Quantum Tech Updates

Inception Point Ai

This is your Quantum Tech Updates podcast. Quantum Tech Updates is your daily source for the latest in quantum computing. Tune in for general news on hardware, software, and applications, with a focus on breakthrough announcements, new capabilities, and industry momentum. Stay informed and ahead in the fast-evolving world of quantum technologies with Quantum Tech Updates. For more info go to https://www.quietplease.ai Check out these deals https://amzn.to/48MZPjs

  1. VOR 17 STD.

    Quantum Leaps: EeroQ's Warm Qubits Redefine Scalability | Quantum Tech Updates

    This is your Quantum Tech Updates podcast. Picture this: It’s midnight in a quantum lab, the air tinged with the faint chill from liquid helium and the deeper thrill of possibility. I’m Leo—the Learning Enhanced Operator—and you’re tuned into Quantum Tech Updates. Let’s dive right in because today’s headline is a milestone that makes the word “breakthrough” feel like an understatement. Earlier today, EeroQ, a quantum hardware innovator out of Chicago, published in Physical Review X what may go down as a keystone moment for scalable quantum computing. For decades, we’ve been locked in a frigid arms race: quantum bits—qubits—needed to be conscripted to near absolute zero, just a few millikelvin, to keep their delicate quantum states alive. But EeroQ flipped the script. Their scientists managed to corral and control individual electrons on superfluid helium at temperatures over 1 Kelvin—more than a hundred times warmer than before! Let me set the scene: These electrons levitate above an impossibly pure pool of liquid helium, dancing to the tune of superconducting microwave circuits. It’s like coaxing fireflies to blink in perfect unison, except the “light” here is the potential for computers that dwarf classical machines. Why does this matter? Imagine running your laptop in Antarctica’s harshest winter—not exactly handy or scalable. With EeroQ’s advance, suddenly it’s as if your quantum laptop could operate comfortably in your living room. Less chilling, more thrilling. Now, for a sense of scale. In classical computing, one bit is a light switch: it’s on or off. But a quantum bit is like a suspended coin spinning in the air, holding both heads and tails, and also entangling with every other coin in the room. Every time a warm-blooded qubit stands strong above 1 Kelvin, we move closer to quantum processors with thousands—someday millions—of these spinning coins, unleashing computational forces no supercomputer today can match. These hardware leaps are transforming theory into reality across the globe. At Duke University, researchers are crafting a 96-qubit quantum computer using trapped-ion technology, each ion holding its quantum coin. The leap from their current 32-qubit scale is enormous, and the goal—a practical, programmable system that acts as the proving ground for quantum error correction and hybrid quantum-classical algorithms. Of course, nothing in quantum computing is static. Adaptive quantum circuits, as showcased in the upcoming AQC25 Conference in Boston, are enabling live, real-time tweaks to algorithms while they’re running. Imagine a symphony orchestra that can rewrite its music mid-performance—except the composers are researchers from MIT, Yale, and quantum powerhouses IBM and Google. The quantum world feels, sometimes, like the global scene—ever-adaptive, collaborative, and always one unexpected breakthrough away from a paradigm quake. As you follow market headlines about quantum’s impact on portfolio optimization at Vanguard or HSBC, know the real seismic shifts start at the hardware level—in cold rooms, at the threshold of what’s possible. Thanks for joining me, Leo, on Quantum Tech Updates. If you’re brimming with questions or want to hear your topic discussed, shoot me an email at leo@inceptionpoint.ai. Subscribe so you never miss the wave, and remember—this has been a Quiet Please Production. For more, wander over to quiet please dot AI. Stay coherent, friends. For more http://www.quietplease.ai Get the best deals https://amzn.to/3ODvOta This content was created in partnership and with the help of Artificial Intelligence AI

