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 SiFive, a provider of commercial RISC-V processor IP, today announced it raised $50.6 million in a Series C round led by existing investors Sutter Hill Ventures, Spark Capital and Osage University Partners alongside new investor Chengwei Capital, and strategic investors including Huami, SK Telecom and Western Digital and other companies that are among the most respected and iconic companies in the industry. This Series C round brings the total investment in SiFive to $64.1 million. Additionally, the company also announced it has signed a multi-year license to its Freedom Platform with Western Digital, which has pledged to produce 1 billion RISC-V cores.

This investment will enable SiFive to continue to innovate and provide leadership in bringing highly disruptive RISC-V technologies to the marketplace. “Over the past two years, SiFive has been at the forefront of the RISC-V ecosystem,” said Stefan Dyckerhoff, managing director at Sutter Hill Ventures and member of the SiFive board of directors. “Sutter Hill Ventures is confident that SiFive will continue to provide innovative solutions that will fundamentally change the semiconductor industry.”

Said Martin Fink, chief technology officer, Western Digital: “RISC-V delivers a platform for innovation unshackled from the proprietary interface of the past. This freedom allows us to bring compute closer to data to optimize special purpose compute capabilities targeted at Big Data and Fast Data applications. The next generation of applications like Machine Learning, AI, and Analytics require this ability to focus on a specific task. Western Digital is focused on the next generation of innovation to enable this new class of applications to deliver the possibilities of data.”

This Series C financing comes amid continued milestones for SiFive since its last round of funding in May 2017. Since then, SiFive has expanded its executive team with seasoned industry veterans including CEO Naveed Sherwani. The company also moved to a new, larger headquarters in Silicon Valley, a move that was prompted by a projected 3X growth in headcount.

“We are honored by the continued partnership with our investors and energized by new engagements with longtime industry leaders,” said Naveed Sherwani, CEO of SiFive. “This funding from our investors and licensing agreements with strategic partners establishes a strong financial foundation which will help us to continue our trailblazing path of engineering innovations and extend our market leadership around the world.”

SiFive’s mission is to democratize access to custom silicon through its IPs and platforms, globally. Since becoming available, HiFive1 and HiFive Unleashed software development boards have been deployed in more than 50 countries. Additionally, the company has engaged with multiple customers across its IP and SoC products, shipped the industry’s first RISC-V SoC in 2016 and the industry’s first RISC-V IP with support for Linux in October 2017.

Kinetic Solutions, Inc., a full-service process and mechanical contractor for high-technology markets worldwide, announced today the acquisition of Mega Fluid Systems, a global supplier of chemical and slurry delivery equipment to the global semiconductor, LED, pharmaceutical, specialty chemicals and solar/PV industries. According to the details of the agreement, Mega Fluid Systems will operate as a Kinetics company, but will maintain its brand and product line. The acquisition marks another strategic decision in the latest string of investments to strengthen the Kinetics global footprint and position it as a leader in critical process facilities systems services, advanced process equipment and facility management solutions.

Kinetics, now in its 45th year, and Mega share a long legacy, as Mega was originally spun out of Kinetics in 2004. The reacquisition brings the story full circle, and allows Kinetics to offer a comprehensive range of equipment solutions that cover the scope of service and provide global turnkey solutions from feasibility studies through design, construction, construction management, commissioning and closeout.

“We are excited to welcome Mega Fluid Systems home to the Kinetics family,” said Peter Maris, president and CEO of Kinetics. “Adding the Mega portfolio of chemical and slurry delivery systems not only extends our process tool offering, it broadens our global reach and allows us to better serve our customers from R&D to volume manufacturing. Together, with the addition of Wafab and Mega, we are now operating from 20 offices with 1,800 employees worldwide.”

The Mega Fluid Systems product line includes leading-edge chemical, slurry and slurry-blend delivery systems, as well the supporting slurry filtration, metrology and world-class control and SCADA systems.

“As an independent brand for over 20 years, Mega established itself as a trusted supplier of high-performance blend and delivery systems, and built our reputation on innovation and ingenuity,” said Delton Hyatt, president, Mega Fluid Systems. “We are proud to bring that reputation home and be reunited with Kinetics. Together, we are a powerhouse of innovative process and mechanical solutions.”

