Goto

Collaborating Authors

 universal rule


How a Periodic Table of Brains Could Revolutionize Neuroscience

#artificialintelligence

Between your ears sits perhaps the most complex piece of biological machinery on the planet: an all-in-one computer, simulator, and creation device that operates out of a squishy, folded gray mass. And scientists aren't quite sure how it works. Gül Dölen, assistant professor of neuroscience at the Brain Science Institute at Johns Hopkins, thinks that neuroscientists might need take a step back in order to better understand this organ, which evolved in various forms in nearly every species of animal on Earth. Slicing a few brains apart or taking a few MRIs won't be enough to get to the bottom of how these organs function. Instead, it might require a comparative approach; the most advanced catalog ever created.


Universal Rules for Fooling Deep Neural Networks based Text Classification

arXiv.org Machine Learning

Recently, deep learning based natural language processing techniques are being extensively used to deal with spam mail, censorship evaluation in social networks, among others. However, there is only a couple of works evaluating the vulnerabilities of such deep neural networks. Here, we go beyond attacks to investigate, for the first time, universal rules, i.e., rules that are sample agnostic and therefore could turn any text sample in an adversarial one. In fact, the universal rules do not use any information from the method itself (no information from the method, gradient information or training dataset information is used), making them black-box universal attacks. In other words, the universal rules are sample and method agnostic. By proposing a coevolutionary optimization algorithm we show that it is possible to create universal rules that can automatically craft imperceptible adversarial samples (only less than five perturbations which are close to misspelling are inserted in the text sample). A comparison with a random search algorithm further justifies the strength of the method. Thus, universal rules for fooling networks are here shown to exist. Hopefully, the results from this work will impact the development of yet more sample and model agnostic attacks as well as their defenses, culminating in perhaps a new age for artificial intelligence.