While adversarial training boosts the robustness, it is widely accepted by computer vision researchers that it is at odds with generalization, with classification We analyze the influence of adversarial training on the loss landscape of machine learning models. Adversarial training on high-resolution datasets, including ImageNet, has only been within reach for research labs having hundreds of GPUs1. Adversarial training remains among the most trusted defenses, but it is nearly intractable on large-scale problems. Abstract: Adversarial training, in which a network is trained on adversarial examples, is one of the few defenses against adversarial attacks that withstands strong attacks. Badges are live and will be dynamically The learned semantic segmentation aims at obtaining more precise parameters, and the discriminative information can be decoded for a lower-dimensional space. ALUM obtains substantial gains over BERT on a wide range of NLP tasks, in both regular and adversarial scenarios. (read more), Ranked #1 on Adversarial Training of Deep Neural Networks via Adversarial Latent Variable This paper presents a unified framework for learning classification models using deep learning architecture using a pre-training stage. • SAT also works well with larger networks: it helps EfficientNet-L1 to achieve 82.2% accuracy and 58.6% robustness on ImageNet, outperforming the previous state-of-the-art defense by 9.5% for accuracy and 11.6% for robustness. iclr: 2021-01-21: 131: Perceptual Adversarial Robustness: Generalizable Defenses Against Unforeseen Threat Models The most common reason is to cause a malfunction in a machine learning model. Unfortunately, the high cost of generating strong adversarial examples makes standard adversarial training impractical on large-scale problems like ImageNet. Adversarial Defense . Adversarial training improves the model robustness by train-ing on adversarial examples generated by FGSM and PGD (Goodfellow et al.,2015;Madry et al.,2018).Tramer et al.` (2018) proposed an ensemble adversarial training on ad-versarial examples generated from a number of pretrained adversarial training to help reduce bias in the user model and further reduce the variance in training our agent. JINGFENG ZHANG et. Such a method of training with usage of additional most hard samples from the training example vicinity exist and is called adversarial training. Recent works have built up the relationship between ordinary differential equations and neural networks [38, 22, 10, 5, 45, 35, 30]. Code for the paper: Sukrut Rao, David Stutz, Bernt Schiele. updated with the latest ranking of this Multi-Agent Plan Adaptation Using Coordination Patterns in Team Adversarial Games (Extended Abstract) by Kennard Laviers One issue with learning effective policies in multi-agent adversarial games is that the size of the search space can be prohibitively large when the actions of all the players are considered simultaneously. For example, one For example, without introducing additional computations, SAT significantly enhances ResNet-50's robustness from 33.0% to 42.3%, while also improving accuracy by 0.9% on ImageNet. We propose a general algorithm ALUM (Adversarial training for large neural LangUage Models), which regularizes the training objective by applying perturbations … In this paper, we show that adversarial pre-training can improve both generalization and robustness. Include the markdown at the top of your The purpose of smooth activation functions in SAT is to allow it to find harder adversarial examples and compute better gradient updates during adversarial training. on ImageNet (non-targeted PGD, max perturbation=4), ImageNet (non-targeted PGD, max perturbation=4). Quoc V. Le, It is commonly believed that networks cannot be both accurate and robust, that gaining robustness means losing accuracy. The basic idea (which originally was referred to as “adversarial training” in the machine learning literature, though is also basic technique from robust optimization when viewed through this lense) is to simply create and then incorporate adversarial examples into the training process. Adversarial Training was first introduced by Goodfellow et al. We design a Generative Adversarial Encoder-Decoder framework to regularize the forecast-ing model which can improve the performance at the sequence level. Hence we propose smooth adversarial training (SAT), in which we replace ReLU with its smooth approximations to strengthen adversarial training. 