“The Mega product line is a welcome addition to our existing portfolio of legacy process media distribution systems,” said Steve McGuigan, executive VP and general manager of Kinetics Equipment Solutions Group. “Combined with our chemical process systems and other offerings of facility management and high-purity installation capabilities, this strengthens Kinetics’ ability to serve our customers’ needs globally.”

ON Semiconductor (Nasdaq: ON) today announced it has recognized 20 companies with supplier excellence awards. Selected from among the company’s extensive list of preferred global suppliers, the 2017 award winners represent partners who have demonstrated a deep commitment to ensuring high quality and supply continuity in an evolving semiconductor market.

elected from more than 3,000 active production suppliers, the finalists gathered for a two-day awards event and executive conference in Hong Kong, China, with the focus of anticipating the future of semiconductor growth and accelerating customer needs.

“As a top 20 global semiconductor design and manufacturing company, ON Semiconductor creates innovative semiconductor and general electronic component solutions to solve our customers’ design challenges and reduce their time to market,” said Jeffrey Wincel, vice president and chief procurement officer at ON Semiconductor. “All the suppliers recognized today demonstrated a similar commitment to collaboration and partnership. These strong relationships are key in delivering on our business strategy, including the areas of product innovation, customer satisfaction and growth.”

Full list of award winners:

Front End (FE) Direct Material Supplier: Konfoong Materials International Company, LTD.
Back End (BE) Direct Material Supplier: Chang Wah Technology Co., Ltd.
FE Site Supplier: Plansee SE
BE Site Supplier: KETECA Singapore (Pte) Ltd
BE External Manufacturing: King Yuan Electronics Co. Ltd.
FE External Manufacturing: JiangYin ChangDian Advanced Packaging Co., LTD
Corporate Services Supplier: DHL Supply Chain
Technology Leader Award: Mentor Graphics
BE Subcon Quality Award: GEM Services, Inc.
BE Perfect Quality Award: Indium Corporation
BE Perfect Quality Award: Henkel
FE Perfect Quality Platinum Award: Shin-Etsu Handotai Co., Ltd
FE Perfect Quality Platinum Award: Brewer Science, Inc.
FE Perfect Quality Platinum Award: JSR Micro, Inc.
FE Perfect Quality Platinum Award: JX Nippon Mining & Metals
FE Perfect Quality Gold Award: Cabot Microelectronics Corporation
FE Perfect Quality Gold Award: Grikin Advanced Materials Co., Ltd.
FE Perfect Quality Award: Tanaka Kikinzoku Kogyo K.K.
FE Perfect Quality Award: Tosoh SMD, Inc.
Pinnacle Award: Global Wafers

 

Veeco Instruments Inc. (NASDAQ: VECO) today announced it has completed installation of its 100th automated Molecular Beam Epitaxy (MBE) system. The installation of Veeco’s GEN10™ MBE System last month at Silanna Semiconductor PTY Ltd. in Australia marks this significant company milestone. The company also operates a Veeco Dual GEN200® MBE System for production of advanced nitride compound semiconductor devices including ultraviolet light emitting diodes (UV-LEDs).

“Veeco has earned a reputation for consistently developing innovative and reliable MBE technology from research scale to production,” said Petar Atanackovic, Ph.D., chief scientist of Silanna Semiconductor PTY Ltd. “The flexibility and deposition capability of the GEN10 system will enable us to develop new materials at the atomic level allowing us to exploit new quantum properties. Veeco’s technology portfolio and leadership in MBE systems provides us with a clear path to easily scale to volume production in the future.”

Silanna is using the GEN10 system for advanced oxide research and development (R&D) for optoelectronic devices. The GEN10 is built upon almost 20 years of cumulative automation knowledge and derived from the company’s proven production MBE systems. Adopted by numerous leading corporations, institutions and universities for all major MBE applications, many customers choose the GEN10 because of its flexibility, which allows them to configure the system based on their application. This gives customers optimal performance with any material set, including those related to III-V group elements, oxides and nitrides.

