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Showing 1 to 20 of 134 for “"Quantum computers"”.

  1. Instrumentation for quantum computers

    Quantum computation poses challenging engineering and basic physics issues for the control of nanoscale systems. In particular, experimental realizations of up to seven-qubit NMR quantum computers have acutely illustrated how quantum circuits require extremely precise control instrumentation for …

    mit Repository record for Instrumentation for quantum computers (opens in a new tab)

  2. Machine-Aware Enhancing of Quantum Computers

    The realization of a computer that exploits quantum - rather than classical - principles represents a formidable scientific and technological challenge. Today, superconducting quantum processors are achieving significant results in simulation and computation capabilities. However, the realization …

    trento Repository record for Machine-Aware Enhancing of Quantum Computers (opens in a new tab)

  3. Photonic quantum computers and communication systems

    Quantum information processors have been proposed to solve classically intractable or unsolvable problems in computing, sensing, and secure communication. There has been growing interest in photonic implementations of quantum processors as they offer relatively long coherence lengths, precise state …

    mit Repository record for Photonic quantum computers and communication systems (opens in a new tab)

  4. Quantum algorithmic improvements for noisy intermediate scale quantum computers

    Submission published under a 24 month embargo labeled 'U of I Access', the embargo will last until 2025-05-01

    uiuc Repository record for Quantum algorithmic improvements for noisy intermediate scale quantum computers (opens in a new tab)

  5. Quantum computational chemistry methods for early-stage quantum computers

    One of the first practical applications of quantum computers is expected to be molecular modelling. Performing this task would profoundly affect areas such as chemistry, materials science and drug synthesis. Modelling of molecules, which are classically intractable, can be achieved with just over …

    cambridge Repository record for Quantum computational chemistry methods for early-stage quantum computers (opens in a new tab)

  6. Optimizing Ion-Shuttling Operations in Trapped-Ion Quantum Computers

    Trapped ions are a promising candidate for quantum computation. As experiments with ions increase in size and complexity, a trap array-based architecture for an ion trap with many independent zones provides a path towards large-scale integration. A crucial element in the operation of a trap array …

    mit Repository record for Optimizing Ion-Shuttling Operations in Trapped-Ion Quantum Computers (opens in a new tab)

  7. Scaling trapped-ion quantum computers with CMOS-integrated state readout

    Quantum information processing (QIP) has emerged as a powerful new computing paradigm as traditional Moore's law scaling slows due to skyrocketing costs of shrinking feature sizes, interconnects becoming the dominant source of energy consumption and delay as transistor critical dimensions fall …

    mit Repository record for Scaling trapped-ion quantum computers with CMOS-integrated state readout (opens in a new tab)

  8. Pricing options on quantum computers: state of the art and outlook

    … pricing financial derivative contracts and how quantum computers can be used to accelerate the computing process currently performed on classical computers. More precisely, I provide concrete explanations on how previously suggested circuits work and I give examples of implementations of these …

    sherbrooke Repository record for Pricing options on quantum computers: state of the art and outlook (opens in a new tab)

  9. Improving Scalability of Trapped-Ion Quantum Computers Using Gate-Level Techniques

    … a promising platform to build a practical quantum computer. Scaling the high performance of small systems to longer ion chains is a technical endeavor that benefits from both better hardware system design and gate-level control techniques. In this thesis, I discuss our work on building a …

    duke Repository record for Improving Scalability of Trapped-Ion Quantum Computers Using Gate-Level Techniques (opens in a new tab)

  10. Design and Experimental Demonstration of a Scalable Acoustic Analogue of Quantum Computers

    Computers have transformed the way we live, work, and innovate. While Quantum computers based on quantum bits (qubits) exploit principles such as superposition and entanglement to offer unprecedented computational power compared to conventional computers. However, their scalability and practical …

    arizona-thes Repository record for Design and Experimental Demonstration of a Scalable Acoustic Analogue of Quantum Computers (opens in a new tab)

