Co-leading $34m Series B for quantum software startup Phasecraft

Quantum Computing Race Shifts from Hardware to Software Innovation Introduction: From Circuits to Code The global quantum computing race is entering a new phase. While early competition centered on building powerful hardware, momentum is now shifting toward software and algorithms that will define how quantum systems solve real-world problems. With venture capital increasingly backing software-focused firms, the industry is recalibrating around applications and usability. Key Details • VC Investment in Algorithms • British startup Phasecraft raised $34 million, with backing from investors including a Novo Nordisk–linked entity. • Marks growing confidence in algorithmic innovation as the driver of future breakthroughs. • Industry Shift • Hardware development remains critical but is no longer the sole focus. • With systems nearing practicality, software is becoming the key to unlocking quantum advantage. • Mirrors the classical computing trajectory, where long-term value shifted decisively from hardware to applications. • Expert Insights • Bob Sutor, former IBM quantum leader: “At some point, people just care about the apps.” • Emphasizes that the real market will be built around problem-solving, not just machines. • Research Advances • New algorithms expand quantum computing’s reach to industries like pharmaceuticals, logistics, and finance. • Designed to reduce error rates, optimize performance, and bring practical applications closer to reality. Why This Matters The pivot from hardware to software underscores the maturation of quantum technology. As machines approach usability, the winners will be those who design algorithms that deliver real-world value—turning experimental systems into transformative tools. The surge of capital into software startups signals that the quantum era will be defined as much by code as by circuits, reshaping industries from medicine to cryptography. I’ve had the privilege of reaching over 18 million views in the past year, sharing daily insights with a network of 27,000+ followers and 10,000+ professional contacts across defense, technology, and policy. If this topic resonates, I welcome you to connect and continue the conversation. Keith King https://lnkd.in/gHPvUttw

Quantum Computing Race Shifts from Hardware to Software Innovation Introduction: From Circuits to Code The global quantum computing race is entering a new phase. While early competition centered on building powerful hardware, momentum is now shifting toward software and algorithms that will define how quantum systems solve real-world problems. With venture capital increasingly backing software-focused firms, the industry is recalibrating around applications and usability. Key Details • VC Investment in Algorithms • British startup Phasecraft raised $34 million, with backing from investors including a Novo Nordisk–linked entity. • Marks growing confidence in algorithmic innovation as the driver of future breakthroughs. • Industry Shift • Hardware development remains critical but is no longer the sole focus. • With systems nearing practicality, software is becoming the key to unlocking quantum advantage. • Mirrors the classical computing trajectory, where long-term value shifted decisively from hardware to applications. • Expert Insights • Bob Sutor, former IBM quantum leader: “At some point, people just care about the apps.” • Emphasizes that the real market will be built around problem-solving, not just machines. • Research Advances • New algorithms expand quantum computing’s reach to industries like pharmaceuticals, logistics, and finance. • Designed to reduce error rates, optimize performance, and bring practical applications closer to reality. Why This Matters The pivot from hardware to software underscores the maturation of quantum technology. As machines approach usability, the winners will be those who design algorithms that deliver real-world value—turning experimental systems into transformative tools. The surge of capital into software startups signals that the quantum era will be defined as much by code as by circuits, reshaping industries from medicine to cryptography. I’ve had the privilege of reaching over 18 million views in the past year, sharing daily insights with a network of 27,000+ followers and 10,000+ professional contacts across defense, technology, and policy. If this topic resonates, I welcome you to connect and continue the conversation. Keith King https://lnkd.in/gHPvUttw

The pivot from hardware to software underscores the maturation of quantum technology. As machines approach usability, the winners will be those who design algorithms that deliver real-world value, turning experimental systems into transformative tools. The surge of capital into software startups signals that the quantum era will be defined as much by code as by circuits, reshaping industries from medicine to cryptography.

