GlobalFoundries
View on WikipediaGlobalFoundries Inc. is a multinational semiconductor contract manufacturing and design company located in the Cayman Islands and headquartered in Malta, New York.[3] Created by the divestiture of the manufacturing arm of AMD in March 2009, the company was privately owned by Mubadala Investment Company, a sovereign wealth fund of the United Arab Emirates, until an initial public offering (IPO) in October 2021. Mubadala remains the majority owner of the company with an 82% stake.[4]
Key Information
The company manufactures integrated circuits on wafers designed for markets such as smart mobile devices, automotive, aerospace and defense, consumer internet of things (IoT) and for data centers and communications infrastructure.
As of 2023, GlobalFoundries is the third-largest semiconductor foundry by revenue.[5][6][7] It is the only one with operations in Singapore, the European Union, and the United States: one 200 mm and one 300 mm wafer fabrication plant in Singapore; one 300 mm plant in Dresden, Germany; one 200 mm plant in Essex Junction, Vermont (where it is the largest private employer)[8] and one 300 mm plant in Malta, New York.[9]
GlobalFoundries is a "Trusted Foundry" for the U.S. federal government and has similar designations in Singapore and Germany, including certified international Common Criteria standard (ISO 15408, CC Version 3.1).[10][11]
On October 28, 2021, the company sold shares in an IPO on the Nasdaq stock exchange at US$47 each, at the higher end of its targeted price range, and raised about US$2.6 billion.[12]
History
[edit]On 7 October 2008 Advanced Micro Devices (AMD) announced it planned to go fabless and spin off their semiconductor manufacturing business into a new company temporarily called The Foundry Company. Mubadala announced their subsidiary Advanced Technology Investment Company (ATIC) agreed to pay $700 million to increase their stake in AMD's semiconductor manufacturing business to 55.6 percent (up from 8.1 percent). Mubadala would invest $314 million for 58 million new shares, increasing their stake in AMD to 19.3 percent, and $1.2 billion of AMD's debt would be transferred to The Foundry Company.[13] On 8 December 2008 amendments were announced: AMD would own approximately 34.2 percent and ATIC would own approximately 65.8 percent of The Foundry Company.[14]
On 4 March 2009 GlobalFoundries was officially announced.[15] On 7 September 2009 ATIC announced it would acquire Chartered Semiconductor, based in Singapore, for S$2.5 billion (US$1.8 billion) and integrate Chartered Semiconductor into GlobalFoundries.[16] On 13 January 2010 GlobalFoundries announced it had finalized the integration of Chartered Semiconductor.[17]
On 4 March 2012 AMD announced they divested their final 14 percent stake in the company, which concluded AMD's multi-year plan to divest its manufacturing arm.[18]
On 20 October 2014 IBM announced the sale of its microelectronics business to GlobalFoundries.[19]
As of 2015 the firm owned ten fabrication plants. Fab 1 is in Dresden, Germany. Fabs 2 through 7 are in Singapore. Fabs 8 through 10 are in the northeast United States. These sites are supported by a global network of R&D, design enablement, and customer support in Singapore, China, Taiwan, Japan, India, the United States, Germany, and the United Kingdom.[20] In February 2017, the company announced a new 300 Fab [Fab 11] in China for growing semiconductor market in China.[21]
In 2016 GlobalFoundries licensed the 14 nm 14LPP FinFET process from Samsung Electronics. In 2018 GlobalFoundries developed the 12 nm 12LP node based on Samsung's 14 nm 14LPP process.[22]
On 27 August 2018 GlobalFoundries announced it had cancelled their 7LP process due to a strategy shift to focus on specialized processes instead of leading edge performance.[23]
On 29 January 2019 AMD announced an amended wafer supply agreement with GlobalFoundries. AMD now has full flexibility for wafer purchases from any foundry at 7 nm or beyond. AMD and GlobalFoundries agreed to commitments and pricing at 12 nm for 2019 through 2021.[24]
On 20 May 2019 Marvell Technology Group announced it would acquire Avera Semi from GlobalFoundries for $650 million and potentially an additional $90 million. Avera Semi was GlobalFoundries' ASIC Solutions division, which had been a part of IBM's semiconductor manufacturing business.[25] On 1 February 2019 GlobalFoundries announced the $236 million sale of its Fab 3E in Tampines, Singapore, to Vanguard International Semiconductor (VIS) as part of their plan to exit the MEMS business by 31 December 2019.[26] On April 22, 2019, GlobalFoundries announced the $430 million sale of their Fab 10 in East Fishkill, New York, to ON Semiconductor. GlobalFoundries has received $100 million and was going to receive $330 million at the end of 2022 when ON Semiconductor was going to gain full operational control. The 300mm fab is capable of 65 nm to 40 nm and was a part of IBM.[27] On August 15, 2019, GlobalFoundries announced a multi-year supply agreement with Toppan Photomasks. The agreement included Toppan acquiring GlobalFoundries' Burlington photomask facility.[28]
In February 2020 GlobalFoundries announced that its embedded magnetoresistive non-volatile memory (eMRAM) entered production which is the industry's first production ready eMRAM.[29]
In May 2020 GlobalFoundries stated it was fully abandoning its plans of opening Fab 11 in Chengdu, China due to reported rivalry between the latter and the US.[30] This was three years after the manufacturer announced it would invest $10 billion to open the new fab. But the fab was never brought online.[31]
On 26 April 2021 GlobalFoundries announced that effective immediately, it was transferring its global headquarters from Santa Clara, California to its Malta, New York campus (home to Fab 8).[32]
In August 2022 Google expanded its open-source chip design and manufacturing efforts by partnering with GlobalFoundries to develop an open-source process design kit (PDK) based on the foundry's 180 nm node.[33][34] In October 31, Google announced they would sponsor no-cost OpenMPW (multi-project wafer) shuttle runs for it in the coming months.[35]
GlobalFoundries was a gold sponsor for the Special Olympics Vermont Penguin Plunge which raised over $500,000 in 2022 to support Vermont athletes.[36]
In February 2023 GlobalFoundries signed a deal to become the exclusive provider of US-produced semiconductor chips for General Motors amid an ongoing shift to electric vehicles in what was referred to as an "industry-first" deal. It would help General Motors reduce the amount of different chips needed in its vehicles. The companies planned for production in Malta, New York. The deal would not lead to new jobs right away but would rather ensure stability in the supply of chips. At the time of the announcement, GlobalFoundries CEO Thomas Caufield said the full effect of this increase in production would be seen in two to three years.[37][38][39][40][41]
On September 21, 2023, the U.S. Department of Defense (DoD) awarded GlobalFoundries a 10-year contract for the supply of securely manufactured semiconductors for critical aerospace and defense applications. With an initial award of $17.3 million and an overall 10-year spending ceiling of $3.1 billion, this agreement ensures the DoD and its contractors have access to GF's U.S.-made semiconductors. This contract also provides access to GF's design ecosystem, IP libraries, and advanced technologies.[42]
In November 2024, GF paid a US$500,000 fine to the United States Department of Commerce for unlicensed shipments of US$17 million in product to a sanctioned entity related to Semiconductor Manufacturing International Corporation.[43][44]
Expansion and Investment under the CHIPS and Science Act
[edit]In February 2024, the U.S. Department of Commerce announced a $1.5 billion planned investment in GF as part of the CHIPS and Science Act, making GF the recipient of the first major award from the funding initiative. This investment is set to bolster GF's efforts to expand and introduce new manufacturing capacities, thereby enhancing the production of semiconductors for automotive, IoT, aerospace, defense, and other vital sectors.[45]
GlobalFoundries v. TSMC et al (2019)
[edit]On August 26, 2019, GlobalFoundries filed patent infringement lawsuits against TSMC and some of TSMC's customers[46] in the US and Germany. GlobalFoundries claims TSMC's 7 nm, 10 nm, 12 nm, 16 nm, and 28 nm nodes have infringed on 16 of its patents. Lawsuits were filed in the U.S. International Trade Commission, the U.S. Federal District Courts in the Districts of Delaware, the Western District of Texas, the Regional Courts of Düsseldorf, and Mannheim in Germany.[47] GlobalFoundries has named 20 defendants: Apple, Broadcom, MediaTek, Nvidia, Qualcomm, Xilinx, Arista, ASUS, BLU, Cisco, Google, Hisense, Lenovo, Motorola, TCL, OnePlus, Avnet/EBV, Digi-Key and Mouser.[48] On August 27, TSMC announced it was reviewing the complaints filed, but are confident that the allegations are baseless and will vigorously defend its proprietary technology.[49]
