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bqpsim.com
article
https://www.bqpsim.com/blogs/quantum-computing-breakthroughs
The 2026 breakthroughs confirm the direction quantum computing is heading. BQP sits at the engineering layer between where quantum hardware is now and where engineering teams need to be performing today.
BQPhy®’s QuantumNOW™ solver applies quantum-inspired algorithms to engineering simulation and optimization problems on existing HPC and GPU infrastructure. It uses the mathematical architecture behind hybrid quantum workflows, without quantum hardware dependencies. [...] Quantum-inspired computing applies the mathematical principles behind quantum algorithms on classical HPC and GPU hardware instead of quantum processors. These include variational methods, quantum annealing approaches, and amplitude amplification. [...] Quantum-as-a-Service: Enterprises began demanding cloud-based quantum access without the capital burden of owning hardware.
Hybrid quantum-classical workflows: Quantum processors handle specific computational bottlenecks inside larger classical pipelines, making this the practical deployment model for 2026.
Hardware breakthroughs: A new generation of advances in error correction, qubit architectures, and fault tolerance is now progressing fast enough to support both of the above.
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discovermagazine.com
article
https://www.discovermagazine.com/quantum-computing-is-beginning-to-take-shape…
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# Quantum Computing Is Beginning to Take Shape — Here Are Three Recent Breakthroughs
Quantum computing breakthroughs including new hardware, smarter algorithms, and clearer signs of “quantum advantage,” bring once-theoretical machines closer to real-world use
Written byCody Cottier
Cody Cottier [...] The new arXiv paper, led by researchers at Caltech and the California-based startup Oratomic, outlined a scheme for fault-tolerant quantum computing that could reduce the required number of qubits by as much as two orders of magnitude compared to earlier estimates, down to just 10,000. That would dramatically accelerate the timeline to commercial viability.
In other words, quantum supremacy could be closer than previously thought. But that prospect comes with potential pitfalls. [...] More recently, other hardware platforms have begun to show promise. Quantinuum, a Colorado-based company, has developed trapped-ion devices, which use electrically charged atoms suspended in electromagnetic fields as qubits, according to a 2025 arXiv paper. These systems are much slower than superconducting chips like Google’s, but they boast far higher accuracy. Meanwhile, Aaronson added, a Boston-based company called QuEra has yielded similarly “amazing results” with its neutral-atom
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networkworld.com
article
https://www.networkworld.com/article/4088709/top-quantum-breakthroughs-of-202…
Partners include many of the top firms in the quantum computing industry, including Alice & Bob, Anyon Computing, Atom Computing, Diraq, Infleqtion, IonQ, IQM Quantum Computers, ORCA Computing, Oxford Quantum Circuits, Pasqal, Quandela, Quantinuum, Quantum Circuits Inc., Quantum Machines, Quantum Motion, QuEra, Rigetti, SEEQC and Silicon Quantum Computing — as well as quantum control system builders including Keysight Technologies, Quantum Machines, Qblox, QubiC and Zurich Instruments. [...] Another emerging use case for quantum computing is the combination of quantum and AI. In a May survey of 500 global business leaders by SAS, 60% said they are actively investing in, or exploring opportunities, in quantum AI.
And, according to a report by Bain, quantum computing could unlock up to $250 billion of market value for the pharmaceutical, finance, logistics, and materials science industries — though the total market for quantum computing is less than $1 billion today. [...] According to research from SpinQ, quantum computing companies raised $3.77 billion in equity funding during the first nine months of 2025 — nearly triple the $1.3 billion raised in all of 2024.
There are also publicly-traded quantum computing firms, chief among them being Rigetti, IonQ, Quantum Computing and D-Wave, and their stock prices have been on a wild ride lately. According to Motley Fool, share prices have gone up by more than 3,000% over the past year.
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youtube.com
video
https://www.youtube.com/watch?v=WoMitMc895A
In this video, we reveal the top 15 AI and quantum computing breakthroughs of 2026. From next-generation AI models and quantum processors to advances in drug discovery, cybersecurity, robotics, materials science, and scientific research, these innovations are reshaping the future at an unprecedented pace. [...] [9:15] Microsoft's extreme [music] breakthrough in quantum computing and the result of nearly 20 years of hard work. Scientists developed a new way to read the hidden
[9:23] states of majorana cubits which store information in paired quantum modes that resist noise. The results confirm their
[9:30] protected nature and show millisecond scale coherence bringing robust quantum computers closer to reality. The team successfully retrieved information [...] [13:00] electronics. This allows for reduced thermal noise and improved sensitivity.