    4 Min.

  2. VOR 2 TAGEN

    Quantum Leap: 6,100 Qubits Shatter Barriers, Redefining Computational Reality

    This is your Quantum Tech Updates podcast. Quantum computing just shattered another barrier, and I'm Leo, your quantum guide through the latest breakthrough that's rewriting the rules of computational reality. Picture this: Caltech physicists just assembled 6,100 individual cesium atoms into the largest quantum bit array ever created, each atom suspended in laser light like microscopic diamonds floating in crystalline precision. Published today in Nature, this achievement dwarfs previous neutral-atom systems that barely managed hundreds of qubits. To understand the magnitude, imagine classical computing as writing with a single pen, while quantum computing with 6,100 qubits is like orchestrating 6,100 pens simultaneously, each capable of writing in multiple dimensions at once. But here's where quantum physics becomes poetry. These aren't just any qubits, they maintained quantum superposition for 13 seconds while researchers manipulated individual atoms with 99.98 percent accuracy using optical tweezers. Think of trying to conduct a symphony orchestra where each musician exists in multiple positions simultaneously, yet you achieve near-perfect harmony. The team demonstrated something extraordinary: they could move these quantum performers hundreds of micrometers across their array while preserving their delicate superposition states. Meanwhile, IonQ dropped their own quantum bombshell, achieving an algorithmic qubit score of 64 on their Tempo system, three months ahead of schedule. This isn't just incremental progress, it's exponential revolution. AQ 64 means accessing over 18 quintillion quantum states simultaneously, a computational space 268 million times larger than what they achieved just months ago. Their CEO estimates these systems could replace up to one billion GPUs for certain calculations while consuming dramatically less energy. The convergence is breathtaking. Rigetti Computing secured 5.7 million dollars in orders for their complete quantum systems, marking quantum computing's transition from laboratory curiosity to commercial reality. Researchers are no longer content with cloud access, they're bringing quantum hardware in-house, democratizing access to hands-on quantum experimentation. What strikes me most profoundly is how these neutral-atom systems offer dynamic reconfigurability compared to rigid superconducting circuits. It's like comparing a Swiss Army knife to a hammer, both tools have their purpose, but one adapts to countless scenarios while the other excels in specific applications. These milestones collectively signal that we're approaching the threshold where quantum advantage becomes quantum reality. From drug discovery to energy optimization, the problems that have challenged humanity for decades are now within computational reach. The quantum revolution isn't coming, it's here, unfolding in university laboratories and corporate research facilities worldwide, one precisely controlled atom at a time. Thank you for joining me on this quantum journey. If you have questions or topics you'd like discussed on air, send an email to leo@inceptionpoint.ai. Remember to subscribe to Quantum Tech Updates. This has been a Quiet Please Production, and for more information, check out quietplease.ai. For more http://www.quietplease.ai Get the best deals https://amzn.to/3ODvOta This content was created in partnership and with the help of Artificial Intelligence AI

    3 Min.

  3. VOR 4 TAGEN

    Quantum Leaps: Star-Shaped Qubits, Bond Trading Breakthroughs, and Atom Chess

    This is your Quantum Tech Updates podcast. Today, I’m coming to you from the frigid heart of quantum hardware’s latest temple—a place so cold, so silent, it makes deep space seem like a bustling city street. Just days ago, here at the IT4Innovations National Supercomputing Center in Ostrava, European scientists unveiled a new quantum machine: the VLQ quantum computer, a masterpiece with 24 superconducting qubits arranged in a star-shaped topology. You can picture the qubit architecture like a constellation, each quantum bit shining with potential, all connected to one another—akin to a roundtable of visionaries, where every participant can reach out and touch any other directly. Why is that architecture so significant? In classical computing, bits are like single seats in a packed stadium—you need to relay messages, hop from neighbor to neighbor, and swapping seats takes time. With VLQ’s star-shaped qubits, communication paths shrink dramatically, cutting down computational detours. These quantum bits, unlike their classical cousins that are strictly 0 or 1, can be 0, 1, or both simultaneously thanks to superposition. That’s like seeing every possible outcome of a chess game unfold at once, rather than playing each move consecutively. Now picture this: beneath that golden, multi-tiered chandelier of a cryostat—gleaming, massive, almost regal—these 24 fragile qubits hover at just 0.01 degrees above absolute zero. At such mind-bending cold, quantum information rarely strays, insulated from the chaos of the outside world. I sometimes think about the markets outside, crowds rushing to trade bonds—while, inside the VLQ, silence reigns and probabilities dance in the shadows. Speaking of markets, this week HSBC revealed their quantum breakthrough in bond trading, collaborating with IBM’s latest quantum processor—a Heron chip. They reported a staggering 34% improvement in predicting trades. Imagine what that means in an over-the-counter bond market: quantum algorithms sifting through a million quotes and five thousand bonds in mere minutes, where classic systems take hours or days. The superposition and entanglement at play here is the quantum trader’s unfair advantage—the difference between sifting sand grain by grain or pouring the whole beach into your hand at once. Not all quantum landscapes are carved from superconductors. QuEra, in Boston, has just published research on neutral-atom quantum computers, showing a breakthrough in error correction. These systems use identical atoms as qubits, rearrangable at will. It's like playing quantum chess with pieces you can teleport around the board—less hardware overhead, room temperature comfort, scalability at your fingertips. And let’s not forget IonQ’s networking leap. Collaborating with the US Air Force Research Lab, they've bridged quantum and telecom wavelengths—converting visible photons (the language of quantum bits) into telephone lines the world already uses. It’s like finally teaching quantum computers to speak across continents, using our existing fiber networks. As quantum trails spread, from star-shaped cryostats in Europe to trading floors in London, to photon highways running through the heart of America, the future draws nearer—cold, fast, and thrillingly connected. If you have any burning questions or topics you want spotlighted on Quantum Tech Updates, you can reach me directly at leo@inceptionpoint.ai. Don’t forget to subscribe; Quantum Tech Updates is a Quiet Please Production—head to quietplease.ai for more. Thanks for joining your weekly quantum deep dive. For more http://www.quietplease.ai Get the best deals https://amzn.to/3ODvOta This content was created in partnership and with the help of Artificial Intelligence AI

