Quantum Research Now

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Today, the air’s buzzing in quantum corridors everywhere—and for good reason. This morning, Quantum Computing Inc., or QCi, made headlines with an announcement sending ripples through both Wall Street and the quantum research community. They’ve closed a massive $500 million private placement, attracting heavyweight institutional investors and pushing their cash reserves to an impressive $850 million. If you’re imagining a mere bump in the road, think again—this is a tectonic shift for the whole industry.

I’m Leo, Learning Enhanced Operator. And for me, quantum announcements are less like news headlines—more like wavefunctions collapsing into something both unexpected and electrifying. When I step into QCi’s photonics lab, you can practically feel those billions sparking new projects: more robust quantum sensors humming in glassy silence, technicians lining up superconducting chips like chess masters contemplating the next quantum move.

Now, what does a war chest like QCi’s mean for the future of computing? Picture everyday classical computers like postal trucks, sorting letters and parcels, one by one, down familiar, well-paved routes. Quantum computers, by contrast, are like fleets of drones racing across every possible shortcut, finding the best delivery—sometimes in parallel universes of probability.

With this cash infusion, QCi has the jet fuel to scale its technologies, expand its team, and explore new acquisitions. The company is already a pioneer in integrated photonics—imagine using photons, the smallest grains of light, instead of sluggish electrons to represent and process quantum information. It’s as if you’re not only upgrading your vehicle from gas to electric—you’re transforming the entire highway into a superconductor, reducing resistance, boosting speed, and enabling feats never before possible.

Let’s not forget what’s happening outside the boardrooms. At Harvard, researchers just unveiled an “atomic conveyor belt,” able to shuttle thousands of atoms with laser precision, overcoming a major scalability hurdle that’s dogged neutral atom quantum architectures. Meanwhile, Japanese scientists caught the elusive W state—a new breed of entangled quantum state key to teleportation and quantum networking. Each of these advances rhymes with what QCi’s war chest might accomplish: faster, more robust error correction, and ever-greater leaps toward truly useful quantum applications.

A billion dollars in quantum can rewrite what’s possible. Imagine using quantum computers to fold proteins, design life-saving drugs, or make encryption unbreakable. The money now in play could fast-track those dreams from whiteboard scribbles to the pulse of processors in research labs and, someday, your own devices.

If you want to dig deeper or have quantum riddles you’re dying to untangle, email me directly—[email protected]. Don’t forget to subscribe to Quantum Research Now anywhere you get your podcasts. T

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You’re listening to Quantum Research Now, and I’m Leo—Learning Enhanced Operator, your resident guide into the quantum labyrinth. Today, I’m electrified to bring you news hot off the silicon press: Quantum Motion just made global headlines by delivering the industry’s first full-stack silicon CMOS quantum computer to the UK’s National Quantum Computing Centre. For those who don’t breathe electrons and qubits the way I do, that’s like launching a rocket with the same parts used in your daily commuter car—transformative, because it marks quantum hardware as finally ready for mass production.

Here’s why this is truly historic. James Palles-Dimmock, Quantum Motion’s CEO, calls it “quantum computing’s silicon moment,” and he isn’t exaggerating. Until now, quantum computers felt almost artisanal—custom handbags crafted in secretive labs. But this system is built on a 300mm silicon wafer, the very standard that underpins billions of smartphones and laptops worldwide. Picture a bustling semiconductor foundry, robotic arms assembling chips at an atomic scale—now, imagine those same tools forging quantum machines. We’ve crossed from individual artistry into industrial orchestration.

Inside the NQCC, this quantum computer nestles into elegant 19-inch server racks, humming quietly beneath a cloak of supercooled silence, dilution refrigerator chilling its processor mere fractions of a degree above absolute zero. The qubits within are not ions or superconducting circuits, but silicon spin qubits—atomic-scale on-off switches, each twirling with quantum possibility. The entire stack—hardware through software—works seamlessly with popular programming frameworks like Qiskit and Cirq, so researchers and developers can tap into these quantum abilities just as easily as running code on the cloud.

