Samsung Targets 4nm in 2020

Release time:2017-05-24
author:Ameya360
source:EE Times
reading:1451

  Samsung Electronics Co. Ltd. Wednesday (May 24) updated its foundry technology roadmap, including detailing its second-generation FD-SOI platform, several bulk silicon FinFET processes down to 5nm and a 4nm “post FinFET” structure process set to be in risk production in 2020.

  Samsung, which formally broke its foundry operation into a separate business unit called Samsung Foundry last week, also reiterated previously announced plans to put extreme ultraviolet (EUV) lithography into production in 2018 at the 7nm node.

  ”We are extremely aggressive with our roadmap, not only in planning, but in announcing what we are going to be doing in the next three to four years,” said Kelvin Low, senior director of foundry marketing at Samsung, in an interview in advance of Wednesday’s announcement.

  The most forward-looking of Samsung’s Wednesday announcements, which were unveiled at the company’s annual U.S. foundry technology forum in Santa Clara, Calif., is the company’s proprietary next-generation device architecture, which it calls multi-bridge channel FET (MBCFET). The structure is described as Samsung’s own proprietary flavor of gate-all-around FET (GAAFET) technology that uses a nanosheet device to overcome the physical scaling and performance limitations of the FinFET architecture.

  Samsung’s roadmap calls for putting MBCFET technology into risk production in 2020 in its 4nm low-power plus (LPP) process.

  Between now and 2020, Samsung plans to put in production an 8nm LPP process this year, a 7nm LPP process featuring EUV next year and 5nm and 6nm LPP processes in 2019.

  EUV, a long-promised an often pushed out lithography technology to succeed 193nm immersion lithography, finally appears to be on the verge of being inserted into production. Taiwan Semiconductor Manufacturing Co. (TSMC) and Globalfoundries, Samsung’s chief foundry competitors, have both declared their intentions to use EUV in production in 2019.

  Samsung has demonstrated the EUV power source production target of 250W in process development. According to Low, the “magic number” for productivity with EUV is 1,500 wafers per day. Samsung has already exceeded 1,000 wafers per day and has a high degree of confidence that 1,500 wafers per day is achievable, Low said.

  Kinam Kim, president of Samsung's semiconductor division, lays out the company's foundry process roadmap at the company's Foundry Forum in Santa Clara, Calif. Wednesday.

  Kinam Kim, president of Samsung's semiconductor division, lays out the company's foundry process roadmap at the company's Foundry Forum in Santa Clara, Calif. Wednesday.

  “We are confident that we are ready to bring [EUV] into production in 2018,” Low said. “This is no longer a concept roadmap item.”

  Low said that Samsung, unlike some competitors, sees the 10nm node as a “long-lead node” that will provide customers with the performance and desired power consumption on leading edge designs for a considerable period of time.

  “As long as we are able to deliver power, performance and scaling in production, we think it will be a very productive node,” Low said.

  Samsung also detailed an 18nm FD-SOI process technology targeted for risk production in 2019. The company plans to gradually expand its current 28nm FD-SOI process into a broader platform by incorporating RF and embedded MRAM options before offering its second-generation FD-SOI platform, which it says will offer a 40 percent power savings, a 20 percent performance improvement and area advantages over its predecessor.

("Note: The information presented in this article is gathered from the internet and is provided as a reference for educational purposes. It does not signify the endorsement or standpoint of our website. If you find any content that violates copyright or intellectual property rights, please inform us for prompt removal.")

