Qedma Appoints Scott Aaronson to Its Scientific Advisory Board

thequantuminsider.com Nov 12, 2026

Qedma Appoints Scott Aaronson to Its Scientific Advisory Board

Curated by Shubham · TechCapsules · Nov 12, 2026

AI-summarised brief · reviewed before publication

Qedma, a quantum‑computing software firm, announced the addition of Professor Scott Aaronson to its Scientific Advisory Board. Aaronson, a leading authority on quantum computational complexity and the Schlumberger Centennial Chair at the University of Texas at Austin, will advise on the company’s quantum error suppression and mitigation software. His expertise aligns with Qedma’s goal of improving quantum hardware accuracy and evaluating quantum advantage. The appointment strengthens Qedma’s theoretical foundation as it seeks to enable more reliable, complex quantum computations.

💡 Why It Matters

· By bringing Aaronson’s rigorous analysis of quantum limits, Qedma can more precisely target error‑reduction strategies, accelerating the path to practical, commercially viable quantum computing.

Read full article on thequantuminsider.com

U.S. Quantum Primacy Commission Outlines Industrial Strategy to Counter Global Supply-Chain Risks

The U.S. Quantum Primacy Commission (CUSP) released a preliminary strategy, “Defining the American Quantum Era,” outlining risks to American quantum competitiveness. The report, co‑chaired by Senators Todd Young and Ben Ray Luján, highlights domestic disparities in cleanroom costs, cryogenic supply chains, and federal funding. It notes that U.S. quantum computers outnumber China’s, yet China’s public investment ($3 billion) exceeds U.S. federal support (~$1 billion). The commission calls for federal action to secure critical components and prevent production bottlenecks, with a final report due Spring 2027.

💡 The strategy pinpoints supply‑chain vulnerabilities that could stall U.S. quantum manufacturing, threatening national security and economic leadership in a field where China is rapidly catching up.

thequantuminsider.com · Nov 12

Xanadu Reports Revenue Growth as Photonic Partnerships and Government Support Expand

Xanadu reported third‑quarter revenue of $1.3 million, a 32% increase from the prior year, while ending September with $286.5 million in cash. The company highlighted progress in reducing optical loss, new manufacturing ties with ASML, Bluefors, and GlobalFoundries, and the launch of Backline with AMD. It secured a $140 million Canadian loan and provisional approval for up to $10 million from DARPA. Net loss widened to $32.2 million, driven by higher R&D spending.

💡 The firm’s advances in optical loss reduction and new industry partnerships accelerate the path toward scalable photonic quantum processors, positioning it as a key player in the emerging quantum‑data‑center market.

quantumcomputingreport.com · Nov 12

Xanadu Reports Q3 2026 Results with $286M Cash Balance and Expanding R&D…

Xanadu reported third‑quarter 2026 results, posting a 32% year‑over‑year revenue rise to $1.31 million while expanding R&D spending to $25.56 million. The company maintained an unrestricted cash balance of $286.47 million and secured roughly $150 million in new sovereign funding. Revenue growth was driven by DARPA Quantum Benchmarking Initiative contracts and commercial partner milestones. Operating losses widened due to increased tapeout volumes and experimental wafer fabrication. Capital expenditures totaled $8.4 million, mainly for precision optical test equipment.

💡 The firm’s robust liquidity and new government backing position it to scale photonic quantum hardware ahead of its logical‑qubit roadmap, potentially accelerating commercial deployment.

thequantuminsider.com · Nov 12

CyberRisk Collaborative Announces Virtual Event on Post-Quantum Readiness

CyberRisk Collaborative announced a virtual event, “Post‑Quantum Readiness: Preparing for Q‑Day,” scheduled for January 26, 2027. The program targets CISOs and senior security leaders, offering five 20‑minute sessions on quantum‑computing risks, cryptographic asset inventory, post‑quantum standards, migration planning, and enterprise governance. Speakers include representatives from the Foundation for Defense of Democracies, SAP, Georgia Tech, Citi, and NewYork‑Presbyterian Hospital. Sessions will be available on demand after the live event.

💡 The event equips leaders with actionable strategies to counter the looming threat of quantum‑enabled cryptographic breakage, ensuring long‑term data protection and regulatory compliance.

quantumcomputingreport.com · Nov 12

Patero and Horizen Labs Partner on Enterprise Post-Quantum Migration and Network Protection

Patero and Horizen Labs announced a commercial partnership to help enterprises migrate to quantum‑resistant encryption. The alliance blends Horizen Labs’ quantum‑risk advisory with Patero’s automated discovery and hybrid encryption platforms, enabling clients to map cryptographic assets, prioritize migration phases, pilot live‑traffic trials, and validate rollback paths. The collaboration addresses the engineering challenges of replacing legacy public‑key algorithms embedded across distributed services and third‑party software, providing a structured framework for secure, phased transitions.

💡 The partnership offers a practical roadmap for businesses to safeguard data against future quantum threats, reducing the risk of costly, disruptive overhauls. It signals a growing industry focus on actionable, end‑to‑end quantum‑security solutions.

thequantuminsider.com · Nov 12

Qunova’s Hybrid Computing Method Matches Classical Benchmark for Iron-Sulfur Cluster

Qunova Computing’s HI‑VQE algorithm achieved chemical accuracy in an 80‑qubit simulation of a 4Fe‑4S iron‑sulfur cluster, matching the leading classical DMRG benchmark. The hybrid workflow used an IBM Quantum System Two device and RIKEN’s Fugaku supercomputer, delivering an extrapolated ground‑state energy of −327.2482 ± 0.0007 Ha. HI‑VQE required roughly 300 times fewer Fugaku node‑hours than prior quantum diagonalization methods, marking the most accurate quantum computation of this molecule to date.

💡 The result demonstrates that quantum algorithms can now rival the precision of the best classical methods for complex, industrially relevant molecules, paving the way for practical quantum‑enhanced chemistry in pharmaceuticals and materials science.