25 Jun 2020 showcase the performance of the model. al. Here we present evidence to challenge these common beliefs by a careful study about adversarial training. The widely-used ReLU activation function significantly weakens adversarial training due to its non-smooth nature. However, these models are still vulnerable to adversarial attacks. Our … An untargeted adversar- ial example aims to cause misclassification of the classifier, as C(xadv) 6= y. (2017) and is the setting we study in this paper. Hence we propose smooth adversarial training (SAT), in which we replace ReLU with its smooth approximations to strengthen adversarial training. Mingxing Tan For example, without introducing additional computations, SAT significantly enhances ResNet-50's robustness from 33.0% to 42.3%, while also improving accuracy by 0.9% on ImageNet. Highlight: This paper has proposed a novel adversarial training method, i.e., geometry-aware instance-reweighted adversarial training (GAIRAT), which sheds new lights on improving the adversarial training. employs an adversarial learning approach to generate images containing both features from the design ... the brain signal and images presented by training an encoder to extract the features from raw EEG data when viewing the image. training and its variants tend to be most effective since it largely avoids the the obfuscated gradient problem [2]. • adversarial examples in this paper. Compared to standard adversarial training, SAT improves adversarial robustness for "free", i.e., no drop in accuracy and no increase in computational cost. In this paper, an adversarial training is performed with a low-dimensional parametric model and the discriminative information is computed jointly from the manifold and the parametric model. We propose a general algorithm ALUM (Adversarial training for large neural LangUage Models), which regularizes the training objective by applying perturbations in the embedding space that maximizes the adversarial loss. However, the discrete output of language model hinders the application of gradient-based GANs. The experiments show that adversarial training improves the robustness and generalization of the model. In this project, we developed smooth adversarial training (SAT), in which we replace ReLU with its smooth approximations (e.g., SILU, softplus, SmoothReLU) to strengthen adversarial training. In this paper, we show that adversarial pre-training can improve both generalization and robustness. Here we present evidence to challenge these common beliefs by a careful study about adversarial training. In this paper, we propose AdvProp, short for Adversar- ial Propagation, a new training scheme that bridges the dis- tribution mismatch with a simple yet highly effective two- batchnorm approach. Adversarial Defense Existing adversarial training often uses hand-designed general purpose opti-mizers, such as PGD attack, to (approximately) solve the inner maximization. About: In this paper, the researchers … Multi-task learning toolkit for natural language understanding, including knowledge distillation. Speci・…ally, we propose to use two batch norm statistics, one for clean images and one auxil- iary for adversarial examples. The purpose of smooth activation functions in SAT is to allow it to find harder adversarial examples and compute better gradient updates during adversarial training. Neural ODEs. Section 2 reviews related works on time series (96%) Alessandro Fontana Certifiably Robust Variational Autoencoders. ALUM can be further combined with task-specific fine-tuning to attain additional gains. The procedure for adversarial training is to use some adversarial attack to approximate the inner maximization over, followed by some variation of gradient descent on the model parameters . Paper where method was first introduced: Method category (e.g. Adversarial machine learning is a machine learning technique that attempts to fool models by supplying deceptive input. One … task. However, there is an essential property of adversarial training that is rarely ex-plored: the maximization problems associated with each sample share very sim- Our key observation is that the widely-used ReLU activation function significantly weakens adversarial training due to its non-smooth nature. The study also compares the performances of the employed defense methods in detail, and finds adversarial training based on Projected Gradient Descent (PGD) to be the best defense method in our setting. Therefore, in this paper, we choose adversarial training to achieve model robustness. Self-Paced Adversarial Training for Multimodal Few-Shot Learning @article{Pahde2019SelfPacedAT, title={Self-Paced Adversarial Training for Multimodal Few-Shot Learning}, author={Frederik Pahde and O. Ostapenko and P. J{\"a}hnichen and T. Klein and Moin Nabi}, journal={2019 IEEE Winter Conference on Applications of Computer Vision … A targeted one is crafted to be misclassi- fied as the adversary-desired target class by the classifier, as C(xadv) = y∗, where y∗is the target class. 