On the Conflict of Robustness and Learning in Collaborative Machine Learning
Not on the map. Why?
Abstract (arXiv)
Collaborative Machine Learning (CML) allows participants to jointly train a machine learning model while keeping their training data private. In many scenarios where CML is seen as the solution to privacy issues, such as health-related applications, safety is also a primary concern. To ensure that CML processes produce models that output correct and reliable decisions even in the presence of potentially untrusted participants, researchers propose to use textitrobust aggregators to filter out malicious contributions that negatively influence the training process. In this work, we formalize the two prevalent forms of robust aggregators in the literature. We then show that neither can provide the intended protection: either they use distance-based metrics that cannot reliably identify malicious inputs to training; or use metrics based on the behavior of the loss function which create a conflict with the ability of CML participants to learn, i.e., they cannot eliminate the risk of compromise without preventing learning.
Key facts. Cited by 1 paper in the map (data through 7 Oct 2026). Builds on 48 of its 79 references that are in the map. First posted on arXiv 21 Feb 2024.
Builds on
48 of 79 references.
References · 48
- 2016Communication-Efficient Learning of Deep Networks from Decentralized Datacited by 7,592
- 2019Advances and Open Problems in Federated Learningcited by 3,021
- 2019Invariant Risk Minimizationcited by 1,832
- 2018How To Backdoor Federated Learningcited by 745
- 2018Byzantine-Robust Distributed Learning: Towards Optimal Statistical Ratescited by 698
- 2020The Future of Digital Health with Federated Learningcited by 625
- 2017Can Decentralized Algorithms Outperform Centralized Algorithms? A Case Study for Decentralized Parallel Stochastic Gradient Descentcited by 496
- 2019Local Model Poisoning Attacks to Byzantine-Robust Federated Learningcited by 479
- 2020FLTrust: Byzantine-robust Federated Learning via Trust Bootstrappingcited by 330
- 2018The Hidden Vulnerability of Distributed Learning in Byzantiumcited by 324
- 2019Robust Aggregation for Federated Learningcited by 314
- 2017Certified Defenses for Data Poisoning Attackscited by 288
36 more
- 2019A Little Is Enough: Circumventing Defenses For Distributed Learningcited by 285
- 2017On the (Statistical) Detection of Adversarial Examplescited by 180
- 2018Multi-Institutional Deep Learning Modeling Without Sharing Patient Data: A Feasibility Study on Brain Tumor Segmentationcited by 148
- 2020Learning from History for Byzantine Robust Optimizationcited by 137
- 2019Fall of Empires: Breaking Byzantine-tolerant SGD by Inner Product Manipulationcited by 136
- 2022(Certified!!) Adversarial Robustness for Free!cited by 130
- 2021Back to the Drawing Board: A Critical Evaluation of Poisoning Attacks on Production Federated Learningcited by 116
- 2020Robust Federated Learning: The Case of Affine Distribution Shiftscited by 102
- 2021CRFL: Certifiably Robust Federated Learning against Backdoor Attackscited by 91
- 2022Federated Learning Enables Big Data for Rare Cancer Boundary Detectioncited by 83
- 2018Technical Report: When Does Machine Learning FAIL? Generalized Transferability for Evasion and Poisoning Attackscited by 78
- 2023Fixing by Mixing: A Recipe for Optimal Byzantine ML under Heterogeneitycited by 64
- 2021Deep Federated Learning for Autonomous Drivingcited by 54
- 2020BaFFLe: Backdoor detection via Feedback-based Federated Learningcited by 52
- 2019BRIDGE: Byzantine-resilient Decentralized Gradient Descentcited by 45
- 2022FedDrive: Generalizing Federated Learning to Semantic Segmentation in Autonomous Drivingcited by 41
- 2023Federated Learning for Connected and Automated Vehicles: A Survey of Existing Approaches and Challengescited by 39
- 2017ByRDiE: Byzantine-resilient distributed coordinate descent for decentralized learningcited by 36
- 2018Defending Against Saddle Point Attack in Byzantine-Robust Distributed Learningcited by 32
- 2023AutoFed: Heterogeneity-Aware Federated Multimodal Learning for Robust Autonomous Drivingcited by 32
- 2020Byzantine-resilient Decentralized Stochastic Gradient Descentcited by 28
- 2023On the Privacy-Robustness-Utility Trilemma in Distributed Learningcited by 24
- 2021RoFL: Robustness of Secure Federated Learningcited by 23
- 2022On the (In)security of Peer-to-Peer Decentralized Machine Learningcited by 23
- 2020Robust Aggregation for Adaptive Privacy Preserving Federated Learning in Healthcarecited by 18
- 2022How to Sift Out a Clean Data Subset in the Presence of Data Poisoning?cited by 17
- 2023Flamingo: Multi-Round Single-Server Secure Aggregation with Applications to Private Federated Learningcited by 16
- 2021Basil: A Fast and Byzantine-Resilient Approach for Decentralized Trainingcited by 13
- 2022Vertical Semi-Federated Learning for Efficient Online Advertisingcited by 12
- 2022Adaptive Aggregation For Federated Learningcited by 10
- 2021Certifiably-Robust Federated Adversarial Learning via Randomized Smoothingcited by 9
- 2022Byzantines can also Learn from History: Fall of Centered Clipping in Federated Learningcited by 8
- 2022Certified Robustness in Federated Learningcited by 4
- 2023Sentinel: An Aggregation Function to Secure Decentralized Federated Learningcited by 4
- 2023Confidence-based federated distillation for vision-based lane-centeringcited by 3
- 2022Applying data technologies to combat AMR: current status, challenges, and opportunities on the way forwardcited by 1
Built on by
Citing papers per year: 2025: 1.
1 paper.
- 2025Privacy-Preserving Dataset Combinationcited by 1
- 2025Privacy-Preserving Dataset Combination9 Feb 2025