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Near-Optimal Cryptographic Hardness of Agnostically Learning Halfspaces and ReLU Regression under Gaussian Marginals

ICML 2023 · Learning theory and algorithms › Sample complexity · approach: Learning halfspaces under noise

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Measured effects reported in the paper

What was changedWhereMeasuredEffect
Reduce LWE to agnostic halfspace learning using a small-norm continuous-LWE secretGaussian-marginal agnostic halfspace learning · Gaussian marginalsrunning time lower bound: n^{Ω(1/(ε√log n)^α)}Helped
Reduce LWE to ReLU regression by converting the periodic hidden-direction signal into a ReLU correlationGaussian-marginal ReLU regression · Gaussian marginalsrunning time lower bound: n^{O(1/(ε log^2 n)^α)}Helped
Remove the √log m factor from the small-secret-norm reduction (ablation)LWE-to-Gaussian-halfspace hardness reduction · Gaussian-marginal agnostic halfspace learningrunning time lower bound: n^{Ω(1/(ε√log n)^{0.99})} -> n^{Ω(1/(ε√log n)^{1.99})}Helped

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