TSMC announced that its revenue for September 2024 reached NT$251.87 billion (US$7.80 billion), representing a 39% increase compared to the same month last year. The cumulative revenue for the first three quarters of 2024 climbed to NT$2,025.85 billion (US$62.72 billion), showing a 32% year-over-year growth. The company's third-quarter revenue amounted to NT$759.7 billion (US$23.52 billion), exceeding TSMC's own guidance of NT$706.6 billion to NT$731.5 billion (US$22.4 billion to US$23.2 billion). TSMC will report full third-quarter earnings on Oct. 17.

A report from Data Centre Dynamics quotes sources saying that, due to increasing demand from NVIDIA and others, TSMC has been forced to change its CoWoS capacity expansion plan several times. In response, TSMC is building two more fabs, named P4 and P5, in Kaohsiung, Taiwan, raising the company's total number of facilities in the region to five. Four months ago, the company announced that it would build a third 2 nm fab at Nanzih Technology Industrial Park in Kaohsiung. The company's P1 fab, which started in August 2022, is expected to begin mass production next year, while P2 and P3 are still in the construction phase. TSMC's CoWoS monthly capacity is expected to reach more than 40,000 wafers by the end of 2024, 65,000 wafers in 2025, and at least 80,000 wafers in 2026.

NVIDIA's "Blackwell" series of GPUs, including B100, B200, and GB200, are reportedly sold out for 12 months or an entire year. This directly means that if a new customer is willing to order a new Blackwell GPU now, there is a 12-month waitlist to get that GPU. Analyst from Morgan Stanley Joe Moore confirmed that in a meeting with NVIDIA and its investors, NVIDIA executives confirmed that the demand for "Blackwell" is so great that there is a 12-month backlog to fulfill first before shipping to anyone else. We expect that this includes customers like Amazon, META, Microsoft, Google, Oracle, and others, who are ordering GPUs in insane quantities to keep up with the demand from their customers.

The previous generation of "Hopper" GPUs was ordered in 10s of thousands of GPUs, while this "Blackwell" generation was ordered in 100s of thousands of GPUs simultaneously. For NVIDIA, that is excellent news, as that demand is expected to continue. The only one standing in the way of customers is TSMC, which manufactures these GPUs as fast as possible to meet demand. NVIDIA is one of TSMC's largest customers, so wafer allocation at TSMC's facilities is only expected to grow. We are now officially in the era of the million-GPU data centers, and we can only question at what point this massive growth stops or if it will stop at all in the near future.

Samsung Electronics is speeding up its work on 2 nm production facilities, industry sources say. The company has started to install advanced equipment at its "S3" foundry line in Hwaseong to set up a 2 nm production line. This line aims to produce 7,000 wafers each month by the first quarter of next year. Also, Samsung plans to create a 1.4 nm production line at its "S5" foundry in Pyeongtaek Plant 2 by the second quarter of next year. This line has a goal to make 2,000 to 3,000 wafers each month. By the end of next year, Samsung will change all the remaining 3 nm production lines at "S3" to 2 nm.

As we reported earlier, Samsung has pushed back the start date for its Tyler, Texas foundry. The plant set to open by late 2024, won't install equipment until after 2026. Also, Samsung has changed its plans for the Pyeongtaek Fab 4 foundry line. Because of lower demand, it will now make DRAM instead, moreover, at Pyeongtaek Fab 3, which has a 4 nm line, Samsung has cut back production. These changes are part of Samsung's plan to make 2 nm chips next year and 1.4 nm chips by 2027. The company wants to catch up with its rival TSMC, right now, Samsung has 11.5% of the global foundry market in Q2, while TSMC leads with 62.3%. An industry expert stressed how crucial this is saying, "With the delay in 3 nm Exynos production and other issues, getting the 2 nm process right could make or break Samsung Foundry". The struggle for Samsung is real, with the company's top management, led by DS Division Vice Chairman Jeon Young-hyun, having recently issued a public apology for the division's underwhelming performance.

TSMC, the world leader in semiconductor manufacturing, is moving to production with NVIDIA's computational lithography platform, called cuLitho, to accelerate manufacturing and push the limits of physics for the next generation of advanced semiconductor chips. A critical step in the manufacture of computer chips, computational lithography is involved in the transfer of circuitry onto silicon. It requires complex computation - involving electromagnetic physics, photochemistry, computational geometry, iterative optimization and distributed computing. A typical foundry dedicates massive data centers for this computation, and yet this step has traditionally been a bottleneck in bringing new technology nodes and computer architectures to market.

