Mohamed Abdel-Kareem

In a major expansion of its North American commercial operations and enterprise positioning, quantum control electronics provider Qblox has announced two concurrent initiatives: a formalized deployment contract with the U.S. Department of Energy (DOE) and Fermi National Accelerator Laboratory (Fermilab), alongside an infrastructure partnership with Hewlett Packard Enterprise (HPE). The dual announcements position the company to scale open-source hardware designs across the U.S. research network while simultaneously embedding modular control topologies directly into high-performance computing (HPC) and artificial intelligence data-center clusters. ┌──► U.S. DOE / Fermilab CRADA ──► Commercialize QICK Platform & Supply Chain [ Qblox Expansion ]┤ └──► HPE Infrastructure [...]

Cybersecurity firm WISeKey International Holding Ltd. and its semiconductor-focused subsidiary SEALSQ Corp. have announced the creation of a jointly owned special purpose vehicle, Quantisimo Corp. (Quantisimo). Concurrently, the newly formed entity has entered into a non-binding Letter of Intent (LOI) with GigCapital8 Corp., a publicly traded Private-to-Public Equity (PPE) special purpose acquisition company (SPAC). The transaction is structured to establish a Nasdaq-listed, trusted quantum technology platform focused on the consolidation, commercialization, and long-term scaling of post-quantum security assets and defense-adjacent hardware components. SPAC Business Combination and Multi-Company Acquisition Strategy The contemplated business combination between Quantisimo and GigCapital8 assigns the combined corporate [...]

Quantum infrastructure startup AQSolotl and automation developer QuantrolOx have announced a strategic partnership to integrate their hardware and machine learning software layers. The collaboration focuses on linking AQSolotl’s Chronos-Q quantum control system directly with QuantrolOx’s Quantum EDGE automation software platform. By unifying the control and calibration stacks, the companies aim to transition noisy quantum processors from slow, manual laboratory tuning loops toward automated, machine learning-driven execution frameworks designed for scalable, production-ready infrastructure. Machine Learning-Driven Low-Latency Control Topologies As quantum processing units (QPUs) scale beyond isolated laboratory prototypes, tracking multi-qubit error intersections and performance drifts through manual tuning becomes physically impractical. The [...]

The U.S. National Science Foundation (NSF) has selected five additional research teams to participate in the design phase of the National Quantum Virtual Laboratory (NQVL). Backed by a collective investment of $20 million, the expansion brings the program's total portfolio to nine projects following the initial cohort selection. Each team will receive $4 million over a two-year timeline to formalize system blueprints that integrate computing hardware, secure communications networks, and precision sensors into a shared national infrastructure. The program aims to provide decentralized, remote access to specialized resources, aligning with federal mandates under the National Quantum Initiative Act to translate basic [...]

SPRIND (the German Federal Agency for Breakthrough Innovations) has launched the Quantum Sensing Initiative, a long-term strategic framework to accelerate the development, market integration, and scaling of quantum-layer measurement systems within Germany and Europe. Directed by program leaders including Head of Challenges Jano Costard, the initiative addresses early-stage research validation, deep-tech startup deployment, and cross-sector technology transfer. By providing agile funding structures alongside individual technical mentoring and strategic coaching, the framework is engineered to align high-precision physical data collection with commercial industrial verticals, including autonomous mobility, geological tracking, infrastructure monitoring, and security networks. ┌──► Quantum-Driven Intelligence (Data Integration / AI) [ [...]

QuantWare and Maybell Quantum have entered a strategic partnership to ensure hardware compatibility between Maybell's ColdCloud cooling infrastructure and QuantWare's upcoming VIO-40K superconducting quantum processing units (QPUs). By co-designing the processor layout alongside the underlying cryogenic framework, the collaboration aims to optimize the compute-per-watt performance of hyperscale quantum computers. The open-architecture alignment prepares the hardware supply chain for data-center deployments as QuantWare plans to deliver 10,000-qubit processors by 2028. [ Centralized 4K Pre-Cooling Plant ] ──► [ Decoupled Independent Nodes (<10 mK) ] ──► QuantWare VIO-40K QPU (10,000 Qubits) Monolithic Chiplet Scaling and Silicon-Based QPU Density QuantWare’s VIO QPU architecture is [...]

QuEra Computing Inc. has released its updated product roadmap during a strategic webinar briefing, detailing the transition timelines from Noisy Intermediate-Scale Quantum (NISQ) systems to error-corrected hardware classes. The revised roadmap—anchored upon peer-reviewed academic foundations—outlines a development path optimized for a modular, zoned neutral-atom hardware infrastructure. By substituting fixed qubit layouts with parallel atom-shuttling connectivity, the company targets the execution of multi-variable fault-tolerant algorithms by 2028, bypassing standard cryogenic cooling footprint mandates through room-temperature vacuum cell operations. [ Aquila (2022) ] ──► [ Gemini (2025) ] ──► [ Libra (2028) ] ──► [ Next Gen (2028+) ] Static NISQ QEC Testbed [...]

Faculty Scientist Dan Stamper-Kurn adjusts the optics on a laser experiment. (Credit: Thor Swift/Berkeley Lab) Lawrence Berkeley National Laboratory (Berkeley Lab) has reported the status of its quantum industry collaborations, focusing on the integration of commercial systems and public research infrastructure. Through the National Energy Research Scientific Computing Center (NERSC), the Quantum Computing Access program provides researchers with access to quantum processors from QuEra Computing Inc. and IBM. This layout permits the high-performance computing user base at NERSC to run operations in quantum simulation, chemistry, materials science, and condensed matter physics, utilizing QuEra’s neutral-atom platform, Aquila, and its internal magneto-optical trap array [...]

The architecture for the DX, DZ decoder. Memory elements shown in blue (light for RAM, dark for ROM). I/O in purple. Sub-modules in gray. Researchers from the IMDEA Software Institute, Nokia Bell Labs, the Complutense University of Madrid, Aalto University, and Quobly have developed an FPGA-based hardware architecture for the real-time decoding of quantum LDPC codes. Published on ArXiv, the design manages correlated error arrays within a structural layout optimized for latency, physical area, and power consumption. The architecture utilizes targeted resource reuse loops rather than unrestricted hardware parallelization to process complex multi-qubit syndromic dependencies, addressing classical computational processing bottlenecks that [...]

Overview of transversal STAR architecture. QuEra Computing and Los Alamos National Laboratory have introduced a co-designed quantum computing architecture named transversal STAR (Space-Time Efficient Analog Rotation). Published in PRX Quantum, the framework reduces the physical qubit overhead and gate-synthesis clock cycles required for early fault-tolerant quantum simulation. Designed specifically for neutral-atom hardware arrays, the architecture optimizes calculations in materials science, condensed matter physics, and non-equilibrium many-body dynamics, moving execution speeds closer to the "megaquop" regime—the milestone where an error-corrected system completes one million reliable logical operations. [ Standard FT ] Small-Angle Rotation ──► Magic State Distillation ──► Solovay-Kitaev Synthesis (High Overhead) [...]