  11. Using Device Physics and Error Mitigation to Improve the Performance of Quantum Computers

    Quantum computers have seen rapid development over the last two decades. Despite this, they are not yet scalable or fault-tolerant (i.e. we cannot address arbitrarily many error-corrected qubits). Therefore, improvements that include consideration of the underlying physics are paramount. To do …

    vt Repository record for Using Device Physics and Error Mitigation to Improve the Performance of Quantum Computers (opens in a new tab)

  12. Approximating a wavelet kernel using a quantum computer

    Machine learning and quantum computing are both fields which have gained a significant amount of popularity and attention in recent years. The intersection of these two fields, quantum machine learning, looks at whether quantum computers can aid or improve classical machine learning methods, or …

    cape-town Repository record for Approximating a wavelet kernel using a quantum computer (opens in a new tab)

  13. Quantum computation beyond the circuit model

    The quantum circuit model is the most widely used model of quantum computation. It provides both a framework for formulating quantum algorithms and an architecture for the physical construction of quantum computers. However, several other models of quantum computation exist which provide useful …

    mit Repository record for Quantum computation beyond the circuit model (opens in a new tab)

  14. QAOA applied to the portfolio optimization problem

    Quantum computing is no longer in its early stages. There already exists quantum computers with more qubits than a classical computer is capable of efficiently simulating. This current stage is considered intermediate and is therefore called the NISQ era (noisy intermediate-scale quantum). The main …

    brazil-ufrn Repository record for QAOA applied to the portfolio optimization problem (opens in a new tab)

  15. All Pass Readout With Ring Resonators for Qubit Measurement

    Quantum computers may advance computing by solving some NP complexity problems, such as factoring and simulating quantum systems. Superconducting qubits, configurable artificial atoms comprised of circuit elements, are a leading platform to create quantum computers. Many schemes for superconducting …

    mit Repository record for All Pass Readout With Ring Resonators for Qubit Measurement (opens in a new tab)

  16. The power of restricted quantum computational models

    Restricted models of quantum computation are ones that have less power than a universal quantum computer. We studied the consequences of removing particular properties from a universal quantum computer to discover whether those resources were important.In the first part of the thesis we studied …

    cambridge Repository record for The power of restricted quantum computational models (opens in a new tab)

  17. The complexity of sampling from a weak quantum computer

    Quantum computers have the promise of revolutionizing information technology, artificial intelligence, cryptography, and industries such as drug design. Up until this point our main understanding of quantum computing has been bound to theoretical speculations which has successfully lead to the …

    mit Repository record for The complexity of sampling from a weak quantum computer (opens in a new tab)

  18. High-fidelity Two-qubit Gates and Noise Spectroscopy with Superconducting Qubits

    … gates remain the bottleneck in realizing quantum computing applications. To build robust quantum computers, it is crucial to identify the dominant sources of errors and suppress them by engineering the control and architecture of qubit systems. In this thesis, we implement a tunable …

    mit Repository record for High-fidelity Two-qubit Gates and Noise Spectroscopy with Superconducting Qubits (opens in a new tab)

  19. Optimizing coherence and anharmonicity of superconducting qubit

    Quantum computers utilize qubits to store and process quantum information. In superconducting quantum computers, qubits are implemented as quantum superconducting resonant circuits. The circuits are operated only at the two energy states, which form the computational basis for the qubit. To …

    helsinki Repository record for Optimizing coherence and anharmonicity of superconducting qubit (opens in a new tab)

  20. Topics in Computing with Quantum Oracles and Higher-Dimensional Many-Body Systems

    Since they were first envisioned, quantum computers have oft been portrayed as devices of limitless power, able to perform calculations in a mere instant that would take current computers years to determine. This is, of course, not the case. A huge amount of effort has been invested in trying to …

    cambridge Repository record for Topics in Computing with Quantum Oracles and Higher-Dimensional Many-Body Systems (opens in a new tab)

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