Computational lithography is also the most compute-intensive workload in the entire semiconductor design and manufacturing process. It consumes tens of billions of hours per year on CPUs in the leading-edge foundries. A typical mask set for a chip can take 30 million or more hours of CPU compute time, necessitating large data centers within semiconductor foundries. With accelerated computing, 350 NVIDIA H100 Tensor Core GPU-based systems can now replace 40,000 CPU systems, accelerating production time, while reducing costs, space and power.

After Apple, we just learned that AMD is the next company in line for US-based manufacturing in the TSMC Arizona facility. Industry analyst Tim Culpan reports that TSMC's Fab 21 in Arizona will soon be producing AMD's high-performance computing (HPC) processors, with tape out and manufacturing expected to commence on TSMC's 5 nm node next year. This move comes after previously reported Apple's A16 SoC production, which is already in progress at the facility and could see shipments before the end of this year, significantly ahead of the initially projected early 2025 schedule. The production of AMD's HPC chips in Arizona marks a crucial step towards establishing an AI-hardware supply chain operating entirely on American soil, which is expected to further expand with Intel Foundry and Samsung Texas facility.

Making HPC processors domestically serves as a significant milestone in reducing dependence on overseas semiconductor manufacturing and strengthening the US's position in the global chip industry. Adding to the momentum, TSMC and Amkor recently announced a collaboration on advanced packaging technologies, including Integrated Fan-Out (InFO) and Chip-on-Wafer-on-Substrate (CoWoS), which are vital for high-performance AI chips. However, as Amkor facilities are yet to be built, these chips are going to be shipped back to Taiwan for packaging before being integrated into the final product. Once the Amkor facility is up and running, Arizona will become the birthplace of fully manufactured and packaged silicon chips.

High-resolution die-shots of the AMD "Zen 5" 8-core CCD were released and annotated by Nemez, Fitzchens Fitz, and HighYieldYT. These provide a detailed view of how the silicon and its various components appear, particularly the new "Zen 5" CPU core with its 512-bit FPU. The "Granite Ridge" package looks similar to "Raphael," with up to two 8-core CPU complex dies (CCDs) depending on the processor model, and a centrally located client I/O die (cIOD). This cIOD is carried over from "Raphael," which minimizes product development costs for AMD at least for the uncore portion of the processor. The "Zen 5" CCD is built on the TSMC N4P (4 nm) foundry node.

The "Granite Ridge" package sees the up to two "Zen 5" CCDs snuck up closer to each other than the "Zen 4" CCDs on "Raphael." In the picture above, you can see the pad of the absent CCD behind the solder mask of the fiberglass substrate, close to the present CCD. The CCD contains 8 full-sized "Zen 5" CPU cores, each with 1 MB of L2 cache, and a centrally located 32 MB L3 cache that's shared among all eight cores. The only other components are an SMU (system management unit), and the Infinity Fabric over Package (IFoP) PHYs, which connect the CCD to the cIOD.

Amkor Technology, Inc. and TSMC announced today that the two companies have signed a memorandum of understanding to collaborate and bring advanced packaging and test capabilities to Arizona, further expanding the region's semiconductor ecosystem.

Amkor and TSMC have been closely collaborating to deliver high volume, leading-edge technologies for advanced packaging and testing of semiconductors to support critical markets such as high-performance computing and communications. Under the agreement, TSMC will contract turnkey advanced packaging and test services from Amkor in their planned facility in Peoria, Arizona. TSMC will leverage these services to support its customers, particularly those using TSMC's advanced wafer fabrication facilities in Phoenix. The close collaboration and proximity of TSMC's front-end fab and Amkor's back-end facility will accelerate overall product cycle times.

