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#nisq — Public Fediverse posts

Live and recent posts from across the Fediverse tagged #nisq, aggregated by home.social.

  1. Quantum Myths vs Reality – Understanding Where the Technology Stands

    Insider Brief Quantum computing in 2026 sits between real technical progress and exaggerated public expectations, with neither extreme…
    #NewsBeep #News #Physics #AU #Australia #errorcorrection #NISQ #Post-quantumcryptography #quantumadvantage #quantumcomputing #quantumencryption #quantumhype #quantumresearch #quantumstartups #QuantumSupremacy #Science #TechnologyTrends
    newsbeep.com/au/619980/

  2. Quantum Myths vs Reality – Understanding Where the Technology Stands

    Insider Brief Quantum computing in 2026 sits between real technical progress and exaggerated public expectations, with neither extreme…
    #NewsBeep #News #Physics #AU #Australia #errorcorrection #NISQ #Post-quantumcryptography #quantumadvantage #quantumcomputing #quantumencryption #quantumhype #quantumresearch #quantumstartups #QuantumSupremacy #Science #TechnologyTrends
    newsbeep.com/au/619980/

  3. Quantum Myths vs Reality – Understanding Where the Technology Stands

    Insider Brief Quantum computing in 2026 sits between real technical progress and exaggerated public expectations, with neither extreme…
    #NewsBeep #News #Physics #errorcorrection #NISQ #Post-quantumcryptography #quantumadvantage #QuantumComputing #quantumencryption #quantumhype #quantumresearch #quantumstartups #QuantumSupremacy #Science #technologytrends #UK #UnitedKingdom
    newsbeep.com/uk/541669/

  4. #ParityQC just came out with the largest #QFT on an #IBM Quantum device. The QFT was basically an example of how their ParityQC architecture is able to push the limits on what we can do with our #NISQ devices today.

    → press release: parityqc.com/parityqc-set-new-
    → pre-print: arxiv.org/abs/2604.12465

    #quantumcomputing #IBMQuantum

  5. #ParityQC just came out with the largest #QFT on an #IBM Quantum device. The QFT was basically an example of how their ParityQC architecture is able to push the limits on what we can do with our #NISQ devices today.

    → press release: parityqc.com/parityqc-set-new-
    → pre-print: arxiv.org/abs/2604.12465

    #quantumcomputing #IBMQuantum

  6. #ParityQC just came out with the largest #QFT on an #IBM Quantum device. The QFT was basically an example of how their ParityQC architecture is able to push the limits on what we can do with our #NISQ devices today.

    → press release: parityqc.com/parityqc-set-new-
    → pre-print: arxiv.org/abs/2604.12465

    #quantumcomputing #IBMQuantum

  7. #ParityQC just came out with the largest #QFT on an #IBM Quantum device. The QFT was basically an example of how their ParityQC architecture is able to push the limits on what we can do with our #NISQ devices today.

    → press release: parityqc.com/parityqc-set-new-
    → pre-print: arxiv.org/abs/2604.12465

    #quantumcomputing #IBMQuantum

  8. #ParityQC just came out with the largest #QFT on an #IBM Quantum device. The QFT was basically an example of how their ParityQC architecture is able to push the limits on what we can do with our #NISQ devices today.

    → press release: parityqc.com/parityqc-set-new-
    → pre-print: arxiv.org/abs/2604.12465

    #quantumcomputing #IBMQuantum

  9. Meet the new Enabla #OpenAccess lecture by Prof. Sergey Denisov from the Oslo Metropolitan University, where he discusses the theoretical and experimental aspects of parameterized circuits and their ability to simulate random unitaries, offering a deep dive into NISQ implementations and their potential for sampling random channels.

    Have a question? Ask online through our website, and Sergey will help you understand the material better! A must-watch for anyone involved in quantum computing and random matrix theory!

    🔗 Watch the full lecture here: enabla.com/pub/1122/about

    Abstract: We consider the spectral properties of random quantum channels, both theoretically and experimentally, discuss parameterized circuits in their ability to simulate random unitaries, and present results confirming the ability of NISQ implementations of these circuits to sample certain ensembles of random channels

    #ComputerScience #QuantumComputing #RandomMatrixTheory #QuantumCircuits #NISQ #OpenScience

  10. Meet the new Enabla #OpenAccess lecture by Prof. Sergey Denisov from the Oslo Metropolitan University, where he discusses the theoretical and experimental aspects of parameterized circuits and their ability to simulate random unitaries, offering a deep dive into NISQ implementations and their potential for sampling random channels.

    Have a question? Ask online through our website, and Sergey will help you understand the material better! A must-watch for anyone involved in quantum computing and random matrix theory!

