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Other/Find papers from 2023-2026 on federated learning intrusion detection (IoT/IIoT) that use SHAP or other feature attributions to screen, weight, or detect malicious or untrustworthy clients
Find papers from 2023-2026 on federated learning intrusion detection (IoT/IIoT) that use SHAP or other feature attributions to screen, weight, or detect malicious or untrustworthy clients. For each paper give: title, authors, venue, year, DOI, the dataset(s), the attacks evaluated, how attributions are used (screening / weighting / explanation only), and whether an adaptive attacker that knows the defense is evaluated. Include Zero-Trust Agentic Federated Learning for Secure IIoT Defense Systems (arXiv 2512.23809) and XAI FL-IDS (arXiv 2605.19448) if they appear.

Papers matching the client-attribution criterion

I searched academic records dated 2023–2026 in Semantic Scholar, OpenAlex, and PubMed. From the retrieved abstracts, I found two direct IoT/IIoT matches where feature attribution is explicitly used to weight client updates or identify malicious clients, plus one adjacent Internet-of-Vehicles (IoV) paper. The available evidence is abstract-level only; the table distinguishes an attack experiment from a test of an attacker who knows and adapts to the defense.

PaperAuthors; venue; year; DOIDataset(s)Attacks evaluated (as stated in abstract)Attribution functionAdaptive, defense-aware attacker evaluated?
Federated Learning for Distributed IoT Security: A Privacy-Preserving Approach to Intrusion DetectionGutti Chandu, Karthik Thumula, Balbudhe Parag; IEEE Access; 2025; 10.1109/ACCESS.2025.3592481CIC-BCCC-NRC TabularIoTAttack-2024; Edge-IIoTset; 100 simulated ARM-class devices.FGSM and PGD-10 perturbations, plus label-flip attacks. The abstract reports 66–73% accuracy under these attacks, but does not specify a defense-aware adaptive adversary.Weighting. HADA weights client updates according to SHAP-based feature stability and each client’s differential-privacy budget; this is directly used in aggregation to down-weight noisy/low-privacy updates and is described as hardening against poisoning. (Gutti, 2025)Not reported in the retrieved abstract. Adversarial perturbation and label-flip tests are reported, but not an attacker explicitly adapting with knowledge of HADA.
Zero-Trust Agentic Federated Learning for Secure IIoT Defense SystemsSamaresh Kumar Singh, Joyjit Roy, Martin So; arXiv preprint; 2025; DOI not listed in the retrieved record (arXiv:2512.23809).Edge-IIoTset; CIC-IDS2017; UNSW-NB15.Byzantine poisoning, including a reported test with 30% Byzantine clients; the abstract also reports adversarial robustness but does not name those attack types.Screening/detection and weighting. SHAP-weighted aggregation is presented as explainable Byzantine detection under non-IID conditions. (Singh, 2025)Not reported in the retrieved abstract. A 30%-Byzantine evaluation is not, by itself, evidence that the adversary knew or adapted to the defense.
Explainable AI for Federated Learning-Based Intrusion Detection Systems in Connected Vehicles (adjacent IoV evidence, not strictly IoT/IIoT)Ramin Taheri, Raheleh Jafari, Alexander Gegov, Farzad Arabikhan, Alexandar Ichtev; Electronics; 2025; 10.3390/electronics14224508.CICEVSE2024; CICIoV2024.The abstract describes anomalies from malicious or corrupted clients and reports stronger resilience, but does not name the attack implementations.Client-maliciousness detection (claimed), plus explanation. The abstract says SHAP-based feature analysis assists in recognizing anomalies arising from malicious/corrupted clients; it does not provide enough method detail to tell exactly how attribution triggers a decision or update penalty. (Taheri, 2025)Not reported in the retrieved abstract. No defense-aware adaptive-attack protocol is described.

The Zero-Trust row is the arXiv:2512.23809 item specified in the request.

Requested XAI FL-IDS item

I could not confirm arXiv:2605.19448 in the permitted academic records: the exact ID lookup returned no citable match. Since arXiv is not among the selected sources, I cannot verify that preprint’s title, authors, venue, DOI, datasets, attacks, attribution role, or adaptive-attacker evaluation. The arXiv source was not searched; enabling the relevant source under Settings > Sources would allow that check.

