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HYDERABAD, India, Nov. 15, 2024 /PRNewswire/ -- Cyient, a global Intelligent Engineering services company, today announced the expansion of its partnership with Allegro MicroSystems, Inc. ("Allegro MicroSystems") (Nasdaq: ALGM), a global leader in power and sensing solutions for motion control and energy efficiency, with the inauguration of a Center of Excellence (CoE) in Hyderabad, India. The CoE, located at Cyient's Manikonda Campus, will focus on developing next-generation magnetic sensors and power semiconductor products for the automotive industry. The state-of-the-art facility was inaugurated by Allegro MicroSystems President & CEO Vineet Nargolwala in the presence of Max Glover, Senior Vice President WW Sales, Allegro MicroSystems, and Suman Narayan, Senior Vice President, Products, Allegro MicroSystems. The CoE will house over 100 skilled engineers specializing in key areas such as post-silicon validation, design verification, analog design, analog mixed-signal verification, and embedded systems. This expansion significantly strengthens Allegro MicroSystems's presence in India, providing access to a highly skilled talent pool and fostering collaboration within the vibrant Indian technology ecosystem. The CoE will play a crucial role in accelerating the development of Allegro MicroSystems's sensor and power integrated circuit (IC) product portfolios, which are essential components in electric vehicles, advanced driver-assistance systems (ADAS) and other automotive applications. By leveraging Cyient's expertise in India, Allegro MicroSystems aims to bring innovative products to market faster and more efficiently. The collaboration will also focus on addressing key industry trends, including the increasing demand for magnetic sensors in electric vehicles, the rise of high-power devices such as SiC and GaN and the growing importance of embedded systems and platforms. "India's rapidly growing automotive market presents a tremendous opportunity for Allegro MicroSystems," said Vineet Nargolwala, CEO of Allegro MicroSystems. "This CoE established with Cyient's partnership, will enable us to accelerate innovation in magnetic sensors and power semiconductors, delivering cutting-edge solutions that address the evolving needs of the automotive industry. This investment reinforces Allegro MicroSystems's commitment to driving e-mobility, clean energy and automation forward, aligning perfectly with our vision for a safer, more sustainable and autonomous future." "Our relationship with Allegro MicroSystems has flourished over the past two years and we are incredibly proud of the team and the contributions they have made to Allegro MicroSystems's product portfolio. Semiconductors are at the heart of innovation across industries and this CoE strengthens Cyient's position as a leading partner for companies seeking to develop and manufacture cutting-edge semiconductor products," said Krishna Bodanapu, Executive Vice-Chairman & Managing Director, Cyient. This collaboration marks a significant milestone for both companies, reinforcing their commitment to driving innovation in the automotive semiconductor market. The CoE will not only contribute to the growth of the semiconductor industry in India but also support the global automotive industry's transition towards a more sustainable and technologically advanced future. About Allegro MicroSystems Allegro MicroSystems, Inc. is leveraging more than three decades of expertise in magnetic sensing and power ICs, to propel automotive, clean energy and industrial automation forward with solutions that enhance efficiency, performance and sustainability. Allegro MicroSystems's commitment to quality drives transformation across industries, reinforcing our status as a pioneer in "automotive grade" technology and a partner in our customers' success. For additional information, please visit https://www.allegromicro.com/en/. About CyientCyient (Estd: 1991, NSE: CYIENT) delivers Intelligent Engineering solutions for creating a digital, autonomous and sustainable future for over 300 customers, including 30% of the top 100 global innovators. As a company, Cyient is committed to designing a culturally inclusive, socially responsible and environmentally sustainable tomorrow together with our stakeholders. For more information, please visit www.cyient.com. Cyient Contact: Gowtham UyallaKaizzen PRgowtham.uyalla@kaizzencomm.com Phalguna Hari JandhyalaCyient phalguna.harijandhyala@cyient.com Allegro MicroSystems Contact: Tyler Weiland Corporate Communications (972) 571-7834 tweiland.cw@allegromicro.com
