Reference Summary: Quantum pseudorandom states are efficiently preparable states that are indistinguishable from truly Haar random states to an ... The presence of noise implies that quantum error correction and fault-tolerance are needed to achieve scalable quantum ...

Bill Fefferman On Experimental Complexity 16845 -

Quantum pseudorandom states are efficiently preparable states that are indistinguishable from truly Haar random states to an ... The presence of noise implies that quantum error correction and fault-tolerance are needed to achieve scalable quantum ... Recorded as part of the Noisy Intermediate-Scale Quantum Systems: Advances and Applications (DYNISQ-C22) conference at ...

Important details found

  • Quantum pseudorandom states are efficiently preparable states that are indistinguishable from truly Haar random states to an ...
  • The presence of noise implies that quantum error correction and fault-tolerance are needed to achieve scalable quantum ...
  • Recorded as part of the Noisy Intermediate-Scale Quantum Systems: Advances and Applications (DYNISQ-C22) conference at ...
  • IAS It from Qubit Workshop Workshop on Spacetime and Quantum Information Topic: Quantum Pseudoentanglement Speaker:
  • QCrypt 2016, the 6th International Conference on Quantum Cryptography, held in Washington, DC, Sept.

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Bill Fefferman - On "Experimental" Complexity Theory - IPAM at UCLA
Bill Fefferman - The power of random quantum circuits
Bill Fefferman - Have we seen a demonstration of experimental quantum advantage? - IPAM at UCLA
Quantum Pseudoentanglement - Bill Fefferman
Why are random quantum circuits capable of solving hard problems? | Bill Fefferman (U. Chicago)
Bill Fefferman: On Quantum Obfuscation
Part 1 On the theory of near-term quantum advantage  | Bill Fefferman (The University of Chicago)
Bill Fefferman (University of Chicago): Quantum Pseudoentanglement
The Power of Random Quantum Circuits ▸  Bill Fefferman (U.Chicago)
QIP2023 | Quantum advantage - part 1 (Bill Fefferman)
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Bill Fefferman - On "Experimental" Complexity Theory - IPAM at UCLA

Bill Fefferman - On "Experimental" Complexity Theory - IPAM at UCLA

Read more details and related context about Bill Fefferman - On "Experimental" Complexity Theory - IPAM at UCLA.

Bill Fefferman - The power of random quantum circuits

Bill Fefferman - The power of random quantum circuits

Read more details and related context about Bill Fefferman - The power of random quantum circuits.

Bill Fefferman - Have we seen a demonstration of experimental quantum advantage? - IPAM at UCLA

Bill Fefferman - Have we seen a demonstration of experimental quantum advantage? - IPAM at UCLA

Read more details and related context about Bill Fefferman - Have we seen a demonstration of experimental quantum advantage? - IPAM at UCLA.

Quantum Pseudoentanglement - Bill Fefferman

Quantum Pseudoentanglement - Bill Fefferman

IAS It from Qubit Workshop Workshop on Spacetime and Quantum Information Topic: Quantum Pseudoentanglement Speaker:

Why are random quantum circuits capable of solving hard problems? | Bill Fefferman (U. Chicago)

Why are random quantum circuits capable of solving hard problems? | Bill Fefferman (U. Chicago)

The presence of noise implies that quantum error correction and fault-tolerance are needed to achieve scalable quantum ...

Bill Fefferman: On Quantum Obfuscation

Bill Fefferman: On Quantum Obfuscation

QCrypt 2016, the 6th International Conference on Quantum Cryptography, held in Washington, DC, Sept. 12-16, 2016. Web site: ...

Part 1 On the theory of near-term quantum advantage  | Bill Fefferman (The University of Chicago)

Part 1 On the theory of near-term quantum advantage | Bill Fefferman (The University of Chicago)

Read more details and related context about Part 1 On the theory of near-term quantum advantage | Bill Fefferman (The University of Chicago).

Bill Fefferman (University of Chicago): Quantum Pseudoentanglement

Bill Fefferman (University of Chicago): Quantum Pseudoentanglement

Quantum pseudorandom states are efficiently preparable states that are indistinguishable from truly Haar random states to an ...

The Power of Random Quantum Circuits ▸  Bill Fefferman (U.Chicago)

The Power of Random Quantum Circuits ▸ Bill Fefferman (U.Chicago)

Recorded as part of the Noisy Intermediate-Scale Quantum Systems: Advances and Applications (DYNISQ-C22) conference at ...

QIP2023 | Quantum advantage - part 1 (Bill Fefferman)

QIP2023 | Quantum advantage - part 1 (Bill Fefferman)

Okay uh I had a question about the three steps uh of like the ideal