Generates 3D human animation of a person interacting with an object from a text prompt. Body parts vote on object motion and a refiner cleans up contact points. GitHub is out under MIT, with models to come.
PAMI
Research method generating text-conditioned 3D human-object interaction motion using body-part anchors and a contact refiner.
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PAMI at a glance
- What is PAMI?
- PAMI is a research. Research method generating text-conditioned 3D human-object interaction motion using body-part anchors and a contact refiner.
- Does PAMI work in the EU?
- Unverified. No explicit evidence found; this is a research project page with no hosted service, and the code is reportedly MIT-licensed with no regional restrictions noted. Last verified 14 Nov 2026.
- How much does PAMI cost?
- Open source, open source. Research project; code reportedly released under MIT (per a YouTube creator), model weights not yet confirmed. Licence: MIT.
- Where was PAMI shown?
- In 1 creator video by AI Search. Most recently by AI Search on 4 Oct 2026, at 33:28 in “Gemini 4, GPT 6.1, Plasma conjecture, Napoleon code solved, OpenAI Dots, Claude Sonnet 5.5: AI NEWS”.
Sources: the vendor's own pages (linked above) and creator videos at the linked timestamps. EU status is information, not legal advice; see how we check.
PAMI (Part Anchored Motion for Text to Human-Object Interaction Generation) is a research framework that generates full-body human motion together with object trajectories from a text prompt and an object mesh. It was authored by Chuqiao Li, Xianghui Xie, Yong Cao, Andreas Geiger and Gerard Pons-Moll (2026).
The key idea, inspired by the Hough Transform, is to express object motion relative to several body-part anchors (root, wrists, ankles, plus a free anchor). PamiVAE learns an interaction latent space and decodes per-frame weights that aggregate the part-specific votes into the object trajectory. PamiGen produces a coarse interaction from text (CLIP conditioning) in this latent space, and PamiRefiner then iteratively resolves contact geometry using long-range body-part probes and short-range surface sensors near the hands.
On the InterAct benchmark, the authors report 14.5% higher contact recall than the previous state of the art, and compare qualitatively against LIGHT and InterAct, targeting object drift, missed contact and penetration. A YouTube creator reported the GitHub code is released under MIT with models to follow; no repository or weights URL was in the provided material. It is a research release, not a hosted product.
- Text-to-human-object-interaction motion generation
- Body-part anchors vote on object motion via learned per-frame routing weights
- PamiVAE latent space with PamiGen coarse generation
- PamiRefiner hybrid surface-sensing contact refinement
- Evaluated on InterAct; reports 14.5% higher contact recall
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