MultiX Vision and Technical Approach
Abstract
MultiX Vision and Technical Approach - Slides presented by Antonio de la Oliva (UC3M) during the Techritory: Integrated Sensing and Communications in SNS Trials and Pilots: pathway to monetization of 6G networks
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MultiX Vision and Technical Approach Prof. Antonio de la Oliva (UC3M) Visit us at multix-6g.eu 1
Project Data •HORIZON-JU-SNS-2024-STREAM-B-01-02 •MultiX - Advancing 6G-RAN through multi-technology, multisensor fusion, multi-band and multi-static perception •Partners: UC3M, APP, OTE, INT, IDE, NEC, SAG, TSA, BBR, NXW, CNIT, i2CAT, IMDEA, IHP, IASA, KUL, UC 2
Provide use cases and reference scenarios that can show the benefits of MultiX Integrate multi-technology, multi-sensor, multi-band, and multi-static perception into the MP6R Design and develop the MultiX perception system (MPS) Demonstrate the benefits of the MultiX system in Proof of Concepts (PoC) 3 Key Objectives
MultiX Challenges The key challenge for ISAC is how to manage network heterogeneity and fully integrate various sensing sources and ISAC technologies throughout the RAN up to the User Equipment (UE) across different layers of the RAN stack. •Most ISAC research focuses on a single wireless technology, either 3GPP or non-3GPP (e.g., IEEE 802.11). •Meanwhile, traditional sensing relies on diverse sensors like LiDAR, cameras, and radars. 4
MultiX Vision - MultiX fusion Perceptive 6G-RAN system (MP6R) •Multi-sensor fusion: Combining LiDAR, cameras, radar, and network-based sensors. •Multi-band operation: Leveraging Sub-6 GHz, mmWave, THz, and emerging frequency ranges like 7-24 GHz. •Multi-static processing: Utilizing signals transmitted by one or multiple nodes and processed by multiple receivers. •Multi-technology integration: Merging 3GPP cellular networks with non-3GPP technologies, including various Wi-Fi versions. 5
MultiX Concept MultiX Perception System (MPS) focuses on developing MultiX sensing functions at the different layers of the RAN stack at the RU, DU, or a fully-fledged BS, and up to the UE device across the RAN system for multiband, multi-static, multi-sensor, multitechnology deployments, and joint signal processing. MP6R Controller (MP6RC) serving as the brain of the MP6R system, to i) coordinate and control multi-technology integration and mobility management of the sensing objects inside the RAN; and ii) interface and manage distributed DASH nodes throughout the RAN for handling multi-sensor, multi-connectivity, and multi-technology data integration. Data Access and Security Hub (DASH) designed as a novel RAN data plane entity that aggregates multi-sensor data of diverse technologies, providing secure data access, processing, storage, and exposure, ensuring data privacy and trustworthiness, and that can be fully distributed throughout the data plane wherever needed in the 6G-RAN. 6
MultiX Perception System (MPS) •Unified ISAC channel models for multitechnology and multi-band perception •Signal processing algorithms that, leveraging on such unified channel models, provide multiband ISAC functionalities •Multi-static sensing through distributed MIMO to achieve high perception resolution through multi-static signal processing techniques. •Multi-modulation–based sensing exploiting OFDM or OTFS modulated signals. •Design of novel Energy-efficient AI architectures for adaptive, event-based ISAC receivers and distributed learning from multistatic sensing devices 7
Data Access and Security Hub (DASH) To develop a full distributed and secure Data pipeline, responsible for secure data collection, aggregation, and distribution. 8
Proposed architecture (v1.3) 9
Enabling P-Sensing on Multiband WLAN Networks 16 Reusing WLAN signaling to perform environmental sensing on 5 GHz and 60 GHz
Enabling P-Sensing on Multiband WLAN Networks 17 Scenario 1: Corridor path tracking Scenario 2: Laboratory presence monitor
MultiX Project THANKS! Visit us at multix-6g.eu 18