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Supervised Similarity for High-Yield Corporate Bonds with Quantum Cognition Machine Learning
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We investigate the application of quantum cognition machine learning (QCML), a novel paradigm for both supervised and unsupervised learning tasks rooted in the mathematical formalism of quantum theory, to distance metric learning in corporate bond markets. Compared to equities, corporate bonds are relatively illiquid and both trade and quote data in these securities are relatively sparse. Thus, a measure of distance/similarity among corporate bonds is particularly useful for a variety of practical applications in the trading of illiquid bonds, including the identification of similar tradable alternatives, pricing securities with relatively few recent quotes or trades, and explaining the predictions and performance of ML models based on their training data. Previous research has explored supervised similarity learning based on classical tree-based models in this context; here, we explore the application of the QCML paradigm for supervised distance metric learning in the same context, showing that it outperforms classical tree-based models in high-yield (HY) markets, while giving comparable or better performance (depending on the evaluation metric) in investment grade (IG) markets.
Forward citations
Cited by 2 Pith papers
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Quantum Geometry of Data
QCML learns matrix configurations whose quantum geometry reproduces known manifolds and reveals structure in real datasets.
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Quantum Cognition Machine Learning for Forecasting Chromosomal Instability
QCML, a quantum-inspired ML method, predicts LST status from CTC morphology with balanced accuracy 70%, only marginally better than classical models in a 227-cell study.
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