QuEra Computing Inc.

How important is it for your organization where the quantum computer was developed? Should it be in your country? At a friendly trade partner? We asked nearly 1000 members of the quantum computing ecosystem in our recent survey. Get the full report at https://hubs.ly/Q02LDCQf0

Quantum LDPC codes have established their reputation for spatial efficiency in encoding logical qubits. Yet, so far, schemes for performing actual computation (gates) with such encoded qubits have often been serialized and constrained, leading to inefficiency in operational time. This work makes significant advances on this front, describing schemes for the selective and parallel addressing of quantum LDPC logical qubits. This brings a space-time efficient implementation of quantum algorithms on quantum LDPC codes closer to reality. Read more about this exciting topic on arXiv! https://hubs.ly/Q02KR2Xx0

The Forbes article discusses how SAS is advancing quantum computing, particularly in the context of data analysis and AI model training. Bill Wisotsky a lead quantum architect at SAS, emphasizes the potential for quantum computing to handle complex AI calculations faster and with less data than classical systems. The company is focusing on real-world applications, including drug discovery, financial modeling, chemical simulations, and optimization. While quantum computing is still in its early stages, SAS emphasizes the importance of integrating quantum technology with classical systems to solve complex problems and maintain security in a post-quantum cryptography era. https://hubs.ly/Q02LDwNH0

ITQAN Al Khaleej Computers is an important member of the QuEra Quantum Alliance, a group of global leaders in quantum computing and HPC, partnering to drive positive change in the world through neutral-atom computers. Ali Jaber Ali Alyefi, division CEO, describes their activities and why they joined the alliance. Learn more at https://hubs.ly/Q02LDw9P0

Remember quantum computing in the cloud? This InfoWorld article contends that while quantum computing has been overshadowed by the rise of generative AI and GPUs, it remains a critical technology with immense potential for the future. Though still in a developmental phase, quantum computing is progressing towards more stable qubits and advanced capabilities. As research continues, quantum computing is expected to play a pivotal role in solving complex problems in cryptography, simulations, and optimization. Despite the current focus on AI, quantum computing's long-term value and impact on the cloud and broader technology landscape remain promising. https://hubs.ly/Q02LDwWb0

How is coding for quantum different than coding for classical computers? “Quincy” from QuEra explains in this short video. Check out the full QuEra Quantum Capsule playlist at https://hubs.ly/Q02LDBCp0

Interested in the impact quantum computers can make in the HPC center? Tackling hybrid classical-quantum problems? Thinking about integrating a QPU in your data center? Meet us at EuroQHPC2024 - the first edition of the European Workshop on Quantum Computing for High-Performance Computing in Madrid next week. p.s. the conference image shows part of a dilution fridge. You won't need any of those if you use our room-temperature neutral-atom computers! https://hubs.ly/Q02M10Rf0

How well-positioned is your country to play an important role in the global quantum computing industry? We asked nearly 1000 members of the quantum computing ecosystem in our recent survey. Get the full report at https://hubs.ly/Q02LDCxw0

Sam Lucero from Omdia wrote a new “Quantum Computing Market Landscape – 2024 Executive Summary” that provides an analysis of the quantum computing (QC) market as of 2024. Here are the key points summarized: • Market Overview: Quantum computing is still in an early stage of development, with most deployments being experimental rather than operational. While commercial venture funding in QC declined in 2022 and 2023, it is expected to rebound in 2024. Government investments in quantum technologies are increasing, particularly in North America, Europe, and Asia & Oceania. • Technological and Market Trends: The report examines the progress in error suppression, mitigation, and correction techniques in quantum computing. Vendors have made significant advancements, such as increased qubit scale and fidelity. However, large, fault-tolerant quantum computers (FTQCs) are still five to seven years away, with ongoing uncertainties about the practical implementation of large-scale quantum error correction (QEC). • Market Projections: Omdia forecasts the global QC market to grow from $1.148 billion in 2023 to $28.226 billion by 2033, with a compound annual growth rate (CAGR) of 37.7%. This growth is contingent on the recognition of quantum economic advantages (QEAs) by 2027 and the availability of large-scale FTQCs by the end of the forecast period. • Vendor Landscape: There are currently 276 QC vendors, most of which are small, privately held companies based in Europe and North America. The majority are hardware vendors, followed by software, consulting, and service providers. The report also segments vendors based on qubit modalities, such as superconducting circuits, trapped ions, and neutral atoms. • Use Cases and Vertical Markets: The most attractive vertical markets for QC are chemicals & materials, financial services, and life sciences. The report emphasizes the potential for QC in physically simulating quantum mechanical systems, with possible quantum advantages in combinatorial optimization and quantum machine learning (QML). If you are a subscriber, get the full report at https://hubs.ly/Q02LDw7B0

This #sc24 article by John Himes discusses the growing interplay between High-Performance Computing and Quantum Computing, emphasizing the potential of hybrid systems that combine both technologies. As Moore’s Law reaches its limits, QC offers exponential scaling that traditional HPC cannot match, making it ideal for specific computational tasks, particularly in fields like machine learning and drug discovery. The future lies in integrating QC with HPC, creating systems where tasks are distributed based on their strengths, thereby solving complex problems more efficiently. Insights: - QC complements rather than replaces traditional HPC. - Hybrid systems maximize the strengths of both technologies. - Integration challenges include system engineering and algorithmic frameworks. The integration of Quantum Computing with High-Performance Computing is the future of solving complex computational problems, as QC’s exponential scaling can tackle tasks that HPC alone cannot. However, building effective hybrid systems requires significant advancements in system engineering and algorithmic development. https://hubs.ly/Q02LDB1_0