Meet Maybell Quantum—the starry-eyed David battling the Goliath of Quantum Infrastructure Development. An ambitious endeavour, granted, and one bolstered by a cool $40 million in a Series B funding round, led by Addition. Earmarked for the acceleration of cryogenic and RF systems commercialisation—no gimmicks or bells and whistles mind you—this monetary shot supports the intricate dance of quantum computing. And it ain't a waltz for the faint-hearted [1][3][5]. Maybell Quantum's ringleader, Corban Tillemann-Dick, eschews the gleam of research labs, eyeing instead the dustier trails of real-world deployment. The windfall allows the firm to amass quantum tech, bloat their manufacturing capacity, and pen global alliances, yielding a stable quantum infrastructure that won't flake when the going gets tough [1][3]. Todd Arfman of Addition doesn't mince words—he believes in Maybell. In his view, the outfit is the linchpin for a robust quantum ecosystem, wielding their sub-Kelvin cryogenics and hardwired platforms to spit out increased qubit counts and trim quantum error rates. If such jargon leaves you reeling, know this—without these advances, quantum computing doesn't stand a chance [1][3]. Maybell's clientele cuts across Neon-filled startups, hallowed educational institutions—those ivory towers aren't just for show—and even Fortune 100 behemoths. Now, with freshly infused capital, Maybell plans an aggressive roll-out through North America, Europe, the Middle East, and Asia, fostering benevolent collaborations and spearheading applications like drug discovery and materials design [1][3][5]. Rooted in Denver, Colorado, Maybell Quantum shies away from the hype. Their gameplan? Deliver quantum tools—like dilution refrigerators—that are scalable, affordable, and reliable. Juggling advanced scientific revelations with gritty engineering, Maybell aims to untangle the challenge of cryogenic cooling and quantum system wiring so that the abstract idea that's Quantum AI can stop being a pipe dream and start being reality [1][2][6]. Interested in seeing how Maybell is applying Quantum AI in trading? Check out [Quantumai.co](https://dub.sh/qsgr0so) for a slice of the action.

Quantum-as-a-Service: Making Quantum Computing Accessible for Business Introduction Quantum computing, once confined to theoretical physics labs, is becoming a practical tool for businesses. With the rise of Quantum-as-a-Service (QaaS), companies can now access quantum processors through the cloud without investing in expensive hardware. This pay-as-you-go model is lowering barriers to entry and accelerating innovation across industries. Key Details • What Is Quantum Computing? • Harnesses the principles of quantum mechanics—such as superposition and entanglement—to process information. • Can perform certain complex calculations millions of times faster than today’s most advanced supercomputers. • Particularly suited for optimization, cryptography, AI, and molecular simulation. • Why QaaS Matters • Quantum computers require extreme conditions (near absolute zero) and are prohibitively expensive to operate. • QaaS providers—like IBM, Microsoft, Amazon, and startups—offer cloud-based access to quantum hardware. • Businesses can experiment, test, and deploy quantum applications without massive capital investment. • Business Benefits • Cost Efficiency: Pay-as-you-go model avoids multimillion-dollar hardware costs. • Accessibility: Available globally via cloud platforms. • Innovation: Opens the door to breakthroughs in pharmaceuticals, finance, logistics, and materials science. • Scalability: Organizations can scale usage as quantum capabilities mature. • Market Outlook • The global quantum computing market is projected to grow from $1.8 billion today to tens of billions in the coming decade. • Early adopters are expected to gain a competitive edge by experimenting with quantum algorithms now. Why This Matters QaaS democratizes access to one of the most powerful technologies ever developed. By removing financial and technical barriers, it enables businesses of all sizes to explore quantum solutions and prepare for the coming shift in computational power. For organizations, the key question is no longer if quantum will matter, but when—and QaaS offers a head start on the future. I’ve had the privilege of reaching over 17 million views in the past year, sharing daily insights with a network of 26,000+ followers and 9,000+ professional contacts across defense, technology, and policy. If this topic resonates, I welcome you to connect and continue the conversation. Keith King https://lnkd.in/gHPvUttw

