Demonstrating the Octopi-1.5 Visual-Tactile-Language Model

Touch is recognized as a vital sense for humans and an equally important modality for robots, especially for dexterous manipulation, material identification, and scenarios involving visual occlusion.Building upon very recent work in touch foundation models, this demonstration will feature Octopi-1.5,our latest visual-tactile-language model.Compared to its predecessor, Octopi-1.5 introduces the ability to process tactile signals from multiple object parts and employs a simple retrievalaugmented generation (RAG) module to improve performance on tasks and potentially learn new objects on-the-fly.The system can be experienced live through a new handheld tactile-enabled interface, the TMI, equipped with GelSight and TAC-02 tactile sensors.This convenient and accessible setup allows users to interact with Octopi-1.5 without requiring a robot.During the demonstration, we will showcase Octopi-1.5 solving tactile inference tasks by leveraging tactile inputs and commonsense knowledge.For example, in a Guessing Game, Octopi-1.5 will identify objects being grasped and respond to follow-up queries about how to handle it (e.g., recommending careful handling for soft fruits).We also plan to demonstrate Octopi-1.5'sRAG capabilities by teaching it new items.With live interactions, this demonstration aims to highlight both the progress and limitations of VTLMs such as Octopi-1.5 and to foster further interest in this exciting field.All code for Octopi-1.5 and design files for the TMI gripper will be released as open-source resources.

Authors

Publication Details

Published
2025-06-21
DOI
https://doi.org/10.15607/rss.2025.xxi.058
Primary Topic
Architecture and Computational Design
Type
article
Field-Weighted Citation Impact
0.00

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article

Demonstrating the Octopi-1.5 Visual-Tactile-Language Model

Samson Yu, Harold Soh, Lin Kelvin
Architecture and Computational Design
article

Demonstrating the Octopi-1.5 Visual-Tactile-Language Model

Samson Yu, Harold Soh, Lin Kelvin
article en

Abstract

Touch is recognized as a vital sense for humans and an equally important modality for robots, especially for dexterous manipulation, material identification, and scenarios involving visual occlusion.Building upon very recent work in touch foundation models, this demonstration will feature Octopi-1.5,our latest visual-tactile-language model.Compared to its predecessor, Octopi-1.5 introduces the ability to process tactile signals from multiple object parts and employs a simple retrievalaugmented generation (RAG) module to improve performance on tasks and potentially learn new objects on-the-fly.The system can be experienced live through a new handheld tactile-enabled interface, the TMI, equipped with GelSight and TAC-02 tactile sensors.This convenient and accessible setup allows users to interact with Octopi-1.5 without requiring a robot.During the demonstration, we will showcase Octopi-1.5 solving tactile inference tasks by leveraging tactile inputs and commonsense knowledge.For example, in a Guessing Game, Octopi-1.5 will identify objects being grasped and respond to follow-up queries about how to handle it (e.g., recommending careful handling for soft fruits).We also plan to demonstrate Octopi-1.5'sRAG capabilities by teaching it new items.With live interactions, this demonstration aims to highlight both the progress and limitations of VTLMs such as Octopi-1.5 and to foster further interest in this exciting field.All code for Octopi-1.5 and design files for the TMI gripper will be released as open-source resources.

National Research Foundation, National Research Foundation Singapore
Openalex Percentile: Top 74%
Architecture and Computational Design
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