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Today’s rapid data growth, sustainability mandates, and evolving regulations are pushing the limits of traditional computing. Yet, the leap to future quantum potential remains a challenge. Imagine conquering intensive workloads efficiently, drastically cutting energy use, securing your data completely, and gaining a real-world quantum advantage today. Discover how to transform these pressures into powerful opportunities.
Learn how advanced HPC, quantum-inspired computing, and emerging quantum technologies help organizations address performance, sustainability, data sovereignty, and optimization challenges.
Modern organizations must balance increasing performance requirements, sustainability goals, data sovereignty, and emerging quantum opportunities. The following challenges are shaping today's computing landscape—and require new approaches that go beyond traditional IT architectures.
How Can Organizations Scale Compute-Intensive Workloads?
With a strong focus on 'performance per watt,' Fsas Technologies leverages next-generation processors like MONAKA and innovative liquid-cooling solutions. This commitment delivers responsible, energy-efficient data centers that support sustainable IT. Our clients see tangible benefits, such as a 50% reduction in cooling energy costs for high-density environments, directly contributing to their corporate sustainability goals without compromising computational power.
How Can Organizations Improve Performance Without Increasing Energy Consumption?
With a strong focus on 'performance per watt,' Fsas Technologies leverages next-generation processors like MONAKA and innovative liquid-cooling solutions. This commitment delivers responsible, energy-efficient data centers that support sustainable IT. Our clients see tangible benefits, such as a 50% reduction in cooling energy costs for high-density environments, directly contributing to their corporate sustainability goals without compromising computational power.
How Can Organizations Strengthen Data Sovereignty and Compliance?
We provide secure, quantum-ready infrastructure, combined with structured frameworks such as Quantum Value Assessment, to ensure the controlled and compliant execution of sensitive workloads. Organizations benefit from expert-led engagements, European-aligned deployment models, and readiness for post-quantum security. This provides peace of mind for sectors handling sensitive data, such as public administration and healthcare, by reinforcing trust and mitigating evolving cyber threats.
When Does Quantum-Inspired Computing Make Sense?
Many optimization challenges become exponentially more complex as the number of variables increases. Production scheduling, supply chain optimization, logistics routing, portfolio balancing, and resource allocation are typical examples. In these scenarios, evaluating all possible combinations is often computationally impractical, even with highly sophisticated conventional approaches. Digital Annealer is designed specifically for this class of optimization problems. It enables organizations to identify high-quality solutions more efficiently, improving operational performance and supporting faster, data-driven decision-making.
Different workloads require different computing approaches. While HPC platforms deliver performance for large-scale simulations, AI workloads, and data-intensive processing, quantum-inspired technologies help solve complex optimization challenges. Emerging quantum systems add entirely new capabilities for selected problem classes. Together, these technologies create a flexible computing environment that enables organizations to address current requirements while preparing for future advancements in quantum computing.
Focus on "Performance per Watt" for sustainable operations, enabling groundbreaking scientific research and complex industrial simulations with reduced energy footprint.
Delivers immediate practical optimization solutions for intricate problems like supply chain logistics and financial portfolio balancing, providing a tangible competitive edge today.
Access to true quantum capabilities for tackling foundational problems in areas such as drug discovery and advanced materials science, pushing the boundaries of discovery.
Provides essential tools, libraries, and frameworks for developing and integrating quantum applications, empowering developers to explore new computational paradigms.
Seamlessly integrating CPU, HPC, AI, and Quantum resources through advanced orchestration layers, optimizing workload placement for maximum efficiency and performance.
We provide extensive services, including consulting, PoCs, integration expertise, policy support, and training, making us a strategic partner in navigating the complex world of advanced computing.
Sustainable & Cost-Efficient Performance
Achieve 2x better application performance per watt with advanced MONAKA processors and liquid cooling, leading to significantly more energy-efficient and responsible data centers.
Immediate Business Impact from Quantum Inspiration
Solve complex combinatorial optimization problems today with Digital Annealer, gaining a pragmatic and immediate competitive advantage without waiting for fault-tolerant quantum hardware.