Who are the most influential individuals in quantum technology ? Its impossible to list everyone but these individuals represent the breadth of quantum computing: from introducing foundational algorithms and theory, to building and commercializing real hardware, to strategizing mass adoption and securing quantum networks globally. Who else should be on this list & why? The Pillars of Quantum Peter Shor – Creator of Shor’s algorithm, foundational to quantum cryptography and complexity theory.  Lov Grover – Developer of Grover’s search algorithm, vital to quantum optimization.  David Deutsch – Considered the “father of quantum computing,” introduced the concept of a universal quantum computer.  John Preskill– Coined “quantum supremacy” and “NISQ,” leading theorist in quantum information.  Pan Jianwei – “Father of quantum communication”; led quantum satellite and entanglement experiments.  Stephanie Wehner – Leading efforts toward a quantum internet as head of the Quantum Internet Alliance. Hardware Innovators & Company Builders Michelle Simmons – Pioneer of silicon-based quantum devices and founder of Silicon Quantum Computing (Australia).  Andrew Dzurak – Founder of Diraq; developed silicon qubit technology with strong scaling potential.  Hartmut Neven – Leads Google Quantum AI; instrumental in quantum supremacy and error rate breakthroughs.  Jack Hidary – CEO of SandboxAQ (Alphabet spin-off); author and advocate for quantum-AI integration.  Krysta Svore – Head of quantum systems at Microsoft; key in developing algorithms and tools for developers.  Jay Gambetta – IBM Fellow driving hardware research, error correction, and system development.  Chad Rigetti – Founder of Rigetti Computing; championed cloud access and full-stack hardware development.  Michael Biercuk – CEO of Q-CTRL, advancing quantum control and hardware stability. Theorists & Educators Shaping Foundations Scott Aaronson – Authority in quantum complexity and popularizer through his blog and outreach.  Dorit Aharonov – Key work in fault tolerance and topological quantum computation.  Seth Lloyd – Architect of quantum information theory; founder of a quantum startup on QKD and HHL algorithms.  Pieter Kok – Noted for interferometric techniques, teleportation, and optics-based quantum protocols.  Isaac Chuang – NMR pioneer and co-author of Quantum Computation and Quantum Information.  Andrea Morello – Leads silicon spin qubit experiments alongside Dzurak, advancing scalable hardware. Industry Strategists & Advocates Robert Sutor – IBM VP who launched the IBM Quantum Experience and popular book Dancing With Qubits. 

🚀 Quantum Computing Explosion in the First Half of 2025: From Willow's "Quantum Supremacy" to the Optimization Revolution with 4400+ Qubits! Hello everyone! As a quantum tech enthusiast, I've been blown away by the breakthroughs in the first half of 2025—from Google's milestone to startups scaling up massively. These advancements are pushing quantum from the lab toward practical use. Check out these hardcore developments, signaling the acceleration of the reliable quantum era: Google's Willow Chip Achieves Quantum Supremacy: Willow, with 105 qubits, completed a computation in just 5 minutes that would take a classical supercomputer 10 septillion years (far exceeding the age of the universe)! This isn't just an exponential leap in quantum error correction—it's paving the way for drug discovery and AI optimization, though real-world applications are still on the horizon. Microsoft & Atom Computing Entangle 24 Logical Qubits: Using a neutral atom array and Microsoft's qubit virtualization system, they've successfully entangled 24 reliable logical qubits (a record) and run computations on 28. This marks the dawn of commercial fault-tolerant quantum computing, with systems supporting 50+ logical qubits set for delivery in 2025. IBM Quantum Roadmap: Loon Processor Debuts: Launching in 2025, Loon tests qLDPC error correction codes and C-coupler architecture, supporting 4000+ qubits in a quantum-centric supercomputer. This slashes physical qubit overhead by 90%, accelerating the leap to modular, scalable systems like Starling (fault-tolerant quantum machine in 2029). Startup Surge: Atom Computing's 1180-Qubit Neutral Atom Array: Atom Computing breaks the 1000-qubit barrier with a 1225-site array fully loaded with 1180 qubits, emphasizing high fidelity and scalability. This positions neutral atoms as a frontrunner in the race for fault-tolerant systems. D-Wave's Advantage2 System Hits 4400+ Qubits: Focused on optimization problems, this annealing quantum machine with Zephyr topology boosts 20-way connectivity, with benchmarks showing 25,000x faster solutions for materials science 3D lattice problems! It makes complex optimizations—like logistics and AI—far more efficient. These innovations convince me that quantum computing is shifting from the "noisy era" to the "practical era"—error correction, scaling, and hybrid systems are the keys. As tech professionals, what are your expectations for these advances? Investing in quantum startups or exploring enterprise applications? Welcome to discuss in the comments—let's envision the quantum future together! #QuantumComputing #QuantumTech #AI #Innovation #MedTech

