Samsung has pushed back its 1.4nm mass-production target from 2027 to 2029, extending its focus on the 2nm platform for at least three more years. The shift puts more weight on yield improvement, process maturity and customer adoption, rather than rushing into another node transition. The article argues that Samsung is still developing its 2nm family rather than standing still. In addition to standard SF2, the company is working on derivative 2nm processes for different use cases and plans to introduce backside power delivery in more advanced versions. Samsung has also taken a cautious stance on High-NA EUV, with Vice President Park Chang-min saying the technology still needs to mature and may only become essential for production at A10 and below, or the 1nm class and beyond. That caution stands out as TSMC keeps advancing. According to the article, TSMC’s N2 has already entered mass production, and A16, its first post-2nm node, is scheduled for mass production in the second half of 2026. A16 will use TSMC’s SPR backside power delivery technology. TSMC says that versus N2P, A16 can deliver an 8% to 10% speed gain at the same power, a 15% to 20% power reduction at the same speed, and up to about 10% higher chip density. The piece frames the latest roadmap shift as a sign that leading-edge competition is no longer just a race to the next number. Cost, yield, power delivery, packaging and ecosystem execution are becoming just as important as transistor scaling itself.

Bernstein has raised its global wafer fab equipment, or WFE, spending forecasts for 2026 through 2028 and says the current upcycle in chip equipment spending still has room to run. The firm now expects WFE to reach $148 billion in 2026, $204 billion in 2027, and $259 billion in 2028, up from prior estimates of $141 billion, $175 billion, and $198 billion. That implies cumulative growth of 75% over two years. The upgrade spans most applications and regions, but Bernstein said the larger contribution comes from memory outside China and from foundry and logic spending in China. DRAM and NAND are expected to post the fastest growth, outpacing logic and foundry. For 2027, Bernstein forecasts DRAM WFE at $69 billion, NAND at $20 billion, and logic/foundry at $104 billion, each above its earlier projections. The report also points to stronger-than-expected resilience in China. Bernstein forecasts China WFE demand at $57 billion in 2026, $57.3 billion in 2027, and $101 billion in 2028, with a sharp step-up tied to broad capacity expansion across memory, advanced logic, and mature logic. It also said recent pullbacks in semiconductor equipment stocks have created more attractive entry points, while warning that the views, ratings, and price targets cited are those of Bernstein analysts and do not constitute investment advice.

Elon Musk’s TeraFab chip manufacturing plan has moved from a compute-supply story into a lithography debate after speculation that the project may be aligned with a free-electron laser, or FEL, approach to extreme ultraviolet light sources. The discussion gained momentum after Musk posted 「FEL FTW」 on social media, a remark that many read as support for the idea. The core issue is whether FEL can attack one of the most entrenched positions in the semiconductor equipment business: ASML’s dominance in EUV lithography. The article lays out why that question is drawing attention now. ASML’s laser-produced plasma, or LPP, light source enabled commercial EUV, but its limits are becoming more visible as the industry pushes toward 2 nm and below. Conversion efficiency remains low, tin debris contaminates costly mirrors, and power requirements keep rising. FEL backers argue their approach avoids plasma conversion, removes tin-droplet contamination, and could deliver much higher EUV output. xLight, which raised an oversubscribed $40 million Series B in July last year and later brought in former Intel CEO Pat Gelsinger as executive chairman, says its system could sharply raise fab productivity. Even so, the broader field remains mixed. ASML is still expanding EUV and DUV output, advancing High-NA EUV, and posting rising sales and profit. At the same time, alternative paths including X-ray lithography, nanoimprint lithography, and electron-beam direct write are also developing, each with different trade-offs in cost, throughput, and manufacturability.

Samsung Electronics has outlined a new lithography roadmap that puts High-NA EUV at the center of its future 1nm manufacturing plans. Speaking at the 2026 NGL conference on Aug. 11, Samsung technical expert Park Chang-min said the company plans to bring a major lithography advance into its 1nm process, with mass production potentially starting as early as 2030. Samsung said it aims to deploy High-NA EUV in high-volume manufacturing at the 1nm node and is now focused on developing the technologies needed for commercialization. The company also described 1nm as its A10 process, noting that 「A」 stands for angstrom, where 1 angstrom equals 0.1nm. Under the roadmap, Samsung expects to begin using High-NA EUV in mass production around 2030. The company has already commercialized its 2nm process and plans to start mass production of its 1.4nm SF1.4 process in 2029. It is also preparing to begin mass production of SF1.4+, an enhanced version of its 1.4nm process, alongside its 1nm process in 2030.

