At CES 2026 this year, Qualcomm once again demonstrated its dominance in the automotive field, not only emphasizing the continued rise in the global adoption rate of its Snapdragon Digital Chassis, but also focusing on the combination of "Agentic AI" and software-defined vehicles (SDV).
Qualcomm not only announced the expansion of its long-term partnership with Google, but also unveiled several major collaborations with automakers and leading suppliers. These include Leapmotor launching the world's first mass-produced vehicle equipped with a dual Snapdragon Elite platform, and a deep alliance with ZF in high-end autonomous driving computing.
Partnering with Google to make in-vehicle AI more proactive
Qualcomm and Google have been collaborating for over a decade, and this time the two companies announced that they will...Further integrationSnapdragon digital chassis solutions and Google's automotive software aim to simplify the deployment process of next-generation AI experiences, helping automakers bring new AI features to the vehicle market faster.
By incorporating agentic AI, future in-vehicle systems will no longer passively wait for commands, but will be able to provide a more personalized and proactive intelligent experience through multimodal interactions such as voice, touch, and vision.
Leapmotor D19: The world's first mass-produced vehicle with "dual" Snapdragon Elite technology
In terms of hardware implementation, Qualcomm and Leapmotor jointly announced the world's first central domain controller using a dual Snapdragon Elite (SA8797P) automotive platform.
This system will debut in Leapmotor's flagship model, the D19. Through the computing power of two Snapdragon Elite chips, this controller can integrate the smart cockpit, driver assistance systems (ADAS), body controls (such as lights and air conditioning), and vehicle gates into a single system.
• Ultimate Display and Perception:該系統支援多達8個螢幕 (包含多個3K/4K螢幕)與18聲道音效。在感知方面，則支援13顆鏡頭、雷達與LiDAR，提供超過30項進階駕駛輔助功能。
• Hardware and software integration:Through parallel computing using Qualcomm Oryon CPUs, Adreno GPUs, and Hexagon NPUs, the platform can simultaneously run large-scale AI models for the cockpit and multimodal models for driver assistance.
Expanding the autonomous driving ecosystem: ZF, Toyota, and 5G RedCap
In addition to Leapmotor, Qualcomm has also made several achievements in autonomous driving and connectivity technologies:
• ZF ProAI Supercomputer:Qualcomm and ZF announced a collaboration to launch a scalable ADAS solution. Through the ZF ProAI supercomputer powered by the Snapdragon Ride platform, the two companies will provide autonomous driving capabilities from Level 2 to Level 3. The system integrates Snapdragon Ride Pilot, utilizing camera-based AI perception technology to achieve functions such as automatic lane changing and assisted driving in urban areas.
• Toyota RAV4 introduces new cabin design:Qualcomm announced a collaboration with Toyota to make the new RAV4 feature the next-generation Snapdragon cockpit platform, providing AI-powered capabilities that can anticipate driving needs and adjust in real time.
• First automotive 5G RedCap modem:To enable more vehicles to have connectivity capabilities, Qualcomm launched the Snapdragon A10 5G Modem-RF, the industry's first automotive 5G RedCap (Reduced Capability) modem. It can provide key connected car services with lower power consumption and cost, accelerating the popularization of 5G connectivity in the automotive industry.
Analysis Perspective: From "Single-Point Function" to "Central Brain"
As can be seen from the announcements at CES 2026, Qualcomm's strategy in the automotive field has shifted from simply providing "cockpit chips" or "connectivity chips" to providing highly integrated "central computing brains".
The dual-chip solution adopted by Leapmotor D19 is the best example, breaking the barriers of the past separate design of the cockpit and intelligent driving system, and realizing true cross-domain integration. In addition, Qualcomm particularly emphasizes agent-based AI, showing that the focus of competition in in-vehicle systems has shifted from simple "smoothness" to "proactive service capabilities".
