Live
Black Hat USAAI BusinessBlack Hat AsiaAI BusinessLess than a month: StrictlyVC San Francisco brings leaders from TDK Ventures, Replit, and more togetherTechCrunch AIA YouTuber channeled his distaste for the PS5’s design into slick console coversThe Verge AIThe end of 'shadow AI' at enterprises? Kilo launches KiloClaw for Organizations to enable secure AI agents at scaleVentureBeat AI"You Have Not Been a Good User" (LessWrong's second album)LessWrong AIWhy Cyber-Insurance and SOC 2 Audits Struggle with Small Tech Teams — And What a Structured Evidence Layer ChangesDEV CommunityA Code Authorship Analysis on the Claude Code Leak. What Was Found Doesn't Match Human or AI Code.DEV CommunityVanityH – Elegant Hyperscript DSL for Frontend Render FunctionsDEV Community“Prismo: Building an AI-Powered Parametric Insurance for Gig Workers | Hackathon Journey”DEV CommunityFrom Coin Toss to LLM — Understanding Random VariablesDEV Community7 Patterns That Stop Your AI Agent From Going Rogue in ProductionDEV CommunityI Let an AI Agent Run My Freelance Life. It Almost Burned It Down.DEV CommunityHow to Build an AI Agent That Tweets for You (Step by Step)DEV CommunityBlack Hat USAAI BusinessBlack Hat AsiaAI BusinessLess than a month: StrictlyVC San Francisco brings leaders from TDK Ventures, Replit, and more togetherTechCrunch AIA YouTuber channeled his distaste for the PS5’s design into slick console coversThe Verge AIThe end of 'shadow AI' at enterprises? Kilo launches KiloClaw for Organizations to enable secure AI agents at scaleVentureBeat AI"You Have Not Been a Good User" (LessWrong's second album)LessWrong AIWhy Cyber-Insurance and SOC 2 Audits Struggle with Small Tech Teams — And What a Structured Evidence Layer ChangesDEV CommunityA Code Authorship Analysis on the Claude Code Leak. What Was Found Doesn't Match Human or AI Code.DEV CommunityVanityH – Elegant Hyperscript DSL for Frontend Render FunctionsDEV Community“Prismo: Building an AI-Powered Parametric Insurance for Gig Workers | Hackathon Journey”DEV CommunityFrom Coin Toss to LLM — Understanding Random VariablesDEV Community7 Patterns That Stop Your AI Agent From Going Rogue in ProductionDEV CommunityI Let an AI Agent Run My Freelance Life. It Almost Burned It Down.DEV CommunityHow to Build an AI Agent That Tweets for You (Step by Step)DEV Community

Deep Learning-Based Anomaly Detection in Spacecraft Telemetry on Edge Devices

arXiv cs.LGby Christopher Goetze, Tim Schlippe, Daniel LakeyApril 1, 20261 min read0 views
Source Quiz

arXiv:2603.29375v1 Announce Type: new Abstract: Spacecraft anomaly detection is critical for mission safety, yet deploying sophisticated models on-board presents significant challenges due to hardware constraints. This paper investigates three approaches for spacecraft telemetry anomaly detection -- forecasting & threshold, direct classification, and image classification -- and optimizes them for edge deployment using multi-objective neural architecture optimization on the European Space Agency Anomaly Dataset. Our baseline experiments demonstrate that forecasting & threshold achieves superior detection performance (92.7% Corrected Event-wise F0.5-score (CEF0.5)) [1] compared to alternatives. Through Pareto-optimal architecture optimization, we dramatically reduced computational requiremen

View PDF HTML (experimental)

Abstract:Spacecraft anomaly detection is critical for mission safety, yet deploying sophisticated models on-board presents significant challenges due to hardware constraints. This paper investigates three approaches for spacecraft telemetry anomaly detection -- forecasting & threshold, direct classification, and image classification -- and optimizes them for edge deployment using multi-objective neural architecture optimization on the European Space Agency Anomaly Dataset. Our baseline experiments demonstrate that forecasting & threshold achieves superior detection performance (92.7% Corrected Event-wise F0.5-score (CEF0.5)) [1] compared to alternatives. Through Pareto-optimal architecture optimization, we dramatically reduced computational requirements while maintaining capabilities -- the optimized forecasting & threshold model preserved 88.8% CEF0.5 while reducing RAM usage by 97.1% to just 59 KB and operations by 99.4%. Analysis of deployment viability shows our optimized models require just 0.36-6.25% of CubeSat RAM, making on-board anomaly detection practical even on highly constrained hardware. This research demonstrates that sophisticated anomaly detection capabilities can be successfully deployed within spacecraft edge computing constraints, providing near-instantaneous detection without exceeding hardware limitations or compromising mission safety.

Comments: IEEE Space Computing Conference (SCC 2025), Los Angeles, CA, USA, 28 July - 1 August 2025

Subjects:

Machine Learning (cs.LG); Artificial Intelligence (cs.AI); Hardware Architecture (cs.AR)

Cite as: arXiv:2603.29375 [cs.LG]

(or arXiv:2603.29375v1 [cs.LG] for this version)

https://doi.org/10.48550/arXiv.2603.29375

arXiv-issued DOI via DataCite (pending registration)

Submission history

From: Tim Schlippe [view email] [v1] Tue, 31 Mar 2026 07:45:40 UTC (319 KB)

Was this article helpful?

Sign in to highlight and annotate this article

AI
Ask AI about this article
Powered by AI News Hub · full article context loaded
Ready

Conversation starters

Ask anything about this article…

Daily AI Digest

Get the top 5 AI stories delivered to your inbox every morning.

More about

modelannounceanalysis

Knowledge Map

Knowledge Map
TopicsEntitiesSource
Deep Learni…modelannounceanalysisforecasteuropesafetyarXiv cs.LG

Connected Articles — Knowledge Graph

This article is connected to other articles through shared AI topics and tags.

Knowledge Graph100 articles · 188 connections
Scroll to zoom · drag to pan · click to open

Discussion

Sign in to join the discussion

No comments yet — be the first to share your thoughts!

More in Research Papers