Samsung Foundry has reached a 60 percent yield on its 2nm manufacturing process, according to a report from Tech Times. The figure marks measurable progress for the Korean chipmaker's most advanced node, which has struggled to match the maturity of competing foundry processes since its introduction.

Yield is the share of fabricated dies that pass quality testing and can be sold. At 60 percent, Samsung's 2nm node remains below the levels typically required for high-volume, cost-competitive production of flagship mobile processors. Foundries generally aim for yields well above that threshold before committing to large orders for premium silicon, where die costs are high and margins depend on minimizing wasted wafers.

The second half of the reported picture tempers the yield achievement. Chips produced on Samsung's 2nm process still consume more power than comparable Snapdragon processors, according to the report. Qualcomm's Snapdragon lineup — fabricated predominantly at TSMC — continues to hold a power-efficiency advantage over silicon coming off Samsung's most advanced line.

That gap matters commercially. Power draw directly affects battery life and thermal behavior in smartphones, the highest-volume market for leading-edge nodes. Mobile vendors weigh foundry choice against measurable efficiency figures, and a process that consumes more power at equivalent performance puts Samsung Foundry at a disadvantage when bidding for flagship SoC contracts.

The two data points together sketch the current state of Samsung's 2nm effort. On one hand, a 60 percent yield indicates the process is no longer in an experimental phase; the company is producing working silicon at scale and recovering a majority of dies per wafer. On the other, the power-consumption shortfall shows that yield alone does not equal competitiveness. A process can produce functional chips in volume and still lose design wins if those chips run hotter or drain batteries faster than parts fabricated elsewhere.

For fabless customers, the report offers a concrete benchmark for evaluating Samsung Foundry as an alternative to TSMC. Second-source options carry strategic value for chip designers seeking to reduce dependence on a single supplier, but the efficiency penalty documented in the report raises the effective cost of that diversification. A customer shifting a flagship mobile design to Samsung's 2nm node would need to accept shorter battery life or compensate through additional engineering work.

The yield figure also sets a baseline for tracking Samsung's trajectory. If subsequent reports show the number climbing toward the 70–80 percent range while power consumption converges with Snapdragon-class parts, the node's competitive position would strengthen materially. Until then, the 60 percent yield and the persistent efficiency gap define the trade-off customers face.

Samsung has not publicly disputed either figure. The company continues to position its 2nm family — which includes variants targeted at mobile, high-performance computing, and automotive applications — as its pathway back to parity with the industry's leading foundry. Whether that pathway closes the power gap will determine whether the yield gains translate into design wins.