1. Visual alignment and real-time monitoring

Equipped with a high-resolution optical microscope (with a magnification of up to 500 times) and AI vision algorithm, it automatically recognizes the alignment marks on the wafer, achieving sub micron level alignment and reducing manual adjustment errors.

Real time monitoring of blade wear, cutting depth and other parameters, automatic warning and prompt for blade replacement, to avoid yield decline caused by tool wear.

2. Data traceability and process optimization

Built in MES system interface, records cutting parameters (such as speed, pressure, temperature), yield rate and other data of each wafer, supports process traceability and big data analysis, and helps continuously optimize cutting solutions.

Case: By training an AI model with historical data, the optimal cutting parameters for different materials can be predicted, reducing debugging time by more than 30%.

2、 Low loss and environmental characteristics

1. Maximizing material utilization rate

Narrow blade technology (minimum cutting path width<30 μ m) reduces wafer edge waste, and compared to traditional cutting (path width>50 μ m), single crystal circles can produce 5% to 10% more chips.

Application: In the manufacturing of high-value chips such as CPUs and GPUs, significant material cost savings are achieved.

2. Green Manufacturing Design

Cutting waste liquid (including abrasives and coolant) can be recovered through a filtration and circulation system, reducing industrial wastewater discharge; Some equipment adopts dry cutting technology (such as laser evaporation cutting), which does not require liquid consumables.

Compliant with environmental standards such as RoHS and REACH, reducing the environmental burden of semiconductor manufacturing.

Summary: The semiconductor wafer splitter, with its high precision, efficiency, and flexibility, has become the core equipment for wafer manufacturing and packaging testing in the semiconductor industry chain. Its technological evolution directly promotes the development of chip miniaturization and integration, especially in the era of advanced processes and advanced packaging. The performance improvement of the splitter plays a decisive role in improving chip yield and reducing manufacturing costs. With the rise of third-generation semiconductors and heterogeneous integration technologies, the splitter will continue to break through towards higher precision, lower damage, and greater intelligence.