On 1 October 2019 TSMC filed patent infringement lawsuits against GlobalFoundries in the US, Germany and Singapore. TSMC claimed GlobalFoundries' 12 nm, 14 nm, 22 nm, 28 nm and 40 nm nodes have infringed on 25 of its patents.[50]
On 29 October 2019 TSMC and GlobalFoundries announced a resolution to the dispute. The companies agreed to a new life-of-patents cross-license for all of their existing semiconductor patents as well as new patents to be filed by the companies in the next ten years.[51][52][53][54][55]
List of GlobalFoundries CEOs
[edit]- Doug Grose (2009–2011)[56]
- Ajit Manocha (2011–2014)
- Sanjay Jha (2014–2018)[57]
- Thomas Caulfield (2018–2025)[58]
- Tim Breen (2025-present)[59]
Fabrication foundries in operation
[edit]| Name | Wafer | Location | Geo Location | Process |
|---|---|---|---|---|
| Fab 1 | 300 mm | Dresden, Germany | 51°07′30″N 13°42′58″E / 51.125°N 13.716°E | 55, 45, 40, 32, 28, 22 nm, 12 nm |
| Fab 2 | 200 mm | Woodlands, Singapore | 1°26′10″N 103°45′58″E / 1.436°N 103.766°E | 600–350 nm |
| Fab 3/5 | 200 mm | Woodlands, Singapore | 1°26′10″N 103°45′58″E / 1.436°N 103.766°E | 350–180 nm |
| Fab 3E | 200 mm | Tampines, Singapore (2019: sold to VIS) | 1°22′16″N 103°55′44″E / 1.371°N 103.929°E | 180 nm |
| Fab 6 | 200 mm | Woodlands, Singapore (converted to 300 mm and merged into Fab 7) | 1°26′10″N 103°45′58″E / 1.436°N 103.766°E | 180–110 nm |
| Fab 7 | 300 mm | Woodlands, Singapore | 1°26′10″N 103°45′58″E / 1.436°N 103.766°E | 130–40 nm |
| Fab 8 | 300 mm | Luther Forest Technology Campus, Saratoga County, New York, United States | 42°58′12″N 73°45′22″W / 42.970°N 73.756°W | 28, 20, 14 nm |
| Fab 9 | 200 mm | Essex Junction, Vermont, United States | 44°29′N 73°06′W / 44.48°N 73.10°W[60] | 350–90 nm |
300 mm fabrication facilities
[edit]
Fab 1
[edit]Fab 1, located in Dresden, Germany, is a 364,512 m2 plant which was transferred to GlobalFoundries on its inception: Fab 36 and Fab 38 were renamed Module 1 and Module 2, respectively. Each module can produce 25,000 300 mm diameter wafers per month.[9][61]
Module 1 is a 300 mm wafer production facility. It is capable of manufacturing wafers at 40 nm, 28 nm BULK and 22 nm FDSOI. Module 2 was originally named "(AMD) Fab 30" and was a 200 mm fab producing 30,000 Wafer Outs Per Month, but has now been converted into a 300 mm wafer fab.[62] Together with other clean room extensions like the Annex they have a maximum full capacity of 80,000 of 300 mm wafers/month (180,000 200 mm wafers/month equivalent), using technologies of 45 nm and below.
In September 2016, GlobalFoundries announced Fab 1 would be refit to produce 12 nm fully depleted silicon on insulator (FDSOI) products.[63] The company expected customer's products would begin to tape out in the first half of 2019.
In 2020 the Dresden plant had a capacity of 300,000 wafers per year.[64]
In 2023, it was announced that GlobalFoundries plans to invest $8 billion in its Dresden facility, doubling the capacity of its largest production site.[65]
Fab 7
[edit]Fab 7, located in Woodlands, Singapore, is an operational 300 mm Fab, originally owned by Chartered Semiconductor. It produces wafers at 130 nm to 40 nm on bulk CMOS and SOI processes. It has a maximum full capacity of 50,000 300 mm wafers/month (112,500 200 mm wafers/month equivalent).[66]
4/15/2021 Fab 7's target capacity will be expanded to 70–80kpcs/M.
Fab 8
[edit]Fab 8, located in Luther Forest Technology Campus, Saratoga County, New York, United States is a 300 mm fab. This fabrication plant was constructed by GF as a green field fab for advanced technologies. It is capable of manufacturing 14 nm node technology. The plant's construction began in July 2009 and the company started mass production in 2012.[9][67] It has a maximum manufacturing capacity of 60,000 of 300 mm wafers/month, or the equivalent of over 135,000 of 200 mm wafers/month. In September 2016, GlobalFoundries announced it would make a multibillion-dollar investment to refit Fab 8 to produce 7 nm FinFET parts starting in the second half of 2018.[68] The process was planned to initially use deep ultraviolet lithography, and eventually transition to extreme ultraviolet lithography.[69]
However, in August 2018, GlobalFoundries made the decision to suspend 7 nm development and planned production, citing the unaffordable costs to outfit Fab 8 for 7 nm production. GlobalFoundries held open the possibility of resuming 7 nm operations in the future if additional resources could be secured. From this decision GlobalFoundries executed a shift in company strategy to focus more effort on FD-SOI manufacturing and R&D. Fab 8 serves a crucial function to supply AMD (Advanced Micro Devices) with CPU wafers for its Zen-based Ryzen, Threadripper and Epyc lines of CPUs. The original Zen and the Zen+ CPUs are of a monolithic design which were produced at GlobalFoundries facilities in Malta, NY. Going forward, AMD pursued a chiplet design with the Zen 2 series. Zen 2 desktop and server processors consist of a 14/12 nm manufactured I/O die surrounded by a number of 7 nm core dies. When GlobalFoundries announced the suspension of 7 nm operations, AMD executed a shift in plans transferring production of the 7 nm core dies to TSMC (Taiwan Semiconductor Manufacturing Company). There was speculation in some quarters as to where manufacture of the core dies would take place. In AMD's 2018 fourth quarter financial conference call which took place on January 29, 2019, AMD CEO Lisa Su announced the WSA (Wafer Supply Agreement) governing production and acquisition by AMD from GlobalFoundries had been amended for the seventh time. The amendment stated AMD would continue to procure 12 nm node and above from GlobalFoundries while giving AMD latitude to purchase 7 nm node manufactured wafers from any source free from paying any royalties. The agreement will run through 2024 and ensures that GlobalFoundries will have work for its Malta plant for that time period. Pricing commitments for wafers run through 2021 when it is likely the WSA will be amended again.[70][needs update]
Accreditation as a Trusted Supplier
[edit]In May 2023, the U.S. Department of Defense (DoD), through the Defense Microelectronics Activity (DMEA), Trusted Access Program Office (TAPO), accredited GlobalFoundries' advanced manufacturing facility in Malta, New York, as a Category 1A Trusted Supplier. This accreditation enables GlobalFoundries to manufacture secure semiconductors for a wide range of critical aerospace and defense applications.[71]
Fab 10
[edit]Fab 10,[72] located in East Fishkill, New York, United States, was previously known as IBM Building 323. It became part of GlobalFoundries operations with the acquisition of IBM Microelectronics. It currently manufactures technology down to the 14 nm node. In April 2019, it was announced that this fab has been sold to ON Semiconductor for $430m. The facility will be transferred over within three years.[73]
On February 10, 2023, Onsemi successfully completed its acquisition of GF's 300 mm East Fishkill, New York site and fabrication facility.[74]
200 mm fabrication facilities
[edit]All 200 mm fabs except Fab 9 are located in Singapore, and originally owned by Chartered Semiconductor.
Fab 2
[edit]Fab 2, located in Woodlands, Singapore. This fab is capable of manufacturing wafers at 600 to 350 nm for use in selected automotive IC products, High Voltage power management IC and Mixed-signal products.
Fab 3/5
[edit]Fab 3/5, located in Woodlands, Singapore. This fab is capable of manufacturing wafers at 350 to 180 nm for use in high voltage IC's for small panel display drivers and mobile power management modules.
Fab 3E
[edit]Fab 3E, located in Tampines, Singapore. This fab produces 180 nm wafers for use in selected automotive IC products, High Voltage power management IC and Mixed-Signal products with embedded non-volatile memory technology.
In January 2019 GlobalFoundries announced that it had agreed to sell its Fab 3E in Singapore to Vanguard International Semiconductor Corporation with transfer of ownership set to be completed on December 31, 2019.
Fab 6
[edit]Fab 6 located in Woodlands, Singapore, is a copper fabrication facility that is capable of manufacturing integrated CMOS and RFCMOS products for applications such as Wi-Fi & Bluetooth devices at 180 to 110 nm processes. The facility was later converted to 300mm and merged with Fab 7, a facility for manufacturing products based on 300mm wafer technology[75].