Fault-Tolerant Quantum Computing: Moving From Theory to Strategic Execution Introduction Quantum computing is shifting from experimental hype to strategic reality, with Fault-Tolerant Quantum Computing (FTQC) emerging as the critical inflection point. According to Everest Group’s new research, The Quantum Leap: Innovations Driving the Era of Fault-Tolerant Quantum Computing, FTQC is no longer a distant concept—it is maturing faster than many executives realize and is poised to unlock true economic value. Key Details • The Limits of Today’s Quantum Systems • Most current devices are “noisy,” limited in reliability and scalability. • Enterprises are stuck in pilot gridlock—exploring proofs-of-concept without clear paths to operational impact. • Quantum today often looks powerful on paper but remains impractical in real-world environments. • FTQC as the Roadmap • Fault tolerance is the turning point between experiments and enterprise-scale value. • Enables reliable quantum operations by correcting errors that plague current devices. • Represents the leap from conceptual breakthroughs to real-world applications across industries. • The Stack Is the Strategy • FTQC is not a “chip upgrade” but a system-wide rethink. • Requires integration across three pillars: • Hardware design built for scalable error correction. • Software architecture optimized for fault-tolerant execution. • Operations infrastructure aligned to run seamlessly with both classical and quantum resources. • Success depends on building these pillars to work in harmony, not as silos. • Enterprise Implications • Organizations must view FTQC as a strategic frontier, not just an R&D experiment. • Early movers aligning business models with FTQC will define leadership in finance, healthcare, logistics, and national security. • The winners will be those who prepare infrastructure and partnerships now, ahead of commercial rollout. Why This Matters Fault-Tolerant Quantum Computing marks the shift from exploration to execution—the point where quantum moves from promise to profit. It redefines the enterprise technology stack, demanding holistic strategy rather than isolated pilots. For business leaders, the question is no longer if quantum will reshape industries, but when—and whether they are prepared to seize first-mover advantage. I’ve had the privilege of reaching over 17 million views in the past year, sharing daily insights with a network of 26,000+ followers and 9,000+ professional contacts across defense, technology, and policy. If this topic resonates, I welcome you to connect and continue the conversation. Keith King https://lnkd.in/gHPvUttw

Quantum computing - this was cited as an example of Singapore's long-term commitment to frontier/deep-tech research during the recent National Day Rally. I'm not much of a techie, but I will say this much: just as generative AI rapidly became mainstream within the period of time that I spent away from legal practice, what we consider deep-tech today could be commonplace in just a few years. This presents countless possibilities and opportunities...but also significant risks. Which is why I believe it's crucial that we take the task of building robust governance systems just as seriously as we pursue these new technologies - governance systems that mitigate the risks of quantum computing by establishing frameworks and policies that mandate and guide the transition (but not being so suffocating as to stifle progress).

Quantum momentum is accelerating and here’s the data to prove it. Massachusetts Institute of Technology has released its first Quantum Index Report 2025 and it offers the clearest picture yet of the pace of quantum development: 📈 VC funding for quantum hardware hit $1.6B in 2024 🧠 Demand for quantum skills has nearly tripled since 2018 🔬 Patent filings are up 5x over the past decade 💬 Corporate mentions of “quantum computing” surged 379% last year The momentum is real, and the next breakthroughs will come from those who can turn quantum promise into practical tools. That’s exactly what we’re focused on at Phasecraft by designing quantum algorithms that unlock the potential of today’s machines. Seeing this level of activity across funding, hiring, IP and market attention only adds urgency to building the tools that make quantum useful now. https://lnkd.in/exCRQRvG