Experimental results show that the framework successfully interprets both direct commands and contextual requests, generates meaningful natural-language feedback, and navigates towards the desired target.
Abstract
Natural language interaction provides an intuitive way for non-expert users to communicate with robotic platforms. However, transforming user requests into executable navigation actions remains a challenging task, requiring the integration of language understanding, environment perception, and autonomous navigation. This work presents a language-driven navigation framework that enables mobile robots to interpret user requests in natural language to move the robot to a destination and autonomously navigate towards it. The framework is composed of modular ROS 2 components that cooperate to transform natural language instructions into navigation actions. Given a natural language request referring to a target in the environment (e.g.,"go to the mail box"), the system identifies the referenced object, estimates its position using RGB-D data, and generates a navigation goal, which is then executed through the ROS 2 Nav2 navigation stack. The ROS 2-based implementation facilitates portability across different robotic platforms, requiring only the configuration of the corresponding topics and services. The system is evaluated in both simulation and real-world scenarios using a TurtleBot3 Waffle and a Unitree Go2 robot with a RealSense camera. Experimental results show that the framework successfully interprets both direct commands and contextual requests, generates meaningful natural-language feedback, and navigates towards the desired target. These results demonstrate the feasibility of combining semantic perception and autonomous navigation to provide an intuitive human-robot interaction paradigm. Code will be released as open source upon acceptance.
This work proposes a non-invasive framework that connects LLM reasoning with ROS-based navigation through a navigation-oriented representation layer, exposed through the Model Context Protocol as standardized, reusable tools so that any MCP-compatible LLM can access them without robot-specific wrappers.
Jungsoo Lee, Jaegyun Park, Wansoo Kim· 0 citations
This survey revisits VLN from a component-internal perspective, viewing it as a navigation system composed of internal components such as instructions, environment representations, and embodied agents, and organizing existing work around the functions and interactions of these components.
A semantic-aware autonomous navigation framework implemented on a ROS 1 (Melodic) mobile robot equipped with a two-dimensional light detection and ranging (LiDAR) sensor and an RGB-D camera that offers a low-cost, extensible basis for language-guided robots in smart environments.
M. Paun, F. Dragomir, Otilia Elena Dragomir et al.· Future Internet· 0 citations
NaViRRator, a framework that translates user-specified start and goal locations on such maps into navigation instructions for a pretrained vision-and-language navigation (VLN) policy, is presented, supporting route-grounded language as a modular interface between human-readable maps and pretrained navigation policies.
Experimental results in various task scenarios show that the proposed framework consistently improves overall task success rates compared with unimodal settings with different LLMs and achieves a higher success rate compared to using only visual or force data.
Visual Language Navigation (VLN) enables robots to follow natural language instructions to navigate visually perceived environments. Typically, VLN systems are trained on multi-modal datasets that pair visual scenes with navigation instructions. While prior work has focused on generalising to unseen environments, lingu...
Malak Sayour, Pamela Carreno-Medrano, Michael Burke et al.· IEEE Robotics and Automation...· 0 citations
We use cookies to run the site and, with your consent, for analytics and to show ads.
See our Cookie Policy.