According to a recent Reuters report, the US government, under Biden's administration, will allow a few criteria-matching semiconductor fabs to circumvent environmental protection laws. On Wednesday, President Joe Biden signed legislation that effectively enables these fabs to not follow the strict regulations designed for maximum preservation of the environment. The Semiconductor Industry Association has noted that without this new legislation, companies that are extending facilities on US soil would be significantly slowed down due to the National Environmental Policy Act (NEPA) of 1969. The CHIPS Act's primary force driver isn't just domestic production but near-future completion so that future geopolitical shifts don't impact US companies. The speed of getting permits to manufacture advanced chips is essential for every CHIPS Act recipient company, like Intel, Samsung, TSMC, and Micron.

The grass isn't always greener on the other side, especially as we're running out of sides in the advanced semiconductor manufacturing sector. A recent report by Business Korea highlights Samsung Securities' July publication titled "Geopolitical Paradigm Shift and Industry," which paints a less-than-optimistic picture of Samsung's current state of affairs. The report even evaluates a possible spinoff of Samsung Foundry. The Korean tech giant has faced various business setbacks related to its state-of-the-art 3 nm Gate-All-Around (GAA) FET node. Reports indicate that this node only manages to yield 10-20% of working silicon, making potential customers reluctant to secure partnerships with Samsung. Samsung Securities projects that Samsung Foundry, along with the LSI division, will suffer a 500 billion won (about $385 million) loss this year.

Poor yields and difficulty securing customers have left Samsung facing tough choices, including the possible sale of its massive Foundry unit, which manufactures logic for external customers. It's noteworthy that Samsung is one of only three companies left in the advanced semiconductor manufacturing field, alongside TSMC and Intel. Many companies struggled to deliver results when transitioning to sub-7 nm nodes. Global Foundries dropped out of the race to focus on mature nodes, while Intel faced delays. TSMC has been the only company so far to consistently set and execute its goals, positioning itself as the industry leader. With low yields on the 3 nm GAA FET node, Samsung currently holds 11.5% of the global foundry market share in Q2, while TSMC dominates with 62.3%.

Some of the first die-shots and annotations of the Intel Core Ultra 200V "Lunar Lake" processor surfaced on the web, thanks to die-shots by GeenWens and Kurnalsalts on Twitter. Be sure to check out our Lunar Lake Technical Deep-dive article to learn the basics of how Lunar Lake is different from "Meteor Lake." Both are disaggregated chiplet-based processors, but Lunar Lake remodels things a bit. All the logic engines of the processor—the CPU, the iGPU, and the NPU, are located in a centralized Compute tile that's built on the TSMC 3 nm process, while all the I/O controllers are spun out to the Platform Controller tile built on TSMC 6 nm, which sit on a Foveros base tile that acts as an interposer, facilitating high-density microscopic connections between the two tiles. The base tile sits on the fiberglass substrate, which also has stacked LPDDR5X memory for either 16 GB or 32 GB of on-package system memory.

The Kurnalsalts annotation provides a good lay of the land for the Compute tile. The most striking aspect of it is the CPU. "Lunar Lake" comes with a 4P+4E core hybrid CPU, but the two kinds of cores do not share a last-level cache or sit in a ringbus, unlike in case of the Compute tile of "Meteor Lake." The four "Lion Cove" P-cores each come with 2.5 MB of dedicated L2 caches, and share a 12 MB L3 cache. The four "Skymont" E-cores are not part of the ringbus connecting the four P-cores, rather they are physically separated, much like the low-power island E-cores on "Meteor Lake." The E-core cluster shares a 4 MB L2 cache among the four E-cores. This E-core cluster is directly connected to the switching fabric of the Compute tile.

Intel's recent financial woes have brought the company into severe cost-cutting measures, including job cuts and project delays. However, a silver lining remains—Intel is reportedly in the final stages of securing $8.5 billion in direct funding from the US government under the CHIPS Act, delivered by the end of the year. The potential financing comes at a crucial time for Intel, which has been grappling with financial challenges. The company reported a $1.6 billion loss in the second quarter of 2024, leading to short-term setbacks. However, thanks to sources close to the Financial Times, we learn that Intel's funding target will represent the CHIPS Act's largest share, leading to a massive boost to US-based semiconductor manufacturing.

Looking ahead, the potential CHIPS Act funding could serve as a catalyst for Intel's resurgence, reassuring both investors and customers about the company's future. A key element of Intel's recovery strategy lies in the ramp-up of production for its advanced 18A node, which should become the primary revenue driver for its foundry unit. This advancement, coupled with the anticipated government backing, positions Intel to potentially capture market share from established players like TSMC and Samsung. The company has already secured high-profile customers such as Amazon and (allegedly) Broadcom, hinting at its growing appeal in the foundry space. Moreover, Intel's enhanced domestic manufacturing capabilities align well with potential US government mandates for companies like NVIDIA and Apple to produce processors locally, a consideration driven by escalating geopolitical tensions.