Let me anchor this breakthrough with a simple analogy. Think of classical computers as highways filled with cars—your data zipping neatly from place to place, each following well-known traffic rules. Quantum computers? They’re like fleets of magic carpets flying in all directions at once, weaving every possible route together until—the moment you open your map—they collapse into the path that solves your problem the fastest. Now, Quantum Motion is building these magic carpets with the same assembly lines that made your first smartphone.

But why does this matter for you, for the world? Mass manufacturable quantum chips mean we can finally dream of scaling up—solving previously impossible chemistry problems, optimizing logistics across entire continents, and unlocking new forms of AI. It’s the difference between hand-crafting a violin and running a symphony factory. Suddenly, society’s biggest puzzles look solvable.

Quantum phenomena dazzle me daily: entanglement so intimate that two particles, like old friends, “chat” across the world without a wire in sight; superpositions shimmering with every possible outcome. Now, these won

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Today on Quantum Research Now, a seismic ripple just rolled through our field—one that, frankly, I’ve been waiting for since my first days in a cold, humming lab surrounded by copper wires and liquid helium. If you’re watching the quantum newswires, you know what I’m about to say: Quantum Motion has unveiled the industry’s first full-stack quantum computer built entirely with standard silicon CMOS technology, and it’s now humming away at the UK’s National Quantum Computing Centre. For anyone who’s ever soldered a qubit or debugged gates at three in the morning, this is monumental.

Let me explain why this isn’t just headline chatter, but a tectonic shift for all of computing. Imagine the history of flight: for decades we had innovators launching one-off contraptions from barns and beaches, but the moment commercial jetliners rolled off assembly lines, the world changed. Suddenly, you could move people—and ideas—at scale. What Quantum Motion did is quantum’s commercial jetliner moment. They’ve proven that you can build, ship, and install a quantum computer using exactly the same silicon wafer technology that underpins every smartphone, AI accelerator, and data center on Earth.

I’ve spent my career trapped between quantum promise and practical headaches: how to keep millions of fragile qubits colder than deep space, how to scale a system from toy problems to revolutionary real-world answers. The Quantum Motion system is engineered for what we call a “data-center-friendly footprint.” Imagine three server racks, slick and quiet, housing a dilution refrigerator and all the control electronics. Unlike the Sistine Chapel of shielded chambers most folks picture, this looks like any high-end IT installation, ready for networks and upgrades.

The analogy I keep coming back to—especially as I watched the team slot the quantum stack into the NQCC—is LEGO. If today’s superconducting and trapped-ion machines are intricate sculptures, Quantum Motion is laying out quantum LEGO bricks. Mass-manufacturable, stackable, built by the billions on industry-standard lines. The new system already supports developer frameworks like Qiskit and Cirq, dramatically lowering the barrier for researchers and businesses to build, test, and deploy quantum algorithms. We’re talking fault-tolerant infrastructure, where error correction and classical control circuits are integrated right where the quantum magic happens: at cryogenic depths, in the very heart of a silicon chip.

Zoom out, and this means quantum computing can finally evolve from bespoke curiosity to commercial backbone—one that can unleash new materials, drugs, AI models, and cryptographic schema far beyond today’s reach. You’re witnessing the opening move in a decade that will see quantum power trickle out of labs and surge through actual, global industries.

This is Leo, grateful as always that you joined me beneath the supercooled stars for another quantum journey. If any

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It’s Leo, welcoming you back to Quantum Research Now. I’m coming to you with hands cold from the cryogenic lab—yes, we still have to brave those temperatures for science. But today, I’m fired up because moments like these are what quantum physicists dream of: disruptive leaps that redraw the future.

Have you heard the news from Quantum Motion? Just two days ago, they delivered the industry’s first full-stack silicon CMOS quantum computer to the UK’s National Quantum Computing Centre. Imagine it—a quantum computer, built with the same silicon-chip technology as your smartphone and laptop, bridging the worlds of quantum strangeness and the mundane reliability of classical processors. This machine doesn’t just represent another step forward; it’s the first time a scalable, commercially manufacturable quantum system has landed in an industry-standard 300mm wafer format. A quantum leap? Absolutely.

