On August 13, Google officially released the Pixel 9 series of smartphones, featuring Google’s latest self-developed Tensor G4 processor and advanced AI function supported by Gemini AI.

Google Pixel 9 series includes three full-screen smartphones: Pixel 9, Pixel 9 Pro, and Pixel 9 Pro XL, as well as a foldable smartphone, the Pixel 9 Pro Fold.

Both Pixel 9 and Pixel 9 Pro are equipped with 6.3-inch screens, with the Pixel 9 Pro using a better LTPO screen; Pixel 9 Pro XL is fitted with a 6.8-inch screen; Pixel 9 Pro Fold’s internal screen size increased from 7.6 inches to 8 inches, and the external display screen size from 5.8 inches to 6.3 inches.

The base memory capacity of the new phones is up to 12GB, with the two Pro models and the Pixel 9 Pro Fold offering 16GB of memory.

It is learned that the Tensor G4 adopted in Google’s new phones is based on Samsung’s 4nm process (4LPP+), boasting a 3.1GHz Arm Cortex-X4 super core, three 2.6GHz Arm Cortex-A720 large cores, and four 1.92GHz Arm Cortex-A520 small cores.

Moreover, Tensor G4 is equipped with the new Samsung Exynos Modem 5400 baseband chip (Outside the processor), supporting 4G/5G, WiFi-7, Bluetooth 5.x, and satellite connectivity. The memory used is LPDDR5X, and media decoding supports formats such as H.264, H.265, VP9, and AV1.

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• [News] Google’s Tensor G5 Reportedly Manufactured with TSMC’s 3nm and InFO-POP Packaging
• [News] Google Reportedly Shifts Orders from Samsung to TSMC for Its Upcoming Tensor G5 in the Pixel 10 Series

(Photo credit: Google)

As semiconductor giants, starting with Intel and TSMC, have been bringing in ASML’s High-NA EUV (high-numerical aperture extreme ultraviolet) equipment to accelerate the development in advanced nodes, the elite group has now reportedly been added two new members: Samsung and SK hynix.

According to the reports by Korean media outlet Sedaily and ZDNet, Samsung Electronics’ semiconductor (DS) division is said to bring in High-NA EUV equipment as early as the end of 2024. SK hynix’s High-NA equipment, which is expected to be applied to the mass production of advanced DRAM, will reportedly be introduced in 2026.

Samsung to Introduce First High-NA EUV Machine as soon as Year-End, Eyeing Full Commercialization by 2027

Sedaily, citing industry sources on August 13^th, notes that Samsung is expected to begin bringing in its first High-NA EUV equipment, ASML’s EXE:5000, between the end of this year and the first quarter of next year. It is worth noting that Samsung’s first High-NA EUV equipment is likely to be used for foundry operations, the report reveals.

Among the semiconductor heavyweights which have been advancing in the foundry business, Intel is the first to order new High-NA EUV machines from ASML. In May, Intel was said to have secured its first batch of the new High-NA EUV lithography equipment from ASML, which the company will allegedly use on its 18A (1.8nm) and 14A (1.4nm) nodes.

TSMC, on the other hand, is more concerned on the new machine’s expensiveness, as it might be priced at as much as EUR 350 million (roughly USD 380 million) per unit, according to a previous report by Bloomberg. However, the report, citing ASML’s spokesperson, confirmed that the Dutch chip equipment giant will ship High-NA EUV equipment to TSMC by the end of this year.

Now, following its two major rivals in the foundry sector, Samsung, by introducing High-NA EUV equipment as soon as year-end, aims to boost its competitive edge in the advanced nodes.

As the installation process is quite time-consuming, Samsung aims for the full commercialization of High-NA by 2027, supported by its efforts to build the related ecosystem, the report says.

According to the report, Samsung is working with electronic design automation (EDA) companies to design new types of masks, including curved (curvilinear) circuits for High-NA EUV that improve the sharpness of the printed circuits on wafers. This collaboration includes companies like Synopsys, a global leader in semiconductor EDA tools.

SK hynix’s High-NA EUV Reportedly to be Applied to 0a DRAM Production

According to the report by Sedaily, ASML has produced eight EXE:5000 High-NA EUV units currently, as Intel has the lion’s share by securing multiple units. Samsung is said to be the last customer to place the order for ASML’s first batch of units.

On the other hand, SK hynix, Samsung’s major rival in the memory sector, is reported to bring in ASML’s next generation of High-NA EUV machine, the EXE:5200, in 2026, ZDNet suggests.