    4 Min.

  4. VOR 5 TAGEN

    Europe's Quantum Leap: VLQ's 24-Qubit Marvel Unveiled in Ostrava

    This is your Quantum Tech Updates podcast. Imagine this: you’re deep underground in Ostrava, Czech Republic. The air is dry and tinged with faint metallic chill. Sunlight is replaced by phosphorescent halos reflected on glassy tubes and a spectacular glint—almost theatrical—off a 300-kilogram gold chandelier. But this isn’t art. You’re standing at the heart of Europe’s brand new quantum hardware milestone: the VLQ quantum computer, just inaugurated this week at the IT4Innovations National Supercomputing Center. This is Leo, your Learning Enhanced Operator, for Quantum Tech Updates, and today, we step straight into the quantum core of Europe’s latest leap forward. VLQ is a technological marvel—a 24-qubit superconducting quantum computer designed in a star topology, all under a cryostat chilled to just 0.01 degrees above absolute zero. That’s colder than deep space. Why? Because even a whisper of heat would erase the delicate quantum states inside, like smudging chalk on a blackboard. Why does the quantum world care so much about temperature—and why do we obsess over qubits? Let’s draw an analogy. In a classical computer, a bit is a tiny switch—on or off, one or zero. But a qubit, the lifeblood of VLQ, is much more. Picture a gymnast balancing gracefully on a beam, arms extended, not just standing left or right—but able to blend both. Qubits can reside in a superposition of one and zero, enabling them to perform mind-bending computations in parallel. While 24 classic bits yield 16 million possible combinations, 24 qubits crack open more than 16 million possibilities simultaneously. It’s as if your calculator became a crowd—the quantum crowd—working on problems all at once. VLQ’s star-shaped qubit layout gives every qubit direct access to each other—like a brainstorming session where every expert can speak directly, no whispers passed along a chain. This design minimizes the pesky data swaps that slow other systems and boosts efficiency, especially as Europe seeks practical, scalable quantum power. It’s dramatic, yes—but we live in dramatic times. HSBC, just days ago, declared a ‘Sputnik moment’: by using IBM’s Heron quantum processor, they achieved a 34% jump in bond price predictions compared to traditional methods. Not a simulation—real production-scale data. We’ve moved from theory to market impact. The financial sector is now truly in the quantum race. The White House, meanwhile, set quantum and AI as the top research priorities for the nation, signaling that these “strange and beautiful” machines are no curiosity—they’re a new frontier. From Ostrava’s frosted quantum chandelier to Wall Street’s algorithmic arms race, the quantum world is moving from cold labs to mainstream reality. Thanks for letting me be your guide on this journey. If you’re curious, or you want to toss a quantum riddle into the mix, send your thoughts to leo@inceptionpoint.ai. Subscribe to Quantum Tech Updates, so you never miss a leap. This has been a Quiet Please Production. More at quiet please dot AI. For more http://www.quietplease.ai Get the best deals https://amzn.to/3ODvOta This content was created in partnership and with the help of Artificial Intelligence AI

    4 Min.

  5. 26. SEPT.