SINGAPORE, Aug. 13, 2024 /PRNewswire/ -- Power semiconductors are essential components that function as efficient switches and rectifiers in electrical circuits, controlling and converting power with minimal losses. Their importance has grown significantly due to the global push for energy efficiency and carbon neutrality. Experience the full interactive Multichannel News Release here: https://www.multivu.com/players/English/9281451-toshiba-power-semiconductor-technology-electric-vehicles/ Building a carbon-neutral future in mobility with Toshiba Power Semiconductor Toshiba is leading the charge in power semiconductor technology, playing a vital role in the automotive industry's shift towards electrification. Toshiba's power semiconductors are crucial for managing electricity in electric vehicles (xEVs), controlling power supply, voltage, and current switching. At the forefront of power semiconductor development, Toshiba focuses on silicon (Si)-MOSFETs to reduce CO2 emissions across multiple sectors, particularly in vehicle electrification. These cutting-edge power semiconductors are designed to meet the rigorous demands of automotive applications, withstanding extreme conditions, and maintaining near-zero defect rates. Power semiconductors are increasingly being used in automobiles. Toshiba is also developing next-generation power semiconductors using silicon carbide (SiC) and gallium nitride (GaN) for improved efficiency and performance. These materials enable higher voltage management with lower resistance, contributing to higher output and smaller devices. SiC semiconductors can reduce power consumption, CO2 emissions, and equipment size in electric vehicles, allowing for larger batteries and extended range. Toshiba's research aims to enhance power semiconductor performance for various applications, including xEVs, railways, and offshore wind power generation, focusing on quality and performance. Promotion of carbon neutrality is bringing next-generation power semiconductors into an increasing range of applications. Beyond automotive and the application areas mentioned above, power semiconductors also play crucial roles in other sectors. In industrial equipment, they are essential components in motor drives, robotics, and factory automation systems, enhancing performance and efficiency. In consumer electronics, these advanced semiconductors significantly improve energy efficiency across a broad spectrum of household devices and electronic products, reducing power consumption and improving sustainability in everyday technology. Power semiconductors drive innovation across industries. As the world races to combat climate change, Toshiba emerges as a beacon of innovation. With over 60 years of research in silicon power semiconductors, Toshiba has developed a comprehensive lineup of more than 500 products. The U-MOS series of low-voltage MOSFETs, for instance, delivers world-class performance. Power semiconductors are the silent revolutionaries driving the electric transformation of our world. Toshiba's unwavering commitment to semiconductor innovation is revolutionizing the automotive industry and laying the foundation for a sustainable, electrified future that will reshape every facet of our daily existence.
QROMIS, a Silicon Valley-based company, revolutionizes the semiconductor industry with its groundbreaking QROMIS Substrate Technology (QST®), addressing critical cost and reliability challenges for gallium nitride (GaN) devices. SAN ANTONIO, July 9, 2024 /PRNewswire/ -- Frost & Sullivan recently researched the GaN semiconductors industry and, based on its findings, recognizes QROMIS with the 2024 Global Enabling Technology Leadership Award. QROMIS is a world-class advanced semiconductor technologies provider that offers high performance materials solutions to help global businesses enhance their digital transformation, improve efficiency, and boost productivity in multiple markets, including power and radio frequency (RF) electronics, light emitting diodes (LEDs) and advanced displays. QROMIS leverages its disruptive and patented QST® substrate innovation (protected by ~300 worldwide patents) to develop GaN devices, which reduces costs and increases the reliability. CMOS fab-friendly and SEMI standard thickness QST® ensures compatibility with standard semiconductor manufacturing processes, promoting long-awaited scalability and sustainability, enabling superior thermal conductivity, and lowering energy consumption. The groundbreaking QST® substrate technology has an embedded high thermal conductivity and high mechanical strength core material which has a very closely matched coefficient of thermal expansion to those of GaN/AlGaN epitaxial layers over a wide temperature range, enabling wafer breakage / stress-free, scalable, low cost and high performance GaN power device manufacturing on 200 mm and 300 mm mainstream CMOS production platforms. These unique features enable not only the mainstream lateral GaN power devices but also the long awaited commercial vertical GaN power switches and rectifiers suitable for high voltage and high current applications presently dominated by Si IGBTs and SiC power FETs and diodes. QST®, which is assembled and manufactured in traditional CMOS fabs, is very similar to mainstream Silicon-on-Insulator (SOI) substrates with respect to manufacturing processing and cost, and utilizes energy efficient state-of-the-art semiconductor process tools with an over 98% yield and a process cycle time of less than 7 days. This is a critical component of the QST® innovation which