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Podcast with Stephen DiAdamo, Co-founder and CTO of Qoro Quantum
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Podcast with Stephen DiAdamo, Co-founder and CTO of Qoro Quantum

Stephen DiAdamo, co-founder and CTO of Qoro Quantum, is interviewed by Yuval Boger. DiAdamo discusses Qoro’s position as a software middleware company that abstracts hardware away from applications, walking through the Divi SDK, circuit serialization and parallelization, and an orchestrator that automatically selects between 12 simulation methods on CPU and GPU or dispatches to QPUs from any vendor. They explore how Qoro plugs into HPC schedulers like SLURM rather than replacing them, the CESGA proof of concept built on the CUNQA platform, the “150,000 lines of code to 20” claim, and the argument that multi-QPU centers are needed today for fallback and resilience and for scaling applications. DiAdamo also reflects on developer experience for students learning QAOA and variational algorithms, and Qoro’s two-year history. Key takeaways Qoro’s Divi SDK takes optimization inputs (QUBO, HUBO, variational algorithms) and automatically generates, serializes, and parallelizes thousands of quantum circuits without the user writing transpilation or scheduling code Their orchestrator picks among 12 CPU/GPU simulation methods (stabilizer, tensor network, Pauli propagation, MPS, etc.) or routes to QPUs from any vendor, choosing based on circuit properties rather than user input Qoro relies entirely on hardware vendors’ own transpilers rather than building their own, acting as an automation and routing layer rather than solving the hardware-specific compilation problem Multi-QPU access is a resilience requirement today, not a future scaling need: when an HPC center’s only quantum computer goes down (as happened with an IBM outage), users have no fallback unless multiple vendors and modalities are integrated In a CESGA pilot using the CUNQA platform, Qoro connected to 15 compute nodes mimicking a distributed quantum network and ran 15,000-20,000 circuits remotely, with the secure integration taking about a day to wire up Transcript Yuval: Hello, Stephen, and thank you for joining

Aug 7, 2026

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D-Wave Demonstrates Two-Qubit Gate Breakthrough for Dual-Rail Erasure Qubits in Nature
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D-Wave Demonstrates Two-Qubit Gate Breakthrough for Dual-Rail Erasure Qubits in Nature

D-Wave Demonstrates Two-Qubit Gate Breakthrough for Dual-Rail Erasure Qubits in Nature a, Schematic of a two dual-rail cavity qubit system. b, Diagram of the SWS gate sequence between two dual-rail cavity qubits. c, Schematic of photon population during the gate sequence for the four basis states. Quantum hardware developer D-Wave Quantum Inc. (NASDAQ: QBTS) has published peer-reviewed research in Nature demonstrating a fast, high-fidelity two-qubit entangling gate for superconducting dual-rail cavity qubits. Titled “An entangling gate for dual-rail erasure qubits,” the study validates a foundational milestone in D-Wave’s gate-model development strategy. Led by Chief Scientist Dr. Robert Schoelkopf, Chief Development Officer Dr. Trevor Lanting, and CEO Dr. Alan Baratz, the research addresses the physical qubit overhead of fault-tolerant quantum computing by converting dominant photon loss events into hardware-detectable erasure errors at known spacetime locations. The experimental demonstration introduces a Swap–Wait–Swap (SWS) controlled-phase (CZ) gate executed between dual-rail cavity qubits linked via a tunable transmon coupler. Operating at a gate speed of approximately 500 nanoseconds, the SWS protocol temporarily swaps a cavity photon into the coupler to exploit strong dispersive shifts before restoring the excitation. The gate achieved an overall physical fidelity of approximately 99.9%, with an erasure rate of ∼ 0.5% per gate and post-selected residual Pauli errors below 0.1%. The architecture preserves a strong noise bias: bit-flip errors were suppressed down to the 10-6 level (parts per million), while dephasing errors dominated residual noise. Furthermore, the gate exhibits benign leakage propagation—where photon loss to the vacuum state (∣00⟩) deactivates the dispersive interaction—allowing surface-code syndrome extraction cycles to defer erasure checks to the end of a round without sacrificing code distance or triggering correlated error cascades. [ D-

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Microsoft’s Quantum Chief Doesn’t Care That Scientists Don’t Believe His Results - WIRED
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Microsoft’s Quantum Chief Doesn’t Care That Scientists Don’t Believe His Results - WIRED

Save StorySave this storySave StorySave this storyThe man leading Microsoft’s multibillion-dollar scheme to build a quantum computer says he isn’t interested in appeasing scientists.When Zulfi Alam’s team claimed last year to have effectively split an electron into so-called Majorana quasiparticles in its bid to reinvent computing, some scientists simply didn’t believe the software giant. They cited inconclusive data in Microsoft’s research papers and the lack of peer-review analysis for many of the results. But Alam, Microsoft’s corporate vice president of quantum, tells WIRED with a chuckle, “I don’t really care.”Microsoft is one of several tech powerhouses racing alongside a raft of startups to build commercially useful quantum computers. The goal for these companies is to create computers that could solve currently impossible problems in fields from drug development to defense by exploiting quantum mechanics to process units of information, known as bits, in a fundamentally different way than how classical machines do. (There are also concerns that quantum computers will be used to crack encryption.) Companies are taking different approaches to constructing quantum bits—“qubits” for short—including using neutral atoms, charged atoms, and light.While Microsoft’s approach is theoretically promising, Majorana particles, which were first hypothesized nearly 90 years ago, have proved elusive. The firm’s longest-running research project has also been plagued by controversies. Last year’s breakthrough announcement was met with intense skepticism by scientists, because they couldn’t rule out that other physical phenomena were driving the signals Microsoft had used to draw its conclusion. In 2021, Microsoft retracted a quantum computing paper from Nature that claimed to have found evidence of Majorana particles after independent physicists pointed out issues in the data analysis.In June, the software giant said it had produced a qubit that’s 1,000 times more reliable tha

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Innovate UK reports a 30% funding chance for quantum computing projectsquantum-computing

Innovate UK reports a 30% funding chance for quantum computing projects

Innovate UK will invest up to £13 million in quantum computing software applications, but disbursement depends on receiving a sufficient number of high-quality applications. The funding competition seeks to develop commercially viable quantum solutions focused on real-world problems, with projects requested to fall between £300,000 and £4 million and span 24 to 36 months. Applicants face a competitive landscape; Innovate UK estimates a 30 percent chance of success, acknowledging that even strong proposals may not secure funding. The agency also notes it considers prior conduct, such as any outstanding payments owed to Innovate UK or UKRI, when determining funding decisions. £13 Million for Near-Term Quantum Software Applications Innovate UK is offering up to £13 million to bolster the development of practical quantum computing software, but prospective applicants face significant hurdles to securing funding, with the agency suggesting a 30 percent chance of success for submissions based on experience from similar competitions. This competitive landscape acknowledges that even well-crafted proposals may not receive support, given the limited financial resources available and the high volume of anticipated applications. The funding initiative, formally titled “Quantum computing applications for large scale impact: CR&D,” aims to translate theoretical advances in quantum computing into tangible benefits for industry and society. Projects vying for a portion of the £13 million must request between £300,000 and £4 million, and adhere to a strict 24 to 36-month timeframe, indicating a focused approach to funding rather than broad, exploratory research. Innovate UK explicitly seeks applications centered on real-world problems where quantum computing demonstrably outperforms classical methods, particularly within sectors likely to be disrupted. The agency emphasizes the need for validated applications and clear pathways to commercialization and adoption within the Unite

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