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Agentic AI-Empowered Conversational Embodied Intelligence Networks in 6G

Mingkai Chen, Zijie Feng, Lei Wang, Yaser Khamayseh

TL;DR

The paper tackles the challenge of coordinating multiple embodied intelligent devices in 6G environments by introducing CC-EIN, a framework that fuses multimodal perception (PerceptiNet), adapts semantic communications (DRAOSC), enables semantic-driven collaboration (CohesiveMind), and provides interpretable decision visualizations (InDec). It demonstrates a post-disaster rescue case study showing that CC-EIN achieves 95.4% task completion and 95% transmission efficiency while maintaining semantic consistency and energy efficiency, underscoring the practical impact for emergency response and intelligent 6G networks. Core contributions include a cross-modal fusion pipeline, an adaptive transmission optimization mechanism guided by task urgency, centralized/semi-distributed task planning, and Grad-CAM–based explanations to enhance trust and collaboration. The work advances scalable, interpretable, and resource-efficient multi-agent collaboration in dynamic environments, with potential applications in industrial Internet, smart transportation, and autonomous systems.

Abstract

In the 6G era, semantic collaboration among multiple embodied intelligent devices (MEIDs) becomes crucial for complex task execution. However, existing systems face challenges in multimodal information fusion, adaptive communication, and decision interpretability. To address these limitations, we propose a collaborative Conversational Embodied Intelligence Network (CC-EIN) integrating multimodal feature fusion, adaptive semantic communication, task coordination, and interpretability. PerceptiNet performs cross-modal fusion of image and radar data to generate unified semantic representations. An adaptive semantic communication strategy dynamically adjusts coding schemes and transmission power according to task urgency and channel quality. A semantic-driven collaboration mechanism further supports task decomposition and conflict-free coordination among heterogeneous devices. Finally, the InDec module enhances decision transparency through Grad-CAM visualization. Simulation results in post-earthquake rescue scenarios demonstrate that CC-EIN achieves 95.4% task completion rate and 95% transmission efficiency while maintaining strong semantic consistency and energy efficiency.

Agentic AI-Empowered Conversational Embodied Intelligence Networks in 6G

TL;DR

The paper tackles the challenge of coordinating multiple embodied intelligent devices in 6G environments by introducing CC-EIN, a framework that fuses multimodal perception (PerceptiNet), adapts semantic communications (DRAOSC), enables semantic-driven collaboration (CohesiveMind), and provides interpretable decision visualizations (InDec). It demonstrates a post-disaster rescue case study showing that CC-EIN achieves 95.4% task completion and 95% transmission efficiency while maintaining semantic consistency and energy efficiency, underscoring the practical impact for emergency response and intelligent 6G networks. Core contributions include a cross-modal fusion pipeline, an adaptive transmission optimization mechanism guided by task urgency, centralized/semi-distributed task planning, and Grad-CAM–based explanations to enhance trust and collaboration. The work advances scalable, interpretable, and resource-efficient multi-agent collaboration in dynamic environments, with potential applications in industrial Internet, smart transportation, and autonomous systems.

Abstract

In the 6G era, semantic collaboration among multiple embodied intelligent devices (MEIDs) becomes crucial for complex task execution. However, existing systems face challenges in multimodal information fusion, adaptive communication, and decision interpretability. To address these limitations, we propose a collaborative Conversational Embodied Intelligence Network (CC-EIN) integrating multimodal feature fusion, adaptive semantic communication, task coordination, and interpretability. PerceptiNet performs cross-modal fusion of image and radar data to generate unified semantic representations. An adaptive semantic communication strategy dynamically adjusts coding schemes and transmission power according to task urgency and channel quality. A semantic-driven collaboration mechanism further supports task decomposition and conflict-free coordination among heterogeneous devices. Finally, the InDec module enhances decision transparency through Grad-CAM visualization. Simulation results in post-earthquake rescue scenarios demonstrate that CC-EIN achieves 95.4% task completion rate and 95% transmission efficiency while maintaining strong semantic consistency and energy efficiency.

Paper Structure

This paper contains 16 sections, 8 figures.

Figures (8)

  • Figure 1: Key Challenges in Embodied Intelligence Networks.
  • Figure 2: The Overall Architecture of CC-EIN Showing PerceptiNet, DRAOSC, CohesiveMind, and InDec.
  • Figure 3: The Adaptive Transmission Optimization Process of DRAOSC in CC-EIN.
  • Figure 4: The Grad-CAM Visualization Mechanism of InDec.
  • Figure 5: Comparison of TCR and TE Across Different Methods, Demonstrating the Collaboration Performance and Resource Utilization of MEIDs.
  • ...and 3 more figures