the network. Bad news: any quantum network using squeezed light is in danger — hyperloss will happen as the quality of squeezing improves in the future. Good news: we also tell how to deal with it, turning it into a useful tool. In our paper we experimentally demonstrate how 5.8dB of squeezed state turns into an effectively thermal state with just 8% of mode mixing at two interfaces. 15% of loss turns into 100+% (yeah I know it doesn't make sense). Yet if we use careful engineering of the setup, we turn these 15% of loss into less than 3%, recovering most of the lost correlations. Read the paper here: https://lnkd.in/evmBZQET #Quantum #QuantumOptics #QuantumNetwork #QuantumComputer #Decoherence