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This is a 1/2 scale model of Fujitsu's 64-qubit Superconducting Quantum Computer

konstructivizm's tweet image. This is a 1/2 scale model of Fujitsu's 64-qubit Superconducting Quantum Computer

Want to get into quantum? The Wolfram Quantum Framework provides a new level of hands-on accessibility to quantum science & technology, with symbolic tools to model, test, prototype and visualize #quantum algorithms. #IYQ2025 wolfram.com/quantum-comput…

WolframResearch's tweet image. Want to get into quantum?
The Wolfram Quantum Framework provides a new level of hands-on accessibility to quantum science & technology, with symbolic tools to model, test, prototype and visualize #quantum algorithms.
#IYQ2025 
wolfram.com/quantum-comput…

量子もつれを可視化したら、太極図に酷似って、本当に昔の人はどういう人たちだったんだろうか…。。 xenospectrum.com/like-a-yin-yan…

akapazu's tweet image. 量子もつれを可視化したら、太極図に酷似って、本当に昔の人はどういう人たちだったんだろうか…。。
xenospectrum.com/like-a-yin-yan…

It's even more impressive when you see the quantum computer in action in the test chamber:

steren's tweet image. It's even more impressive when you see the quantum computer in action in the test chamber:

New breakthrough quantum algorithm published in @Nature today: Our Willow chip has achieved the first-ever verifiable quantum advantage. Willow ran the algorithm - which we’ve named Quantum Echoes - 13,000x faster than the best classical algorithm on one of the world's fastest…

sundarpichai's tweet image. New breakthrough quantum algorithm published in @Nature today: Our Willow chip has achieved the first-ever verifiable quantum advantage.

Willow ran the algorithm - which we’ve named Quantum Echoes - 13,000x faster than the best classical algorithm on one of the world's fastest…


From faster decoding of quantum errors to designing larger systems of qubits, researchers are using GPU-accelerated tools to expand classical computation and bring useful quantum applications closer to reality. Learn more: nvda.ws/42mfZ1v

nvidia's tweet image. From faster decoding of quantum errors to designing larger systems of qubits, researchers are using GPU-accelerated tools to expand classical computation and bring useful quantum applications closer to reality.

Learn more: nvda.ws/42mfZ1v

“our quantum computer computes pseudorandom eigenvector moments faster than a classical computer”

angryfermion's tweet image. “our quantum computer computes pseudorandom eigenvector moments faster than a classical computer”

Gambar di link di bawah diambil dengan menggunakan 24.9 billion pixels of quantum technology. Google Pixel nak lawan tak? 👇🏻👇🏻👇🏻👇🏻👇🏻👇🏻👇🏻👇🏻👇🏻👇🏻👇🏻 sh-meet.bigpixel.cn/?from=groupmes…

keywai_'s tweet image. Gambar di link di bawah diambil dengan menggunakan 24.9 billion pixels of quantum technology.

Google Pixel nak lawan tak?

👇🏻👇🏻👇🏻👇🏻👇🏻👇🏻👇🏻👇🏻👇🏻👇🏻👇🏻
sh-meet.bigpixel.cn/?from=groupmes…

Above is a bacterial flagellar motor. Below is a quantum computer. Do with this what you want.

VanceE's tweet image. Above is a bacterial flagellar motor.
Below is a quantum computer.

Do with this what you want.

New breakthrough quantum algorithm published in @Nature today: Our Willow chip has achieved the first-ever verifiable quantum advantage. Willow ran the algorithm - which we’ve named Quantum Echoes - 13,000x faster than the best classical algorithm on one of the world's fastest…

sundarpichai's tweet image. New breakthrough quantum algorithm published in @Nature today: Our Willow chip has achieved the first-ever verifiable quantum advantage.

Willow ran the algorithm - which we’ve named Quantum Echoes - 13,000x faster than the best classical algorithm on one of the world's fastest…


Today we announce a significant step in quantum computing by introducing Quantum Echoes, a new quantum computational algorithm measuring out-of-time-order correlators. This verifiable quantum advantage paves the way for solving real-world problems. More: goo.gle/3Wl5hou

GoogleResearch's tweet image. Today we announce a significant step in quantum computing by introducing Quantum Echoes, a new quantum computational algorithm measuring out-of-time-order correlators. This verifiable quantum advantage paves the way for solving real-world problems. More: goo.gle/3Wl5hou

BREAKING: Google's quantum chip computed a 150-year problem in 2 hours—and proved it. Nature confirmed today: Willow achieved verifiable quantum advantage, meaning physics validates its answers. At 13,000× classical speed with 99.9% fidelity across 105 qubits, it's not just…

AskPerplexity's tweet image. BREAKING: Google's quantum chip computed a 150-year problem in 2 hours—and proved it.

Nature confirmed today: Willow achieved verifiable quantum advantage, meaning physics validates its answers. At 13,000× classical speed with 99.9% fidelity across 105 qubits, it's not just…
AskPerplexity's tweet image. BREAKING: Google's quantum chip computed a 150-year problem in 2 hours—and proved it.