Fab 9
[edit]Fab 9,[72] located in the city of Essex Junction, Vermont, United States, near Vermont's largest city of Burlington, became part of GlobalFoundries operations with the acquisition of IBM Microelectronics. The fab manufactures technologies down to the 90 nm node and is the largest private employer within the state of Vermont. The site also hosted a captive mask shop, with development efforts down to the 7 nanometer node, until it was sold to Toppan in 2019.[76]
Mergers and acquisitions
[edit]Chartered Semiconductor
[edit]The majority investor of GlobalFoundries, Abu Dhabi's Advanced Technology Investment Co., announced on September 6, 2009, that it has agreed to acquire Singapore-based Chartered Semiconductor Manufacturing Co. Ltd., for a total of $3.9 billion, with Chartered's operations being folded into GlobalFoundries.[77]
Chartered Semiconductor is a member of the Common Platform, IBM's semiconductor technology alliance. GlobalFoundries is a JDA partner of Common Platform Technology Alliance.
IBM Microelectronics
[edit]In October 2014, GlobalFoundries received US$1.5 billion from IBM to accept taking over IBM Microelectronics, including a 200 mm fab (now Fab 9) in Essex Junction, Vermont, and a 300 mm fab (now Fab 10) in East Fishkill, New York. As part of the agreement, GlobalFoundries was to have been the sole provider of IBM's server processor chips for the next 10 years. The deal closed on July 1, 2015.[78] IBM-India employees who moved over to GlobalFoundries as part of the acquisition are now part of its Bangalore office.[79]
In April 2019 ON Semiconductor and GlobalFoundries announced a $430 million agreement to transfer ownership of GlobalFoundries 300mm Fab 10 in East Fishkill, New York, to ON Semiconductor.[80]
In 2021 and 2023, GlobalFoundries sued IBM over intellectual property disputes involving IBM's agreements with Intel and Rapidus.[81]
MIPS Technologies
[edit]GlobalFoundries acquired MIPS Technologies in 2025 for an undisclosed amount.[82]
Process technologies
[edit]GlobalFoundries' 22 nm FD-SOI process is second-sourced from STMicroelectronics.[83] STMicroelectronics signed a sourcing and licensing agreement with Samsung for the same technology later.[84]
GlobalFoundries' 14 nm 14LPP FinFET process is second-sourced from Samsung Electronics. GlobalFoundries' 12 nm FinFET nodes are based on Samsung's 14 nm 14LPP process.[22]
| Node name | ITRS node (nm) |
Date introduced |
Wafer size (mm) |
Lithography (wavelength) |
Transistor type |
Gate pitch (nm) |
Metal 1 pitch (nm) |
SRAM bit density (μm2) |
|---|---|---|---|---|---|---|---|---|
| 4S | 600 | 1993 | 200 Bulk | – | Planar | – | – | – |
| CS-24 | 500 | 1993 | 200 Bulk | – | Planar | – | – | – |
| 5L | 500 | 1993 | 200 Bulk | – | Planar | – | – | – |
| 5S | 500 | 1994 | 200 Bulk | – | Planar | – | – | – |
| SiGe 5HP | 500 | 2001 | 200 | – | Planar | – | – | – |
| SiGe 5AM | 500 | 2001 | 200 | – | Planar | – | – | – |
| SiGe 5DM | 500 | 2002 | 200 | – | Planar | – | – | – |
| SiGe 5PA | 500 | 2002 | 200 | – | Planar | – | – | – |
| 5X | 450 | 1994 | 200 Bulk | – | Planar | – | – | – |
| CS-34 | 350 | 1995 | 200 Bulk | – | Planar | – | – | – |
| SiGe 5HPE | 350 | 2001 | 200 | – | Planar | – | – | – |
| SiGe 5PAe[85] | 350 | 2007 | 200 | – | Planar | – | – | – |
| SiGe 5PAx[85] | 350 | 2016 | 200 | – | Planar | – | – | – |
| SiGe 1KW5PAe[85] | 350 | ? | 200 | – | Planar | – | – | – |
| SiGe 1K5PAx[85] | 350 | 2016 | 200 | – | Planar | – | – | – |
| 6S | 290 | 1996 | 200 Bulk | – | Planar | – | – | – |
| CS-44 | 250 | 1998 | 200 Bulk | Dry 248nm DUV | Planar | – | – | – |
| 6S2 | 250 | 1997 | 200 Bulk | Dry 248nm DUV | Planar | – | – | – |
| 6SF | 250 | ? | 200 Bulk | Dry 248nm DUV | Planar | – | – | – |
| 6X | 250 | 1997 | 200 Bulk | – | Planar | – | – | – |
| 6RF | 250 | 2001 | 200 Bulk | Dry 248nm DUV | Planar | – | – | – |
| 250SOI | 250 | 1999 | 200 SOI | Dry 248nm DUV | Planar | – | – | – |
| SiGe 6HP[86] | 250 | 2000 | 200 | Dry 248nm DUV | Planar | – | – | – |
| SiGe 6DM | 250 | ? | 200 | Dry 248nm DUV | Planar | – | – | – |
| SiGe 6WL | 250 | 2007 | 200 | Dry 248nm DUV | Planar | – | – | – |
| 7S | 220 | 1998 | 200 Bulk | Dry 248nm DUV | Planar | – | – | – |
| 220SOI | 220 | 1999 | 200 SOI | Dry 248nm DUV | Planar | – | – | – |
| 7HV | 180 | 2010 | 200 | Dry 248nm DUV | Planar | – | – | – |
| 180 BCDLite[87] | 180 | 2011 | 200 | Dry 248nm DUV | Planar | – | – | – |
| 180 UHV[87] | 180 | 2017 | 200 | Dry 248nm DUV | Planar | – | – | – |
| 7SF | 180 | 1999 | 200 Bulk | Dry 248nm DUV | Planar | – | – | – |
| 7TG | 180 | ? | 200 Bulk | Dry 248nm DUV | Planar | – | – | – |
| 7RF | 180 | 2003 | 200 Bulk | Dry 248nm DUV | Planar | – | – | – |
| 8S | 180 | 2000 | 200 SOI | Dry 248nm DUV | Planar | – | – | – |
| 7RF SOI[88] | 180 | 2007 | 200 RF-SOI, 300 RF-SOI | Dry 248nm DUV | Planar | – | – | – |
| 7SW RF SOI[88] | 180 | 2014 | 200 RF-SOI | Dry 248nm DUV | Planar | – | – | – |
| SiGe 7WL[89] | 180 | 2003 | 200 | Dry 248nm DUV | Planar | – | – | – |
| SiGe 7HP | 180 | 2003 | 200 | Dry 248nm DUV | Planar | – | – | – |
| 130 BCDLite[87] | 130 | 2014 | 300 | Dry 248nm DUV | Planar | – | – | – |
| 130 BCD[87] | 130 | ? | 300 | Dry 248nm DUV | Planar | – | – | – |
| 8SF | 130 | 2000 | 200 Bulk | Dry 248nm DUV | Planar | – | – | – |
| 8SFG | 130 | 2003 | 200 Bulk, 300 Bulk | Dry 248nm DUV | Planar | – | – | – |
| 8RF | 130 | 2003 | 200 Bulk, 300 Bulk | Dry 248nm DUV | Planar | – | – | – |
| 130G[90] | 130 | ? | 300 Bulk | Dry 248nm DUV | Planar | – | – | – |
| 130LP[90] | 130 | ? | 300 Bulk | Dry 248nm DUV | Planar | – | – | – |
