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Proof-of-Useful-Work Blockchain for Trustworthy Biomedical Hyperdimensional Computing

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arxiv 2202.02964 v2 pith:XLFR6HWX submitted 2022-02-07 cs.CR cs.NE

classification cs.CRcs.NE
keywords blockchainhyperdimensionallearningproof-of-useful-workbio-medicalbiomedicalcomputinghdcoin
verification ladder T0 review T1 audit T2 compute T3 formal
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Hyperdimensional Computing (HDC) is a promising bio-inspired learning paradigm for its advantage of balancing performance and efficiency and has been increasingly applied to the bio-medical domain. In bio-medical applications, trustworthiness such as replicability and verifiability of the trained learning models is crucial. In this work, we introduce HDCoin, the first proof-of-useful-work blockchain framework for HDC. With HDCoin, we transform the conventional energy-wasteful mining process into a competitive process for developing high accuracy, trustworthy and verifiable hyperdimensional models. We explore four diverse biomedical datasets, and conduct an extensive design-space exploration of key HDC hyperparameters of blockchain miners such as dimensionality, learning rate, and retraining iterations for model performance, adaptive mining difficulty and fairness on proof-of-useful-work.

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  1. NeuroHD-RA: Neural-distilled Hyperdimensional Model with Rhythm Alignment

    eess.SP 2025-07 conditional novelty 4.0 of 10

    A learnable hyperdimensional computing model with RR-interval segmentation and proxy metric learning reaches 73.09% accuracy on Apnea-ECG, with a 124.5 KB binary model.

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