Nature confirmed today: Willow achieved verifiable quantum advantage, meaning physics validates its answers. At 13,000× classical speed with 99.9% fidelity across 105 qubits, it's not just…

🚨 JUST IN: 🇺🇸 Google unveils major quantum computing breakthrough Its new algorithm is running 13,000× faster than world’s best supercomputer Google says this clears the path for useful applications of quantum technology within 5 years Bitcoin has to stay ahead of this.

BTC_Archive's tweet image. 🚨 JUST IN: 🇺🇸 Google unveils major quantum computing breakthrough

Its new algorithm is running 13,000× faster than world’s best supercomputer

Google says this clears the path for useful applications of quantum technology within 5 years

Bitcoin has to stay ahead of this.
BTC_Archive's tweet image. 🚨 JUST IN: 🇺🇸 Google unveils major quantum computing breakthrough

Its new algorithm is running 13,000× faster than world’s best supercomputer

Google says this clears the path for useful applications of quantum technology within 5 years

Bitcoin has to stay ahead of this.

Quantum probability extends classical probability by allowing events to be represented in complex Hilbert spaces, capturing uncertainty and interference effects. In statistics and machine learning, it models cognitive biases, contextual decisions, and non-commutative data.…

probnstat's tweet image. Quantum probability extends classical probability by allowing events to be represented in complex Hilbert spaces, capturing uncertainty and interference effects. In statistics and machine learning, it models cognitive biases, contextual decisions, and non-commutative data.…

New breakthrough quantum algorithm published in @Nature today: Our Willow chip has achieved the first-ever verifiable quantum advantage. Willow ran the algorithm - which we’ve named Quantum Echoes - 13,000x faster than the best classical algorithm on one of the world's fastest…

sundarpichai's tweet image. New breakthrough quantum algorithm published in @Nature today: Our Willow chip has achieved the first-ever verifiable quantum advantage.

Willow ran the algorithm - which we’ve named Quantum Echoes - 13,000x faster than the best classical algorithm on one of the world's fastest…

🧩 What if luck isn’t just random — but follows patterns hidden in the quantum fabric of reality? Quantum physics shows the universe isn’t pure chaos. Beneath every coin flip or twist of fate lie probabilities, wave functions, and entanglements — subtle rules shaping what seems…

ShiningScience's tweet image. 🧩 What if luck isn’t just random — but follows patterns hidden in the quantum fabric of reality?

Quantum physics shows the universe isn’t pure chaos. Beneath every coin flip or twist of fate lie probabilities, wave functions, and entanglements — subtle rules shaping what seems…

Bob, CEO of @qBitTensorLabs and @OpenQuantum_, enjoying his tour of the @nyuniversity Department of Physics Center for Quantum Phenomena Labs ahead of @The_QEDC annual meeting + a real life quantum computer!

qBitTensorLabs's tweet image. Bob, CEO of @qBitTensorLabs and @OpenQuantum_, enjoying his tour of the @nyuniversity Department of Physics Center for Quantum Phenomena Labs ahead of @The_QEDC annual meeting + a real life quantum computer!
qBitTensorLabs's tweet image. Bob, CEO of @qBitTensorLabs and @OpenQuantum_, enjoying his tour of the @nyuniversity Department of Physics Center for Quantum Phenomena Labs ahead of @The_QEDC annual meeting + a real life quantum computer!
qBitTensorLabs's tweet image. Bob, CEO of @qBitTensorLabs and @OpenQuantum_, enjoying his tour of the @nyuniversity Department of Physics Center for Quantum Phenomena Labs ahead of @The_QEDC annual meeting + a real life quantum computer!

*GOOGLE UNVEILS QUANTUM COMPUTING BREAKTHROUGH WITH WILLOW CHIP $GOOGL

Investingcom's tweet image. *GOOGLE UNVEILS QUANTUM COMPUTING BREAKTHROUGH WITH WILLOW CHIP

$GOOGL

$QTUM $RGTI $IONQ $CCCX this table compares all four quantum computer technologies and pros and cons and how easy to retrofit existing data centers $NVDA $AMD OpenAI

quantumboomnow's tweet image. $QTUM $RGTI $IONQ $CCCX this table compares all four quantum computer technologies and pros and cons and how easy to retrofit existing data centers $NVDA $AMD OpenAI

Quantum Computing ✍️ Unlike classical computers that use bits, quantum computers use qubits, which can exist in multiple states at once (superposition). This enables them to solve complex problems much faster, revolutionizing fields like cryptography and AI.

PhysInHistory's tweet image. Quantum Computing ✍️

Unlike classical computers that use bits, quantum computers use qubits, which can exist in multiple states at once (superposition). This enables them to solve complex problems much faster, revolutionizing fields like cryptography and AI.

Quantum computing harnesses the principles of quantum mechanics-like superposition and entanglement-to perform computations. Unlike classical bits, qubits can represent 0 and 1 simultaneously, enabling massive parallelism. This makes quantum computers ideal for problems like…

PhysInHistory's tweet image. Quantum computing harnesses the principles of quantum mechanics-like superposition and entanglement-to perform computations. Unlike classical bits, qubits can represent 0 and 1 simultaneously, enabling massive parallelism. This makes quantum computers ideal for problems like…

These are the Quantum-ready algorithms in the new TS7.

JosefTetek's tweet image. These are the Quantum-ready algorithms in the new TS7.

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