| 130LP/EE[90] | 130 | ? | 300 Bulk | Dry 248nm DUV | Planar | – | – | – |
| 110TS[90] | 130 | ? | 300 Bulk | Dry 248nm DUV | Planar | – | – | – |
| 9S | 130 | 2000 | 200 SOI, 300 SOI | Dry 248nm DUV | Planar | – | – | – |
| 130RFSOI[88] | 130 | 2015 | 300 RF-SOI | Dry 248nm DUV | Planar | – | – | – |
| 8SW RF SOI[88] | 130 | 2017 | 300 RF-SOI | Dry 248nm DUV | Planar | – | – | – |
| SiGe 8WL[89] | 130 | 2005 | 200 | Dry 248nm DUV | Planar | – | – | – |
| SiGe 8HP[89] | 130 | 2005 | 200, 300 | Dry 248nm DUV | Planar | – | – | – |
| SiGe 8XP[89] | 130 | 2016 | 200 | Dry 248nm DUV | Planar | – | – | – |
| 9SF | 90 | 2004 | 300 Bulk | Dry 193nm DUV | Planar | – | – | – |
| 9LP | 90 | 2005 | 300 Bulk | Dry 193nm DUV | Planar | – | – | – |
| 9RF | 90 | ? | 300 Bulk | Dry 193nm DUV | Planar | – | – | – |
| 10S | 90 | 2002 | 300 SOI | Dry 193nm DUV | Planar | – | – | – |
| 90RFSOI | 90 | 2004 | 300 RF-SOI | Dry 193nm DUV | Planar | – | – | – |
| 9SW[91] | 90 | 2023 | 300 RF-SOI | Dry 193nm DUV | Planar | – | – | – |
| 90WG[92] | 90 | 2018 | 300 Bulk | Dry 193nm DUV | Planar | – | – | – |
| 90WG+[92] | 90 | ? | 300 Bulk | Dry 193nm DUV | Planar | – | – | – |
| SiGe 9HP[89] | 90 | 2014, 2018 | 200, 300 | Dry 193nm DUV | Planar | – | – | – |
| 10SF | 65 | ? | 300 Bulk | Dry 193nm DUV | Planar | – | – | – |
| 10LP | 65 | ? | 300 Bulk | Dry 193nm DUV | Planar | – | – | – |
| 65LPe[93] | 65 | 2009 | 300 Bulk | Dry 193nm DUV | Planar | – | – | – |
| 65LPe-RF[93] | 65 | 2009 | 300 Bulk | Dry 193nm DUV | Planar | – | – | – |
| 10RFe | 65 | ? | 300 Bulk | Dry 193nm DUV | Planar | – | – | – |
| 11S | 65 | 2006 | 300 SOI | Dry 193nm DUV | Planar | – | – | – |
| 65RFSOI | 65 | 2008 | 300 RF-SOI | Dry 193nm DUV | Planar | – | – | – |
| 55 BCDLite[93] | 55 | 2018 | 300 | Dry 193nm DUV | Planar | – | – | – |
| 55HV[94] | 55 | ? | 300 | Dry 193nm DUV | Planar | – | – | – |
| 55 ULP[93] | 55 | ? | 300 Bulk | Dry 193nm DUV | Planar | – | – | – |
| 55LPe | 55 | ? | 300 Bulk | Dry 193nm DUV | Planar | – | – | – |
| 55LPe-RF | 55 | ? | 300 Bulk | Dry 193nm DUV | Planar | – | – | – |
| 55LPx[93] | 55 | ? | 300 Bulk | Dry 193nm DUV | Planar | – | – | – |
| 55RF[93] | 55 | ? | 300 Bulk | Dry 193nm DUV | Planar | – | – | – |
| 45LP | 45 | ? | 300 Bulk | Wet 193nm DUV | Planar | – | – | – |
| 12S | 45 | 2007 | 300 SOI | Wet 193nm DUV | Planar | – | – | – |
| 45RFSOI[95] | 45 | 2008 | 300 RF-SOI | Wet 193nm DUV | Planar | – | – | – |
| 45RFE[95] | 45 | 2017 | 300 RF-SOI | Wet 193nm DUV | Planar | – | – | – |
| 45CLO[96] | 45 | 2021 | 300 | Wet 193nm DUV | Planar | – | – | – |
| 40HV[94] | 40 | ? | 300 | Wet 193nm DUV | Planar | – | – | – |
| 40LP[97] | 40 | ? | 300 Bulk | Wet 193nm DUV | Planar | – | – | – |
| 40LP-RF[97] | 40 | ? | 300 Bulk | Wet 193nm DUV | Planar | – | – | – |
| 13S | 32 | 2009 | 300 SOI | Wet 193nm DUV | Planar | – | – | – |
| 32LP | 32 | ? | 300 Bulk | Wet 193nm DUV | Planar | – | – | – |
| 32HP | 32 | ? | 300 SOI | Wet 193nm DUV, double patterning | Planar | – | – | – |
| 32SHP | 32 | 2010 | 300 SOI | Wet 193nm DUV, double patterning | Planar | – | – | – |
| 28HV[94] | 28 | 2019 | 300 | Wet 193nm DUV | Planar | – | – | – |
| 28LP | 28 | 2009 | 300 Bulk | Wet 193nm DUV | Planar | – | – | – |
| 28SLP[98] | 28 | 2010 | 300 Bulk | Wet 193nm DUV | Planar | – | – | – |
| 28SLPe | 28 | 2011 | 300 Bulk | Wet 193nm DUV | Planar | – | – | – |
| 28HP | 28 | 2010 | 300 Bulk | Wet 193nm DUV, double patterning | Planar | – | – | – |
| 28HPP[98] | 28 | 2011 | 300 Bulk | Wet 193nm DUV, double patterning | Planar | – | – | – |
| 28SHP | 28 | 2013 | 300 Bulk | Wet 193nm DUV, double patterning | Planar | – | – | – |
| 28SLP RF | 28 | 2015 | 300 Bulk | Wet 193nm DUV | Planar | – | – | – |
| 28FDSOI[83][84] | 28 | 2012 | 300 FD-SOI | Wet 193nm DUV | Planar | – | – | – |
| 22FDX-ULP[99] | 22 | 2015 | 300 FD-SOI | Wet 193nm DUV | Planar | – | – | – |
| 22FDX-UHP[99] | 22 | 2015 | 300 FD-SOI | Wet 193nm DUV | Planar | – | – | – |
| 22FDX-ULL[99] | 22 | 2015 | 300 FD-SOI | Wet 193nm DUV | Planar | – | – | – |
| 22FDX-RFA[99] | 22 | 2017 | 300 FD-SOI | Wet 193nm DUV | Planar | – | – | – |
| 22FDX RF+[100] | 22 | 2021 | 300 FD-SOI | Wet 193nm DUV | Planar | – | – | – |
| 14LPP[101] | 14 | 2015 | 300 Bulk | Wet 193nm DUV, double patterning | 3D (FinFET) | 78 | 64 | 0.09 |
| 14HP[102] | 14 | 2017 | 300 SOI | Wet 193nm DUV, double patterning | 3D (FinFET) | – | – | – |
| 12LP[103] | 12 | 2018 | 300 Bulk | Wet 193nm DUV, double patterning | 3D (FinFET) | – | – | – |
| 12LP+[104] | 12 | 2019 | 300 Bulk | Wet 193nm DUV, double patterning | 3D (FinFET) | – | – | – |
Number of processes currently listed here: 106
See also
[edit]References
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- ^ a b GlobalFoundries 40nm "[12] Archived 2019-11-02 at the Wayback Machine". Retrieved December 27, 2019.
- ^ a b GlobalFoundries 28nm HKMG Technologies "[13] Archived 2019-03-30 at the Wayback Machine". Retrieved December 27, 2019.
- ^ a b c d GlobalFoundries 22FDX "[14] Archived 2019-12-26 at the Wayback Machine". Retrieved December 27, 2019.
- ^ GlobalFoundries Announces New 22FDX+ Platform "[15] Archived 2020-10-07 at the Wayback Machine". Retrieved September 25, 2020.
- ^ GlobalFoundries 14LPP "[16] Archived 2020-10-29 at the Wayback Machine". Retrieved October 26, 2020.
- ^ GlobalFoundries Delivers Custom 14nm FinFET Technology for IBM Systems "[17] Archived 2020-01-14 at the Wayback Machine". Retrieved January 14, 2020.
- ^ GlobalFoundries 12LP 12nm FinFET Technology "[18] Archived 2019-11-29 at the Wayback Machine". Retrieved December 27, 2019.
