CVPR 2026

Deadlines
Computer Vision/CORE Unranked

CVPR 2026

CVPR 2026 Workshop on Bridging Vision, Language, and Action: What’s Missing in Actionable Visual Perception for Robotics

Jun 03 2026Denver, United StatesOfficial workshop site Site reachable

ActiVis@CVPR26 is a workshop focused on bridging computer vision and robotics by developing actionable visual perception systems that enable robots to reason about pose, dynamics, and affordances in real-world environments. It emphasizes co-designed perception-action loops, moving beyond passive vision to task-driven, physically-grounded models that close the loop from pixels to torque.

Official CFP Back to deadlines Verified September 9, 2026

Key deadlines

Verified September 9, 2026

Abstract registration

May 15, 2026

AoE

Full paper

May 15, 2026

AoE

Workshop timeline

Submission and decisions

Abstract registrationKey deadline

May 15, 2026 · AoE

Full paperKey deadline

May 15, 2026 · AoE

Paper fit

Contribution paths

A strong submission should clearly identify its contribution and evaluate it appropriately.

Research papers

Long papers (8 pages) showcasing novel findings, methods, or theoretical advancements.

Short/Abstract papers

Features exploratory work (4 pages or 2 pages excluding references) that may be preliminary but presents innovative concepts, early results, or thought-provoking viewpoints that stimulate discussion and future work.

Position papers

Offer critical perspectives on trends and challenges within the field (no less than 8 pages).

Survey papers

Provide thorough reviews of specific topics, mapping the current research landscape and suggesting directions for future exploration (no less than 8 pages).

Research areas in scope

01

Interactive Dimensions

What visual capability is needed for fully autonomous systemsHow can the vision community contribute to general-purpose robotic systemsWhat data modality is critical for generalizable, robust robot control
02

Stage-Wise Challenges

Data: Dynamic logs with multi-modal feedback. Teaching models about risk. Physically accurate data for the "sim-to-real" gap.Model: 3D geometry and physical dynamics. Differentiable cause-effect relationships. Conditioned representations over passive observation.Optimization: Safety and stability in the learning objective. Downstream task success. Model confidence for safe real-world deployment.Evaluation: Closed-loop performance. Reliability against environmental variability. Physical task completion and safe interaction.

Policies worth checking twice

  • Submissions must follow CVPR two-column style and be anonymous.
  • All formats allow unlimited references and appendices.
  • Contributions are non-archival and hosted on the workshop website.
  • Dual submission is allowed where permitted by third parties.
  • Submissions under review or accepted by other conferences are welcome, and authors must mention this in the last sentence of the abstract.

Official sources

Compiled from the official call for papers. The organizers’ pages remain authoritative.

Last verified September 9, 2026