As the automotive industry transitions towards electrification, intelligence, and connectivity, the proportion of automotive electronics in the entire vehicle continues to increase. From traditional in-vehicle entertainment systems and central control systems to today's autonomous driving sensors, intelligent cockpits, and in-vehicle chips, the technical complexity and precision of automotive electronics are increasing. This transformation trend not only brings broad development space for the automotive electronics industry, but also poses higher requirements for its production and manufacturing processes. Xin Fu Electronics has keenly captured this market opportunity and launched in-vehicle electronic component testing and assembly automation equipment in response to the trend of automotive electronics intelligence. Through multiple technological innovation breakthroughs, it has helped automotive electronics enterprises achieve efficient and stable production, successfully seizing the development opportunity of the industry.
In the field of in-vehicle electronic component testing, Xinfu Electronic Automation Equipment has achieved an innovative breakthrough from "single detection" to "multi-dimensional full inspection". Traditional in-vehicle electronic component testing equipment often only detects a certain parameter, such as the appearance size or electrical performance of components, which is inefficient and prone to missing potential quality issues. With the intelligent upgrade of automotive electronics, the performance parameters of in-vehicle chips, sensors, and other components have become increasingly complex, and single detection has been unable to meet quality requirements. Therefore, after more than a year of technical research, Xinfu Electronic's R&D team launched a "multi-dimensional integrated detection device". This device integrates three major detection modules: visual inspection, electrical inspection, and environmental simulation inspection. It can simultaneously detect more than 20 parameters of in-vehicle electronic components, such as appearance defects, pin spacing, resistance and capacitance values, and signal transmission performance, and the entire detection process is automated without manual intervention. For example, when testing autonomous driving sensors, the device can not only detect appearance issues such as scratches and stains on the sensor lens through the visual system, but also simulate different temperature and humidity environments to test the signal acquisition accuracy and stability of sensors in extreme environments, ensuring that the sensors maintain good performance during vehicle operation. The detection efficiency of this device is more than four times higher than that of traditional devices, and the detection accuracy rate reaches 99.9%, effectively solving the problems of low detection efficiency and narrow coverage range in automotive electronic component testing.
In the assembly process of automotive electronic components, Xinfu Electronics' automated equipment has achieved dual breakthroughs in "high-precision assembly" and "flexible production". The assembly accuracy of automotive electronic components directly affects the operational stability of automotive electronic systems, especially for components related to autonomous driving. An assembly error of more than 0.1mm may lead to system failure. To achieve high-precision assembly, Xinfu Electronics adopted "dual-robotic arm collaborative assembly technology" and "real-time force control feedback technology" in its automated assembly equipment. The dual-robotic arm collaborative assembly technology achieves synchronous motion and precise coordination of two robotic arms through high-precision motion control algorithms, enabling multi-step assembly of complex components. The real-time force control feedback technology can detect the force applied during the assembly process of the robotic arm in real time, adjust the assembly force and speed according to the feedback data, and avoid damaging components due to excessive assembly force or insufficient assembly force leading to loose assembly