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External links
[edit]- Official website

Media related to Globalfoundries at Wikimedia Commons- Business data for GlobalFoundries Inc.:
GlobalFoundries
View on GrokipediaFounded on March 2, 2009, as a spin-off of Advanced Micro Devices' (AMD) wafer fabrication assets, the company was initially a joint venture backed by AMD and Abu Dhabi's Advanced Technology Investment Company (ATIC), which later consolidated ownership under Mubadala Investment Company.[3][4]
Operating fabrication plants (fabs) in Malta and Essex Junction (United States), Dresden (Germany), and Woodlands (Singapore), GlobalFoundries serves as the world's third-largest contract chip manufacturer by production capacity, emphasizing reliable, differentiated manufacturing for mature and specialty nodes amid supply chain vulnerabilities exposed by the COVID-19 pandemic and geopolitical tensions.[1][2]
The company went public via IPO on the Nasdaq in October 2021 and, in 2024, received preliminary approval for up to $1.5 billion in U.S. CHIPS Act funding to expand domestic capacity, despite a $500,000 U.S. export violation penalty earlier that year for unauthorized shipments to a sanctioned Chinese entity.[5][6]
GlobalFoundries reported $6.75 billion in revenue for fiscal year 2024, down 9% from the prior year amid cyclical industry downturns, while employing around 13,000 people across its global footprint.[7][8]
History
Formation as AMD Spin-Off (2009)
In October 2008, Advanced Micro Devices (AMD) faced significant financial strain from the capital-intensive nature of semiconductor manufacturing amid industry competition and economic downturn. On October 7, AMD announced a joint venture with Advanced Technology Investment Company (ATIC), a technology investment firm owned by the government of Abu Dhabi, to spin off its wafer fabrication operations into an independent foundry. AMD contributed its two operational fabrication facilities (Fab 1 and Fab 2) and the under-construction Fab 38, all located in Dresden, Germany; assembly and test operations in Bangkok, Thailand; related intellectual property and equipment; and approximately 2,500 employees. In exchange, AMD received $700 million in cash—reducing its debt by over $1.2 billion—and a 44.4% equity stake in the new entity, with ATIC holding the remaining 55.6%. The agreement included ATIC's commitment to invest an additional $1.4 billion in expanding Dresden's capacity to 45 nm and advanced nodes, as part of a larger $6 billion funding pledge from Abu Dhabi entities to develop global semiconductor manufacturing infrastructure.[9][10][11] Amendments to the deal were announced on December 8, 2008, refining terms such as equity conversion and governance while maintaining the core structure. The transaction closed on March 2, 2009, transferring the assets and providing AMD with the immediate cash infusion to stabilize its balance sheet and shift to a fabless design-focused model. Initially termed "The Foundry Company," the venture was publicly launched as GlobalFoundries Inc. on March 4, 2009, with headquarters in Sunnyvale, California—near AMD's base—and operations centered on the Dresden fabs. Doug Grose, formerly of IBM, was appointed as the inaugural chairman, emphasizing the foundry's independence to serve AMD as its primary customer while pursuing third-party business to achieve economies of scale unattainable under integrated device manufacturer constraints.[12][13][14] This formation positioned GlobalFoundries as a "pure-play" foundry, free from product design biases, with initial capacity focused on 65 nm to 32 nm processes and plans for rapid scaling via ATIC's sovereign backing. The spin-off alleviated AMD's manufacturing risks—estimated at billions in ongoing capex—but left it dependent on GlobalFoundries for production, a relationship that later evolved. ATIC's involvement reflected a strategic diversification of Abu Dhabi's oil revenues into high-tech manufacturing, contrasting with U.S. firms' outsourcing trends.[15][16]Early Expansions and Acquisitions (2010-2015)
In January 2010, GlobalFoundries acquired Chartered Semiconductor Manufacturing, integrating its two wafer fabrication facilities in Singapore (Fabs 5 and 6) and thereby significantly expanding its global capacity to approximately 300,000 wafers per month across 200 mm and 300 mm processes.[17] This move positioned GlobalFoundries as the world's second-largest pure-play foundry by capacity at the time, enhancing its ability to serve diverse customers in mature and specialty nodes.[18] To support growth in high-volume markets, GlobalFoundries launched the "Singapore Vision 2015" initiative in 2011, committing $500 million to expand cleanroom capacity, refresh legacy equipment, and introduce new process technologies tailored to automotive, consumer electronics, and industrial applications.[19] Concurrently, the company advanced construction and ramp-up of Fab 8 in Malta, New York, which achieved initial 28 nm production volumes by 2012 following its 2009 groundbreaking, with investments exceeding $4.2 billion from state incentives and private funding to establish leading-edge logic capabilities.[20] In January 2013, GlobalFoundries announced a multi-billion-dollar expansion at the Fab 8 campus, including a dedicated research and development center to accelerate 14 nm FinFET development and yield improvements, expected to create over 1,000 additional jobs and bolster U.S. manufacturing competitiveness.[20] The period culminated in the October 2014 agreement to acquire IBM's Microelectronics business, completed on July 1, 2015, for which IBM provided $1.5 billion in payments over three years alongside a 10-year foundry services contract.[21][22] This added IBM's East Fishkill, New York (Fab 10) and Essex Junction, Vermont facilities, over 10,000 patents, and approximately 3,500 employees focused on specialty technologies like RF and silicon photonics, with no planned layoffs or closures.[23][24] The deal diversified GlobalFoundries' portfolio into embedded memory and power management processes while securing long-term IBM demand.[25]Strategic Shift Away from Leading-Edge Nodes (2016-2018)
In the mid-2010s, GlobalFoundries pursued aggressive expansion in leading-edge semiconductor manufacturing, ramping production of its 14nm FinFET process node by 2016 while investing heavily in 7nm development, including tape-outs of test chips and plans for volume production starting in 2019. However, escalating research and development costs—estimated at billions for each successive node—coupled with limited customer commitments and technological gaps relative to rivals TSMC and Samsung, strained the company's finances, leading to annual losses exceeding $1 billion by 2017.[26][27] The appointment of Thomas Caulfield as CEO in January 2018 marked the onset of internal strategic reassessment, emphasizing sustainable profitability over node shrinkage races. On August 27, 2018, GlobalFoundries publicly announced a pivot away from leading-edge nodes, suspending development of its 7LP (7nm Leading Performance) FinFET process and all future sub-7nm technologies indefinitely. The company redirected resources toward mature process nodes at 12nm and above, alongside specialty platforms like 22FDX SOI for low-power applications, RF technologies, and embedded non-volatile memory, citing alignment with client demands in high-growth markets such as automotive, IoT, and 5G infrastructure.[28][29] This shift acknowledged the economic realities of foundry competition, where only scaled players could amortize extreme ultraviolet lithography and other advanced tooling costs exceeding $10 billion per node; GlobalFoundries, lacking equivalent volume from hyperscale chip designers, determined that independent pursuit of 7nm would erode competitiveness without guaranteed returns. The announcement included workforce reductions impacting fewer than 5% of its approximately 14,000 employees, primarily in R&D, and the creation of a wholly-owned subsidiary, Shobhit, to handle custom ASIC design and accelerate client-specific innovations. Industry analysts viewed the move as pragmatic, enabling focus on niches where GlobalFoundries' expertise in analog-mixed signal and power management provided differentiation, though it ceded high-performance logic markets to TSMC.[30][27][31]Investments and Challenges in the 2020s
In response to the global semiconductor shortage that began in 2020, GlobalFoundries announced a $1 billion investment in December 2021 to expand manufacturing capacity for automotive, industrial, and other essential chips, aiming to alleviate supply constraints.[32] The company broke ground on a new fabrication facility at its Singapore campus and increased capacity at Fab 1 in Dresden, Germany, by more than 25%, with equipment installations targeted for the second half of 2022.[33] These efforts supported revenue growth from $4.851 billion in 2020 to $6.585 billion in 2021 and a peak of $8.108 billion in 2022, reflecting high factory utilization amid elevated demand.[34] Subsequent market normalization led to inventory buildups and demand weakness, particularly in consumer electronics and communications segments, causing revenue to contract to $7.392 billion in 2023 and $6.750 billion in 2024—a 9% year-over-year decline.[35] GlobalFoundries' strategic emphasis on mature and specialty nodes (above 7 nm), which prioritize reliability for automotive and defense applications over cutting-edge performance, exposed it to cyclical pressures in non-AI markets while competitors advanced in sub-7 nm technologies for data centers.[36] Geopolitical risks, including U.S.-China trade restrictions and supply chain vulnerabilities, compounded operational difficulties, as the company navigated export controls on certain technologies despite its limited exposure to leading-edge fabrication.[37] To bolster long-term resilience, GlobalFoundries expanded partnerships and U.S.-focused investments, including a 2022 collaboration with Google on open-source chip processes and a 2025 commitment of $16 billion for semiconductor manufacturing and advanced packaging at facilities in Malta, New York, and Essex Junction, Vermont, building on prior $13 billion in domestic upgrades.[38] These moves targeted growth in AI-enabling components like power management and mixed-signal chips, with additional $3 billion allocated for R&D in silicon photonics and gallium nitride production.[39] Despite these initiatives, persistent industry overcapacity and macroeconomic headwinds, such as potential U.S. tariffs, posed ongoing risks to profitability.[40]Impact of CHIPS and Science Act Funding