    Caltech's 6,100 Atom Quantum Array: Shattering Records and Illuminating the Future

    This is your Quantum Tech Updates podcast. Have you ever seen 6,100 pinpoints of laser light sparkle in an ultra-high vacuum chamber, each one marking the place where quantum possibility blooms? I’m Leo, Learning Enhanced Operator, bringing you the freshest quantum pulse right here on Quantum Tech Updates. Yesterday, Caltech physicists shattered the record for neutral-atom quantum computing arrays, trapping a grid of 6,100 cesium atoms with optical tweezers—an achievement that quite literally lights up the future. Let’s cut straight to the heart of this milestone. Classical bits—the zeros and ones of ordinary computing—are like tiny flashlights, on or off, nothing more. Quantum bits, or qubits, dance with superposition: simultaneously on and off, bathed in uncertainty and entanglement. Imagine the difference between flipping a coin and watching it spin in midair—qubits are the coins in flight. With 6,100 neutral atoms, Caltech didn’t just add more spinning coins; they sustained each qubit’s superposition for over 13 seconds, nearly ten times longer than previous efforts. Manipulating single atoms with 99.98 percent precision at this scale is like orchestrating an army of acrobats, each flipping in perfect unison. Now, here’s where it becomes extraordinary: maintaining quantity and quality together. Scaling up, usually, means more errors. Not this time. The team, led by Manuel Endres, showed that quantum error correction—a kind of digital immune system—remains strong even with thousands of atoms. Think of each extra qubit as the seatbelt and airbags for quantum data on a high-speed computational highway. If you’re picturing the surreal, you’re not alone. I watched a livestream of their experiment, where each atom appeared as a crisp point on the monitor—a shimmering constellation created by thousands of invisible quantum hands. The hum of lasers, the faint thrumming of vacuum pumps, the delicate ballet performed in a room chilled almost to the temperature of interstellar space. It’s a sensory experience bridging physics and poetry. And this hardware leap isn’t alone. Over in Ostrava, the IT4Innovations National Supercomputing Center just unveiled VLQ: a star-topology quantum computer with 24 superconducting qubits. The chip, kept a mere 0.01 degrees above absolute zero—colder than Pluto’s shadow—sits beneath a gleaming, 300-kilo gold cryostat chandelier. Its star shape connects every qubit directly, slashing the need for time-wasting swaps and enabling robust error correction, vital for tomorrow’s quantum breakthroughs in machine learning and material science. Both systems, though vastly different, edge us closer to a world where quantum processors communicate across continents on fiber networks, their bits weaving code in superposition and entanglement, like the global conversations that shape our interconnected reality. That’s today’s quantum snapshot—pins of light, frozen silence, star-shaped resilience—hardware milestones whose echoes you’ll feel in every discovery to come. If you have questions, crave deeper dives, or want your topic featured, shoot me an email: leo@inceptionpoint.ai. Don’t forget to subscribe to Quantum Tech Updates wherever you listen. This has been a Quiet Please Production. For more, visit quietplease dot AI. Stay curious—the quantum dawn is just getting brighter. For more http://www.quietplease.ai Get the best deals https://amzn.to/3ODvOta This content was created in partnership and with the help of Artificial Intelligence AI

    4 Min.

  6. 24. SEPT.

    Quantum Leap: VLQ's Star-Shaped Qubits Redefine Computing at 0.01 Degrees Above Absolute Zero

