The Japanese government recently announced that it will introduce a more streamlined safety screening system for vehicles manufactured in the United States. Under the new framework, automakers will only need to submit and review existing U.S. safety certification documents to obtain the type approval required for sale in Japan, without undergoing additional testing. Led by Japan’s Ministry of Land, Infrastructure, Transport and Tourism, the move is widely seen as paving the way for Japanese automakers to promote so-called “reverse imports,” while also responding to long-standing U.S. dissatisfaction with access to Japan’s auto market.

Over the past three years, China’s automotive market has endured an unprecedented price war. Its scale and structural impact have gone far beyond short-term promotional competition, profoundly rewriting the industry’s competitive logic. According to a report by Nikkei, based on internal research estimates from China’s automotive distribution system, this price war—spanning from 2023 to 2025—has cumulatively wiped out more than 471 billion yuan (approximately NT$2.14 trillion) in industrywide revenue, placing long-term pressure on automakers, dealer networks, and even the supply chain.

Prices of key rare-earth metals have surged sharply in global markets in recent weeks, reaching historic highs. This trend not only reflects the electric vehicle industry’s long-term demand for high-performance magnetic materials, but also underscores how geopolitics and the expansion of the defense industry are profoundly reshaping the automotive sector’s raw-material risk landscape. As mainland China tightens export controls on dual-use items destined for Japan, structural uncertainty in the rare-earth market has risen again, placing fresh pressure on the EV supply chain.

For decades, European automakers have regarded full control over key technologies as a core competitive advantage, striving to lead development internally across everything from powertrains and chassis to complete vehicle platforms. However, as the automotive industry rapidly moves toward the era of the Software-Defined Vehicle (SDV), this long-standing logic is facing unprecedented challenges. An increasing number of European manufacturers are now reassessing whether it is still necessary—or even feasible—to maintain a high degree of complete independence in software development.

Against the backdrop of rising geopolitical risks and growing supply chain uncertainty, Japan’s automotive industry is seeking to strengthen its control over key components through more institutionalized and data-driven approaches. According to disclosures by Nikkei, major Japanese automakers are set to work with semiconductor manufacturers to establish an information-sharing mechanism for automotive chips. By leveraging a centralized database, the initiative aims to enhance overall supply chain visibility and risk responsiveness, and is widely viewed as a significant strategic shift for Japan’s automotive sector in terms of economic security.

CES 2026 has concluded in Las Vegas, marking a milestone where the event is no longer just a stage for unveiling new models or features, but a critical compass for the global automotive industry to define the next decade. As "electrification" becomes the baseline market requirement, this year’s exhibition sent a clear and powerful signal: the core of automotive competition has shifted entirely from "mechanical performance" to the "digital soul." Through the deep integration of Agentic AI, the commercial realization of Software-Defined Vehicles (SDV), and breakthroughs in integrated land-air mobility, the automobile is transforming from a mere transportation tool into a physical AI partner—one that possesses reasoning capabilities, evolves continuously, and transcends spatial limitations.

Valeo, one of the world’s leading automotive component suppliers, recently unveiled the latest innovations from its three core business divisions—Power, Light, and Brain. Among its many advancements, five key technologies stood out, spanning cooling systems, vehicle software, sensing, and communication architectures. Together, they illustrate the automotive industry’s transition toward deeper integration between hardware and software.