Citing industry sources on August 16th, ZDNet notes that the HBM giant has been expanding the personnel dedicated to High-NA EUV development within the company.

Although specific plans, such as the fab where the equipment will be installed or the direction of additional investment, have not been disclosed, it is expected that the technology could be applied to mass production in 0a (single-digit nanometer) DRAM as early as possible, the report indicates.

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• News] TSMC Reportedly Invests over USD 12.3 Billion in EUV, Advancing in 2nm Production
• [News] Intel Secures First Batch of High-NA EUV Equipment from ASML, Ahead of Samsung and SK Hynix

(Photo credit: ASML)

As global tech giants race to develop AI infrastructure, according to a report from Yonhap News Agency, South Korea’s top 500 companies, driven by semiconductor leaders like Samsung and SK Hynix, have experienced a significant profit surge in the second quarter, more than doubling compared to the same period last year.

Reportedly, as per data released by the corporate evaluation website CEO Score on August 15th, among South Korea’s top 500 companies by revenue, 334 companies have reported their second-quarter earnings as of August 14th.

The combined net profit of these companies reached KRW 59.4 trillion (approximately USD 43.6 billion), marking a 107.1% increase compared to the KRW 28.7 trillion recorded during the same period last year, with their profits more than doubling year-over-year.

Their revenue in total, on the other hand, amounted to KRW 779.5 trillion, reflecting a 7% year-on-year growth from KRW 728.6 trillion during the same period last year.

This significant growth was driven by the booming HBM demand from tech giants like NVIDIA, the report notes.

According to the Q2 performance report released by Samsung Electronics, the company’s operating profit reached KRW 10.44 trillion (approximately USD 7.5 billion), surging from the KRW 668.5 billion recorded in the same period last year.

Thus, per the report, this surge has solidified Samsung’s position as the most profitable company among South Korea’s top 500 enterprises in the second quarter.

On the other hand, SK Hynix also turned a profit in the second quarter, recovering from a loss of KRW 2.9 trillion  in the same period last year, with an operating profit of KRW 5.5 trillion.

Reportedly, this strong performance helped SK Hynix to become South Korea’s second most profitable company, surpassing automotive giants Hyundai Motor and Kia Corp., which reported operating profits of KRW 4.3 trillion and KRW3.6 trillion in Q2,  respectively.

Meanwhile, SK On, the battery manufacturing arm of SK Group, recorded an operating loss of KRW 460.2 billion in the second quarter, marking the worst quarterly performance in the company’s history, dragged down by the global cooling demand for electric vehicles.

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• [News] Korea’s Memory Exports to Taiwan Surge 225% in 1H 2024 Driven by Strong HBM Demand
• [News] Korean Semiconductor Exports Hit a New High, with Memory Shipment up by 88.7%

(Photo credit: Samsung)

Google has accelerate its pace on the Pixel series, as the tech giant launched Google Pixel 9 on August 13th, which is two months ahead of its schedule.

Though the Tensor G4 processor in the model is manufactured with Samsung’s 4nm, according to a report citing sources by Commercial Times, Google is said to be switching to TSMC’s 3nm process with its next-generation Tensor G5, coupling with the foundry giant’s InFO-POP packaging.

Google’s Pixel 8 is said to be the first AI-centric smartphone, featuring a range of AI functionalities. Yet, Commercial Times’ report has indicated that, after years of close collaboration, Google will part ways with Samsung and have TSMC produce the Tensor G5 chip.

The chip is also said to adopt TSMC’s advanced InFO-POP packaging. Google’s move, according to the report, demonstrates its ambition to expand its leadership in software to hardware, as it eyes for the opportunities of edge AI.

Industry sources cited by the report further point out that in the fourth quarter, both Qualcomm and MediaTek will launch flagship-level chips, while Apple’s A18 will also be produced using TSMC’s N3 process.

All these developments have hinted at tech giants’ ambition on the massive potential of the edge AI market. Now, Google would be the latest competitor to join the race.

Meanwhile, though Pixel’s market share is relatively low, the Android ecosystem, with its 70% market share in smartphones and billions of users, offers significant potential. Google is said to be following a path similar to Apple’s, achieving complete integration of hardware and software to maximize this potential.

Google’s self-developed chip extends beyond mobile devices, with its TPU (Tensor Processing Unit) now in their seventh generation. Additionally, Google’s Arm-based CPUs are being developed in partnership with TSMC.