A separate, indexed 2025 conference paper has a very similar title—XAI FL-IDS: A Federated Learning and SHAP-Based Explainable Framework for Distributed Intrusion Detection Systems (Mohammad Hossein Gholamrezazadeh and Ahmadreza Montazerolghaem; ICSPIS 2025; DOI 10.1109/ICSPIS68676.2025.11551742). Its abstract describes SHAP as inspecting detections for feature-level explanation, not screening, weighting, or detecting untrustworthy clients; it uses Edge-IIoTset with 10 clients and reports >99% accuracy. The abstract does not name attack scenarios or describe an adaptive attacker, so this is explanation-only and not a qualifying client-defense match. (Gholamrezazadeh, 2025)

Scope and caveats

These are the matches supportable from the retrieved abstracts, not a claim that no other papers exist. The search selected up to 100 records per academic search, but all selected passages were abstract/excerpt-only; the optional lexical-planning lane failed while semantic retrieval continued. Client-Shapley scoring that measures client contribution (rather than feature attribution) was not counted as an attribution-based malicious-client defense.

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Find papers on federated conformal prediction where some clients are malicious or Byzantine, or on poisoning of conformal calibration data. For each give: title, authors, venue, year, DOI, whether coverage is marginal or class/group-conditional, whether the threat model targets the calibration scores, and the datasets. Include Rob-FCP (Kang et al., ICML 2024), PRISM-FCP (Lari et al., IEEE TSP 2026), and group-conditional federated conformal prediction (Wen, Simeone, Xing, 2026). List anything on intrusion detection or network security separately.

What the retrieved papers establish

I checked the requested dataset names against the dataset descriptions or papers that use them. None of the retrieved abstracts confirms that the downloadable table has one event timestamp per flow. I therefore cannot certify any of these as ready for a chronological forward-time split. “Not stated” below means unavailable in the retrieved abstract, not that the dataset lacks timestamps. The current source scope is academic records in abstract-only mode; I could not inspect dataset readmes, schemas, or live download pages, so sizes and login requirements are not independently verified.

  • Edge-IIoTset — Dataset paper (2022): Edge-IIoTset: A New Comprehensive Realistic Cyber Security Dataset of IoT and IIoT Applications for Centralized and Federated Learning; DOI 10.1109/ACCESS.2022.3165809. The abstract points to http://ieee-dataport.org/8939 as a public-access location; whether it currently works or requires sign-in is unverified. Size: not stated in the abstract. Attacks: 14 attack scenarios in five threat families (DoS/DDoS, information gathering, man-in-the-middle, injection, malware); exported label count is not specified. Timestamp granularity (per flow vs per file): not specified; forward-time suitability unconfirmed. The source describes the attacks and access link. (Ferrag, 2022)

  • ToN_IoT network dataset — Dataset paper (2021): A New Distributed Architecture for Evaluating AI-Based Security Systems at the Edge: Network TON_IoT Datasets; DOI 10.1016/j.scs.2021.102994. The abstract says the datasets are publicly accessible from ADFA (2020), but does not provide the direct dataset URL or say whether login is needed. Size and number of network-traffic attack classes: not stated. Timestamp granularity: not stated; per-flow timestamps and chronological-split suitability are unconfirmed. (Moustafa, 2021)

  • NF-ToN-IoT-v2 — I did not confirm a dataset-origin paper. A 2026 paper using it is Intrusion Detection in Industrial IoT Networks using NetFlow and Machine Learning Techniques on the NF-ToN-IoT-v2 Dataset; DOI 10.56714/bjrs.52.1.9. Its abstract identifies it as a NetFlow dataset and says the evaluated version has roughly 1% attack samples, but gives neither total size nor class count. It gives no dataset download URL or login information. Timestamp field/granularity is not stated; chronological suitability is unconfirmed. (Almusawy, 2026)

  • NF-ToN-IoT-v3 — I did not confirm a dataset-origin paper. A 2026 use paper is FedDMGL: Privacy-Preserving Intrusion Detection in IoT Networks via Federated Dynamic Markov Graph Learning; DOI 10.2139/ssrn.6294406. Size, attack-class count, download URL, and login requirement were not given in the retrieved abstract. Timestamp granularity is not specified in the available abstract, so per-flow timestamp and forward-time suitability remain unverified.

