Trend

CNC technology is an automated system that precisely controls machinery through computer programs, widely applied across various manufacturing sectors. The robotic arm industry encompasses both industrial uses (such as assembly and welding) and service applications (such as latte art or maintenance). In Japan, for instance, people with disabilities can remotely operate robots from home for work. This industry is visibly experiencing rapid growth. According to 2025 market data, the global robotics market is expected to reach USD 50.8 billion, with service robots accounting for USD 40.58 billion, demonstrating strong growth potential. The application of CNC in the robotic arm industry extends beyond component manufacturing to control systems and versatile task execution.

When discussing the energy transition, attention often falls on the surface area of solar panels, the blades of wind turbines, or the massive structures of nuclear power plants. Yet behind these world-changing energy systems, the critical components that drive solar, wind, and nuclear operations rely heavily on precision-manufactured CNC machines. Often hailed as the “brains of manufacturing,” these machines, with micron-level precision and highly automated capabilities, serve as the invisible engine powering technological breakthroughs and future innovations in the energy sector.

Traditional woodworking has long been synonymous with craftsmanship. In the past, the meticulous shaping of wood required artisans wielding hand planes, relying on time and experience to perfect every piece. Today, however, we live in an era of automation, and CNC (Computer Numerical Control) machinery has become the backbone of modern woodworking. Through precise computer control and high-speed processing, CNC enables wood cutting, carving, and complex shaping with exceptional accuracy and consistency. The woodworking industry is entering a new phase centered around digital control, ushering in higher quality and greater value-added production.

Driven by the wave of digitalization, we have long grown accustomed to a daily life where information constantly “scrolls” into our view. E-books, online news platforms, and short videos occupy our fragmented time, while print publications were once seen as relics destined to fade away. Yet history is often full of reversals—just as digital media reached its peak in speed and density, print quietly returned to the stage, even becoming an “irreplaceable choice” for certain audiences. This phenomenon not only challenges our linear imagination of media evolution but also reveals deeper psychological needs behind human reading behaviors.

As technology advances, the design philosophy behind modern passenger aircraft is undergoing a profound transformation. The evolution of aircraft materials is no longer just about reducing weight; it's a comprehensive revolution encompassing intelligence, safety, and sustainability. From groundbreaking composites to self-diagnosing smart sensors and manufacturing techniques built on a circular economy, future aircraft won't just be cold machines. They’ll be intelligent, self-aware, safer, and more eco-friendly flying bodies.

The Internet of Things (IoT) is far more than just connecting your phone to Wi-Fi or making your appliances smart. It’s a massive intelligent ecosystem where everyday "things" can network, communicate, and share information. Simply put, IoT is a network of smart devices and sensors that can exchange data. In this hyper-intelligent ecosystem, every machine, every sensor, and even every piece of clothing seems to have a voice, sharing real-time data and working together. The IoT is changing our world and driving the next wave of technological revolution.

The aerospace industry, as a cornerstone of modern high-tech manufacturing, encompasses civil aviation, defense, and space exploration, while representing a high degree of integration in materials science, precision machining, and intelligent manufacturing. The entire industry chain spans from upstream development and supply of high-performance materials, through midstream precision component manufacturing and modular assembly, to downstream final assembly, flight operations, and maintenance. Each segment imposes stringent requirements on safety, reliability, and performance. With the continuous expansion of the global aviation market and the rapid development of carbon-neutral initiatives, smart manufacturing, and digital technologies, the aerospace industry chain has become highly complex and interdependent.

The energy industry serves as the core driving force of the global economy, with a vast and complex industrial chain that encompasses the entire process from resource development and energy conversion to end-use applications. Driven by climate change, energy security, and technological innovation, traditional fossil fuels and emerging renewable energy sources are increasingly intertwined, gradually reshaping the global energy landscape. In this context, the energy industry chain is not merely an extension of supply chain management but also a critical nexus connecting policy, finance, technology, and markets. A comprehensive understanding of its upstream and downstream structure, as well as its development trends, has become essential for evaluating energy transition and industrial competitiveness.

Smart Healthcare has emerged as a key driver of transformation in the global medical industry. At its core, it integrates medical devices, information technology, and data analytics to enhance diagnostic accuracy, treatment efficiency, and real-time health management. The medical device manufacturing value chain not only covers the design and production of precision equipment but also involves sensing technologies, materials engineering, hardware–software integration, and clinical applications—forming a highly specialized and cross-disciplinary ecosystem.

As medical devices move toward intelligence and wearability, printed circuit boards (PCBs) have become a core foundation. Medical-grade PCBs must not only meet stringent safety and reliability standards, but also leverage technologies such as rigid-flex boards, Lab-on-PCB, and Parylene coatings to achieve miniaturization, functional integration, and biocompatibility. These advancements elevate PCBs from mere circuit carriers to key platforms driving smart healthcare.