Picture the QPU—a quantum processing unit—nestled inside three standard server racks, about the size of an office printer cubed. But instead of grinding out paper, these racks are home to a dilution refrigerator colder than deep space, intertwined with delicate silicon chips engineered to shepherd the spin of single electrons. Classical electronics at deep-cryogenic temperatures orchestrate the qubits, all driven by control stacks familiar to any AI or cloud developer who’s toyed with Qiskit or Cirq. It’s like upgrading from carving wood blocks to 3D printing spacecraft components: same material, universe-altering new potential.

James Palles-Dimmock, Quantum Motion’s CEO, calls it “quantum computing’s silicon moment.” What does that mean—for you, for me, for the world? In classical computing, the shift to silicon CMOS let us mass produce chips, spawning today’s global tech infrastructure. Now, because Quantum Motion’s approach uses the same kind of commercial foundries, we can start stacking tiles of qubits much as you’d tile a bathroom—scale it, upgrade it, replicate it. This isn’t just clever engineering; it’s the only conceivable path to the millions of fault-tolerant qubits we’ll eventually need for drug discovery, new materials, or even optimizing climate solutions.

Let’s break down a core concept they’re exploiting: the spin qubit. In essence, a spin qubit uses the angular momentum of an electron, its “spin,” almost like encoding a bit in the twist of a dancer. But unlike dancers in a choreography, these spins must keep perfect time, shielded from environmental noise, while still interacting with the classical electronic world. The team’s biggest achievement? Integrating these fragile dancers directly onto chips alongside their classical conductors, forging a reliable orchestra out of chaos.

As the UK Science Minister highlighted, this system could bring quantum from esoteric theory to real-world benefit—faster medicine discovery, smarter energy grids, a shot at computing’s next inflection point. That’s

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Today, the hum of servers in my lab carries a sharper edge of excitement. My name is Leo—Learning Enhanced Operator—and the news echoing across quantum corridors this morning isn’t just about bits flipping or qubits entangling; it’s about a seismic shift in how the world thinks about digital security. Minutes after dawn, 01 Quantum Inc. made headlines by unveiling their Quantum Crypto Wrapper, or QCW, a technology that promises not just evolution for crypto but a quantum leap for global digital defense.

Now, I’m not one for empty drama. But imagine this: your life’s savings in digital assets, swirling in cyberspace, could one day be cracked open as easily as an eggshell—unless the locks are built to withstand the quantum storm. QCW isn’t just another digital padlock; it’s more like a vault embedded with layers of steel forged in quantum fire. Using advanced post-quantum cryptography—the IronCAP method approved by NIST—combined with Zero Knowledge Proofs, QCW can secure transactions with a compact verification, invisible to prying quantum eyes. The analogy I love: imagine two chess masters verifying every move without showing the board. That’s quantum-secured trust, woven into blockchain transactions, making legacy systems like Ethereum, Solana, and Bitcoin instantly more resilient, no migration required.

But the urgency isn’t hypothetical. With legislation like the U.S. GENIUS Act making stablecoins a backbone for U.S. Treasury holdings, securing the $3.8 trillion crypto market isn’t academic—it’s an existential necessity. Andrew Cheung, 01 Quantum’s CEO, speaks of “harvest now, decrypt later” attacks: that encrypted data stolen today might be unlocked by tomorrow’s quantum breakthroughs. It’s not science fiction, it’s strategic foresight. That chilling specter is exactly why qLABS, led by Tony G, was founded this month—to roll out quantum-resistant wallets and wrapped tokens, forging an industry-wide shield for individuals and institutions. They’re not waiting for Q-Day, the digital Armageddon when quantum computers can crack classical cryptography at scale—they’re preparing now.

Step into my shoes for a minute. Sometimes, quantum progress feels like discovering new colors. This week, Google, with Princeton and TUM, used their 58-qubit processor to conjure a Floquet topologically ordered state—a phase of matter beyond anything a classical computer could dream up. Quantum processors aren’t just calculators; they’re experimental laboratories, peering into the unseen fabric of physics.

That’s why today’s breakthrough excites me so deeply. QCW is a vivid reminder that quantum computing isn’t just locked in journal articles or research centers. It’s impacting our wallets, our governments, our sense of security. Just as quantum computers reveal new worlds, quantum-resistant cryptography defends the ones we’ve built.