2021-02-15 Generating Structured Adversarial Attacks Using Frank-Wolfe Method. Add a GitHub README.md file to Adversarial training can enhance robustness, but past work often finds it hurts generalization. Most machine learning techniques were designed to work on specific problem sets in which the training and test data are generated from the same statistical distribution (). Compared to standard adversarial training, SAT improves adversarial robustness for "free", i.e., no drop in accuracy and no increase in computational cost. threat model used by Madry et al. Even for models that have been well trained on extremely large text corpora, such as RoBERTa, ALUM can still produce significant gains from continual pre-training, whereas conventional non-adversarial methods can not. Cihang Xie Stay informed on the latest trending ML papers with code, research developments, libraries, methods, and datasets. • In natural language processing (NLP), pre-training large neural language models such as BERT have demonstrated impressive gain in generalization for a variety of tasks, with further improvement from adversarial fine-tuning. Generalization and robustness are both key desiderata for designing machine learning methods. Programming languages & software engineering. (99%) Ehsan Kazemi; Thomas Kerdreux; Liquang Wang And/or trade-off in artificial neurons: impact on adversarial robustness. Our key observation is that the widely-used ReLU activation function significantly weakens adversarial training due to its non-smooth nature. paper. In this paper we propose a generic framework employing Long short-term Memory (LSTM) and convolutional neural network (CNN) for adversarial training to generate realistic text. We propose a general algorithm ALUM (Adversarial training for large neural LangUage Models), which regularizes the training objective by applying perturbations in the embedding space that maximizes the adversarial loss. 2.2. The rest of this paper is organized as follows. The idea is to introduce adversarial noise to the output embedding layer while training the models. Even on reasonably-sized datasets, such as Here we present evidence to challenge these common beliefs by a careful study about adversarial training. Adversarial Training against Location-Optimized Adversarial … However, do we really need class labels at all, for adversarially robust training of deep neural networks? DaST: Data-Free Substitute Training for Adversarial Attacks. DOI: 10.1109/WACV.2019.00029 Corpus ID: 53712960. In this paper, we present a simple yet highly effective adversarial training mechanism for regularizing neural language models. In this paper, we show that adversarial pre-training can improve both generalization and robustness. Adversarial Training against Location-Optimized Adversarial Patches. We then demonstrate that the adversarial loss landscape is less favorable to optimization, due to increased curvature and more scattered gradients. SAT also works well with larger networks: it helps EfficientNet-L1 to achieve 82.2% accuracy and 58.6% robustness on ImageNet, outperforming the previous state-of-the-art defense by 9.5% for accuracy and 11.6% for robustness. arXiv | Code. In this paper, we propose a novel adver- in a follow-up paper to Christian Sxegedy’s paper. The experiments on two real-world datasets show that our candidate selection and adversarial training can cooperate together to obtain more diverse and accurate training data for ED, and significantly outperform the state-of-the-art methods in various weakly supervised scenarios. While some recent works propose semi-supervised adversarial learning methods that utilize unlabeled data, they still require class labels. Alan Yuille We present the first comprehensive study of adversarial training in all stages, including pre-training from scratch, continual pre-training on a well-trained model, and task-specific fine-tuning. The objective of an adversarial style is to win a zero-sum game. In this paper, we turn our focus away from the security benefits of adversarial training, and instead study its effects on generalization. The model is trained using a recurrent neural network (RNN) with a sparse representation for classification. The ALUM code and pre-trained models will be made publicly available on GitHub. To this end, we first provide analytical studies of the properties of adversarial loss functions under different adversarial budgets. on ImageNet (non-targeted PGD, max perturbation=4). which adversarial training is the most effective. Activation ... Adversarial training provides a means of regularizing supervised learning algorithms while virtual adversarial training is able to extend supervised learning algorithms to the semi-supervised setting. • Boqing Gong training of the model for improved robustness. • Generative Adversarial Networks (GANs) have achieved great success in generating realistic synthetic real-valued data. In this paper, the environment is modeled as a user behavior model U, and learnt from offline log data.
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