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• [News] Breaking Apple’s Monopoly – TSMC’s InFO Packaging Reportedly Adds Google Chips
• [News] TSMC Pushes for FOPLP Mass Production by 2027, Reportedly Eyeing on Innolux’s Plant

(Photo credit: Google)

Recently, the Financial Times reported that despite over USD 400 billion in tax incentives, loans, and subsidies provided by the U.S. under the Inflation Reduction Act and the CHIPS and Science Act to boost local clean energy technology and semiconductor industries, the resurgence of U.S. manufacturing has been delayed as investors hit pause on their plans.

Reportedly, there are 114 major projects tied to these acts, totaling USD 227.9 billion in investments. However, projects with a combined investment of approximately USD 84 billion have faced delays ranging from two months to several years, with some even indefinitely postponed. These delays include several semiconductor projects.

Companies involved have cited worsening market conditions, slowing demand, and uncertainties in domestic policies as reasons for altering their investment plans.

• TSMC Delays Production at Arizona Facility

On August 13, TSMC announced several board resolutions, including the approval of a nearly USD 29,6 billion capital budget. Among these, TSMC approved up to USD 7.5 billion in funding for its wholly-owned subsidiary, TSMC Arizona.

TSMC had initially planned to build three fabs in Arizona over the next few years, with a total investment of USD 65 billion. However, per a recent New York Times report, despite four years having passed since the announcement, the Arizona plant has yet to produce a single chip.

According to a report from WeChat account DRAMeXchange, cultural differences and competition for labor resources with Intel are among the factors contributing to the challenges faced by TSMC’s Arizona facility, leading to production delays.

When TSMC announced plans to build a semiconductor fab in Arizona in May 2020, the initial plan was to start construction in 2021, with production slated to begin in 2024. The second fab was announced in December 2020, with a production target of 2026.

In May of this year, TSMC’s website indicated that the first Arizona fab’s production start has been postponed to the first half of 2025, while the second fab’s production has been delayed to 2028.

As for the third fab, TSMC has not yet disclosed the start date for construction, but the official plan is to commence production by the late 2030s.

According to TSMC’s plan, the first Arizona fab will use 4nm process technology, the second fab will employ 2nm technology, and the third fab will utilize 2nm or more advanced process technologies.

• Intel Delays Construction of Ohio Project

Intel, the U.S. semiconductor manufacturer, plans to invest USD 100 billion over the next five years in new fabs and expansions across Arizona, New Mexico, Ohio, and Oregon, creating 10,000 manufacturing jobs and 20,000 construction jobs.

Yet, according to a previous report by The Wall Street Journal in February, Intel has delayed its USD 20 billion chip project in Ohio due to market downturns and delays in U.S. subsidies.

Intel is set to build two new advanced fabs in Ohio, with an initial plan to begin chip manufacturing in 2025. Following adjustments, the completion of Intel’s Fab1 and Fab2 projects in Ohio has been postponed to 2026–2027, with operations expected to commence around 2027–2028.

As chip manufacturing processes advance to 3nm and 2nm, the investment required for fabs has surged, putting semiconductor companies under financial pressure. Against this backdrop, Intel has not only delayed the construction of its Ohio facility but has also made adjustments to its European projects.

Intel’s planned EUR 30 billion investment in two fabs, Fab 29.1 and Fab 29.2, in Magdeburg, Germany, was initially set to start in the second half of 2023.

However, due to delays in confirming EU subsidies and the need to remove topsoil at the construction site, Intel has postponed the start date to May 2025. Additionally, Intel has also paused its investment plans for facilities in France and Italy.

• Samsung Delays Taylor Fab Project

Initially, Samsung planned to build a semiconductor cluster in Taylor, Texas, including two advanced logic fabs and one advanced packaging facility, with up to USD 6.4 billion in U.S. subsidies.

The first of these fabs in Taylor began construction in 2022, initially scheduled to start production in 2024 with 4nm process capabilities. However, the plant may not begin operations until 2026, US local media MySA noted. This delay is likely due to a slowdown in the foundry market and delays in the disbursement of U.S. subsidies.

Meanwhile, according to reports from Tom’s Hardware and the Korean media outlet ETnews, with the delay in the construction of the semiconductor plant, Samsung may upgrade the facility’s advanced process technology from 4nm to 2nm.

This adjustment aims to enhance Samsung’s competitive edge in advanced process, positioning it more effectively against rivals like TSMC, Intel, and Rapidus.

Read more

• [News] Nearly 40% of Major Manufacturing Projects Reportedly Face Delays under U.S. IRA and CHIPS Act
• [News] Opening of TSMC Kumamoto Plant Nears, Yet Delay in Arizona Plant – Why is US Semiconductor Fab Construction Lagging Globally?

(Photo credit: TSMC)