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        <dc:title>Self-guided tomography of time-frequency qudits</dc:title>
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        <bibo:abstract>&lt;jats:title&gt;Abstract&lt;/jats:title&gt;
               &lt;jats:p&gt;High-dimensional time-frequency encodings have the potential to significantly advance quantum information science; however, practical applications require precise knowledge of the encoded quantum states, which becomes increasingly challenging for larger Hilbert spaces. Self-guided tomography (SGT) has emerged as a practical and scalable technique for this purpose in the spatial domain. Here, we apply SGT to estimate time-frequency states using a multi-output quantum pulse gate. We achieve fidelities of more than 99% for 3- and 5-dimensional states without the need for calibration or post-processing. We demonstrate the robustness of SGT against statistical and environmental noise, highlighting its efficacy in the photon-starved regime typical of quantum information applications.&lt;/jats:p&gt;</bibo:abstract>
        <bibo:volume>10</bibo:volume>
        <bibo:issue>2</bibo:issue>
        <dc:publisher>IOP Publishing</dc:publisher>
        <bibo:doi rdf:resource="10.1088/2058-9565/adb0ea" />
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