Core Challenge for Smart Driving's Global Expansion Shifts to Testing and Validation Capabilities

As intelligent driving technology accelerates its global expansion, industry focus is shifting from algorithmic demonstration capabilities to the system validation capabilities required for mass production. The 9th Intelligent Driving & Global Expansion Summit 2026, themed “Intelligent Mobility, Global Reach: Forging New Paths Together,” centers on the foundational engineering capabilities essential for achieving large-scale deployment of intelligent driving across diverse markets. Today, intelligent driving is no longer merely about developing individual functions; it has evolved into a complex system encompassing perception, decision-making, control, chassis, braking, steering, suspension, and the vehicle’s entire electronic/electrical architecture. Success in prototype vehicles or specific scenarios does not guarantee stable mass production under conditions of varying climates, diverse road conditions, stringent regulatory requirements, and compressed development cycles. Consequently, testing and validation are moving upstream—from the back end of R&D to the front end—becoming a critical step in identifying system boundaries, managing risks, and ensuring reproducibility and traceability. As automotive globalization enters deeper waters, companies must navigate differences in road infrastructure, traffic regulations, environmental conditions, and user behaviors across countries. Scenarios such as European roundabouts, mixed-traffic roads in Southeast Asia, and extreme heat in the Middle East all impose higher demands on system validation. This makes testing capability itself a core component of global competitiveness—companies must use test platforms to proactively cover complex scenarios, extreme operating conditions, system interactions, and fault boundaries before products reach vehicles. As a key enabler of advanced intelligent driving, the intelligent chassis significantly increases validation complexity. Components like active suspension, brake-by-wire, and steer-by-wire must deeply coordinate with domain controllers and overall vehicle strategies. Testing targets have shifted from individual components to system-level dynamic relationships. Simply verifying whether an actuator moves is no longer sufficient; evaluations must now assess body posture control performance, response speed, and ride comfort under real-world loads, inertia, and closed-loop feedback. Against this backdrop, NOVATECH unveiled three targeted testing solutions: a quarter-car active suspension integrated test system, an integrated test solution for electronically controlled dampers and air springs, and a holistic intelligent chassis fusion testing solution. These offerings span the full validation path—from component verification and control loop closure to system integration—emphasizing validation of control strategies in environments closely resembling real-world systems, while supporting boundary identification and risk exposure across multiple interacting subsystems. An industry consensus is emerging: the core of intelligent driving competition is returning to engineering certainty. Future differentiation among automakers will lie not only in functional sophistication but also in the efficiency of validation loops, stability of mass-produced systems, and the ability to continuously demonstrate reliability in global markets. Testing and validation are no longer just behind-the-scenes support—they have become the critical infrastructure determining whether intelligent driving can truly be realized at scale.