Online messageinquiry

reading
Samsung Starts Shipping Industry-First HBM4E Samples 3 Months After HBM4 Ramp; Performance Up 20%+
  Just months after rolling out HBM4 shipments in early 2026, Samsung has begun providing samples of the industry’s first 12-layer HBM4E to major global partners, according to the company’s latest press release.  Given that HBM4 shares the same 1c DRAM process and 4nm base die architecture as HBM4E, and is already in mass production, industry observers suggest the newly shipped HBM4E samples are also well positioned to transition into mass production. Samsung adds that it plans to proceed with HBM4E mass production in line with client-specific timelines.  Meanwhile, Samsung is also expanding mass production and supply of HBM4, which became the world’s first HBM4 to enter mass production and shipment in February. In December last year, Samsung’s HBM4 received top-tier evaluation after demonstrating an industry-leading 11.7Gbps speed in System-in-Package (SiP) testing, the final certification stage, the company adds.  According to News1, the latest development makes Samsung the first to supply HBM4E. Industry observers cited by the report also noted that starting from HBM4, customer-specific design flexibility and stable large-scale supply capabilities will become even more critical. Against this backdrop, Samsung’s integrated strengths across memory, foundry, and advanced packaging are expected to stand out even more clearly, the report adds.  HBM4E Upgrade with 20% Performance Boost, 30% Higher Capacity  In terms of performance, Samsung notes that HBM4E marks a notable upgrade over the previous generation, offering a stable 14Gbps pin speed that can scale up to 16Gbps for more demanding AI workloads. Compared with HBM4, the new memory delivers over 20% higher performance and reaches bandwidth of up to 3.6TB/s per stack, significantly improving compute efficiency for large language models (LLMs) and next-generation AI systems.  Additionally, Samsung’s 12-layer HBM4E is currently offered in a 48GB capacity, which is more than 30% higher than the previous generation. The company plans to expand the lineup to include 32GB (8-layer) and 64GB (16-layer) variants to better align with diverse customer requirements as well.  From an efficiency standpoint, Samsung highlights that advanced low-power design techniques and an optimized packaging architecture have improved energy efficiency by 16% while reducing thermal resistance by more than 14% compared with the previous generation.  HBM4E Progress Among Rivals  Meanwhile, progress from SK hynix and Micron in HBM4E has come under closer market scrutiny following Samsung’s advances. According to Yonhap News Agency, SK hynix had initially planned to begin HBM4E sample shipments in the second half of this year, but recent reports indicate smoother-than-expected development progress, bringing forward its timeline.  On the other hand, Micron said its first HBM4E product will follow JEDEC standards, with mass production ramp-up targeted for 2027, according to STOCK Analysis.
2026-05-29 10:18 reading:345
Samsung Reportedly Develops Mobile HBM Packaging With Copper Pillars, Bandwidth Up 15%–30%
  Samsung Electronics is reportedly developing a next-generation HBM packaging technology aimed at bringing high-performance on-device AI to mobile devices. According to ETNews, sources say the company is working on a “Multi Stacked FOWLP” technology that combines ultra-high-aspect-ratio copper pillars with FOWLP (Fan-Out Wafer Level Packaging) by advancing its existing VCS (Vertical Cu-post Stack) technology.  The report notes that traditional mobile memory (LPDDR) packaging still relies on copper wire bonding. However, the technology is limited to roughly 128 to 256 I/O terminals, while also suffering from higher signal loss and lower thermal and power efficiency. To address these constraints, Samsung previously introduced its VCS (Vertical Cu-post Stack) technology, which arranges DRAM dies in a staircase-style stacked structure connected by copper pillars. The newly reported technology is viewed as a further evolution of this approach through the adoption of ultra-high-aspect-ratio copper pillars.  More specifically, Samsung has increased the aspect ratio of copper pillars used in VCS packaging from 3–5:1 to 15–20:1, significantly boosting bandwidth, the report notes. However, copper pillars thinner than 10 micrometers become more vulnerable to bending and breakage. To address this issue, Samsung reportedly combined the design with an FOWLP process, which molds the chip and extends wiring outward to help support the copper pillars.  The approach could enable more I/O terminals within the same area, potentially boosting bandwidth by 15% to 30% while increasing memory stack capacity by more than 1.5 times, the report adds.  