Topic

#Robotics

Robotics combines mechanics, electronics, and AI to build machines that can act in the physical world. Boston Dynamics and its Atlas robot are a concrete example of advanced locomotion driven by machine learning.

40Articles
12Sources
60Avg. signal
arXiv cs.LG·

Ghost Attractor Networks: Basin-Structured Dynamical Decoders for Closed-Loop Sequential Generation

Ghost Attractor Networks introduce an efficient dynamical decoder for sequential generation in robotics. With 2.3M parameters, it matches the offline accuracy of a 1.07B-parameter Diffusion Transformer (462× fewer parameters, 32× lower latency). On LIBERO-10, phase conditioning improves success rate by 13.5 percentage points over MLP baseline.

Code generationRoboticsReasoning
SIG
78
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arXiv cs.LG·

Memory-Efficient Meta-Reinforcement Learning for Adaptive Safety-Critical Control in Adversarial Spacecraft Proximity Operations

Comparative study of three recurrent architectures (LSTM, GRU, Mamba) and two algorithms (PPO, SAC) for meta-reinforcement learning applied to input-constrained control barrier functions (ICCBF) in spacecraft proximity operations. Mamba + PPO outperforms other setups in safety, task completion, and fuel savings across cooperative and adversarial scenarios.

Reinforcement learningAI safetyRobotics
SIG
72
HYP
00
arXiv cs.LG·

Phase-Localized Curation Does Not Help: A Negative Result on Per-Phase Metric Selection for Demonstration Filtering

Negative result on per-phase metric selection for demonstration filtering in robotic manipulation. Across three LIBERO pick-and-place tasks, phase-gated curation never outperforms global metrics (Task 1: 86.0 vs 92.0). Rank-aggregating defect signals across phases dilutes informative scores. Authors recommend identifying a single defect-informative metric over phase-based decomposition.

RoboticsReinforcement learningBenchmarks
SIG
72
HYP
00
GitHub Trending·

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Open-source infrastructure for computer-use agents. Provides sandboxes, SDKs, and benchmarks to train and evaluate AI agents capable of controlling full desktops (macOS, Linux, Windows).

AI AgentsOpen sourceBenchmarks
SIG
75
HYP
00
arXiv cs.AI·

Causal Object-Centric Models for Planning with Monte Carlo Tree Search

COMET combines a frozen unsupervised object-centric encoder with a transformer-based world model to perform Monte Carlo Tree Search in slot-structured latent space. A novel action-slot fusion mechanism binds actions to objects. Evaluated on 8 tasks (Object-Centric Visual RL, ManiSkill, Robosuite, VizDoom), COMET outperforms object-centric and monolithic baselines in early training stages.

Reinforcement learningReasoningRobotics
SIG
72
HYP
00
arXiv cs.LG·

Energy-Conserved Neural Pipelines: Attenuating Error Propagation in Modular Neural Networks via Physical Conservation Constraints

Researchers propose enforcing energy conservation as a hard physical constraint in modular neural network pipelines to mitigate error propagation across module boundaries. On CIFAR-10, this approach retains 77.4% accuracy at sigma=0.2 versus 35.1% for baselines. The advantage generalizes to robotic systems (Franka Panda, MuJoCo) with +18.9 pp gain.

PapersBenchmarksAI safety
SIG
78
HYP
00
arXiv cs.AI·

Embodied-BenchClaw: An Autonomous Multi-Agent System for Embodied Spatial Intelligence Benchmark Construction

Embodied-BenchClaw is an autonomous multi-agent system for constructing embodied spatial intelligence benchmarks. Through a 5-stage pipeline (intent, data collection, structuring, synthesis, reporting) coordinated by 3 agents, it automatically generates reusable and maintainable benchmarks covering indoor/outdoor spatial reasoning, robotic manipulation, quadruped navigation, and aerial-view understanding.

Multi-agentAI AgentsBenchmarks
SIG
72
HYP
00