Article Summary: The South Korean government, together with Samsung Electronics and SK hynix, unveiled three super projects, planning to invest 4,755 trillion won (about RMB 20.92 trillion) in semiconductors, physical AI, and AI data centers. The goal is to break through key technologies such as GAA and HBM and reshape global tech competition with national power.
South Korea’s Semiconductor and AI Super Projects: A National Strategy and Industrial Future Behind a 4,755 Trillion Won Bet
Summary
On June 29, 2026, the South Korean government, together with semiconductor giants Samsung Electronics and SK hynix, officially announced the “Three Super Projects” centered on semiconductors, physical AI, and AI data centers, with a planned total investment of 4,755 trillion won (about RMB 20.92 trillion) in AI-related fields in the coming years—the largest investment in South Korea’s history. This strategic move not only marks South Korea’s deep bet on the integration of AI and semiconductors, but also reflects its determination to rebuild industrial competitiveness with national power amid intensifying global tech competition.

1. Super Projects: A Three-Pillar Strategy
The announced “Three Super Projects” are not isolated plans, but a systematic program of mutual support and coordinated development.
The semiconductor project focuses on R&D and mass production of next-generation memory chips, logic chips, and advanced packaging. Samsung and SK will expand fabs in Pyeongtaek, Yongin, and other locations, with a focus on key technologies such as GAA (gate-all-around), HBM (high-bandwidth memory), and CXL memory, strengthening Korea’s leadership in the global memory market while moving further into logic chips.
The physical AI project aims to bring AI from the virtual world into physical reality, covering robots, autonomous driving, and smart factories. Korea plans to build a closed-loop technology stack centered on “AI chips + sensors + edge computing” to drive large-scale adoption of AI in manufacturing, logistics, healthcare, and other sectors—well aligned with Korea’s manufacturing strengths.
The AI data center project aims to build hyperscale, low-latency, high-efficiency compute infrastructure. The government will lead the construction of a national AI computing center and encourage companies to invest in distributed edge nodes to meet explosive demand for model training and inference. Notably, the project emphasizes domestic AI accelerators and cooling technologies to reduce dependence on external supply chains.
2. Scale of Investment: South Korea’s Largest National Tech Investment Ever
The 4,755 trillion won investment—about RMB 20.92 trillion—is equivalent to roughly 2.5 times South Korea’s 2025 GDP and is the largest single-sector investment in the country’s history. Samsung Electronics plans to invest about 300 trillion won, the SK Group about 175 trillion won, and the rest will be supported by the government through tax incentives, loan guarantees, and direct subsidies.
Behind this number is a sober understanding of the “winner-takes-most” nature of the AI industry. Global AI competition has entered a capital-intensive and technology-intensive deep end. The U.S. and China have first-mover advantages thanks to vast domestic markets and large capital bases. As an export-oriented economy, South Korea must invest beyond normal limits to catch up; otherwise it will lose its voice in setting the next-generation technology standards.
3. Strategic Logic: From a “Memory Powerhouse” to an “All-Round AI Player”
The deeper logic behind this move is to break the “Samsung dependency” and the “memory-chip trap.” For a long time, South Korea’s semiconductor industry has been highly concentrated in memory chips, with clear weaknesses in logic chips, EDA tools, and advanced equipment. As AI shifts demand from storage-heavy to compute-storage-coordination architectures, memory strength alone is no longer enough.
Through the Three Super Projects, South Korea aims to build a complete AI industrial chain: the semiconductor project provides the hardware base, the physical AI project opens application scenarios, and the AI data center project creates the compute hub. Together they form a hardware-software-ecosystem loop, upgrading Korea from “a chip supplier for AI” to “a participant creating value with AI.”
4. Challenges and Outlook: Can Massive Investment Become Competitive Advantage?
Despite the grand vision, the challenges are real. First, whether 4,755 trillion won can be deployed efficiently within the planned timeframe depends on corporate profitability, global market swings, and policy continuity. Second, South Korea still lags the U.S. and China in AI algorithms, foundation models, and talent depth, so capital alone cannot close the technology gap. In addition, U.S. export controls on China add geopolitical risks that could affect supply-chain planning and overseas expansion.
Still, the joint move by the government and major companies sends a clear signal: at the critical window of the AI revolution, South Korea is choosing to face uncertainty by integrating national will with industrial giants’ resources. If the Three Super Projects proceed smoothly, Korea may build unique strengths in physical AI and compute-in-memory chips, becoming an important force in the global AI landscape.
Conclusion
The announcement of South Korea’s 4,755 trillion won semiconductor and AI super projects is both a bold gamble and a necessary strategic breakout. At a key turning point in technological paradigms, Korea is trying to turn “chip manufacturing capability” into “AI innovation capability” through a combination of state capacity and market power. Whatever the final outcome, this move will deeply influence global semiconductor and AI competition and offer an important reference for other middle powers exploring technological sovereignty. Over the next five years, whether South Korea can turn paper plans into real technological leadership and industrial returns will be a key focus for the global tech community.


