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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.

CGM dynamic blood glucose monitor is an advanced diabetes management tool, which can monitor the blood glucose changes in the next 7-14 days by implanting micro sensors under the skin. The preparation of its metal electrode often results in deviations in the secondary printing position, such as curling of the substrate after printing and drying, which affects the accuracy of the electrode; The substrate itself has large errors, resulting in frequent alignment failures and other issues.

MLCC is composed of three layers of metal layers: ceramic dielectric, inner electrode metal layer, and outer electrode. The preparation process is complex, including 13 key steps and high technical barriers. The main process flow is as follows: the slurry is cast to form a ceramic film, electrode slurry is printed on the ceramic film, then staggered stacking and co firing are carried out to form a chip, and finally external electrodes are sealed at both ends of the chip.

In the preparation process of multi-layer ceramic circuit boards, through-hole wall hanging/hole filling buried hole printing is a key step in achieving circuit interconnection.

The printing of piezoelectric ceramics is mostly done using ordinary screen printing machines or manual methods, and the thickness of the film layer is difficult to accurately control. After adopting high-precision thick film screen printing equipment, the stability of mass production is higher and the yield rate is accurately improved.

When preparing and producing LTCC multilayer co fired ceramics, high-precision thick film screen printing equipment is required to ensure high printing accuracy and uniform film layer consistency.