    This is your Quantum Tech Updates podcast. If you were in Ostrava yesterday, you would have felt the tremor—not under your feet, but across the European quantum research landscape. My name is Leo, Learning Enhanced Operator, and today, as your guide through Quantum Tech Updates, I want to immerse you in the electric atmosphere of a hardware milestone that’s bound to redefine the boundaries of quantum computation. Inside the IT4Innovations National Supercomputing Center, the VLQ quantum computer now hums quietly at just 0.01 degrees above absolute zero—the kind of cold that makes deep space seem balmy by comparison. To achieve this, engineers have installed a cryostat resembling a multi-tiered gold chandelier, weighing nearly 300 kilograms. The VLQ’s architecture is dramatic: imagine 24 superconducting qubits arranged in a star-shaped topology, each qubit in intimate conversation with a central resonator. Instead of classical bits clacking between zeros and ones, these quantum bits surf the edge of probability, singularly fragile and interconnected—think of them as the string section in a symphony, carefully tuned for perfect resonance. Why does this star-shaped arrangement matter? Here’s a tangible analogy. Picture a newsroom versus a soccer stadium. In a newsroom, classical bits relay messages tidily, one desk at a time. In VLQ’s star layout, every quantum “desk”—or qubit—can broadcast and swap information instantly with many others, much like teammates passing the ball with perfect coordination. This minimizes swap operations, allowing quantum algorithms to solve previously intractable problems with deft speed. It’s a leap from solo performance to ensemble mastery. The VLQ is not just a Czech achievement but a pan-European collaboration. Thirteen partner institutions across eight nations have pooled expertise and funding to make this happen. It’s directly linked to the Karolina supercomputer—another marvel in Ostrava—bridging the worlds of classical and quantum, and empowering researchers in drug development, material science, financial modeling, and secure communications to accelerate innovation. Imagine discovering new molecules for vaccines or optimizing supply chains in minutes—a feat today’s digital supercomputers can only dream of. There’s drama in the details. Maintaining quantum coherence at these glacial temperatures is as challenging as balancing a pencil on its tip during an earthquake. Any stray heat or vibration could topple the delicate qubit states. The VLQ’s gleaming apparatus is a testament to human ingenuity, where advances in cryogenics and superconducting circuits converge with solution-finding at almost unimaginable scales. As Europe continues to unveil systems like VLQ, our continent’s quantum ecosystem grows more diverse and resilient, giving global competitors reason to watch closely. The qubits in Ostrava may be silent, but their message is thunderous: we are entering a new era in computation. Thank you for joining me on Quantum Tech Updates. If you have any questions or want a topic discussed on air, email me at leo@inceptionpoint.ai. Subscribe to Quantum Tech Updates, and remember, this has been a Quiet Please Production. For more information, check out quietplease.ai. For more http://www.quietplease.ai Get the best deals https://amzn.to/3ODvOta This content was created in partnership and with the help of Artificial Intelligence AI

    3 Min.

  7. 22. SEPT.

    Quantum Leap: NVIDIA DGX Quantum Fuses Classical and Quantum Computing

    This is your Quantum Tech Updates podcast. I’m Leo, your Learning Enhanced Operator, and today’s Quantum Tech Update is fresh from the front lines of quantum hardware evolution. Picture yourself walking down the halls of the Jülich Supercomputing Centre in Germany—air thick with anticipation, the buzz of Europe’s fastest supercomputer JUPITER echoing all around. Just days ago, Jülich became the first high-performance computing center in the world to deploy the NVIDIA DGX Quantum system, and this milestone is not just a line in a press release—it’s the moment quantum computing steps out of the lab and into the real world. Here’s why this integration turns heads across the quantum landscape. Imagine quantum bits—qubits—are like those elusive, multi-talented chess masters who can play every possible move at once, while classical bits are pawns locked into one square at a time, tirelessly shuffling one foot forward. Now, for the first time, we’ve let the chess masters join the grandmasters of high-performance classical computing in the very same tournament room, thanks to the marriage of Arque Systems’ five-qubit chip and the Grace Hopper Superchip by NVIDIA. Why does this matter? In concrete terms, this hybrid system achieves round-trip data transfer with latency under four microseconds—about a thousand times faster than what previous attempts offered. It’s like going from carrier pigeons to fiber optics overnight. This means researchers can now execute neural networks and calibration routines on GPUs and process quantum data within the coherence window of those delicate qubits—closing the feedback loop before decoherence has a chance to muddy the results. I watched researchers at Jülich orchestrate quantum error correction routines with a precision reminiscent of musicians tuning a world-class orchestra, each qubit’s fragile note amplified, protected, and optimized by real-time classical computation. When we talk about error correction—one of the holy grails of quantum computing—we’re discussing the ability to harness notoriously slippery quantum states and make them robust enough for meaningful computation. This is the path toward solving previously uncrackable problems in fields ranging from chemical simulation to cryptography. The significance resonates beyond Germany. At EPB Quantum in Tennessee, the addition of hybrid computing—with partners like NVIDIA, Oak Ridge National Laboratory, and lonQ—signals that the age of quantum-classical teamwork is no longer theoretical. Soon, we’ll see the optimization of power grids, accelerated drug discovery, and more, as classical and quantum processors operate on complementary tracks rather than in competition. As headlines shout of AI breakthroughs, remember: quantum computing’s quiet revolution is happening not in isolation, but in deep, harmonious integration with AI hardware. The DGX Quantum system is the hinge, swinging open the doors to scalable, practical quantum applications. Thanks for tuning in to Quantum Tech Updates. If you have burning questions or a quantum topic you’d like unraveled, just send me a note at leo@inceptionpoint.ai. Don’t forget to subscribe, and remember—this has been a Quiet Please Production. For more, visit quietplease.ai. For more http://www.quietplease.ai Get the best deals https://amzn.to/3ODvOta This content was created in partnership and with the help of Artificial Intelligence AI