    🔗 Watch the full lecture here: enabla.com/pub/1122/about

    Abstract: We consider the spectral properties of random quantum channels, both theoretically and experimentally, discuss parameterized circuits in their ability to simulate random unitaries, and present results confirming the ability of NISQ implementations of these circuits to sample certain ensembles of random channels

    #ComputerScience #QuantumComputing #RandomMatrixTheory #QuantumCircuits #NISQ #OpenScience

  11. Meet the new Enabla #OpenAccess lecture by Prof. Sergey Denisov from the Oslo Metropolitan University, where he discusses the theoretical and experimental aspects of parameterized circuits and their ability to simulate random unitaries, offering a deep dive into NISQ implementations and their potential for sampling random channels.

    Have a question? Ask online through our website, and Sergey will help you understand the material better! A must-watch for anyone involved in quantum computing and random matrix theory!

    🔗 Watch the full lecture here: enabla.com/pub/1122/about

    Abstract: We consider the spectral properties of random quantum channels, both theoretically and experimentally, discuss parameterized circuits in their ability to simulate random unitaries, and present results confirming the ability of NISQ implementations of these circuits to sample certain ensembles of random channels

    #ComputerScience #QuantumComputing #RandomMatrixTheory #QuantumCircuits #NISQ #OpenScience

  12. Meet the new Enabla #OpenAccess lecture by Prof. Sergey Denisov from the Oslo Metropolitan University, where he discusses the theoretical and experimental aspects of parameterized circuits and their ability to simulate random unitaries, offering a deep dive into NISQ implementations and their potential for sampling random channels.

    Have a question? Ask online through our website, and Sergey will help you understand the material better! A must-watch for anyone involved in quantum computing and random matrix theory!

    🔗 Watch the full lecture here: enabla.com/pub/1122/about

    Abstract: We consider the spectral properties of random quantum channels, both theoretically and experimentally, discuss parameterized circuits in their ability to simulate random unitaries, and present results confirming the ability of NISQ implementations of these circuits to sample certain ensembles of random channels

    #ComputerScience #QuantumComputing #RandomMatrixTheory #QuantumCircuits #NISQ #OpenScience

  13. Meet the new Enabla #OpenAccess lecture by Prof. Sergey Denisov from the Oslo Metropolitan University, where he discusses the theoretical and experimental aspects of parameterized circuits and their ability to simulate random unitaries, offering a deep dive into NISQ implementations and their potential for sampling random channels.

    Have a question? Ask online through our website, and Sergey will help you understand the material better! A must-watch for anyone involved in quantum computing and random matrix theory!

    🔗 Watch the full lecture here: enabla.com/pub/1122/about

    Abstract: We consider the spectral properties of random quantum channels, both theoretically and experimentally, discuss parameterized circuits in their ability to simulate random unitaries, and present results confirming the ability of NISQ implementations of these circuits to sample certain ensembles of random channels

    #ComputerScience #QuantumComputing #RandomMatrixTheory #QuantumCircuits #NISQ #OpenScience

  14. Adaptive Trotterization for Time-Dependent Hamiltonian Quantum Dynamics Using Piecewise Conservation Laws

    Our new paper introduces an adaptive Trotterization algorithm to tackle time-dependent Hamiltonians in digital quantum simulation. We propose piecewise conserved quantities to control and estimate errors & error accumulation. Read more here in this PRL:

    doi.org/10.1103/PhysRevLett.13

    #trotter #quantumcomputing #nisq

  15. Adaptive Trotterization for Time-Dependent Hamiltonian Quantum Dynamics Using Piecewise Conservation Laws

    Our new paper introduces an adaptive Trotterization algorithm to tackle time-dependent Hamiltonians in digital quantum simulation. We propose piecewise conserved quantities to control and estimate errors & error accumulation. Read more here in this PRL:

    doi.org/10.1103/PhysRevLett.13

    #trotter #quantumcomputing #nisq

  16. Adaptive Trotterization for Time-Dependent Hamiltonian Quantum Dynamics Using Piecewise Conservation Laws

    Our new paper introduces an adaptive Trotterization algorithm to tackle time-dependent Hamiltonians in digital quantum simulation. We propose piecewise conserved quantities to control and estimate errors & error accumulation. Read more here in this PRL:

    doi.org/10.1103/PhysRevLett.13

    #trotter #quantumcomputing #nisq

  17. Adaptive Trotterization for Time-Dependent Hamiltonian Quantum Dynamics Using Piecewise Conservation Laws

    Our new paper introduces an adaptive Trotterization algorithm to tackle time-dependent Hamiltonians in digital quantum simulation. We propose piecewise conserved quantities to control and estimate errors & error accumulation. Read more here in this PRL:

    doi.org/10.1103/PhysRevLett.13

    #trotter #quantumcomputing #nisq

  18. Adaptive Trotterization for Time-Dependent Hamiltonian Quantum Dynamics Using Piecewise Conservation Laws

    Our new paper introduces an adaptive Trotterization algorithm to tackle time-dependent Hamiltonians in digital quantum simulation. We propose piecewise conserved quantities to control and estimate errors & error accumulation. Read more here in this PRL:

    doi.org/10.1103/PhysRevLett.13

    #trotter #quantumcomputing #nisq

  19. Making Trotterization Adaptive and Energy-Self-Correcting for NISQ Devices and Beyond

    Digital quantum simulation requires time discretization by means of Trotterization. A finer time step improves simulation precision but inevitably leads to increased experimental errors for today’s noisy intermediate-scale quantum computers. Check out in our recent publication how to make Trotterization adaptive:

    journals.aps.org/prxquantum/ab

    #quantumsimulation #nisq #quantumcomputer #trotterization

  20. Making Trotterization Adaptive and Energy-Self-Correcting for NISQ Devices and Beyond

    Digital quantum simulation requires time discretization by means of Trotterization. A finer time step improves simulation precision but inevitably leads to increased experimental errors for today’s noisy intermediate-scale quantum computers. Check out in our recent publication how to make Trotterization adaptive:

    journals.aps.org/prxquantum/ab

    #quantumsimulation #nisq #quantumcomputer #trotterization

  21. Making Trotterization Adaptive and Energy-Self-Correcting for NISQ Devices and Beyond

    Digital quantum simulation requires time discretization by means of Trotterization. A finer time step improves simulation precision but inevitably leads to increased experimental errors for today’s noisy intermediate-scale quantum computers. Check out in our recent publication how to make Trotterization adaptive:

    journals.aps.org/prxquantum/ab

    #quantumsimulation #nisq #quantumcomputer #trotterization

  22. Making Trotterization Adaptive and Energy-Self-Correcting for NISQ Devices and Beyond

    Digital quantum simulation requires time discretization by means of Trotterization. A finer time step improves simulation precision but inevitably leads to increased experimental errors for today’s noisy intermediate-scale quantum computers. Check out in our recent publication how to make Trotterization adaptive:

    journals.aps.org/prxquantum/ab

    #quantumsimulation #nisq #quantumcomputer #trotterization

  23. Making Trotterization Adaptive and Energy-Self-Correcting for NISQ Devices and Beyond

    Digital quantum simulation requires time discretization by means of Trotterization. A finer time step improves simulation precision but inevitably leads to increased experimental errors for today’s noisy intermediate-scale quantum computers. Check out in our recent publication how to make Trotterization adaptive:

    journals.aps.org/prxquantum/ab

    #quantumsimulation #nisq #quantumcomputer #trotterization

  24. Quantum computing is set to revolutionize industries, and it is never too soon to dive into this rapidly advancing field😉

    Explore the core concepts in the new introductory DESY lecture and engage in open discussions at enabla.com/pub/1069/about 🔗

    Learn about qubits, quantum gates, the role of entanglement in quantum algorithms, the fundamentals of complexity theory, a few hybrid quantum-classical algorithms, and the noisy intermediate-sized quantum devices🧑‍💻

    All #Enabla lectures are #free and #OpenAccess. Support us by liking, reposting, following, and engaging in discussions on Enabla. Your actions help us spread knowledge. Thank you!🙏 @DESY @DESYnews

    #QuantumComputing #Qubits #Entanglement #QuantumAlgorithms #ComplexityTheory #NISQ

  25. Curious about quantum computing's real-world applications? Check out the MPI-PKS talk by Prof.Smith from the University of Nottingham, and learn with hands-on examples using the IBM Cloud quantum computers and @qiskit python library🧑‍💻

    🔗 enabla.com/set/92/pub/642/abou

    The lecture covers the basics of quantum mechanics necessary to understand quantum circuits and explores two applications in many-body physics: finding ground states and simulating non-equilibrium dynamics. Perfect for beginners and experts alike. Don't miss out!