Synopsys, Inc. today announced its continued, close collaboration with TSMC to deliver advanced EDA and IP solutions on TSMC's most advanced process and 3DFabric technologies to accelerate innovation for AI and multi-die designs. The relentless computational demands in AI applications require semiconductor technologies to keep pace. From an industry leading AI-driven EDA suite, powered by Synopsys.ai for enhanced productivity and silicon results to complete solutions that facilitate the migration to 2.5/3D multi-die architectures, Synopsys and TSMC have worked closely for decades to pave the path for the future of billion to trillion-transistor AI chip designs.

"TSMC is excited to collaborate with Synopsys to develop pioneering EDA and IP solutions tailored for the rigorous compute demands of AI designs on TSMC advanced process and 3DFabric technologies," said Dan Kochpatcharin, head of the Ecosystem and Alliance Management Division at TSMC. "The results of our latest collaboration across Synopsys' AI-driven EDA suite and silicon-proven IP have helped our mutual customers significantly enhance their productivity and deliver remarkable performance, power, and area results for advanced AI chip designs.

Yesterday, Intel launched its Xeon 6 family of server processors based on P-cores manufactured on Intel 3 node. While the early reviews seem promising, Intel is preparing a more advanced generation of processors that will make or break its product and foundry leadership. Codenamed "Clearwater Forest," these CPUs are expected to be the first high-volume production chips based on the Intel 18A node. We have pictures of the five-tile Clearwater Forest processor thanks to Tom's Hardware. During the Enterprise Tech Tour event in Portland, Oregon, Tom's Hardware managed to take a picture of the complex Clearwater Forest design. With compute logic built on 18A, this CPU uses Intel's 3-T process technology, which serves as the foundation for the base die, marking its debut in this role. Compute dies are stacked on this base die, making the CPU building more complex but more flexible.

The Foveros Direct 3D and EMIB technologies enable large-scale integration on a package, achieving capabilities that previous monolithic single-chip designs could not deliver. Other technologies like RibbonFET and PowerVia will also be present for Clearwater Forest. If everything continues to advance according to plan, we expect to see this next-generation CPU sometime next year. However, it is crucial to note that if this CPU shows that the high-volume production of Intel 18A is viable, many Intel Foundry customers would be reassured that Intel can compete with TSMC and Samsung in producing high-performance silicon on advanced nodes at scale.

TSMC and Samsung are reportedly in talks with the United Arab Emirates (UAE) to establish chip factories in the Gulf nation. As reported by the Wall Street Journal, this "desert dream" aligns with the UAE's ambitious plans to diversify its economy beyond oil and become a key player in the AI sector by building chips for AI domestically. The UAE and neighboring Saudi Arabia plan to leverage their oil wealth to invest in cutting-edge manufacturing, with AI emerging as a primary focus due to its high computational demands. Successful implementation of chip factories could significantly boost the region's AI capabilities and impact the global semiconductor supply chain. However, the project faces substantial challenges. Previous attempts to establish semiconductor manufacturing in the Gulf, such as the GlobalFoundries initiative over a decade ago, have yet to progress beyond initial planning.

The current proposal faces even greater obstacles, with estimated costs exceeding $100 billion for a state-of-the-art facility and necessary infrastructure. Geopolitical concerns add another layer of complexity. Recent US export restrictions of certain chips to the Gulf region may complicate the transfer of advanced manufacturing processes to the UAE. Despite these hurdles, the potential benefits are significant. For the UAE, success would represent a major step towards economic diversification and technological leadership. TSMC and Samsung could gain a strategic presence in a region eager for technological advancement. TSMC noted that the company focuses on current expansion projects in the US, Japan, and Germany, while Samsung declined to comment.

