PILLAR 2 · 6 PAPERS · NO SEARCH RUN YET

World models & representation learning

Non-generative world models that predict in latent space, and graph or hyperbolic representations suited to hierarchical enterprise structure.

Search string (see Methods for the per-database form)("joint-embedding predictive" OR "JEPA" OR "world model" OR "latent dynamics" OR "latent prediction") AND ("graph" OR "relational" OR "hyperbolic" OR "Poincar*" OR "multi-agent") AND ("self-supervised" OR "action-conditioned" OR "predict*" OR "anomaly" OR "safety")

Included papers

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PaperYearVenueContributionMethodsRelevanceTags
Graph-level representation learning with joint-embedding predictive architectures
Skenderi G.; Li H.; Tang J.; Cristani M.
2025 TMLR Graph-JEPA: masked sub-graph latent prediction with a hyperbolic coordinate target. world-model self-supervised hyperbolic-geometry graph-learning baseline RQ1 RQ4 seed
Self-supervised learning from images with a joint-embedding predictive architecture
Assran M.; Duval Q.; Misra I.; Bojanowski P.; Vincent P.; Rabbat M.; LeCun Y.; Ballas N.
2023 CVPR I-JEPA: the first practical JEPA with an EMA target encoder and masked latent prediction. world-model self-supervised RQ1 seed
A path towards autonomous machine intelligence
LeCun Y.
2022 OpenReview Proposes JEPA world models that predict in representation space rather than reconstructing inputs. world-model energy-based RQ1 seed
Hyperbolic graph convolutional neural networks
Chami I.; Ying R.; Ré C.; Leskovec J.
2019 NeurIPS Message passing in hyperbolic space for hierarchical graphs; the encoder family behind the context encoder. hyperbolic-geometry graph-learning baseline RQ1 RQ4 seed
Poincaré embeddings for learning hierarchical representations
Nickel M.; Kiela D.
2017 NeurIPS Embeds hierarchies in the Poincaré ball; the distance PreCog uses for its safe-manifold energy. hyperbolic-geometry representation-learning RQ1 RQ4 seed
VICReg: variance-invariance-covariance regularization for self-supervised learning
Bardes A.; Ponce J.; LeCun Y.
2022 ICLR Variance and covariance regularisers that prevent representational collapse in joint-embedding training. self-supervised regularisation RQ1 seed
Showing 6 · relevance is the highest 0–5 score against RQ1–RQ5, recorded in the extraction note
GAPS THIS PILLAR LEAVES OPEN
  • No included paper in this pillar addresses latency / jitter aware
  • No included paper in this pillar addresses time-to-irreversibility
  • No included paper in this pillar addresses edge deployment
  • No included paper in this pillar addresses human handoff
  • No included paper in this pillar addresses cross-domain evaluation
See in the gap matrix →