Samsung Electronics plans to adopt High-NA EUV lithography starting with its 1nm (A10) process node, targeting mass production around 2030, according to a ChainCatcher report. The roadmap was outlined by a member of the Foundry process development team at Samsung's Semiconductor Research Institute during the '2026 Next-Generation Lithography + Patterning Academic Conference.' Samsung currently relies on 0.33 NA EUV multipatterning for 2nm and below, and plans to mass-produce 1.4nm in 2029 before moving on to 1nm. High-NA EUV raises the lens numerical aperture from 0.33 to 0.55, delivering higher resolution that could turn multipatterning into a single patterning step. That would help cut manufacturing costs, raise productivity and add design flexibility. The same researcher expects 1.4nm and 1nm to remain on 0.33 NA EUV multipatterning, with High-NA patterning becoming the core technology for the generation that follows. The catch: the technology is hard to master, equipment is expensive, and material technology needs to be upgraded in step.

TechFlowPost’s latest roundup tracked a wide set of developments across AI, crypto, chips, big tech and macro markets. In AI, Claude Code has made its autonomous mode the default setting, shifting the tool from a coding assistant toward a system that can execute commands on its own. At the same time, SemiAnalysis was cited in community discussion claiming Google’s Gemini 3.5 Pro was quietly shelved internally before launch, while another rumored model, Hark Handoff, spread through social channels on unverified benchmark screenshots. Meta was also said to be preparing an open release of its 30B model Muse Glimmer, with 4-bit quantization allowing it to run on a single 24GB GPU. On the crypto side, Upbit listed six tokens including CYS, ICNT and XAN, opening BTC and USDT pairs and putting fresh focus on smaller-cap sectors such as DePIN, chain-wide operating systems and AI networks. Community debate also turned toward the value of on-chain AI agents, with one popular post arguing that many projects simply route AI output into smart contracts without creating new trust assumptions. Elsewhere, traders cut the perceived odds of a September Fed hike ahead of CPI data, a setup that Cointelegraph said could matter for Bitcoin and other risk assets.

Samsung Electronics, SK hynix and Micron Technology have all posted record quarterly results, yet their shares have pulled back over the past month as investors question whether the memory sector is heading toward the familiar boom-bust pattern of rising prices, aggressive capacity additions, oversupply and collapse. Public disclosures and comments from executives suggest this cycle is different in one important way: spending is rising, but the new capacity is being directed mainly toward AI products such as HBM and server DRAM rather than broad-based expansion across end markets. At the same time, the three suppliers are shifting away from quarterly pricing and into three- to five-year supply agreements that include floor prices, take-or-pay commitments, prepayments, deposits and, in some cases, minimum revenue guarantees. Micron has disclosed 16 five-year strategic customer agreements, while Samsung said it plans to place 60% to 70% of capacity under multi-year contracts. Industry researchers and company executives cited in the report expect supply tightness to extend through 2027 and potentially into 2028, with EUV delivery times and wafer reallocation to HBM limiting near-term relief. The article also points to a second layer of change after 2028: how quickly new capacity arrives, whether long-term contracts can keep earnings stable even if spot prices soften, and how much influence CXMT and domestic Chinese suppliers gain in consumer DRAM, LPDDR and eventually HBM-related manufacturing chains. Those factors, rather than the current price spike alone, may determine whether the sector truly breaks from its historical “death spiral.”

A discussion sparked by TeraFab-related information and a reply from Elon Musk has revived attention on free-electron laser, or FEL, technology as a possible alternative to conventional extreme ultraviolet, or EUV, lithography light sources. The source article stresses that the claim remains speculative and does not confirm Musk’s actual plans, but argues the technical route is worth examining on its own terms. It lays out how FEL systems work, starting with high-energy electron beams from particle accelerators, then using periodic magnetic structures known as undulators to generate tunable, coherent, high-intensity light across a range that can theoretically extend from soft X-rays through EUV and beyond. The piece also points to U.S. startup xLight as a notable supporter of this direction and notes that former Intel CEO Pat Gelsinger is now xLight’s executive chairman. According to the article, xLight says its FEL source can deliver up to four times the EUV power of current LPP systems, lower wafer costs by about 50%, support as many as 20 ASML systems, and operate for up to 30 years. At the same time, the article makes clear that stronger source physics does not automatically translate into better manufacturing readiness. FEL systems still face major hurdles in size, cost, stability, uptime, and integration with lithography optics, leaving today’s engineered EUV sources more suitable for high-volume fabs at this stage.