    All #Enabla lectures are #free and #OpenAccess. If you like what we're doing, please support us by liking, sharing, following this account, leaving some comments under this post & asking questions on Enabla. Any of these actions help us a lot; thank you!🙏

    #QuantumComputing #IBMQuantum #Qiskit #QuantumCircuits #NISQ #ManyBodyPhysics

  26. Curious about quantum computing's real-world applications? Check out the MPI-PKS talk by Prof.Smith from the University of Nottingham, and learn with hands-on examples using the IBM Cloud quantum computers and @qiskit python library🧑‍💻

    🔗 enabla.com/set/92/pub/642/abou

    The lecture covers the basics of quantum mechanics necessary to understand quantum circuits and explores two applications in many-body physics: finding ground states and simulating non-equilibrium dynamics. Perfect for beginners and experts alike. Don't miss out!

    All #Enabla lectures are #free and #OpenAccess. If you like what we're doing, please support us by liking, sharing, following this account, leaving some comments under this post & asking questions on Enabla. Any of these actions help us a lot; thank you!🙏

    #QuantumComputing #IBMQuantum #Qiskit #QuantumCircuits #NISQ #ManyBodyPhysics

  27. Curious about quantum computing's real-world applications? Check out the MPI-PKS talk by Prof.Smith from the University of Nottingham, and learn with hands-on examples using the IBM Cloud quantum computers and @qiskit python library🧑‍💻

    🔗 enabla.com/set/92/pub/642/abou

    The lecture covers the basics of quantum mechanics necessary to understand quantum circuits and explores two applications in many-body physics: finding ground states and simulating non-equilibrium dynamics. Perfect for beginners and experts alike. Don't miss out!

    All #Enabla lectures are #free and #OpenAccess. If you like what we're doing, please support us by liking, sharing, following this account, leaving some comments under this post & asking questions on Enabla. Any of these actions help us a lot; thank you!🙏

    #QuantumComputing #IBMQuantum #Qiskit #QuantumCircuits #NISQ #ManyBodyPhysics

  28. Curious about quantum computing's real-world applications? Check out the MPI-PKS talk by Prof.Smith from the University of Nottingham, and learn with hands-on examples using the IBM Cloud quantum computers and @qiskit python library🧑‍💻

    🔗 enabla.com/set/92/pub/642/abou

    The lecture covers the basics of quantum mechanics necessary to understand quantum circuits and explores two applications in many-body physics: finding ground states and simulating non-equilibrium dynamics. Perfect for beginners and experts alike. Don't miss out!

    All #Enabla lectures are #free and #OpenAccess. If you like what we're doing, please support us by liking, sharing, following this account, leaving some comments under this post & asking questions on Enabla. Any of these actions help us a lot; thank you!🙏

    #QuantumComputing #IBMQuantum #Qiskit #QuantumCircuits #NISQ #ManyBodyPhysics

  29. Are we there yet? Are we there yet? Are we there yet?

    No, kids, but soon. Just another 5 years.

    State of summarised by Olivier Ezratty

    arxiv.org/abs/2305.09518

  30. Are we there yet? Are we there yet? Are we there yet?

    No, kids, but soon. Just another 5 years.

    State of #quantumcomputing #nisq summarised by Olivier Ezratty

    arxiv.org/abs/2305.09518

  31. Are we there yet? Are we there yet? Are we there yet?

    No, kids, but soon. Just another 5 years.

    State of #quantumcomputing #nisq summarised by Olivier Ezratty

    arxiv.org/abs/2305.09518

  32. Are we there yet? Are we there yet? Are we there yet?

    No, kids, but soon. Just another 5 years.

    State of #quantumcomputing #nisq summarised by Olivier Ezratty

    arxiv.org/abs/2305.09518

  33. Are we there yet? Are we there yet? Are we there yet?

    No, kids, but soon. Just another 5 years.

    State of #quantumcomputing #nisq summarised by Olivier Ezratty

    arxiv.org/abs/2305.09518

  34. To me, it is very obvious that quantum computing will specifically help with problem (1) in the near term. I think that problem (2) needs significant work (maybe even fundamental work) to continue reducing overhead, particularly for #NISQ.

  35. To me, it is very obvious that quantum computing will specifically help with problem (1) in the near term. I think that problem (2) needs significant work (maybe even fundamental work) to continue reducing overhead, particularly for #NISQ.

  36. To me, it is very obvious that quantum computing will specifically help with problem (1) in the near term. I think that problem (2) needs significant work (maybe even fundamental work) to continue reducing overhead, particularly for #NISQ.

  37. To me, it is very obvious that quantum computing will specifically help with problem (1) in the near term. I think that problem (2) needs significant work (maybe even fundamental work) to continue reducing overhead, particularly for #NISQ.

  38. To me, it is very obvious that quantum computing will specifically help with problem (1) in the near term. I think that problem (2) needs significant work (maybe even fundamental work) to continue reducing overhead, particularly for #NISQ.