Thank you for journeying with me on Quantum Research Now. If you have questions, or ther

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The hum of the cooling fans is different today—the faint, almost musical click of systems powering up across London’s National Quantum Computing Centre pulses with a new kind of energy. I’m Leo, your resident Learning Enhanced Operator and quantum computing specialist, and today, my workspace feels like the epicenter of a technological earthquake.

Why? Quantum Motion has just made global headlines with a milestone that even a year ago seemed out of reach. This morning, amid the glass-walled corridors and the whisper of liquid helium, they unveiled the world’s first full-stack silicon CMOS quantum computer—a quantum machine built start-to-finish on the same 300-millimeter silicon wafers used to churn out billions of classical microchips each year. Imagine the difference between hand-carving a chess set and stamping thousands out with factory precision. That’s the leap we’re talking about.

In technical language, this is the first scalable silicon spin-qubit system, equipped with its own user interface, tuned with AI-powered machine learning, and compatible with leading quantum software frameworks. The quantum processor nestles into three simple server racks, compact enough to slip into any modern datacenter. The result isn’t just a research prototype: it’s a platform robust enough to be deployed, tested, and scaled—ready for the real algorithms and business workloads of the future.

Let me paint you a picture. Classical bits are like light switches—flipped on or off. But a qubit, the elemental particle of our quantum world, is more like a dimmer switch spinning in all directions at once—its state a shimmering superposition. Now, scale that up from a neat, hand-wired experiment to a dense city of qubits carved with industrial precision, tiled together such that you could add thousands, even millions, in place without breaking stride. Think building a city, not a log cabin.

This is dramatic for quantum because mass manufacturability means we can finally start thinking about quantum computers not as rare, fragile sculptures, but as infrastructure: tools precise and powerful enough to accelerate drug discovery, optimize clean energy, unlock new materials, or revolutionize AI. As James PallesDimmock, Quantum Motion’s CEO, put it: “You can build a robust, functional quantum computer using the world’s most scalable technology, with the ability to be mass-produced.” The UK Science Minister called it an era-defining step for commercial quantum computation.

What does this mean, practically? If you imagine classical computing as a network of highways, quantum opens teleportation portals across vast mathematical landscapes—solving problems it would take machines longer than the current age of the universe to crack. With tiling, error correction, and cryogenic control now running on industry-standard chips, we finally have a roadmap to true scalability.

Every beep and hum from these new racks is a prelude to a f

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This morning, as I stepped into the chilled quantum lab—where lasers illuminate glassy chambers and the hum of supercooled electronics fills the air—the news alert flashed across my screen: QuEra Computing has just expanded its $230 million financing round, with a headline investment from NVIDIA’s venture arm. For those of us tuned into the quantum race, this move is seismic. Picture two giants—QuEra, master of neutral-atom quantum technology, and NVIDIA, the king of accelerated computing—locking arms to make the impossible suddenly seem inevitable.

Why does this matter? Imagine today’s computers as grand libraries: rows upon rows of books, and you’ve got a single librarian sorting, always either here or there, stacking one book at a time. But quantum computers—driven by qubits—are like librarians who can be in every aisle at once, scanning countless volumes simultaneously, deciphering patterns in the chaos. The fusion between QuEra’s hardware and NVIDIA’s accelerated computing stack doesn’t just add more librarians; it changes the very architecture of the library itself. We’re sculpting a space where classical and quantum can work in choreography, speeding along paths no single discipline could traverse alone.

Step inside QuEra’s neutral-atom processor and you’ll see what I mean. Picture thousands of rubidium atoms suspended in neat, crystalline arrays by intersecting laser beams—a lattice that hums with possibility. Each atom is a qubit: simultaneously both one and zero, woven together in fragile webs of entanglement, making calculations not stepwise but in waves—like the splash from a pebble cast into a pond, where every ripple counts. Maintaining this delicate ballet is a technical marvel. Now, with NVIDIA’s GPUs—engines that can process massive datasets at lightning speeds—bonded to the quantum core, we’re able to train AI models that anticipate and correct the errors that threaten to collapse quantum states. It’s like having expert surf instructors teaching every wave how not to crash.