was carefully designed per the projected cost and sustainability / net zero requirements in the industry, and very different than manufacturing of native GaN substrates or non-native silicon carbide (SiC) and sapphire substrates. One of the critical features of QST® technology is the enablement of high yielding and low cost GaN epitaxy growth process via robust wafer shape control, epitaxy uniformity and elimination of costly and complex strain management layers which result in reduction of epitaxy growth time by 50%. This is an extremely important and leap-forward achievement for overall cost reduction of GaN devices. One of the critical factors behind QROMIS' success is its commitment to driving GaN technology adoption across multiple market segments. The company collaborates with global industrial partners to leverage their manufacturing platforms, securing the scalability and widespread adoption of QST® platform which has proven to be a game-changer in the industry, allowing GaN power devices to exceed the 650 V threshold to 2000 V and beyond on 200 mm and 300 mm diameters while maintaining high performance and reliability. In addition to GaN power electronics, this groundbreaking and disruptive technology is also well positioned to enable significant advancements in GaN RF and microLED applications, and all applications can be manufactured in the same platform for business expansion, economies of scale and sustainability. "Frost & Sullivan commends QROMIS for its innovative QST®, which effectively addresses scalability, cost and reliability challenges in the GaN semiconductors market. QST® will play a crucial role in expediting the commercialization of highly reliable GaN devices while showcasing versatility in applications and demonstrating scalability for future advancements," said Prabhu Karunakaran, industry principal for the semiconductors program at Frost & Sullivan. The company has positioned itself as an innovation leader in the substrate market and enables the development of high-quality GaN power electronics in variety of device architectures on 200 mm diameter platform (lateral and vertical power switches extending from 100 to 2000 V and beyond, wafer-level monolithic ICs and rectifiers) that meet the stringent requirements of modern applications and the ever-evolving market needs. Additionally, QROMIS continues to expand its technology roadmap with transition its process technology platform to 300 mm QST® wafers (sampling starting in second half of 2024). This strategic move will further enhance cost reduction and address challenges of accessing to the most advanced 300 mm device manufacturing processes and tools (such as high-resolution lithography) which is critical for next-generation GaN power, RF and microLED applications. By advancing its technology to support larger wafer sizes, QROMIS is poised to disrupt the GaN market and drive accelerated growth. This is well ahead of some of the competing technologies, which are not expected to launch 300 mm wafer-based GaN in the short-term. The company's forward-thinking approach gives it a critical competitive advantage that its competitors are unlikely to replicate, ensuring that its technology will remain at the forefront of innovation in the long term. "QROMIS is building on its early commercialization success by consistently demonstrating efforts to innovate, create, and focus on diverse applications, accelerating GaN penetration in the power, RF, and microLED markets. Consequently, the company is well-positioned to experience continued growth above that of the GaN devices market," noted Karunakaran. Each year, Frost & Sullivan presents this award to a company that develops a pioneering technology that enhances current products and enables new product and application development. The award recognizes the high market acceptance potential of the recipient's technology. Frost & Sullivan Best Practices awards recognize companies in various regional and global markets for demonstrating outstanding achievement and superior performance in leadership, technological innovation, customer service, and strategic product development. Industry analysts compare market participants and measure performance through in-depth interviews, analyses, and extensive secondary research to identify best practices in the industry. About Frost & Sullivan For six decades, Frost & Sullivan has been world-renowned for its role in helping investors, corporate leaders, and governments navigate economic changes and identify disruptive technologies, megatrends, new business models, and companies to action, resulting in a continuous flow of growth opportunities to drive future success. Contact us: Start the discussion. Contact:Ashley Shreve About QROMIS QROMIS, Inc., founded in 2015 by Cem Basceri and Vladimir Odnoblyudov, is a privately-held fabless technology innovator headquartered in Santa Clara, California. It is focused on energy efficient and high-performance wide bandgap (WBG) semiconductor materials solutions which dramatically reduce global energy use and consumption. As a rapidly growing