TSMC has reportedly initiated production of Apple's last-generation A16 Bionic processors at its newly constructed Fab 21 in Arizona. This development comes significantly earlier than anticipated, with the facility's full-scale production initially scheduled for 2025. According to insights from industry expert Tim Culpan, the Arizona plant is already churning out a modest but noteworthy quantity of A16 Bionic chips. These processors are being manufactured using TSMC's NP4 4 nm semiconductor node. Culpan also hinted at a substantial increase in production capacity once the second stage of Fab 21's initial phase becomes operational.

This early start serves a critical function for TSMC, allowing the company to calibrate its advanced equipment and refine its manufacturing processes thoroughly. Using the well-established A16 Bionic design, TSMC can ensure its new facility meets the exacting standards required for next-generation semiconductor production. The news aligns with recent industry buzz suggesting that Fab 21 is already achieving yield rates comparable to TSMC's long-established Taiwanese plants—a remarkable feat for a newly launched facility. While current output remains limited, this milestone marks a significant step in TSMC's expansion into US-based chip manufacturing. With more fabs on American soil, companies can push domestic manufacturing and ensure that geopolitics don't hinder the vital supply chain.

TSMC has reportedly managed to produce yields at its Arizona facility that are on par with yields back home in Taiwan, making its expansion efforts successful. According to Bloomberg, TSMC did a trial production, a multi-month effort, to produce N4 node wafers with low defect rates. With wafers now in TSMC's labs for testing, it is reported that Arizona facility yields have achieved parity with their Taiwanese facilities back home. This indicates that TSMC's efforts to expand in the US are so far considered a success, as advanced chipmaking is a very complex process that is only done by a few makers and in very few locations. With TSMC expanding in the US now and proving that its technology can work on US soil, the company has a green light to start volume production in the first half of 2025.

However, this is only the beginning of TSMC's Arizona expansion. The Taiwanese giant plans to have a second fab operational by 2028 and produce 2 nm and 3 nm chips in the state. Additionally, there will be a third facility for 2 nm and more advanced nodes in Phoenix, bringing the total value of TSMC's US expansion efforts to $65 billion, with $6.6 billion from the CHIPS Act grants and $5 billion in loans from the US government. If upcoming fabs follow the lead of the first facility, US-based production needs will possibly be satisfied.

As AI workloads continue to evolve and expand, memory bandwidth and capacity are increasingly critical for system performance. The latest GPUs in the industry need the highest performance high bandwidth memory (HBM), significant memory capacity, as well as improved power efficiency. Micron is at the forefront of memory innovation to meet these needs and is now shipping production-capable HBM3E 12-high to key industry partners for qualification across the AI ecosystem.

Micron's industry-leading HBM3E 12-high 36 GB delivers significantly lower power consumption than our competitors' 8-high 24 GB offerings, despite having 50% more DRAM capacity in the package
Micron HBM3E 12-high boasts an impressive 36 GB capacity, a 50% increase over current HBM3E 8-high offerings, allowing larger AI models like Llama 2 with 70 billion parameters to run on a single processor. This capacity increase allows faster time to insight by avoiding CPU offload and GPU-GPU communication delays. Micron HBM3E 12-high 36 GB delivers significantly lower power consumption than the competitors' HBM3E 8-high 24 GB solutions. Micron HBM3E 12-high 36 GB offers more than 1.2 terabytes per second (TB/s) of memory bandwidth at a pin speed greater than 9.2 gigabits per second (Gb/s). These combined advantages of Micron HBM3E offer maximum throughput with the lowest power consumption can ensure optimal outcomes for power-hungry data centers. Additionally, Micron HBM3E 12-high incorporates fully programmable MBIST that can run system representative traffic at full spec speed, providing improved test coverage for expedited validation and enabling faster time to market and enhancing system reliability.

During the Semicon Taiwan 2024 summit event, TSMC VP of Advanced Packaging Technology, Jun He, spoke about the importance of merging AI chip memory and logic chips using 3D IC technology. He predicted that by 2030 the worldwide semiconductor industry would hit the $1 trillion milestone with HPC and AI leading 40 percent of the market share. In 2027, TSMC will introduce the 2.5D CoWoS technology that includes eight A16 process chipsets and 12 HBM4. AI processors that use this technology will not only be much cheaper to produce but will also provide engineers with a greater level of convenience. Engineers will have the option to write new codes into them instead. Manufacturers are cutting the SoC and HBM architectural conversion and mass production costs down to nearly one-fourth.

