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Hebbian learning inspired estimation of the linear regression parameters from queries

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arxiv 2311.03483 v1 pith:EJJK2DKV submitted 2023-09-26 math.ST cs.LGcs.NEstat.TH

classification math.STcs.LGcs.NEstat.TH
keywords learninghebbianregressionlinearmethodsqueriesruleachieve
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Local learning rules in biological neural networks (BNNs) are commonly referred to as Hebbian learning. [26] links a biologically motivated Hebbian learning rule to a specific zeroth-order optimization method. In this work, we study a variation of this Hebbian learning rule to recover the regression vector in the linear regression model. Zeroth-order optimization methods are known to converge with suboptimal rate for large parameter dimension compared to first-order methods like gradient descent, and are therefore thought to be in general inferior. By establishing upper and lower bounds, we show, however, that such methods achieve near-optimal rates if only queries of the linear regression loss are available. Moreover, we prove that this Hebbian learning rule can achieve considerably faster rates than any non-adaptive method that selects the queries independently of the data.

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  1. Improving the Convergence Rates of Forward Gradient Descent with Repeated Sampling

    math.ST 2024-11 accept novelty 7.0 of 10

    Repeating forward gradient descent updates on each sample ℓ times improves the linear-model error rate from d²/n to d²/(ℓ∧d)n, matching SGD when ℓ≈d.

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