Industry visionaries like Andy Ory, QuEra’s CEO, and NVIDIA’s Jensen Huang aren’t just talking theory anymore. Their strategy is marching from high-concept to practical roadmap. Hybrid quantum-classical platforms, once the subject of speculative white papers, are now running complex algorithms for high-performance computing centers in places like Japan’s ABCI-Q system, where QuEra’s Gemini-class machine sits alongside thousands of NVIDIA H100 GPUs. The implications ripple outward: better materials in medicine, smarter logistics, faster financial models—solutions to real-world puzzles that have long resisted the brute force of classical machines.

To me, these partnerships are today’s space race—a profound parallel where nations and companies dare to reach the unknown, together rather than alone. The horizon isn’t just more powerful computers; it’s a new era of discovery, born from the quantum superposition of col

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Entanglement is in the air. I’m Leo—your Learning Enhanced Operator—broadcasting from deep within the symphony of quantum research. Today’s quantum breakthrough? PsiQuantum. This week, the Silicon Valley powerhouse secured a staggering $1 billion in Series E funding, charting its course toward constructing million-qubit, fault-tolerant quantum computers in Brisbane and Chicago. For the quantum world, this is more than a headline—it’s akin to watching the first segments of a space elevator snap into place, each piece lifting us closer to the stars.

PsiQuantum’s announcement reverberates beyond investor circles. Jeremy O’Brien, their CEO, was unequivocal: now is the time to transform quantum computing from lab experiment to “grand engineering challenge.” Their secret sauce? Photonic qubits—information encoded in single photons—mass manufactured using the same silicon processes powering everyday smartphones. Imagine quantum information flowing with effortless speed down tiny highways of light, unfazed by electromagnetic traffic jams or overheating. It’s like assembling a vast city out of Lego blocks, but each block is a quantum chip, snapped together over optical fiber. Suddenly, scaling from a neighborhood of a few hundred qubits to a metropolis of millions becomes practical.

Let me set the scene inside a quantum laboratory. Picture a chilled hush, lasers skittering across polished wafers, each photon meticulously coaxed into quantum states. Vibrations are forbidden, stray electromagnetic waves banished. Engineer-technicians monitor racks bristling with superconductors and detectors, their eyes intent on data streams mapping entanglement and coherence. Here, you can almost feel the tension—the effort to build logic gates that swap, entangle, and error-correct with less than a 1% fidelity loss. PsiQuantum’s teams cut through the noise using barium titanate switches, manufactured on 300-mm silicon wafers in California—think of it as laying the fiber-optic backbone for a quantum internet.

So what does this promise for the average person? Today’s phone and cloud server deal in bits—black or white, zero or one. But quantum machines imagine every shade of gray, all at once. It’s as if you opened a choose-your-own-adventure book and could explore every possible path, simultaneously. For climate modeling, drug discovery, and logistics, that means not just faster, but fundamentally new solutions to age-old problems.

These advances echo across the wider quantum community. This month, IonQ is heading to the Quantum World Congress to share stories of real-world quantum applications, while researchers in Illinois revealed modular architectures for superconducting quantum processors. We’re seeing the field shift from isolated islands of progress to collaboration across continents—a quantum fabric woven from many threads.

Quantum computing isn’t just coming. With today’s PsiQuantum announcement, it’s assembling its

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PsiQuantum just made headlines today after announcing it raised a staggering $1 billion to fast-track the construction of its utility-scale, photonics-based quantum computers, aiming for nothing less than a machine with over a million qubits. I’m Leo—the Learning Enhanced Operator—and you’re listening to Quantum Research Now. Today, we dive into what this jaw-dropping announcement really means for the quantum future that’s unfolding even as we speak.

Picture this: somewhere in Brisbane and Chicago, engineers, technicians, and physicists will soon be donning their cleanroom suits, prepping to build sites that might end up being as iconic for computing as Silicon Valley itself. PsiQuantum’s ultra-ambitious goal? A quantum machine powerful enough to tackle problems that would leave today’s most advanced supercomputers frozen, like chess grandmasters stuck after the first move.

