paper-with-me

홈 › Papers

ALOHA: Auxiliary Loss Optimization for Hypothesis Augmentation

2019-03-13 · Ethan M. Rudd, Felipe N. Ducau, Cody Wild, Konstantin Berlin, Richard Harang

Malware detection is a popular application of Machine Learning for Information Security (ML-Sec), in which an ML classifier is trained to predict whether a given file is malware or benignware. Parameters of this classifier are typically optimized such that outputs from the model over a set of input samples most closely match the samples' true malicious/benign (1/0) target labels. However, there are often a number of other sources of contextual metadata for each malware sample, beyond an aggregate malicious/benign label, including multiple labeling sources and malware type information (e.g., ransomware, trojan, etc.), which we can feed to the classifier as auxiliary prediction targets. In this work, we fit deep neural networks to multiple additional targets derived from metadata in a threat intelligence feed for Portable Executable (PE) malware and benignware, including a multi-source malicious/benign loss, a count loss on multi-source detections, and a semantic malware attribute tag loss. We find that incorporating multiple auxiliary loss terms yields a marked improvement in performance on the main detection task. We also demonstrate that these gains likely stem from a more informed neural network representation and are not due to a regularization artifact of multi-target learning. Our auxiliary loss architecture yields a significant reduction in detection error rate (false negatives) of 42.6% at a false positive rate (FPR) of $10^{-3}$ when compared to a similar model with only one target, and a decrease of 53.8% at $10^{-5}$ FPR.

📄 PDF Abstract BibTeX arXiv:1903.05700

Code (1)

cmikke97/Automatic-Malware-Signature-Generation pytorch

Tasks

AttributeMalware DetectionTAG

Similar Papers 제목 키워드 기반

ALOHA-NOMA for Massive Machine-to-Machine IoT Communication

2018-03-25

This paper proposes a new medium access control (MAC) protocol for Internet of Things (IoT) applications incorporating pure ALOHA with power domain non-orthogonal multiple access (NOMA) in which the number of transmitter…

Enabling Aloha-NOMA for Massive M2M Communication in IoT Networks

2018-03-26

The Internet of things (IoT), which is the network of physical devices embedded with sensors, actuators, and connec- tivity, is being accelerated into the mainstream by the emergence of 5G wireless networking. This paper…

ALOHA 2: An Enhanced Low-Cost Hardware for Bimanual Teleoperation

2024-02-07 · ALOHA 2 Team, Jorge Aldaco, Travis Armstrong, Robert Baruch 외

Diverse demonstration datasets have powered significant advances in robot learning, but the dexterity and scale of such data can be limited by the hardware cost, the hardware robustness, and the ease of teleoperation. We…

MuJoCo

AAG: Self-Supervised Representation Learning by Auxiliary Augmentation with GNT-Xent Loss

2020-09-17 · Yanlun Tu, Jianxing Feng, Yang Yang

Self-supervised representation learning is an emerging research topic for its powerful capacity in learning with unlabeled data. As a mainstream self-supervised learning method, augmentation-based contrastive learning ha…

Contrastive LearningDiversityRepresentation LearningSelf-Supervised Learning

ALOHA2 Robot Kitchen Application Scenario Reproduction Report

2025-10-15 · Haoyang Wu, Siheng Wu, William X. Liu, Fangui Zeng arxiv

ALOHA2 is an enhanced version of the dual-arm teleoperated robot ALOHA, featuring higher performance and robustness compared to the original design, while also being more ergonomic. Like ALOHA, ALOHA2 consists of two gri…