Samsung Turns to Quantum and AI in High-Stakes Bid to Catch TSMC in Chipmaking

Samsung is reportedly exploring a major new way to improve chip manufacturing by combining quantum computing with artificial intelligence. The company is said to be developing advanced simulation technologies for lithography, one of the most critical and expensive stages in semiconductor production.

Lithography is the process used to print tiny circuit patterns onto silicon wafers. These patterns become the foundation of modern processors, memory chips, and other semiconductors. Because today’s most advanced chips contain billions of transistors packed into extremely small spaces, lithography must be incredibly precise. Even small errors can reduce yield, increase costs, and slow down production.

According to industry reports from South Korea, Samsung is working on algorithms designed to simulate and improve the lithography process. The goal is to use quantum computing to handle complex simulations that are difficult for traditional computers, while artificial intelligence would help identify and correct potential defects before they affect real wafer production.

This approach could become especially important as chipmakers move toward more advanced process nodes. As circuits become smaller and more densely packed, manufacturers face greater challenges in maintaining high yields. In semiconductor production, yield refers to the number of usable chips produced from a wafer, while density refers to how many transistors can fit within a given chip area. Improving both is essential for faster, more power-efficient, and more cost-effective chips.

Lithography is often considered the foundation of successful chip manufacturing. It uses highly advanced scanner machines to project circuit designs onto wafers using ultraviolet light. For leading-edge semiconductor processes, extreme precision is required, and the equipment involved is among the most sophisticated in the world.

Samsung’s reported quantum-based lithography simulation project aims to reduce the time and cost involved in both lithography and etching. Etching is another key step in semiconductor fabrication, where unwanted material is removed from the wafer to form the final circuit structures. By improving the accuracy of simulations before physical production begins, Samsung could reduce trial-and-error, lower defect rates, and speed up development of future chip technologies.

The technology is reportedly being developed by Samsung SDS, the company’s digital and IT services division. Samsung is said to have already secured the necessary algorithms and may begin proof-of-concept verification as early as next year. If the simulation platform proves successful, it could eventually be transferred to Samsung Electronics, the company’s main semiconductor and electronics business.

Artificial intelligence is already becoming increasingly important in chip manufacturing. Major semiconductor companies are using AI to optimize factory operations, improve defect detection, and accelerate process development. Samsung’s reported use of quantum computing would add another layer of innovation, potentially allowing the company to model highly complex manufacturing conditions more efficiently than with conventional computing methods.

For Samsung, the stakes are high. The global semiconductor market is becoming more competitive as demand rises for AI chips, high-performance processors, advanced memory, and next-generation mobile hardware. Improving lithography performance could help Samsung strengthen its position in advanced chip manufacturing and compete more effectively in the race for smaller, faster, and more efficient semiconductors.

If successful, Samsung’s quantum computing and AI-based lithography simulation technology could mark an important step toward the future of semiconductor fabrication. By reducing production costs, improving chip yields, and increasing transistor density, the company may be able to accelerate the development of next-generation chips for artificial intelligence, smartphones, data centers, and high-performance computing.