Silicon Valley-based fabless company, QROMIS, with its manufacturing partners and licensees - Vanguard International Semiconductor Corp. (VIS) and Shin-Etsu Chemical Co., Ltd. - is one of the premier players in the rapidly growing, multi-billion dollar energy efficient gallium nitride (GaN) electronics industry with its disruptive and patented engineered substrate innovation called QST® (QROMIS Substrate Technology), enabling an unmatched cost, performance and application scale for GaN power, RF, microLED applications. Commercial 200 mm QST® substrates and GaN-on-QST® epitaxy wafers are currently available from QROMIS and Shin-Etsu Chemical (sampling of 300 mm QST® starting in Q4 2024) for high performance GaN power, RF and microLED device applications. In parallel, VIS, as a pure-play foundry service provider, is in production of 200 mm Gen1 GaN-on-QST® 650V power devices for all industry players. Gen2 650V devices, designed for industrial and automotive applications, will be launched in second half of 2024 followed by 1200 V devices in 2025. Contact: Kimberley Wenger(kim@qromis.com)
Imagine driving a car that can sense its surroundings, communicate with other vehicles, and make decisions on its own. A car that can park itself, avoid collisions and optimize fuel efficiency. A car that is not just a vehicle, but a smart and connected device. Sounds futuristic, right? Well, this is not science fiction. This is the reality of automotive semiconductors, the tiny chips that power the modern vehicles we use every day. Automotive semiconductors are a major component used in various automotive products, like navigation control, infotainment systems, and collision detection systems. They help perform efficiently, detect and classify objects, and alert the driver about the surroundings and road conditions. They also enable most of the innovations in vehicle development and are the catalyst for the growth which is driving consumer demand. They include different components, such as processors, sensors, memory devices, integrated circuits, and discrete power devices. They are used in vehicles with different fuel types, including diesel, gasoline, electric, and hybrid. They are one of the fastest-growing segments of the global semiconductor industry and are influenced by other applications, such as 5G, Artificial Intelligence (AI), and the Internet of Things (IoT). In this blog post, we will take you inside the world of automotive semiconductors and show you how they are transforming the automotive industry and society. We will explore: The impact of autonomous vehicles on automotive semiconductors The challenges and opportunities for semiconductor companies in the automotive market The future trends and technologies that will shape the automotive semiconductors If you are interested in learning more about this fascinating topic, keep reading. You will discover how automotive semiconductors are making our cars smarter, safer, and more sustainable. The Impact of Autonomous Vehicles on Automotive Semiconductors Autonomous vehicles (AVs) are vehicles that can drive themselves without human intervention. They use a combination of sensors, semiconductors, and software to perceive their environment, plan their route, and execute their actions. AVs have the potential to improve road safety, reduce traffic congestion, lower emissions, and offer new mobility options for people and goods. The Impact of Autonomous Vehicles on Automotive Semiconductors However, AVs also pose significant challenges and opportunities for the automotive semiconductor industry. AVs require more and better semiconductors than conventional vehicles, as they need to process huge amounts of data in real-time and perform complex tasks such as object detection, lane keeping, and collision avoidance. According to McKinsey, autonomous chips—those used to enable AV functions—are expected to generate $29 billion in revenue by 2030. The demand for autonomous chips is driven by the level of automation of AVs, which ranges from 0 (no automation) to 5 (full automation with self-driving capabilities) according to the Society of Automotive Engineers (SAE). The higher the level of automation, the more sensors and compute-electronics content are needed. For example: A level 2 vehicle may have a few cameras and radars A level 5 vehicle may have dozens of cameras, radars, lidars, and ultrasonic sensors Similarly: A level 2 vehicle may have a single processor or a system-on-chip (SoC) A level 5 vehicle may have multiple processors or SoCs with high performance, low power consumption, reliability, and safety To meet the requirements of AVs, semiconductor companies need to develop new technologies and capabilities, such as: Specialized chips tailored to specific applications Advanced packaging solutions that enable higher integration and connectivity Software platforms that support machine learning and mapping Semiconductor companies also need to collaborate with automakers and software players to ensure compatibility and interoperability among different components and systems. The competitive landscape