[13:06] This proof of principle experiment marks an important advancement toward building large-scale iron trap quantum computing systems. Control systems operating at
[13:14] cryogenic temperatures eliminate a major source of quantum errors while reducing system complexity. Think of it as building quantum computers that don't
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nsf.gov
official
https://www.nsf.gov/science-matters/quantum-computing-expanding-whats-possible
NSF has been at the center of quantum computing breakthroughs for decades. In the mid-1980s, NSF-funded researchers demonstrated that quantum tunneling, previously seen only in subatomic particles, could occur in a superconducting electrical circuit visible to the naked eye. This showed that circuits could behave as quantum objects, opening the door to engineered quantum computers and later earning the 2025 Nobel Prize in physics. [...] From theory to application, NSF's continued investments are enabling new methods, hardware and software with unparalleled capabilities. These breakthroughs are laying the groundwork for a future where quantum computers can help us seize enormous opportunities — revolutionizing scientific discoveries, fortifying national security and strengthening economic competitiveness.
a yellow and orange close-up view of a quantum chip
Credit: John T. Consoli/University of Maryland [...] Quantum computers aim to solve highly complex problems by using the properties of tiny particles, like atoms, to process information.
Their realization could accelerate the development of life-saving medicine, optimize global supply chains, advance material science and secure digital infrastructure.
U.S. National Science Foundation funding drives breakthroughs that are enabling new quantum technologies while providing specialized training and education for American scientists and engineers.
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youtube.com
video
https://www.youtube.com/watch?v=feWb9vUUlKU
[16:16] that the first quantum era technology many of us are likely to encounter is not a quantum computer,
[16:22] but a classical chip protecting us from one. Now, if we look at the bigger picture, I came
[16:29] here looking for what comes next in quantum computing, but I found something much bigger. The
[16:35] convergence of quantum computing, semiconductor manufacturing, photonics, and AI. Each piece [...] [15:50] difficult it is for a classical computer to factor a very large number created by multiplying
[15:56] two large prime numbers. A quantum computer could break a 2048 bit RSA encryption in
[16:03] just under eight hours. Post-quantum cryptography uses new encryption methods based on mathematical
[16:10] problems that neither classical nor quantum computers can efficiently solve, And this means [...] [3:51] Every electron interacts with others. Add more electrons and the number of possibilities explodes. Classical computers struggle to track them all, but the quantum computer works according
[4:02] to the same quantum rules as the molecule itself, and this could help us find promising medicines
[4:08] and materials before testing them in a lab. Those results could then give AI more accurate
[4:13] information to find the most promising drugs and new materials. And that is just one potential
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news.stanford.edu
research
https://news.stanford.edu/stories/2025/12/quantum-communication-room-temperat…
Present-day quantum computers are big, expensive, and impractical, operating at temperatures near -459 degrees Fahrenheit, or “absolute zero.” In a new paper, however, materials scientists at Stanford University introduce a new nanoscale optical device that works at room temperature to entangle the spin of photons (particles of light) and electrons to achieve quantum communication – an approach that uses the laws of quantum physics to transmit and process data. The technology could usher in a [...] In turn, Pan explains, this twisted light can be “entangled” with the spin of electrons to create qubits, the foundational unit of quantum communication and computation. The spin of a qubit is to quantum computing what the 1 and the 0 are to traditional binary computation.
Image 6: Image of the new nanoscale optical device.
The nanoscale optical device works at room temperature to entangle the spin of photons and electrons to achieve quantum communication. | Antony Georgiadis [...] “The Silicon nanostructures enable what we call ‘twisted light,’” explains Feng Pan, a postdoctoral scholar in Dionne’s lab and first author of this paper and a series of others exploring room-temperature quantum devices. “The photons spin in a corkscrew fashion, but more importantly, we can use these spinning photons to impart spin on electrons that are the heart of quantum computing.”
## Smaller, simpler, cheaper
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en.wikipedia.org
article
https://en.wikipedia.org/wiki/Quantum_computing
## History
[edit]
For a chronological guide, see Timeline of quantum computing and communication.
Quantum mechanics and computer science formed distinct academic communities until the advent of quantum computing. Quantum theory was developed in the 1920s to explain perplexing physical phenomena. Computers emerged decades later. [...] List of emerging technologies – New technologies actively in development
List of quantum computing journals
List of quantum computing books
List of quantum software
Magic state distillation – Quantum computing algorithm
Metacomputing – Computing for the purpose of computing
Natural computing – Methods that imitate, replicate or use natural processes
Non-local quantum computation – Method of quantum computing via entanglement
Optical computing – Computer that uses photons or light waves [...] One approach to the scalability problem is to distribute a computation across multiple smaller quantum processing modules instead of increasing the number of qubits in a single device. In such modular architectures — also referred to as distributed quantum computing (DQC) — each module contains a limited number of qubits, and the modules are interconnected through quantum channels (for example, optical fibres) and classical communication links, forming a single logical computing system.