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Showing 1 to 4 of 4 for “"Circuit fidelity"”.

  1. Understanding How Sequence Differences Among Glutamate Transporters Might Contribute to their Differential Function in Glutamate Clearance in C. elegans

    <p>In the nervous system, high circuit resolution requires efficient post-signaling clearance of the neurotransmitter. Glutamate-mediated neurotransmission involves the release of glutamate (Glu) into the synaptic cleft by the presynaptic cell and binding to glutamate receptors (GluR) on the …

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  2. From TPU to QPU: Bridging Fidelity Gaps Across Next-Generation Computing Systems

    … significant challenges related to hardware infidelity, manifested as error-induced degradation in computational accuracy and reliability. This thesis explicitly addresses cost-effective methods to screen-out defective AI accelerators across next-generation computing architectures and boost …

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  3. EFFICIENT APPROACHES FOR QUBIT MAPPING ON NISQ COMPUTERS

    … during execution. In addition, to optimize fidelity, it is essential to ensure that 1) the allocated hardware has a low error rate and 2) the number of SWAP gates injected into the circuit is minimized. To address these challenges, we propose a suite of algorithms: the Fidelity-aware Graph …

    kennesaw Repository record for EFFICIENT APPROACHES FOR QUBIT MAPPING ON NISQ COMPUTERS (opens in a new tab)

  4. Enhancing Fidelity through Gate Decomposition: A Strategy to Mitigate Quantum Crosstalk on NISQ Computers

    … neighboring qubits, leading to errors in gate fidelity and quantum computations. This phenomenon poses a major obstacle to the realization of fault-tolerant quantum computers. In this paper, we proposed a partial gate decomposition (PGD) method, which involves dissecting CNOT gates into …

    kennesaw Repository record for Enhancing Fidelity through Gate Decomposition: A Strategy to Mitigate Quantum Crosstalk on NISQ Computers (opens in a new tab)