and potential collaboration models among semiconductor companies, automakers, and software players in the AV market are still evolving. Some examples are: Some automakers are developing their own chips in-house or partnering with specific semiconductor companies to gain more control and differentiation Some semiconductor companies are expanding their offerings beyond chips to include sensors, software, and services Some software players are entering the automotive market as suppliers or competitors of automakers The AV market is still nascent and uncertain, with many technical, regulatory, and consumer barriers to overcome. However, it also offers tremendous opportunities for innovation and growth in the automotive semiconductor industry. Semiconductor companies that can understand the impact of AV technologies on chip demand, develop new solutions that meet the needs of AVs, and collaborate effectively with other players along the value chain will be well-positioned to capture the value of this emerging market. The Future of Automotive Semiconductors The automotive semiconductor market is expected to grow at a compound annual growth rate (CAGR) of 6.2% from 2020 to 2030, reaching $67.5 billion by 2030. The growth is driven by the increasing vehicle production, increasing electronic content per vehicle, and growing demand for advanced vehicle safety and comfort systems. However, the automotive semiconductor market is also facing some challenges and uncertainties, such as the impact of the COVID-19 pandemic, the trade tensions between the US and China, the regulatory and consumer barriers for AV adoption, and the competition from new entrants and substitutes. The Future of Automotive Semiconductors To overcome these challenges and seize the opportunities, the automotive semiconductor industry needs to keep pace with the emerging trends and technologies that will shape the future of automotive. Some of these trends and technologies are: 5G: The fifth generation of mobile networks will enable faster data transmission, lower latency, higher reliability, and more connectivity for vehicles. 5G will support various applications for AVs, such as vehicle-to-everything (V2X) communication, cloud computing, edge computing, and over-the-air (OTA) updates. 5G will also enable new mobility services, such as ride-hailing, car-sharing, and robo-taxis. Semiconductor companies need to develop 5G-compatible chips and modules that can meet the requirements of automotive applications. AI: Artificial intelligence (AI) is the technology that enables machines to learn from data and perform tasks that normally require human intelligence. AI is essential for AVs, as it enables them to perceive their environment, plan their route, and execute their actions. AI also enhances other automotive functions, such as infotainment, personalization, diagnostics, and maintenance. Semiconductor companies need to develop AI-enabled chips that can provide high performance, low power consumption, scalability, and security for automotive applications. IoT: Internet of Things (IoT) is the network of physical objects that are embedded with sensors, software, and connectivity that enable them to exchange data with other devices and systems. IoT enables vehicles to connect with other vehicles, infrastructure, devices, and cloud services. IoT also enables vehicles to collect and analyze data from various sources, such as sensors, cameras, GPS, and weather. Semiconductor companies need to develop IoT-based semiconductors that can integrate multiple functions and features on a single chip or module. UWB: Ultra-wideband (UWB) is a wireless technology that uses short pulses of radio waves to transmit data over a wide frequency range. UWB offers high accuracy, low power consumption, high security, and low interference for wireless communication. UWB can be used for various automotive applications, such as keyless entry, theft prevention, parking assistance, collision avoidance, and indoor navigation. Semiconductor companies need to develop UWB-compatible chips and modules that can meet the standards and specifications of automotive applications. These are some of the trends and technologies that will shape the future of automotive semiconductors. They will create new opportunities and challenges for the automotive semiconductor industry. Semiconductor companies that can innovate and adapt to these changes will be able to gain a competitive edge and capture a larger share of this growing market. AI is essential for AVs Conclusion This blog post has shown you how automotive semiconductors are changing the automotive industry and society. You have learned about the impact of autonomous vehicles, the challenges and opportunities for semiconductor companies, and the future trends and technologies in this field. Automotive semiconductors are a key driver of innovation and growth in the automotive sector and beyond. If you want to know more, you can read our related blog posts or contact us. Thank you for reading and sharing this blog post. We hope you enjoyed it and learned something new.