Future-Ready & Strategic Computing
Leverage our comprehensive portfolio for seamless integration of classical, quantum-inspired, and quantum resources, optimizing workloads and maximizing ROI for present and future computational demands.
Enhanced Data Sovereignty & Security
Benefit from European on-premise solutions and 'Made in Japan' technology focus, ensuring compliance, secure operations, and greater control over your compute infrastructure.
At Fsas Technologies, our work in quantum computing spans real-world implementations, collaborative R&D projects, and proof-of-concepts with leading companies. From international use cases that demonstrate the impact of quantum solutions, to partnerships with universities and research centers, and successful pilots with major industry players, we bring together expertise, innovation, and strong alliances to turn quantum potential into tangible results.
QKD has the advantage to ensure information security based on the fundamental laws of quantum physics. This project aims to ensure ultra secure data communications through the deployment of a QKD communications line between Vigo Quantum Communications Center (VQCC) and Galicia Supercomputing Center (CESGA) , 120 km apart.
Fsas Technologies participates in arqa quantum network developing: Quantum algorithms for computer vision applied to satellite image classification Hybrid approaches for Quantum-Classical Neural Networks.
Fujitsu International Quantum Center
Are you seeking to understand or leverage the power of quantum technologies for your organization? Explore how Fujitsu is driving the future of computing and discover tangible benefits for your business.
Visit the Fujitsu International Quantum Center page to learn how we're fostering collaboration and turning cutting-edge quantum research into real-world solutions that can give you a competitive edge.
Research & Development Projects
Alternatively, delve into our Research & Development Projects to see how our proprietary innovations and strategic partnerships are tackling complex challenges across various industries with advanced computing and quantum solutions.
Discover how our expertise and groundbreaking projects can translate into improved efficiency, accelerated breakthroughs, and new opportunities for you.
What is Quantum-Inspired Computing?
Quantum-inspired computing leverages classical hardware and algorithms to emulate certain behaviors of quantum systems. This allows it to efficiently solve specific types of complex optimization problems that are classically intractable, offering significant performance gains without requiring actual quantum machines.
What is the difference between HPC and Quantum Computing?
HPC (High-Performance Computing) scales classical computational power to handle massive data processing and complex simulations, often excelling at traditional, sequential tasks. Quantum Computing, conversely, uses quantum-mechanical phenomena like superposition and entanglement to solve certain problems fundamentally differently, potentially addressing exponential complexity that HPC struggles with. They are complementary; HPC addresses many current scientific and industrial needs, while quantum computing holds promise for future breakthroughs in specific, highly complex problem domains.
How can organizations prepare for the quantum era?
Organizations can prepare by:
Assessing Needs: Identifying specific business challenges that could benefit from quantum or quantum-inspired solutions.
Skill Development: Investing in training for quantum programming and understanding quantum principles.
Experimentation: Engaging with quantum-inspired technologies like Digital Annealers to gain immediate value and practical experience.
Strategic Partnerships: Collaborating with experts like Fsas Technologies to explore pilot projects (PoCs) and build a robust hybrid computing roadmap.
Security Review: Evaluating current cryptographic practices and preparing for the shift to post-quantum cryptography to safeguard future data
What is a Digital Annealer?
A Digital Annealer is a specialized quantum-inspired computing architecture designed to solve large-scale combinatorial optimization problems at high speed. It employs a digital circuit that mimics the annealing process in quantum physics to find optimal or near-optimal solutions across a vast number of variables, significantly outperforming traditional supercomputers on these tasks.
Which industries benefit from HPC and Quantum technologies?
A wide range of industries benefit:
Manufacturing: Optimizing production lines, supply chains, and material design.
Finance: High-frequency trading, risk assessment, portfolio optimization, fraud detection.
Healthcare & Pharma: Drug discovery, personalized medicine, genomic sequencing, and medical imaging analysis.
Automotive: Autonomous driving, aerodynamic simulations, battery design.
Logistics: Route optimization, fleet management, warehouse efficiency.
Energy: Grid optimization, new material discovery for renewables, seismic modeling.
Public Sector: National defense, climate modeling, secure communications.