“Silanna has achieved remarkable results on its previous MBE systems and Veeco is honored to celebrate this momentous accomplishment in our company history in partnership with Dr. Atanackovic and the Silanna team,” said Gerry Blumenstock, vice president and general manager, Veeco MBE Products. “As our customers explore novel materials and new applications, they can rely on Veeco to deliver innovative MBE systems, sources and components for use in complex R&D, as well as high-volume production environments.”

MBE is a highly precise thin-film deposition method for creating crystals by building up orderly layers of molecules on top of a substrate. MBE is used in industrial production processes as well as nanotechnology research in high-growth advanced computing, optics and photonics applications, to name a few. With over 600 systems shipped worldwide, Veeco provides the industry’s broadest portfolio of proven, reliable MBE systems, sources and components to serve a wide variety of markets and applications.

North America-based manufacturers of semiconductor equipment posted $2.41 billion in billings worldwide in February 2018 (three-month average basis), according to the February Equipment Market Data Subscription (EMDS) Billings Report published today by SEMI.  The billings figure is 1.7 percent higher than the final January 2018 level of $2.37 billion, and is 22.2 percent higher than the February 2017 billings level of $1.97 billion.

“February billings remain at a level indicating another positive year for semiconductor equipment spending,” said Ajit Manocha, president and CEO of SEMI. “We expect 2018 to mark the fourth consecutive year of spending growth, which last occurred in the 1990s.”

The SEMI Billings report uses three-month moving averages of worldwide billings for North American-based semiconductor equipment manufacturers. Billings figures are in millions of U.S. dollars.

Billings
(3-mo. avg)
Year-Over-Year
September 2017
$2,054.8
37.6%
October 2017
$2,019.3
23.9%
November 2017
$2,052.3
27.2%
December 2017
$2,398.4
28.3%
January 2018 (final)
$2,370.1
27.5%
February 2018 (prelim)
$2,411.4
22.2%

Source: SEMI (www.semi.org), March 2018

By Ando Yoichiro, SEMI Japan

In Tokyo, Shanghai, Moscow, London, Paris or New York – wherever you are in the world –Japanese vehicles passing by on the roadways are a common sight. Three big reasons are their high quality, reliability and engineering. But Japan’s automakers are also legendary for their industry breakthroughs. A few highlights:

  • In 1981, Honda introduced the first commercially available map-based car navigation system. The carmaker’s Electro Gyro-Cator used a gyroscope to detect rotation and other movements of the car.
  • In 1990, Mazda equipped its COSMO Eunos with the world’s first built-in GPS-navigation system.
  • In 1997, Toyota launched the world’s first mass-produced hybrid car — Prius.
  • In 1997, Toyota unveiled the world’s first production laser adaptive cruise control on its Celsior.
  • In 2009, Mitsubishi rolled out the world’s first mass-produced electric car – i-MiEV.

Off the roadways and often unheralded, it is supply chain companies including Japanese semiconductor makers that were a key engine of these innovations as they continue their rich history of driving automotive advances. Here’s a closer look at some of the key players and why they matter.

Who Makes Automotive Semiconductors?

Unlike other semiconductors, automotive chips are manufactured not only by integrated device manufacturers (IDMs) but also by captive fabs and automotive components makers such as Toyota and Denso.

Denso, headquartered in Aichi prefecture, started in 1949 as a spin-off of Toyota’s electric components unit. Since 2009, the company has been the world’s largest automotive components supplier. Because Denso’s chips are mostly consumed internally, the company’s manufacturing revenue is not publicly available, but analysts estimate Denso’s chip business exceeds 200 billion JPY or USD $1.9 billion.

Denso fab (source: Denso)

Denso fab (source: Denso)

Denso manufactures semiconductor components at two locations. Its Kota plant in Aichi prefecture manufactures power and logic chips, and the company’s Iwate (Iwate prefecture) facility, acquired from Fujitsu in 2012, produces semiconductor wafers and sensors.

Denso is developing SiC wafers for its power chips and plans to manufacture SiC inverters by 2020. Recently, the company announced joint research on Ga2O3 for power devices with FLOSFIA, a tech startup spun off from Kyoto University. In 2017, Denso established a semiconductor IP design company, NSITEXE, in Tokyo to design semiconductor IP cores – the semiconductor components that are key to autonomous driving.

