The deterministic competitive ratio of the Parking Permit Problem is exactly K; the randomized ratio is at most ln K + ln ln K + O(1) and at least ln K + ln ln K + o(1).
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Bounded fitting can be extended to expressive description logics while retaining generalization guarantees and implemented practically via SAT solvers.
A near-linear-time algorithm finds a well-spread perfect matching in bridgeless cubic graphs by using a cactus representation of 2-edge-cuts with efficient updates under reductions.
Algorithms achieve almost-linear time for ℓ_p-norm flow and dual regression problems on unit-weighted graphs for a range of p, plus applications to max-flow and total variation.
A topical review unifying statistical mechanics, tensor network, and AI approaches to approximate maximum likelihood decoding for quantum error correction codes.
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Primal-Dual Online Algorithms for the Parking Permit Problem
The deterministic competitive ratio of the Parking Permit Problem is exactly K; the randomized ratio is at most ln K + ln ln K + O(1) and at least ln K + ln ln K + o(1).
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Bounded Fitting for Expressive Description Logics
Bounded fitting can be extended to expressive description logics while retaining generalization guarantees and implemented practically via SAT solvers.
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A Near-Linear-Time Algorithm for Finding a Well-Spread Perfect Matching in Bridgeless Cubic Graphs
A near-linear-time algorithm finds a well-spread perfect matching in bridgeless cubic graphs by using a cactus representation of 2-edge-cuts with efficient updates under reductions.
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Flows in Almost Linear Time via Adaptive Preconditioning
Algorithms achieve almost-linear time for ℓ_p-norm flow and dual regression problems on unit-weighted graphs for a range of p, plus applications to max-flow and total variation.
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Maximum Likelihood Decoding of Quantum Error Correction Codes
A topical review unifying statistical mechanics, tensor network, and AI approaches to approximate maximum likelihood decoding for quantum error correction codes.