SEOUL, South Korea, April 25, 2024 /PRNewswire/ -- Key Foundry, an 8-inch pure-play foundry in Korea, announced today that it is offering an enhanced 0.13㎛ BCD process to enable automotive power fabless companies to design high-performance automotive semiconductor products. SK keyfoundry's enhanced 0.13㎛ BCD process has met the requirements of AEC-Q100's Grade-0, reliability test standard for automotive electronic components, and is qualified to be a suitable process for high-performance and high-reliability automotive semiconductors that must withstand the ambient operating temperature up to 150℃. Also, the process offers high-voltage devices up to 120V and implements insulation technology above 15KV at the same time, enabling the design of high-voltage and high-reliability products such as BMS IC, Isolated gate driver IC, DC-DC IC, CAN/LIN transceiver IC for use in electric vehicles. In addition, as high-density Flash memory IP can be used in a high-voltage BCD process, it is a suitable process technology for automotive semiconductors such as Motor Driver IC, LED driver IC, Sensor controller IC, Power Delivery controller IC that require MCU functionality. In particular, Flash IP can be programmed up to 100,000 times, enabling customers to use it extensively for high-performance products that require repeated data changes. The automotive power semiconductor market is expected to continue to expand macroscopically, driven by the proliferation of electric vehicles and increasing in-vehicle electronics. According to market research firm OMDIA, the automotive power semiconductor market is expected to grow from $20.8 billion in 2023 to $32.5 billion in 2028, at a CAGR of 9.3%. SK keyfoundry has continued to develop high-performance process technologies suitable for automotive semiconductors, and has passed production quality audits for automotive components from top-tier(Tier-1) global automotive vendors with stringent quality requirements due to its high quality control levels, enabling the company to provide foundry services that meet customer needs while securing high process reliability that can be used in vehicles. "Despite the limited number of foundries offering automotive power semiconductor processes, we have continued to improve our automotive high-voltage BCD processes with high performance," said Derek D. Lee, CEO of SK keyfoundry, emphasizing the company's technology development efforts. "With more than 10 years of mass production experience with major automotive fabless companies and the quality of our mass production, we will strongly pursue our business strategy to secure a solid growth base in the 8-inch automotive power semiconductor market in the future." About SK keyfoundry Headquartered in Korea, SK keyfoundry provides specialty Analog and Mixed-Signal foundry services for semiconductor companies to serve a wide range of applications in the consumer, communications, computing, automotive and industrial industries. With a broad range of technology portfolios and process nodes, SK keyfoundry has the flexibility and capability to meet the ever-evolving needs of semiconductor companies across the globe. Please visit https://www.skkeyfoundry.com for more information.
LONDON, Nov. 15, 2023 /PRNewswire/ -- Decades old norms are being challenged in the power semiconductor industry as Omdia predicts an explosion in novel semiconductors due to the electric vehicle (EV) revolution. Will the AI boom have a similar impact? Power discretes, modules and ICs forecast Omdia Senior Analyst for semiconductor components Callum Middleton said: "An industry which has long relied on silicon technologies is being both challenged and enabled by devices fabricated from new materials. The development of both gallium nitride (GaN) and silicon carbide (SiC) power devices began in the previous century, but their technology maturity has matched with the sustainability movement, and devices manufactured from the new materials offer significant efficiency gains in our energy hungry world." The initial adoption of SiC devices into Tesla devices in 2018 catapulted the technology from laboratories and test designs into the mainstream. Since then, the EV market has taken off and more manufacturers are looking to include these technologies in their vehicles due to the benefits in performance charging speed, and range. This early adoption has allowed SiC to prove its performance and reliability in the real world and phone and laptop chargers has done similar for GaN. As the AI boom gathers pace it is going to put added stress onto our energy supply and distribution systems. To ensure that the benefits of AI are fully enjoyed and that this is done so sustainably we will have to ensure that efficiency is maximised, but this does not have to be done at the cost of profitability. Adopting a SiC or GaN solution for power supplies in data centers can significantly reduce energy consumption whilst simultaneously freeing up space for extra computing power. "These novel devices, and the decades of research, development, testing, and engineering that has gone before them, may not grab the headlines but they will be essential for enabling the scale and potential of Artificial Intelligence," concluded Middleton. Senior professionals from the display, AI chips and semiconductors industries are set to converge at the highly anticipated Omdia Korea Technology Conference November 22-24, 2023, in Seoul, Korea where Middleton will present Omdia's latest semiconductor research. Register here for your place. ABOUT OMDIA: Omdia, part of Informa Tech, is a technology research and advisory group. Our deep knowledge of tech markets combined with our actionable insights empower organizations to make smart growth decisions. Fasiha Khan Fasiha.khan@informa.com
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