Nevertheless, the increasing production capacities of 3D IC technology remain the main challenge, as the size of chips and the complexity of manufacturing are decisive factors. However, the higher the size of the chips, the more chiplets are added, and thus the performance is improved, but this now makes the process even more complicated and is associated with more risks of misalignment, breakage, and extraction failure.

According to a recent Reuters report, Intel's 18A node doesn't seem to be production-ready. As the sources indicate, Broadcom has been reportedly testing Intel's 18A node on its internal company designs, which include an extensive range of products from AI accelerators to networking switches. However, as Broadcom received the initial production run from Intel, the 18A node seems to be in a worse state than initially expected. After testing the wafers and powering them on, Broadcom reportedly concluded that the 18A process is not yet ready for high-volume production. With Broadcom's comments reflecting high-volume production, it signals that the 18A node is not producing a decent yield that would satisfy external customers.

While this is not a good sign of Intel's Fundry contract business development, it shows that the node is presumably in a good state in terms of power/performance. Intel's CEO Pat Gelsinger confirmed that 18A is now at 0.4 d0 defect density, and it is now a "healthy process." However, alternatives exist at TSMC, which proves to be a very challenging competitor to take on, as its N7 and N5 nodes had a defect density of 0.33 during development and 0.1 defect density during high-volume production. This leads to better yields and lower costs for the contracting party, resulting in higher profits. Ultimately, it is up to Intel to improve its production process further to satisfy customers. Gelsinger wants to see Intel Foundry as "manufacturing ready" by the end of the year, and we can see the first designs in 2025 reach volume production. There are still a few more months to improve the node, and we expect to see changes implemented by the end of the year.

Microsoft provided a detailed view of Maia 100 at Hot Chips 2024, their initial specialized AI chip. This new system is designed to work seamlessly from start to finish, with the goal of improving performance and reducing expenses. It includes specially made server boards, unique racks, and a software system focused on increasing the effectiveness and strength of sophisticated AI services, such as Azure OpenAI. Microsoft introduced Maia at Ignite 2023, sharing that they had created their own AI accelerator chip. More information was provided earlier this year at the Build developer event. The Maia 100 is one of the biggest processors made using TSMC's 5 nm technology, designed for handling extensive AI tasks on Azure platform.

Maia 100 SoC architecture features:

• A high-speed tensor unit (16xRx16) offers rapid processing for training and inferencing while supporting a wide range of data types, including low precision data types such as the MX data format, first introduced by Microsoft through the MX Consortium in 2023.
• The vector processor is a loosely coupled superscalar engine built with custom instruction set architecture (ISA) to support a wide range of data types, including FP32 and BF16.
• A Direct Memory Access (DMA) engine supports different tensor sharding schemes.
• Hardware semaphores enable asynchronous programming on the Maia system.

During its Q2 2024 earnings call, NVIDIA confirmed that its upcoming Blackwell-based products are facing low-yield challenges. However, the company announced that it has implemented design changes to improve the production yields of its B100 and B200 processors. Despite these setbacks, NVIDIA remains optimistic about its production timeline. The tech giant plans to commence the production ramp of Blackwell GPUs in Q4 2024, with expected shipments worth several billion dollars by the end of the year. In an official statement, NVIDIA explained, "We executed a change to the Blackwell GPU mask to improve production yield." The company also reaffirmed that it had successfully sampled Blackwell GPUs with customers in the second quarter.

However, NVIDIA acknowledged that meeting demand required producing "low-yielding Blackwell material," which impacted its gross margins. During an earnings call, NVIDIA's CEO Jensen Huang assured investors that the supply of B100 and B200 GPUs will be there. He expressed confidence in the company's ability to mass-produce these chips starting in the fourth quarter. The Blackwell B100 and B200 GPUs use TSMC's CoWoS-L packaging technology and a complex design, which prompted rumors about the company facing yield issues with its designs. Reports suggest that initial challenges arose from mismatched thermal expansion coefficients among various components, leading to warping and system failures. However, now the company claims that the fix that solved these problems was a new GPU photomask, which bumped yields back to normal levels.