In February 2024, the U.S. Department of Commerce announced up to $1.5 billion in direct funding to GlobalFoundries under the CHIPS and Science Act to bolster domestic semiconductor manufacturing capacity focused on mature process nodes essential for automotive, defense, and industrial applications.[41][42] This preliminary award, finalized in November 2024, supports expansion at the company's Fab 8 facility in Malta, New York—including construction of an additional cleanroom fab—and modernization of its Essex Junction, Vermont plant, with approximately $125 million allocated specifically to the Vermont site.[5][43] The funding has catalyzed GlobalFoundries' commitment to a $16 billion total investment in U.S. facilities through the end of the decade, enabling the company to increase production of specialized chips for supply chain resilience rather than competing in sub-7nm leading-edge technologies.[39][44] This includes creating over 1,500 direct manufacturing jobs and thousands more in construction and supporting industries, alongside commitments to workforce development such as apprenticeship programs and hiring from economically disadvantaged groups as conditions of the milestone-based grants, which do not involve U.S. government equity stakes.[45][46] Strategically, the CHIPS funding has reinforced GlobalFoundries' pivot toward high-volume, reliable production of legacy nodes (e.g., 22nm and above), addressing U.S. vulnerabilities exposed by global shortages in 2021–2022, though critics note the awards prioritize subsidies over innovation incentives, potentially distorting market signals in an industry dominated by Asian foundries.[47][48] The infusion has also drawn scrutiny amid GlobalFoundries' $500,000 fine in October 2024 for export violations to China, yet the Department of Commerce proceeded with finalization, emphasizing national security benefits from diversified domestic capacity.[49]Ownership and Governance
Acquisition and Control by Mubadala Investment Company
GlobalFoundries was established on March 2, 2009, through the spin-off of Advanced Micro Devices' (AMD) manufacturing operations, with initial ownership shared between AMD and Advanced Technology Investment Company (ATIC), a technology investment arm backed by Abu Dhabi's Mubadala Development Company, the precursor to Mubadala Investment Company.[16] ATIC provided significant funding, committing up to $6 billion for global expansion of manufacturing and technology capabilities, positioning Mubadala as the primary financial backer from inception.[16] This structure allowed Mubadala, via ATIC, to exert substantial influence over strategic decisions, including the 2010 acquisition of Singapore-based Chartered Semiconductor Manufacturing, which expanded GlobalFoundries' footprint in Asia.[17] In 2012, Mubadala consolidated its control by acquiring AMD's remaining approximately 9% equity stake in GlobalFoundries for $157 million, as part of a restructured supply agreement that waived certain wafer purchase obligations from AMD.[50] This transaction, executed through ATIC, eliminated minority ownership by AMD and established Mubadala's full private ownership of the foundry, with ATIC later fully integrated into Mubadala Investment Company.[51] By this point, Mubadala had invested billions, including over $6 billion by mid-2011 in assets like AMD's Dresden facility and New York operations, underscoring its role in funding GlobalFoundries' shift toward a pure-play foundry model independent of AMD's design interests.[52] Mubadala retained dominant control following GlobalFoundries' initial public offering (IPO) on October 28, 2021, on the Nasdaq under the ticker GFS, where it sold 22 million shares as part of a $2.6 billion raise but maintained over 89% ownership post-IPO.[53] [54] The IPO structure ensured Mubadala's continued oversight, with the fund explicitly stating intent to preserve strategic influence amid market volatility in semiconductors.[55] Subsequent share sales, including a $950 million secondary offering in May 2024 by a Mubadala subsidiary, further diluted public float but left Mubadala as the majority shareholder, enabling it to direct investments in specialty processes and capacity expansions aligned with Abu Dhabi's economic diversification goals.[56] [57] This enduring control has shaped GlobalFoundries' focus on mature and analog technologies rather than competing in cutting-edge nodes dominated by rivals like TSMC.[58]Corporate Structure and Headquarters
GlobalFoundries Inc. is an exempted company incorporated under the laws of the Cayman Islands with limited liability.[59] The company's principal executive offices are located at 400 Stonebreak Road Extension, Malta, New York 12020, United States.[60] In April 2021, GlobalFoundries relocated its corporate headquarters from Santa Clara, California, to the Malta campus, which encompasses its Fab 8 semiconductor manufacturing facility, recognized as the company's most advanced production site.[61] This move aligned administrative functions more closely with U.S.-based operations amid expansions in domestic semiconductor capacity.[62] The corporate structure operates as a holding company model, with GlobalFoundries Inc. as the parent entity owning 100% of multiple subsidiaries tailored to specific functions and geographies.[63] Key subsidiaries include operational entities for manufacturing and sales, such as GlobalFoundries Singapore Pte. Ltd. in Singapore and GlobalFoundries (US) Inc. equivalents in Delaware, alongside investment vehicles like GF Asia Investments Pte. Ltd. in Singapore and GlobalFoundries Finance Inc. in the Cayman Islands.[64] These subsidiaries facilitate localized compliance, financing, and production in regions including the United States, Asia, and Europe, supporting the company's global foundry services without direct involvement in chip design.[63] As of December 2023, the organizational chart reflects this subsidiary framework, emphasizing vertical integration for process technology deployment across mature and specialty nodes.[65]Leadership Transitions and CEOs
GlobalFoundries was established as a spin-off from Advanced Micro Devices (AMD) on March 2, 2009, with Douglas Grose appointed as its first CEO.[66] Grose, formerly AMD's senior vice president of manufacturing, oversaw initial operations focused on integrating AMD's fabrication assets and partnerships, including with Advanced Technology Investment Company (ATIC).[67] During his tenure, the company projected sales growth exceeding 15% in 2011, targeting at least $4 billion from $3.5 billion in 2010, amid efforts to expand capacity and compete in contract manufacturing.[68] Grose stepped down as CEO in June 2011, remaining on the board as the company underwent a management reshuffle to address early operational hurdles.[66] Ajit Manocha, a semiconductor industry veteran with prior roles at Philips and Applied Materials, succeeded him first as interim CEO and then permanently, serving through 2014.[69] Under Manocha, GlobalFoundries divested remaining AMD dependencies, formed a key 14 nm process partnership with Samsung, and positioned itself as a top pure-play foundry, though it faced competitive pressures from leading-edge rivals like TSMC.[70] In January 2014, Sanjay Jha, former co-CEO of Motorola Mobility, became CEO, leading until March 2018.[71] Jha's leadership emphasized technology advancements, such as progress in 14 nm and 7 nm nodes, alongside major facility expansions in New York, Singapore, and Germany, which increased capacity to support diverse customers including IBM and Qualcomm.[72] He transitioned out following these milestones, handing over to internal executive Thomas Caulfield to maintain continuity amid shifting market dynamics.[71] Caulfield, previously senior vice president of manufacturing operations, assumed the CEO role on March 1, 2018, and guided the company through its initial public offering on the New York Stock Exchange in October 2021, raising approximately $2.6 billion.[73] His tenure involved a strategic pivot away from costly leading-edge nodes toward differentiated specialty and mature processes, supply chain rebuilding, and investments in essential chips for automotive, IoT, and defense sectors, which helped stabilize finances amid industry competition.[74] In February 2025, GlobalFoundries announced Caulfield's move to executive chairman effective April 28, 2025, citing the need to drive the next growth phase with fresh operational focus.[75] Tim Breen, who joined in 2018 as chief commercial officer and advanced to COO in 2023, succeeded Caulfield as CEO on April 28, 2025.[74] Breen's appointment, alongside Niels Anderskouv as president and COO, aims to leverage internal expertise for expanded market opportunities in high-growth areas like AI-enabling technologies and U.S. manufacturing resilience.[76]| CEO | Tenure | Key Contributions and Transition Notes |
|---|---|---|
| Douglas Grose | 2009–June 2011 | Oversaw spin-off integration; stepped down amid management changes.[66] |
| Ajit Manocha | 2011–2014 | Drove partnerships and independence from AMD; returned to advisory role.[70] |
| Sanjay Jha | January 2014–March 2018 | Expanded capacity and nodes; transitioned after operational milestones.[71] |
| Thomas Caulfield | March 2018–April 2025 | Led IPO and specialty focus shift; moved to executive chairman for growth phase.[74] |
| Tim Breen | April 2025–present | Internal promotion from COO to emphasize commercial scaling.[75] |
Manufacturing Facilities
Facilities in the United States