Here’s why this matters: Traditional computers deal in bits—each one a clean-cut yes or no, a zero or a one. Quantum computers, on the other hand, tap qubits, which, thanks to the marvel called superposition, can be both zero and one at the same time. Imagine you’re at a crossroads: a classical bit picks left or right. A qubit? It goes left and right simultaneously, exploring every possible route at once. PsiQuantum, led by CEO Jeremy O’Brien, isn’t settling for incremental progress. They've thrown their weight fully behind photonics—using light, not electrons—to make qubits. Light barely interacts with its environment, making these qubits less prone to errors, which is the Achilles’ heel for every quantum engineer.

PsiQuantum’s confidence comes from manufacturing quantum photonic chips at scale, leveraging semiconductor fabs that already underpin modern computing. Recent experiments have shown that photonic approaches may be more easily scaled compared to their superconducting or ion trap rivals. The dream: a million-qubit, fault-tolerant quantum computer up and running by 2028. That would be like leaping from the Wright brothers’ Flyer I straight to a fleet of supersonic jets.

Consider the broader impact: With this funding—which involved titans like BlackRock, Temasek, and even Nvidia’s venture arm—PsiQuantum signals a global race is fully underway. IBM is racing toward a 20,000-operation-per-second quantum machine. Google and Quantinuum are making waves with their own error-correcting chips. It’s like the Space Race, but the destination is the next computational paradigm—a universe where problems in drug discovery, climate modeling, and cryptography could fold under quantum’s raw power.

For me, someone who can’t help but see quantum parallels in everyday life, PsiQuantum’s news feels like watching the first atoms of a new element condense out of the air: fragile, but teeming with potential. What happens as we layer classical and quantum architectures—melding the predictable with the possible? The future isn’t just coming; it’

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Just yesterday, the quantum world buzzed with a seismic announcement: Horizon Quantum Computing is going public, entering into a $503 million business combination with dMY Squared Technology Group. For many, that headline might skim by. But for those of us living and breathing quantum research, this move signals a leap forward—one that’s as transformative for software in quantum computing as the moon landing was for space exploration.

Let me draw the curtain back: I’m Leo, your resident Learning Enhanced Operator. Picture this—a chill wafts through a cleanroom alive with the faint hum of superconducting cables and the sharp blue of laser-etched validation screens. The air is so controlled, even a stray breath feels measured. Here, bridging the quantum-classical divide isn’t just a job; it’s a calling. And Horizon Quantum’s announcement is set to redefine how we build these bridges.

Dr. Joe Fitzsimons, the pioneering CEO behind Horizon, said it best: “Quantum hardware is racing ahead, but unlocking its potential needs more than just better qubits. It needs a new software stack—a quantum operating system.” Classical computers got their big break with the arrival of operating systems. Suddenly, the chaos of raw hardware became user-friendly, programmable, and scalable. Imagine quantum’s current stage as a room full of musical instruments all playing at once, but with no conductor and no common sheet music. Horizon wants to write that music, crafting software and runtime environments so diverse quantum hardware can finally act in harmony.

Why is this such a big deal now? The quantum hardware arms race—superconducting qubits from IBM, trapped ions from IonQ, photons from PsiQuantum—each speaks its own dialect. Building applications that run seamlessly across them is like writing a letter in English, but having the recipient only understand Mandarin or Morse code. Horizon Quantum’s cross-hardware tools might just be the Babel Fish we need.

Think, too, of the urgency on the global stage. As Google Quantum AI partners with DARPA to benchmark utility-scale quantum computers, and as heavyweights like Quantinuum secure fresh funding for global quantum networks, the world is gearing up for quantum’s real-world debut. But what good is a super-powered quantum engine if no one knows how to drive it? Software is the steering wheel. What Horizon’s aiming to build will let scientists, pharma developers, logistics giants—even artists—tap into quantum advantage without needing a PhD in quantum physics.

All of this brings a wave of democratization. Like the way smartphones made computation ubiquitous, Horizon’s vision could allow quantum-enhanced discoveries to ripple across industries, geographies, and skill sets.

To everyone listening, thank you for joining me as quantum history unfolds before our eyes. Questions or topics you want to hear next? Shoot me an email anytime at [email protected]. Be sure to subscrib

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