Toyota has been manufacturing semiconductor chips at its Hirose Plant since 1989. The semiconductor fab design and manufacturing technologies originated at Toshiba and moved to Toyota under a technology transfer agreement signed in 1987. In the power semiconductor arena, Toyota is jointly developing SiC devices with Denso and Toyota Central Research and Development Labs.

Other car and component makers like Honda, Nissan, Hitachi Automotive Systems, Aishin Seiki and Calsonic Kansei are also developing and designing semiconductor chips.

Microcontroller Units                                     

Microcontrollers (MCUs) were first employed in automobiles in the late 1970s to electronically control engines for higher fuel efficiency. Today, up to 80 MCUs are typically used in a car for powertrain controls (engine, fuel management and fuel injection), body controls (seat, door, window, air conditioning and lighting), safety controls (brake, EPS, suspensions, air bags and anti-collision) and infotainment.

In December 2015, the microcontroller unit (MCU) supply chain experienced a major consolidation with the nearly $12 billion acquisition of Freescale Semiconductor by NXP Semiconductors, catapulting NXP to the top of the MCU market. NXP and Freescale were ranked second and third in global market share, after Renesas Electronics, at the time.

Renesas held 40 percent global market share before its Ibaraki fab suffered severe earthquake damage in 2011 and hemorrhaged share after the loss of production capacity.  Renasas continues to recapture market share at a rapid clip, with a growth rate of 5.2 percent and 24.6 percent, respectively, in the first two quarters of 2017, and claims it still leads the global MCU market for automotive applications with 30 percent share (source: Diamond Online, August 2017).

Renesas was established as a joint venture of Hitachi and Mitsubishi and later merged with NEC Electronics. Consequently, Resesas’s MCUs, designed with Hitachi’s SH MCU cores, recently began a gradual shift to Arm cores. Renasas MCUs designed at 40nm or less nodes have been manufactured at TSMC, a Taiwan foundry, since 2012.

Renesas’s microcontrollers in a car (source: EE News Europe Automotive)

Renesas’s microcontrollers in a car
(source: EE News Europe Automotive)

CMOS Image Sensors

CMOS image sensors serve as eyes of cars, performing camera functions on-chip. Today, automobiles typically are fitted with about 10 CMOS image sensors, a number forecast to grow to almost 20 by 2020 (source: Monoist, 2016). The sensor was originally used as a backup monitor but deployments grew with the advent of Advanced Driver-Assistance Systems (ADAS). The CMOS image sensor market is estimated to reach $2.3 billion USD by 2021, according to IC Insights. Sony is the global CMOS image sensor market leader, and ON Semiconductor and OmniVision Technology are big players in this growing segment.

In 2016, Denso started using Sony’s CMOS image sensors to detect pedestrians during night driving. Sony manufactures CMOS sensors at Kumamoto TEC and Nagasaki TEC on Kyusyu Island. In 2017, Sony acquired Toshiba’s Oita plant to increase the capacity to respond to the growing demand for backside illumination CMOS image sensors for higher resolution images at a low-light environments.

Sony’s 7.42 megapixel CMOS image sensor for automotive cameras (source: Sony Corporation)

Sony’s 7.42 megapixel CMOS image sensor for automotive cameras
(source: Sony Corporation)

Power Devices

Power semiconductors provide electrical control functions such as rectification, voltage regulation (boost/step-down), and DA/AD conversion. The automotive industry’s migration from fossil fuel vehicles to hybrid and electric vehicles is driving strong demand for power devices. The leading power device makers are competing to develop higher performance devices on new materials such as SiC and GaN.

For the past five years, the Japan government has funded SiC power device research and development (R&D) projects and, in 2016, the National Institute of Advanced Industrial Science and Technology (AIST) and Sumitomo Electric Industries built a 150mm SiC wafer line at AIST’s Super Clean Room Facility in Tsukuba, Ibaraki. The facility supports volume manufacturing, reliability testing and quality assurance.

Rohm is driving the Japan SiC power device industry. Rohm manufactures SiC power devices on 75mm, 100mm and 150mm wafers. In 2009, Rohm acquired a German SiC wafer maker, SiCrystal, which started supplying 150mm wafers to Rohm in 2013. Rohm also acquired Renesas Electronics’s Shiga plant (200mm line) in 2016 to manufacture SiC power and other discrete devices.

