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6G-Enabled Edge Computing for Real-Time Pedestrian Intent Analysis

Reference number
Coordinator RISE Research Institutes of Sweden AB - RISE AB - Digitala System
Funding from Vinnova SEK 99 946
Project duration February 2026 - September 2026
Status Completed
Venture 6G - Competence supply
Call 6G - Supervision of degree work

Important results from the project

Yes, the goals were met. We successfully developed and evaluated models to predict pedestrian intent to enter a door. The analysis revealed that four simple trajectory features (distance, velocity, angle) account for almost all predictive signal, while body pose provided negligible improvement. A compact GRU model was trained, achieving ~87% balanced accuracy. Deployed locally on an NVIDIA Jetson Orin Nano, the entire pipeline comfortably met the 30 FPS real-time target.

Expected long term effects

The project enables smart doors that open only when a person intends to enter, reducing building energy losses and mechanical wear. The system validates the vision of 6G Edge Computing: by running inference on distributed, local edge infrastructure, it achieves the ultra-low latency required for real-time actuation. This also preserves personal privacy, as no video is transmitted to external clouds. This makes the technology commercially scalable and aligned with sustainability goals.

Approach and implementation

The project was conducted as a master´s thesis by Jesper Malmgren at RISE in collaboration with ASSA ABLOY. Visual features (trajectory and body pose) were extracted from ceiling-mounted door camera footage. These were systematically evaluated using SHAP analysis. Neural networks (like GRU and 1D-CNN) were then trained and ablated to find the optimal model. Finally, the complete system´s performance and latency were benchmarked locally on an NVIDIA Jetson Orin Nano edge device.

The project description has been provided by the project members themselves and the text has not been looked at by our editors.

Last updated 23 October 2026

Reference number 2025-04384