SoftBank has reportedly decided against using Intel's foundry for its ambitious AI venture, Project Izanagi, and is opting for TSMC instead. The conglomerate aims to challenge NVIDIA in the AI accelerator market by developing its own AI processors. This decision marks another setback for Intel, which has faced several challenges recently. In February 2024, reports emerged that SoftBank's CEO, Masayoshi Son, planned to invest up to $100 billion to create a company similar to NVIDIA, focused on selling AI accelerators. Although SoftBank initially worked with Intel, it recently switched to TSMC, citing concerns about Intel's ability to meet demands for "volume and speed."

The decision, reported by the Financial Times, raises questions about Intel's future involvement and how SoftBank's ownership of Arm Holdings will factor into the project. While TSMC is now SoftBank's choice, the foundry is already operating at full capacity, making it uncertain how it will accommodate this new venture. Neither SoftBank, Intel nor TSMC has commented on the situation, but given the complexities involved, it will likely take time for this plan to materialize. SoftBank will need to replicate NVIDIA's entire ecosystem, from chip design to data centers and a software stack rivaling CUDA, a bold and ambitious goal.

Samsung Electronics is set to make a significant leap in semiconductor manufacturing technology with the introduction of its first High-NA 0.55 EUV lithography tool. The company plans to install the ASML Twinscan EXE:5000 system at its Hwaseong campus between Q4 2024 and Q1 2025, marking a crucial step in developing next-generation process technologies for logic and DRAM production. This move positions Samsung about a year behind Intel but ahead of rivals TSMC and SK Hynix in adopting High-NA EUV technology. The system is expected to be operational by mid-2025, primarily for research and development purposes. Samsung is not just focusing on the lithography equipment itself but is building a comprehensive ecosystem around High-NA EUV technology.

The company is collaborating with several key partners like Lasertec (developing inspection equipment for High-NA photomasks), JSR (working on advanced photoresists), Tokyo Electron (enhancing etching machines), and Synopsys (shifting to curvilinear patterns on photomasks for improved circuit precision). The High-NA EUV technology promises significant advancements in chip manufacturing. With an 8 nm resolution capability, it could make transistors about 1.7 times smaller and increase transistor density by nearly three times compared to current Low-NA EUV systems. However, the transition to High-NA EUV comes with challenges. The tools are more expensive, costing up to $380 million each, and have a smaller imaging field. Their larger size also requires chipmakers to reconsider fab layouts. Despite these hurdles, Samsung aims for commercial implementation of High-NA EUV by 2027.

As Intel's recent challenges continue, the company just sold its 1.18 million share stake in Arm Holdings during Q2, as revealed in a recent regulatory filing, according to Reuters. The sale potentially generated around $146.7 million for Intel, based on Arm's average stock price between April and June. The company recently announced plans to reduce its workforce by over 15% (about 15,000 jobs) and suspend dividend payments, reflecting a downturn in traditional data center semiconductor demand and a shift towards AI chips, a sector where Intel trails competitors like NVIDIA.

CEO Pat Gelsinger is steering Intel towards developing advanced AI chips and expanding its contract manufacturing capabilities, aiming to regain ground lost to Taiwan's TSMC, the industry's leading contract chipmaker. This strategic pivot has increased costs and squeezed profit margins, necessitating cost-cutting measures.

The demand for AI accelerators is going strong, and the world's largest semiconductor manufacturer, TSMC, has just confirmed that with its July 2024 revenue report. According to its latest July 2024 data, TSMC has reported a consolidated revenue of NT$256.95 billion, or about $7.94 billion at the time of writing. This represents a massive 23.6% jump from June 2024 and a 44.7% from July 2023, when revenue came in at NT$207.869 billion and NT$177.616 billion, respectively. For revenue throughout the year, measured from January to July, TSMC booked NT$1.523 trillion, or about $47 billion at the current rate. For this 7-month period, TSMC's revenue has increased by 30.5% Year-on-Year (YoY), showing great demand and an uptick in the company's production capabilities.

Of course, this is possible thanks to the massive demand driving AI chip sales from various startups and established giants like NVIDIA and AMD. Another vital customer for TSMC is Apple, which produces smartphone and Mac chips at Taiwanese facilities. The solid financial results from TSMC suggest that other fabless chip designers in its ecosystem may also experience positive outcomes in their earnings. It's worth noting that the semiconductor supply chain operates on a long-term planning basis, with arrangements made months in advance. As such, we can expect advanced silicon solutions to reach new customers in the coming months, further driving growth in the sector.