Commercialization Timeline Remains Unclear  Meanwhile, the technology is still under development, making the timeline for mass production and commercialization unclear. However, the report says industry observers believe it could be adopted as early as a later version of the Exynos 2800 or the Exynos 2900.  Notably, some industry observers said mobile HBM development and commercialization could progress more slowly than initially expected, as demand for HBM in servers, data centers, and AI accelerators is expected to remain strong for the foreseeable future. The report adds that booming demand for server and data center HBM may make it difficult for Samsung to fully concentrate its resources on mobile HBM development.  SK hynix Advances Mobile AI Packaging  SK hynix is also accelerating development of semiconductor packaging technologies for smartphones and Extended Reality (XR) devices. According to a Hankyung report published earlier this year, sources say the company is developing “High Bandwidth Storage (HBS),” a packaging solution that vertically stacks low-power (LPDDR) DRAM and NAND flash memory beside the Application Processor (AP), which handles core computing tasks in IT devices.  Hankyung notes that HBS adopts a packaging technology called “Vertical Fan-Out” (VFO). Unlike conventional wire bonding, which connects stacked memory and substrates with thin copper wires, VFO uses pillar-shaped interconnects to enable denser wiring and faster data transfer speeds, helping APs process rapidly growing AI-driven workloads.
2026-05-15 10:49 reading:695
[News] Samsung Fails to Secure Qualcomm’s 3nm Orders for the Coming Year, Dual Foundry Strategy Postponed
  According to TechNews’ report, TSMC and Samsung fiercely compete in the semiconductor foundry sector. Earlier market reports suggested that Qualcomm’s Snapdragon 8 Gen 4 mobile processor might adopt a dual-foundry strategy with TSMC and Samsung manufacturing simultaneously.  However, according to the latest industry information, due to Samsung’s conservative expansion plan for next year’s 3nm production capacity and unstable yields, Qualcomm has officially canceled the plan to utilize Samsung for next year’s processors. The dual-sourcing model is now postponed until 2025.  Samsung began mass production of its first-generation 3nm GAA (SF3E) process at the end of June last year, marking Samsung’s initial use of the innovative GAA architecture for transistor technology. The second-generation 3nm process, 3GAP (SF3), will utilize the second-generation MBCFET architecture, optimizing it based on the foundation of the first-generation 3nm SF3E. It is expected to enter mass production in 2024.  The dual-foundry strategy for Qualcomm was initially leaked by the reputable source Revegnus via the X platform (formerly Twitter). It was mentioned that the Snapdragon 8 Gen 4 processor would adopt TSMC’s 3nm (N3E) process, while Samsung’s 3GAP process would be used for the Snapdragon 8 Gen 4 supplying Samsung’s Galaxy series smartphones. Other sources suggested that due to limited capacity at TSMC’s 3nm production, Qualcomm had to seek Samsung as an alternative chip foundry.  As a result, Qualcomm originally anticipated dual-foundry production with both TSMC and Samsung in 2024, with hopes of being the first customer for the 3GAP process. However, considering Samsung’s conservative 3nm production capacity plan for next year and the instability in yields, Qualcomm decided to scrap the plan and exclusively rely on TSMC, pushing the dual-foundry strategy to 2025.  Currently, TSMC’s 3nm process technology capacity is on the rise, with expectations that by the end of 2024, monthly production capacity will reach 100,000 wafers, and the revenue contribution will increase from the current 5% to 10%.
2023-12-01 14:48 reading:4048
Samsung cuts NAND flash memory production
  • Week of hot material
  • Material in short supply seckilling
model brand Quote
BD71847AMWV-E2 ROHM Semiconductor
TL431ACLPR Texas Instruments
MC33074DR2G onsemi
CDZVT2R20B ROHM Semiconductor
RB751G-40T2R ROHM Semiconductor
model brand To snap up
STM32F429IGT6 STMicroelectronics
TPS63050YFFR Texas Instruments
BP3621 ROHM Semiconductor
ESR03EZPJ151 ROHM Semiconductor
BU33JA2MNVX-CTL ROHM Semiconductor
IPZ40N04S5L4R8ATMA1 Infineon Technologies
Hot labels
ROHM
IC
Averlogic
Intel
Samsung
IoT
AI
Sensor
Chip
About us

Qr code of ameya360 official account

Identify TWO-DIMENSIONAL code, you can pay attention to

AMEYA360 weixin Service Account AMEYA360 weixin Service Account
AMEYA360 mall (www.ameya360.com) was launched in 2011. Now there are more than 3,500 high-quality suppliers, including 6 million product model data, and more than 1 million component stocks for purchase. Products cover MCU+ memory + power chip +IGBT+MOS tube + op amp + RF Bluetooth + sensor + resistor capacitance inductor + connector and other fields. main business of platform covers spot sales of electronic components, BOM distribution and product supporting materials, providing one-stop purchasing and sales services for our customers.

Please enter the verification code in the image below:

verification code