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SlipSense: from pressure and vibration to a timely regrasp
Pressure and vibration improve slip recognition together. Independent motion labels and five failed recoveries explain why detector quality and controller quality need separate tests.
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Browse research01
Pressure and vibration improve slip recognition together. Independent motion labels and five failed recoveries explain why detector quality and controller quality need separate tests.
02
A 60 Hz tactile policy traces farther than a joint-only baseline, but the useful lesson is how sensor detail, pretraining, temporal context and action timing interact.
03
Rendering contact as image arrows reuses a visual policy’s input pathway. The hardware and ablations show why spatial alignment, signal normalization and training still matter.
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Choose the matching code branch and dataset before using UniVTAC. This guide separates its tactile encoder, simulation benchmark, public downloads and paper-reported physical results.
05
Human tactile pretraining improves the paper’s contact predictions, but synthetic training data does not consistently improve real-robot policy scores. Here is what each experiment measures.
06
Bench2Dex connects teleoperation, replay, tactile maps, and evaluation across 12 hand embodiments. We examine the data contract and distinguish simulation access from physical sensor validation.