    3 Min.

  8. 19. SEPT.

    Quantum Leap: EPB's Hybrid Platform Fuses Classical and Quantum Computing

    This is your Quantum Tech Updates podcast. No time for pleasantries—let’s jump right into this week’s quantum hardware milestone that’s electrified the field. Picture it: Chattanooga, Tennessee, Wednesday at the Quantum World Congress. EPB Quantum, in partnership with Oak Ridge National Laboratory and NVIDIA, pulled back the curtain on a new hybrid computing platform that fuses a commercial quantum network, NVIDIA’s top-tier classical DGX system, and lonQ’s forthcoming Forte Enterprise Quantum Computer. The electricity in the EPB Quantum Center’s server room was palpable, both figuratively and literally, as neon data cables snaked between refrigerator-cold dilution units humming beside banks of GPU arrays. Why is this such a big deal? Let’s bring it home: imagine if, instead of choosing between a bicycle and a car, you could fuse the strengths of both on your daily commute. That’s hybrid computing for quantum and classical hardware. We’re not abandoning our old digital workhorses—those classical bits, 1s and 0s, are as essential as ever. But by entwining them with the versatile, entangled quantum bits—or qubits—we create information machinery that can climb computational mountains previously thought insurmountable. A single qubit, thanks to the wonder of superposition, can embody both 0 and 1 at the same time. Layer in entanglement, and suddenly a handful of qubits can encode information exponentially richer than any sea of classical bits. But—here’s the rub—quantum systems are delicate as a soap bubble in a tornado. That’s why EPB Quantum’s hybrid system is such a game-changer: by coordinating the brute reliability of NVIDIA’s DGX classical accelerators with the subtlety of quantum processors, we’re seeing real-world algorithms—like power grid optimization—deployed at scale for the first time. In their debut project, EPB and Oak Ridge are using this hybrid stack to sift through mountains of grid sensor data. The stakes? Improved power distribution and grid resilience across 600 square miles. If you think that sounds local, think again—success here will set the template for modernizing energy systems nationwide, a quantum ripple effect that could echo into every home and business. Zoom out, and the march toward quantum industrialization is accelerating globally. Japan declared 2025 the “first year of quantum industrialization.” DARPA’s Benchmarking Initiative is pushing companies like lonQ, IBM, and Microsoft to reach utility-scale quantum power by 2033. The race isn’t just in labs; it’s about national security, new medicines, and unlocking nature’s most encrypted puzzles. You can almost feel the quantum parallel to our interconnected world—different platforms, cultures, and ideas, distinct as classical and quantum processes, forming something greater by working in tandem. That’s the spirit electrifying this moment. If you’ve got questions or want topics tackled on air, shoot me an email at leo@inceptionpoint.ai. Don’t forget to subscribe to Quantum Tech Updates. This has been a Quiet Please Production—for more, visit quietplease dot AI. This is Leo, logging off until next pulse. For more http://www.quietplease.ai Get the best deals https://amzn.to/3ODvOta This content was created in partnership and with the help of Artificial Intelligence AI

    3 Min.
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This is your Quantum Tech Updates podcast. Quantum Tech Updates is your daily source for the latest in quantum computing. Tune in for general news on hardware, software, and applications, with a focus on breakthrough announcements, new capabilities, and industry momentum. Stay informed and ahead in the fast-evolving world of quantum technologies with Quantum Tech Updates. For more info go to https://www.quietplease.ai Check out these deals https://amzn.to/48MZPjs

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