Fuji Electric manufactures various power products including SiC power devices. Fully 30 percent of its products ship to the automotive industry. In 2013, the company built a new SiC line in its Matsumoto plant that includes both wafer process and packaging facilities. Fuji Electric now develops high-performance SiC devices on the latest 150mm SiC wafer technology.

Toyota and Denso round out the Japan SiC power device industry. Denso markets its 150mm SiC technology under the “REVOSIC” brand. In 2013, Toyota built a SiC R&D facility at its Hirose plant for future SiC captive manufacturing.

SiC power semiconductors to improve vehicle’s fuel efficiency by 10 percent (target) (source: Toyota Motor Corp.)

SiC power semiconductors to improve vehicle’s fuel efficiency by 10 percent (target)
(source: Toyota Motor Corp.)

SEMICON will Update You on Automotive Semiconductor Market

Heavy investments in the development of autonomous vehicles and the continuing expansion of the electric car market promise to bolster the automotive semiconductor market in the coming years and beyond. In light of Japan’s leading automotive chip manufacturing industry, SEMICON Japan and all other SEMICON shows in 2018 will spotlight this important segment.

Originally published on the SEMI blog.

UnitySC, a developer of advanced inspection and metrology solutions, today announced it acquired 100% of the shares of HSEB Dresden, GmbH (HSEB), a supplier in optical inspection, review and metrology for high-value semiconductor applications. Following the acquisition, the new entity’s extended line of leading-edge process control solutions will provide a unique and essential inspection and metrology capability to semiconductor manufacturers. Together, the entity’s offerings span substrate, front-end-of-line (FEOL) manufacturing, wafer-level packaging, 3D ICs and power semiconductors. Further, bringing together the two companies will strengthen worldwide customer support for all platforms.

The combined product portfolio and future common platforms of UnitySC and HSEB will support manufacturing of devices used in mobility, automotive and internet of things applications. Combined, these markets are expected to reach a 14% CAGR, far outpacing the 8% growth forecast of the rest of the semiconductor industry. This will require the expansion and construction of new manufacturing facilities with novel equipment lines.

“Thanks to the proprietary technologies developed by both companies, this strategic acquisition further strengthens our capacity for development and innovation, enabling us to be the preferred partner to meet new customer requirements,” said Patrick Leteurtre, president of UnitySC. “Our product portfolio now spans the spectrum required for substrate control of new FEOL, advanced packaging applications such as fan-out wafer-level packaging, embedded dies and through silicon vias, resulting in a value-added market positioning that will further accelerate our growth.”

The new entity is distinguished by its strong semiconductor legacy and focus on technology development. More than 50% of its 140 employees are dedicated to R&D. Its extensive patent portfolio comprises 46 key patent families related to new semiconductor applications, and the management team is deeply rooted in the semiconductor industry. 

UnitySC and HSEB products are already in service in the top five foundries and the top 10 OSATs, supported by an experienced service team. The acknowledgment of its products as tools-of-record by customers working on next-generation processes has generated a growth rate of more than 50% in a market that generally does not exceed 10% CAGR.

At closing, UnitySC paid an undisclosed fixed price for 100% of the shares of HSEB. Jointly, the two entities achieved a turnover of $20 million in 2017, and recorded $22 million in bookings by the end of February 2018.

Broadcom Limited (NASDAQ: AVGO) (“Broadcom”) today announced that it has withdrawn and terminated its offer to acquire Qualcomm Incorporated (NASDAQ: QCOM) (“Qualcomm”) and has withdrawn its slate of independent director nominees for Qualcomm’s 2018 Annual Meeting of Stockholders. The Trump administration issued a Presidential Order this week to stop the acquisition.

Broadcom today issued the following statement:

“Although we are disappointed with this outcome, Broadcom will comply with the Order. Broadcom will continue to move forward with its redomiciliation process and will hold its Special Meeting of Stockholders as planned on March 23, 2018.

Broadcom’s Board of Directors and management team sincerely appreciate the significant support we received from the Qualcomm and Broadcom stockholders throughout this process.