GlobalFoundries maintains two primary semiconductor manufacturing facilities in the United States, located in New York and Vermont, which support production of wafers for automotive, communications, defense, and other applications. These sites emphasize mature and specialty process technologies rather than leading-edge nodes.[42] Fab 8, situated at the Luther Forest Technology Campus in Malta, New York, is a 300 mm wafer fabrication plant that commenced high-volume manufacturing in 2012 following an initial $4.2 billion construction investment. The facility spans 1.7 million square feet and has since accumulated over $16 billion in total investments, enabling annual production of approximately 400,000 wafers. It employs around 2,500 workers and focuses on advanced packaging, photonics, and other capabilities critical to supply chain resilience.[77][78][79] In February 2024, GlobalFoundries committed $11.6 billion to expand and modernize Fab 8, including equipment upgrades to mitigate chip shortages and enhancements for automotive and AI-related technologies; this initiative is supported by state incentives and builds on prior federal funding. The site previously included expansions like Fab 8.1 for 300 mm and 200 mm processing.[79][80] Fab 9, located in Essex Junction, Vermont, near Burlington, operates as a 200 mm wafer fab and ranks among the earliest major semiconductor manufacturing complexes in the country, tracing origins to the mid-20th century. It features one of the world's largest 200 mm cleanrooms and serves as GlobalFoundries' hub for analog, mixed-signal, and RF technologies, employing thousands as Vermont's largest private employer. Since 2015, the company has allocated $750 million for equipment and infrastructure upgrades to sustain operations amid evolving demands.[81][82][83] In March 2024, Fab 9 secured $125 million from the CHIPS and Science Act within a broader $1.5 billion federal award, funding a $900 million expansion to modernize tools and boost capacity for essential chips. This follows state partnerships aimed at long-term viability, despite periodic workforce adjustments reported in 2025.[84][81][85] GlobalFoundries divested its former East Fishkill, New York, 300 mm facility (Fab 10) to onsemi in February 2023 for $430 million, transferring operations after acquiring it from IBM in 2015; the site had supported power and analog production but was deemed non-core to GF's strategy.[86][87]Facilities in Singapore
GlobalFoundries established its manufacturing operations in Singapore through the acquisition of Chartered Semiconductor Manufacturing, completed in March 2010, which provided access to established wafer fabrication facilities originally developed in the 1990s.[17] These sites, primarily located in Woodlands, focus on mature process technologies using 200 mm and 300 mm wafers, producing chips for RF applications, analog/mixed-signal, embedded memory, and power management used in automotive, smartphones, and IoT devices.[88] The facilities include multiple fabs, with Fab 7 serving as a key 300 mm production site upgraded from Chartered's infrastructure to support bulk CMOS and silicon-on-insulator (SOI) processes on nodes from 130 nm to 40 nm.[89] Fab 7 handles over 1,000 chip designs annually for approximately 200 customers and employs about 1,600 personnel, emphasizing high automation and water recycling to manage local resource constraints.[89] Older 200 mm fabs, such as Fab 2 opened in 1995 as one of the industry's early facilities for that wafer size, complement production of similar mature nodes.[17] In June 2022, construction milestones included the arrival of the first production tools for a major expansion, adding 23,000 square meters (250,000 square feet) of cleanroom space.[90] This US$4 billion (S$5 billion) project officially opened on September 12, 2023, increasing annual output by 450,000 300 mm wafers and elevating total Singapore capacity to 1.5 million wafers per year.[91] The initiative created 1,000 high-value positions, 95% in technical roles like equipment and process technicians, to bolster supply chain resilience amid rising demand for non-leading-edge semiconductors.[91] Supporting sustainability, the sites incorporate advanced water reclamation—reducing consumption over a decade—and a 2024 multi-year power purchase agreement with Keppel for 150–180 MW annually from renewable sources.[92][93] In May 2025, GlobalFoundries partnered with Singapore's Agency for Science, Technology and Research (A*STAR) to leverage R&D facilities for advanced packaging development.[94] That September, the Singapore operations earned World Economic Forum Global Lighthouse status for scaling Industry 4.0 technologies, including AI-driven manufacturing optimizations.[95]Facilities in Germany and Europe
GlobalFoundries operates its primary European manufacturing facility, Fab 1, in Dresden, Germany, which serves as the company's main production site in the region.[96] This 300mm wafer fab, originally established from AMD's operations and acquired by GlobalFoundries in 2009, specializes in mature and specialty process technologies, including nodes down to 22nm FD-SOI for applications in automotive, industrial, and communications sectors.[97] The facility is equipped for high-volume production and includes associated pre- and post-fab operations such as the Bump Test Facility (BTF) and collaboration with the Allied Medical Technology Center (AMTC).[98] As of recent data, Fab 1 maintains an annual wafer capacity of approximately 850,000 300mm wafers.[98] In June 2025, GlobalFoundries announced plans to invest €1.1 billion over several years to expand this capacity, aiming to nearly double output to around 1.5 million wafers per year, enhancing production for essential chips in AI, automotive, and other critical sectors.[99][100] This expansion underscores Dresden's role as Europe's largest 300mm semiconductor factory and a key hub for secure manufacturing, with certification in 2020 enabling production of chips for financial transactions, smart cards, and digital IDs.[101] Beyond Dresden, GlobalFoundries maintains no other dedicated wafer fabrication plants in Europe, though it supports regional operations through partnerships and design services in locations like Frankfurt and Duisburg via channel partners.[102] The Dresden site benefits from public funding and collaborative R&D, contributing to Germany's semiconductor ecosystem while aligning with GlobalFoundries' global strategy of regional supply chain resilience.[98]Capacity Expansions and Modernizations
In June 2025, GlobalFoundries announced a $16 billion investment to expand and modernize its U.S. manufacturing facilities in New York and Vermont, building on prior commitments to increase production of essential chips for AI, automotive, and wireless applications.[39] This included over $13 billion allocated to upgrade and scale operations at its Fab 8 in Malta, New York, focusing on advanced packaging and higher-volume output for mature nodes like 22nm and above, alongside $3 billion for additional expansions and research collaborations, such as with Apple on power management and connectivity technologies.[44] [103] Earlier in January 2025, the company committed $575 million to establish a dedicated advanced packaging and testing center at its Malta site, enhancing capabilities for 3D stacking and heterogeneous integration to support next-generation RF and analog devices.[104] In Vermont, upgrades at Fab 9 in Essex Junction targeted specialty processes for photonics and sensors, with the $3 billion portion of the 2025 U.S. plan emphasizing equipment modernization to boost throughput for 40nm and legacy nodes critical to defense and industrial sectors.[105] These efforts aimed to add capacity for approximately 20-30% more wafers annually across U.S. sites by 2027, prioritizing resilient supply chains over leading-edge scaling.[106] In Europe, GlobalFoundries allocated €1.1 billion in June 2025 to double wafer output at Fab 1 in Dresden, Germany, through cleanroom expansions and tool installations optimized for 28nm automotive and IoT chips, addressing regional demand amid supply constraints.[107] Modernizations there incorporated energy-efficient systems and automation upgrades to reduce cycle times by up to 15%, while maintaining focus on differentiated platforms like FD-SOI for low-power applications.[108] Singapore's Fab 2 and Fab 10 saw incremental modernizations in the early 2020s, including $1 billion in 2022 for equipment refreshes to support high-volume analog production, though no major capacity announcements followed through 2025.[109] These initiatives collectively positioned GlobalFoundries to grow output in non-cutting-edge segments, where empirical demand from embedded systems outpaced foundry competition.Process Technologies
Overview of Supported Nodes and Platforms
GlobalFoundries maintains a technology portfolio centered on mature and specialty process nodes ranging from 12 nanometers to 350 nanometers, optimized for applications in radio-frequency (RF), power management, analog/mixed-signal, embedded non-volatile memory, and silicon photonics rather than sub-7nm logic for high-performance computing.[110][111] This focus supports markets including automotive, industrial IoT, communications infrastructure, and aerospace/defense, where reliability, integration of analog features, and cost-efficiency outweigh density scaling.[110] In August 2018, GlobalFoundries announced a roadmap restructuring to discontinue 7nm development and emphasize differentiated platforms like FD-SOI and RF technologies, citing capital efficiency and alignment with customer demand in high-growth segments.[28] Core digital platforms include the 12LP+ FinFET node, derived from Samsung's 14LPP architecture and offering up to 40% performance gains over prior generations for mobile SoCs and networking ASICs, with production ramped in facilities like Malta, New York.[110] Fully Depleted Silicon-on-Insulator (FD-SOI) platforms, such as 22FDX at 22nm and planned 12FDX, enable ultra-low power operation with body biasing for dynamic voltage scaling, targeting always-on sensors, wearables, and edge AI devices while integrating embedded MRAM for non-volatile storage.[110][112] Mature bulk CMOS nodes (e.g., 28nm, 40nm, 55nm, 90nm, 130nm) provide scalable options for high-volume analog and mixed-signal designs, with 22nm and 28nm variants fabricated in Dresden, Germany, to meet automotive-grade qualifications like AEC-Q100.[110][111] Specialty platforms differentiate GlobalFoundries through analog and RF integration: RF SOI supports millimeter-wave frequencies up to 100 GHz for 5G front-ends and beamforming, minimizing insertion loss in switched arrays; SiGe BiCMOS platforms (e.g., SG13 at 130nm) deliver high-speed analog with fT exceeding 300 GHz for base stations and radar; and Bipolar-CMOS-DMOS (BCD) processes handle voltages up to 200V for power ICs in electric vehicles and chargers, with BCDLite variants for lighter integration.[110] Silicon photonics on the 90nm WG node facilitates optical transceivers with low-loss waveguides for datacenter interconnects, complementing electrical nodes.[113] These platforms leverage over 18,000 patents and enable ecosystem partnerships for IP and design kits, ensuring compatibility across nodes for multi-project wafers and prototyping.[110][114]Focus on Specialty and Mature Processes
