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What makes flexible electronic circuits possible? The answer lies in the right combination of materials and precision printing technology. Polyimide (PI) film has become a popular substrate for flexible electronics, thanks to its heat resistance, electrical insulation, adhesion compatibility, and flexibility. When paired with high-precision screen printing, it provides a promising solution for manufacturing fine conductive patterns on flexible substrates.

Thick film screen printing is a precision process for manufacturing PEMFC electrodes, enabling uniform catalyst layers, accurate film thickness control, and consistent multilayer printing. With stable printing performance and high production efficiency, it also supports the fabrication of bipolar plate sealing layers and functional layers for SOFC and SOEC systems, offering new possibilities for hydrogen energy applications.

As the electric vehicle (EV) market grows rapidly, demand for efficient, reliable heaters is increasing. With high reliability, uniform film thickness, high printing accuracy, and low cost, thick-film printing technology is becoming a key technology in EV thermal management systems. Its main application is in air-conditioning heaters. This article explores its use in EV air-conditioning heaters and proposes strategies for further optimization.

Technological advances have raised performance and quality requirements for ceramic materials in modern industry, driving the development of functional ceramics—advanced materials designed to provide specific properties. Available in many types and used across a wide range of applications, functional ceramics are often combined with metals offering excellent ductility and toughness. This allows the materials to complement each other and achieve optimal overall performance.

SOFC (Solid Oxide Fuel Cell, also known as ceramic-based fuel cell) is a power generation device that directly converts the chemical energy of fuel into electrical energy through electrochemical reactions in a high-temperature environment. Due to its advantages of high conversion efficiency, wide fuel adaptability, and low-carbon environmental friendliness, it can be widely used in fields such as new energy vehicles, residential combined heat and power (CHP), and reverse hydrogen production.

Whether we are wearing Bluetooth earphones, using navigation devices, operating drones, or driving smart cars, one key component is always behind them — the ceramic antenna. Compared with traditional PCB antennas, ceramic antennas offer advantages such as small size, high stability, strong anti-interference, and easy integration. They are widely used in various wireless communication devices. One of the key manufacturing processes behind their performance is thick film screen printing.

High‑end semiconductors have become indispensable in everyday life—often in ways we don’t notice. From personal consumer electronics and smart mobility to home automation, public infrastructure, healthcare, and entertainment, advanced chips are the silent enablers of modern convenience.

Against the global shift to greener, low‑carbon energy, photovoltaic (PV) power stands out as one of the most promising clean energy solutions. A PV cell combines materials science, precision engineering, and automation. Among its core processes, thick‑film screen printing is vital for electrode fabrication and conductive pattern formation. High‑precision printing equipment not only determines production throughput but also directly influences conversion efficiency and product uniformity.