    Evidence: the abstract reports experiments on NF-ToN-IoT-v3 (and NF-BoT-IoT-v3). (Driss, 2026)

  • CICIoT2023 — Dataset paper (2023): CICIoT2023: A Real-Time Dataset and Benchmark for Large-Scale Attacks in IoT Environment; DOI 10.3390/s23135941. The abstract says it is available on the CIC Dataset website but does not give a direct download URL or login requirement. Size is not stated in the abstract. It reports 33 attacks grouped into seven categories: DDoS, DoS, reconnaissance, web-based, brute force, spoofing, and Mirai. Timestamp granularity (per flow vs per file) is not stated; chronological suitability is unconfirmed. (Neto, 2023)

  • X-IIoTID — Dataset paper (2021): X-IIoTID: A Connectivity-Agnostic and Device-Agnostic Intrusion Data Set for Industrial Internet of Things; DOI 10.1109/JIOT.2021.3102056. The abstract describes network-traffic, host-resource, log, and alert views and an attack taxonomy, but does not give a direct download URL, login requirement, size, or attack-class count. It also does not establish whether timestamps are per flow or per file; chronological suitability is unconfirmed. (Al-Hawawreh, 2021)

  • WUSTL-IIoT-2021 — I did not confirm a dataset-origin paper. A 2024 paper that uses WUSTL-IIOT is A Stability-Enhanced Dynamic Backdoor Defense in Federated Learning for IIoT; DOI 10.1109/TII.2024.3410319. It evaluates a backdoor-defense method on WUSTL-IIOT, but does not document the dataset release, size, attack-label count, download URL, login requirement, or timestamp schema. A 2025 study also names WUSTL-IIoT-2021 as an evaluation dataset without supplying those schema details in its abstract. (Ma, 2024) (Salehiyan, 2025)

Bottom line

Only Edge-IIoTset and CICIoT2023 have attack-scenario totals and category groupings in the retrieved dataset-paper abstracts. For all requested datasets, the key criterion—timestamp per flow rather than per file or capture—remains unverified in the available source text. The table is therefore a screening list, not a confirmation that these datasets meet the chronological-split requirement. Checking the current download pages and row-level schema is necessary before using one for forward-time evaluation.

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Citation Lists

Mohammad Hossein Gholamrezazadeh, Ahmadreza Montazerolghaem · 2025 · 2025 11th International Conference on Signal Processing and Intelligent Systems (ICSPIS)

Samaresh Kumar Singh, Joyjit Roy, Martin So · 2025-12-29T19:07:11Z · arXiv

Ramin Taheri, Raheleh Jafari, Alexander E. Gegov, Farzad Arabikhan, A. Ichtev · 2025 · Electronics

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Abstract
Source 1: XAI FL-IDS: A Federated Learning and SHAP-Based Explainable Framework for Distributed Intrusion Detection Systems

Mohammad Hossein Gholamrezazadeh, Ahmadreza Montazerolghaem · 2025 · 2025 11th International Conference on Signal Processing and Intelligent Systems (ICSPIS)

10.1109/ICSPIS68676.2025.11551742

An Intrusion Detection System (IDS) is vital in cybersecurity, detecting unauthorized activity across networks. With attacks on network layers increasing, stronger IDSs are needed. Yet most IDSs rely on centralized detection, forcing IoT nodes to ship data to a server—adding overhead and offering no privacy guarantees. Moreover, conventional models focus solely on flagging attacks, without explain…

Source 2: Zero-Trust Agentic Federated Learning for Secure IIoT Defense Systems

Samaresh Kumar Singh, Joyjit Roy, +1 · 2025 · arXiv

Recent attacks on critical infrastructure, including the 2021 Oldsmar water treatment breach and 2023 Danish energy sector compromises, highlight urgent security gaps in Industrial IoT (IIoT) deployments. While Federated Learning (FL) enables privacy-preserving collaborative intrusion detection, existing frameworks remain vulnerable to Byzantine poisoning attacks and lack robust agent authenticati…

Source 3: Explainable AI for Federated Learning-Based Intrusion Detection Systems in Connected Vehicles

Ramin Taheri, Raheleh Jafari, +3 · 2025 · Electronics · 8 citations

10.3390/electronics14224508

Connected and autonomous vehicles, along with the expanding Internet of Vehicles (IoV), are increasingly exposed to complex and evolving cyberattacks. Consequently, Intrusion Detection Systems (IDS) have become a vital component of modern vehicular cybersecurity. Federated Learning (FL) enables multiple vehicles to collaboratively train detection models while keeping their local data private, prov…

Source 4: Federated Learning for Distributed IoT Security: A Privacy-Preserving Approach to Intrusion Detection

C. Gutti, Karthik Thumula, +1 · 2025 · IEEE Access · 21 citations

10.1109/ACCESS.2025.3592481

Billions of resource-constrained IoT devices now stream security-critical yet privacy-sensitive traffic across the Internet. To detect intrusions without exposing raw data, we propose a federated learning (FL) framework that trains collaboratively on the edge while preserving privacy. At its core is Hybrid Adaptive-Weight Aggregation (HADA), a new server-side rule that weights client updates by th…

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