GlobalFoundries’ portfolio includes both ‘specialty’ platforms and a range of mature nodes; many industry discussions describe ‘mature nodes’ as 28 nm-class and larger, while GlobalFoundries also offers a 12 nm-class FinFET platform (12LP/12LP+). These nodes include 40 nm, 55 nm, 90 nm, 130 nm, and 180 nm, which support high-volume production for embedded systems, power management integrated circuits (PMICs), and legacy applications where cost-effectiveness outweighs the need for extreme scaling. These nodes utilize bulk CMOS and other established architectures, enabling reliable manufacturing for automotive electronics, industrial controls, and consumer devices that prioritize stability over transistor density. In 2023, the company's portfolio highlighted these nodes amid growing Chinese overcapacity in similar technologies, yet GlobalFoundries maintained competitive utilization rates exceeding 75% for top foundries' mature processes in 2024-2025 projections.[115][116][65] Specialty processes form a core differentiator, encompassing fully depleted silicon-on-insulator (FDX™ FD-SOI) for ultra-low power applications, silicon-germanium (SiGe) for high-frequency RF and analog performance, and bipolar-CMOS-DMOS (BCD/BCDLite®) for integrated power solutions. FD-SOI platforms, available in nodes like 22FDX, enable dynamic voltage scaling via adaptive body-biasing to minimize leakage in IoT and edge AI devices, achieving sub-threshold operation for battery-constrained systems. SiGe technologies, produced on 200 mm wafers, deliver high-speed bipolar transistors for 5G RF front-ends and photonics; the GF Fotonix platform supports silicon photonics with PDK integration for EDA tools including Ansys Lumerical for light simulation and co-design, Cadence for layout and verification, and Synopsys OptoDesigner for photonic IC design, enabling electronic-photonic co-design workflows, with transconductance exceeding traditional silicon limits. BCD processes integrate high-voltage DMOS with CMOS logic for PMICs and motor drivers, supporting voltages up to 100 V in automotive and industrial uses. These platforms leverage GlobalFoundries' patent portfolio to address feature-rich needs unmet by commoditized leading-edge nodes.[117][118][119][120] This specialization aligns with market demands for resilient supply chains in non-AI hyperscale computing, where mature and specialty nodes account for diverse revenue streams; for instance, RF SOI and SiGe enable connectivity transformations in 5G and beyond, while BCD supports electrification trends. Unlike competitors chasing sub-7 nm scaling, GlobalFoundries invests in enhancements like new materials for these nodes, as evidenced by 2025 expansions in mixed-signal manufacturing and $16 billion U.S. commitments targeting 22 nm and 28 nm capacities for smart devices and automotive. Such focus mitigates risks from overcapacity in China-dominated mature segments while capitalizing on U.S. incentives for domestic production of critical technologies.[110][121][122]Differentiation from Leading-Edge Competitors
In August 2018, GlobalFoundries announced the suspension of its research and development efforts on 7 nm FinFET and more advanced nodes, redirecting resources toward optimizing existing platforms at 14 nm and larger process geometries.[27][123] This strategic pivot acknowledged the immense capital requirements—estimated in tens of billions of dollars—and technical risks associated with sub-7 nm scaling, which competitors like TSMC, Samsung Foundry, and Intel continue to pursue aggressively for applications demanding maximum transistor density, such as high-performance computing and mobile processors.[124][125] GlobalFoundries differentiates itself through specialization in mature-node technologies tailored for analog, mixed-signal, RF, and power management applications, rather than commoditized digital logic at bleeding-edge scales. Its portfolio emphasizes platforms like 22FDX (fully depleted silicon-on-insulator at 22 nm for low-power efficiency), RF SOI for millimeter-wave and 5G connectivity, SiGe for high-frequency analog performance, and BCD processes for power devices in automotive and industrial uses.[110] These enable reliable performance in sectors prioritizing longevity, radiation hardness, and cost-effectiveness over raw speed, such as automotive electrification (e.g., sensors and actuators), IoT devices, and communications infrastructure, where mature nodes constitute over 90% of production volume globally.[2][126] By eschewing the leading-edge arms race, GlobalFoundries achieves higher gross margins—reportedly exceeding those of advanced-node peers in specialty segments—and mitigates supply chain vulnerabilities tied to geopolitical risks in Asia-dominated sub-5 nm fabrication.[124] This focus aligns with growing demand for diversified, secure manufacturing under initiatives like the U.S. CHIPS Act, positioning the company to capture niches underserved by TSMC's logic-heavy roadmap, which prioritizes 3 nm and 2 nm for AI and data centers.[107] In contrast, while TSMC and Samsung invest over $30 billion annually in extreme ultraviolet lithography for nanoscale shrinks, GlobalFoundries leverages established fabs for rapid scaling in high-volume, differentiated products, yielding sustained revenue growth from non-leading-edge markets.[127][126]Business Strategy and Operations
Market Positioning and Customer Relationships
GlobalFoundries positions itself as the world's third-largest pure-play semiconductor foundry by revenue, specializing in mature process nodes and differentiated technologies such as RF, analog/mixed-signal, and SiGe platforms, rather than competing directly in leading-edge nodes dominated by TSMC and Samsung.[121][36] This focus targets high-growth markets including automotive, communications infrastructure, aerospace and defense, and IoT, where reliability, power efficiency, and customization outweigh raw performance scaling. In Q2 2025, the company's automotive segment grew 36% year-over-year, underscoring its alignment with demand for specialized chips in electrification and advanced driver-assistance systems (ADAS).[128] Its China-for-China strategy further bolsters positioning by partnering with local foundries to serve regional customers amid geopolitical tensions.[129] The company maintains relationships with over 200 global customers, emphasizing collaborative innovation through platforms like GF Connect for streamlined design-to-production workflows.[130] Key partnerships include expanded agreements with Apple for wireless connectivity and power management chips, supporting U.S.-based manufacturing resurgence.[131] Other major clients encompass Qualcomm, AMD, NXP Semiconductors, General Motors, SpaceX, and MediaTek, spanning fabless designers in mobile, automotive, and defense sectors.[39][36] In automotive, collaborations with indie Semiconductor accelerate radar adoption, while defense ties, such as with Lockheed Martin, tap into secure, high-reliability supply needs.[132][133] These relationships are fortified by over 100 global partners and a channel network, enabling customized solutions and long-term commitments, as evidenced by joint investments like the $16 billion U.S. expansion backed by customers including Apple and Qualcomm.[39][130]Financial Performance and Revenue Streams
GlobalFoundries' fiscal year 2024 revenue totaled $6.750 billion, a 9% decrease from $7.392 billion in 2023, reflecting cyclical downturns in demand for mature-node semiconductors amid inventory corrections in consumer and communications sectors.[134] The company's gross margin for the year stood at 24.5%, with non-IFRS gross margin at 25.3%, while adjusted EBITDA reached $2.475 billion, supporting positive free cash flow of $1.107 billion despite a reported net loss of $262 million influenced by one-time charges.[134] In early 2025, revenue began stabilizing, with first-quarter results at $1.585 billion and second-quarter revenue rising to $1.688 billion—a 6% sequential increase and 3% year-over-year gain—driven by growth in automotive and datacenter applications.[129] Gross margins held steady at 24.2% for Q2 2025, with non-IFRS operating margin at 14.9%, indicating operational resilience in a competitive foundry landscape focused on non-leading-edge nodes.[129] The company's revenue streams originate predominantly from wafer fabrication services using differentiated process platforms such as RF, analog/power, and embedded memory, tailored to customer designs rather than commoditized logic chips.[134] These services generate income through long-term supply agreements, with additional non-wafer contributions from technology licensing, engineering services, and mask sets. For fiscal 2024, end-market breakdown highlighted diversification:| End Market | Revenue ($ millions) | Share of Total | Year-over-Year Change |
|---|---|---|---|
| Smart Mobile Devices | 3,048 | 45% | +1% |
| Home and Industrial IoT | 1,267 | 19% | -21% |
| Automotive | 1,206 | 18% | +15% |
| Communications Infrastructure & Datacenter | 577 | 9% | -33% |
| Non-Wafer and Other | 652 | 10% | -24% |
| Total | 6,750 | 100% | -9% |
