Serving over 50 global clients, Corelinks delivers reliable connectivity across automotive, AI, industrial, and IoT sectors. We engineer high-performance networks for smart factories, autonomous fleets, edge nodes, and AI data centers—tailored for latency, security, and scalability. With rigorous testing and 24/7 support, we reduce downtime and boost throughput. As digital transformation accelerates, we future-proof operations, enabling seamless machine-to-machine communication, real-time analytics, and adaptive control that turn vision into measurable results. Corelinks powers tomorrow’s intelligent ecosystems.
A “Technology Accelerator” for the Intelligent Vehicle Era: The Last Mile from Chip to Mass Production
Project: Autonomous Driving Domain Controller Based on Journey®
Building a “Smart Brain” at the Edge and in the Cloud, Unleashing the Infinite Potential of AI
Project: High-Efficiency AI Dedicated Inference Chip Solution
In the field of industrial control, the core mission of chips is to complete highly reliable data acquisition, processing, and output with a defined real-time response in harsh physical environments. Corelinks engineers will assess a chip’s performance in practical applications based on the following functionalities, providing customers with selection guidance.
Application Example:
Can act as a gateway or slave node to achieve microsecond-level data synchronization and refresh. In distributed I/O systems, it can efficiently complete instruction distribution and status feedback for multi-axis motion control, ensuring that the clock synchronization error of each workstation on the production line is less than 1 microsecond.
The core functions of IoT (Internet of Things) chips can be summarized into three levels: data acquisition, connectivity and processing, and a balance between energy consumption and reliability. Corelinks engineers assess a chip’s performance in real-world applications based on the following four core functionalities, providing customers with selection advice.
Application Example:
In asset trackers, the chip spends most of its time in nanoampere-level sleep mode, completing GPS positioning and transmission only within milliseconds when awakened, allowing the coin cell battery to support the device for years without frequent battery replacements.