Broadcom thanks the independent nominees who stood for election to the Qualcomm board, not only for their time and effort but also for their unwavering commitment to act in the best interests of Qualcomm stockholders.

Broadcom appreciates the following statement from U.S. Treasury Secretary and CFIUS chair Steven Mnuchin on March 12: “This decision is based on the facts and national security sensitivities related to this particular transaction only and is not intended to make any other statement about Broadcom or its employees, including its thousands of hard working and highly skilled U.S. employees.”

Synopsys, Inc. (Nasdaq: SNPS) today announced that Dr. John Rogers, principal engineer of imaging optics in the Optical Solutions Group at Synopsys, has been promoted to Fellow by SPIE, the international society for optics and photonics. Each year, SPIE recognizes distinguished individuals in the field of optics and optoelectronics through its Fellows program. The promotion recognizes Rogers’ technical achievements in optical design and engineering, as well as his extensive service and contributions to the optics community. Rogers will formally accept the honor at the SPIE Optics + Photonics Conference in San Diego, Calif. in August 2018.

Rogers is a recognized authority in the fields of optical design and aberration theory, particularly for optical systems with rotationally nonsymmetric and freeform elements. He was an early advocate of vector aberration theory, now known as nodal aberration theory. His 1986 paper “Practical Tilted Mirror Systems” showed for the first time that a tilted and/or decentered optical system could be arranged to have aberration patterns that mimic those of a rotationally symmetric system. He also has designed a wide range of significant and complex optical systems, including three-dimensional imaging for clinical dental applications, ophthalmic surgical systems, biocular and binocular systems, FLIR systems, and head-up and helmet-mounted displays.

Rogers has given extensive service to the optics community for educational activities and support for several technical societies. Currently, he is a reviewer for JOSA A, Optics Express and Optics Letters. In 2014 and 2017, he was co-chair for the International Optical Design Conference. In 2016, he was a guest speaker for the Optical Society of Southern California, and from 1992 to 1997, he was convener for the ISO TC172 SC1 WG2, which produced the ISO 10110 optical drawing standard. From 1984 to 1988, he was assistant professor at the Institute of Optics, University of Rochester.

Rogers has also given significant service to SPIE. He has served as a conference chair, committee member and contributor to many SPIE conferences. He is also a reviewer for Optical Engineering and has served as a guest editor as well. His talks at various SPIE conferences have often attracted large audiences.

He has authored or co-authored 37 journal and conference papers, has contributed articles for two books and holds 13 U.S. patents. He received a Ph.D. in Optics from University of Arizona, an M.S. in Optics from University of Arizona and a B.S. in Mathematics from Virginia Polytechnic Institute.

“John’s pioneering contributions to design strategies for tilted, decentered and freeform surfaces has significantly advanced the field of optical design and has helped to drive the development of advanced design features in the optical software that Synopsys supplies,” said George Bayz, vice president of Synopsys’ Optical Solutions Group. “We congratulate John on his many achievements and on his election to SPIE Fellow.”

EV Group (EVG), a supplier of wafer bonding and lithography equipment for the MEMS, nanotechnology and semiconductor markets, and IBM (NYSE: IBM) today announced that the companies agreed to sign a license agreement on laser debonding technology. EVG plans to integrate IBM’s patented Hybrid Laser Release process into EVG’s advanced, field-proven temporary bonding and debonding equipment solutions, which can provide high-volume manufacturers with greater flexibility to implement optimized temporary bonding and debonding process flows. Thanks to the added process variants from IBM that will be supported by EVG’s equipment portfolio, customers can choose from a wide range of bonding, cleaning and metrology process options to help address their temporary bonding and debonding requirements and applications.

The result, which is an advanced laser debonding solution based on EVG’s combination of the technology licensed from IBM with EVG’s know-how, encompasses methods and designs for UV and IR laser debonding (designed to enable the use of glass or silicon carriers) as well as inspection of the bond interfaces. The technologies contributed by IBM help EVG implement designs that address the industry’s critical requirements for temporary bonding and debonding, including high throughput, low wafer stress for high yield, and low cost of ownership of the laser equipment, processing and consumables. The advanced EVG solution encompasses techniques to help protect chips from heat and laser damage, as well as chemical clean technologies for device and carrier wafers.