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Automotive Compute Silicon Integration for Next-Generation Automated Driving Systems
BMW Group selects Qualcomm Technologies compute platforms to enable scalable digital cockpit architectures and automated driving features across future vehicle fleets.
www.qualcomm.com

Qualcomm Technologies, Inc. and BMW Group have expanded their technical partnership to deploy high-performance compute silicon across BMW’s next-generation digital cockpit and advanced driver assistance systems (ADAS). The collaboration leverages purpose-built system-on-chips (SoCs) and artificial intelligence accelerators to meet the processing requirements of centralized software-defined vehicle architectures.
Architectural Scale and Operational Challenges
Modern automated driving and digital cockpit architectures require centralized high-performance computing to process multi-sensor data streams in real time. Handling low-latency sensor fusion, vision processing, and artificial intelligence models demands dedicated hardware with high power efficiency and thermal stability. To address these operational constraints, BMW Group integrated Qualcomm Technologies’ Snapdragon Digital Chassis platform, establishing a hardware foundation capable of executing real-time control algorithms and cockpit interfaces on unified compute hardware.
System Architecture and Domain Integration
The technical solution relies on the Snapdragon Elite automotive platform and Snapdragon Ride hardware modules. The platform uses a modular domain controller architecture, allowing functional segregation between safety-critical ADAS workloads and high-bandwidth infotainment processes. Dedicated hardware accelerators process parallel artificial intelligence algorithms, offloading the central processing unit to maintain system throughput.
Responsibilities are divided between hardware provisioning and software co-development. Qualcomm Technologies provides the automotive-grade silicon, underlying board support packages, and hardware abstraction layers. BMW Group utilizes this base hardware layer to integrate its proprietary automated driving software stack and user interface algorithms. Interface standardization across the platform allows scaling across diverse vehicle segments without requiring underlying silicon redesigns.
Commercial Deployment and Field Implementation
Initial implementation of this shared architecture was completed with the commercial launch of Snapdragon Ride Pilot in the BMW iX3, representing the primary deployment within BMW’s Neue Klasse program platform. The co-developed software-hardware integration powers the Symbiotic Drive system, maintaining continuous data loops between driver inputs and automated vehicle actuation.
The unified compute architecture simplifies physical harness routing, lowers control unit counts, and establishes consistent communication over high-speed automotive Ethernet networks.
Edited by Evgeny Churilov, Induportals Media - Adapted by AI.
www.qualcomm.com

