Mayfield Partners with Silicon Catalyst to Fund Silicon Startups

发布时间:2022-12-30 16:44
作者:Ameya360
来源:网络
阅读量:2510

  Silicon Catalyst will provide eligible startups with $150 thousand in funding and potential for more.

  If there’s one thing that’s apparent in the tech boom of the last decade, it’s that the focus of many venture capitalists is on software-based and digital-app startups. I may be over generalizing, but many of these investors don’t understand what is commonly now called deep tech, especially since software and digital startups are easier and simpler to understand as they provide an easy route to potential exit, with low cost of entry and business models often relying on going viral and attracting volumes of users on their platforms.

  But silicon startups have bigger barriers to entry in terms of cost, product development, and long customer development cycles. So, anything that gives them support to get to product quicker has to be a bonus. One incubator that has been gradually growing its support for the semiconductor startup ecosystem is Silicon Catalyst. The California-based company offers an ecosystem of in-kind partners that provide startups with access to design tools, silicon devices, and networking, as well as a path to funding, banking, and marketing acumen.

  Silicon Catalyst was established in the Bay Area in California in 2015 by Rick Lazansky, Mike Noonen, Dan Armbrust, and Tarun Verma, and now has chapters in Israel, the U.K., and China. Its focus is exclusively on accelerating semiconductor solutions, built on a comprehensive coalition of in-kind and strategic partners to dramatically reduce the cost and complexity of development. More than 700 startup companies worldwide have engaged with Silicon Catalyst and the accelerator has admitted 88 companies.

  Last week, Silicon Catalyst announced a significant partnership with venture capital firm Mayfield to foster silicon startup innovation. Mayfield will invest capital in and provide mentoring to the majority of seed stage companies admitted to the Silicon Catalyst incubator/accelerator, and evaluate them for follow-on investments.

  In an exclusive interview with EE Times, Silicon Catalyst and Mayfield explained why such a partnership was needed.

  “Since starting Silicon Catalyst, we’ve been able to de-risk the initial growth path for semiconductor startups,” said Silicon Catalyst CEO Pete Rodriguez. “If you’re going to partner with someone, it is important to partner with a tier one investor like Mayfield. This now allows us to be more like a Y Combinator for silicon startups.”

  He added, “Mayfield and Silicon Catalyst share the same goal of driving semiconductor innovation and startup company market success. It is exciting to know that most seed stage companies will be eligible to receive $150 thousand at admission into the Silicon Catalyst program as a result of our alliance with Mayfield. Furthermore, this will allow startups to hit the ground running in conjunction with free shuttle runs, design tools, and IP from our more than 60 in-kind partners, which include TSMC, Synopsys, and Arm.”

  Navin Chaddha, managing partner at Mayfield, said, “We have a strong conviction in the renaissance of silicon, a trend that has accelerated in the wake of the plateauing of Moore’s Law. Hence, we would also like to further startup innovation, and so partnering with Silicon Catalyst enables us to look at multiple emerging opportunities, especially in areas like RISC-V and chiplets, and several others that will form the potential building blocks for next generation technologies and products.”

  Both Chaddha and Rodriguez were conscious of not sending out the wrong message in regard to the RISC-V element of that statement. Chaddha said their approach is completely architecture agnostic, and that Mayfield has backed startups developing both Arm-based products and RISC-V products. Meanwhile, Rodriguez emphasized the importance of Arm in the Silicon Catalyst ecosystem. Mayfield’s investments over the last five years have included Alif Semiconductor, Frore Systems, Fungible, Graphwear, Nuvia (acquired by Qualcomm), Recogni, and a couple of stealth startups.

  Mayfield investments

  Mayfield’s current and milestone semiconductor investments. (Source: Mayfield)

  Alif Semiconductor co-founder and president Reza Kazerounian explained to me in Cambridge, U.K., earlier this year why Arm was important for its growth: he said that Alif was after a large customer base, and that meant they needed a large support ecosystem and toolchain behind their products. Conversely, Chaddha said they also have startups in Mayfield’s portfolio that are using RISC-V and are in the process of making architectural changes.

  Over the years, Mayfield has had a track record of investing in iconic semiconductor companies such as Cypress, Inphi, LAM Research, LSI Logic, MIPS, Qtera, S3, and Sandisk. “The Silicon Catalyst team have been unwavering supporters of entrepreneurs across the semi ecosystem, spanning photonics, IP, MEMS, sensors, materials, and life science innovation teams worldwide,” Chaddha said. “They have their finger on the pulse of the major societal trends and technology inflection points that are powering this [silicon] renaissance. Together, we are excited to watch many industries being revolutionized by the new wave of semiconductor startups. It is an honor to partner with Silicon Catalyst to nurture the wave of entrepreneurs bringing silicon back to Silicon Valley.”

  How the partnership will work

  So, how exactly will the partnership between Silicon Catalyst and Mayfield work? The aim of the partnership is to provide mentorship and investment to companies coming into Silicon Catalyst. The incubator has two primary screening cycles, but will consider companies out of phase. Seed stage companies will be eligible to receive $150 thousand in funding, though it’s important to emphasize that not all the companies receive the funding automatically—they will go through Mayfield’s own criteria for investing, too. Chaddha said the fund amount is flexible, so there is no cap as such. I also asked whether it would be limited to those companies based in Silicon Valley only, and Chaddha said they would look globally.

Mayfield Partners with Silicon Catalyst to Fund Silicon Startups

  Navin Chaddha (left) with Pete Rodriguez (right). (Source: Silicon Catalyst).

  As these incubated companies progress through incubation, they will be eligible to apply to Silicon Catalyst Angels and receive additionally matching investments of up to $250 thousand per company from the new alliance. Finally, startup companies that received these investments and execute on their plans will be at the top of the pipeline for future investments through Mayfield’s regular investment funds.

  Chaddha said the key benefit of the partnership is that it will help silicon startups lower the cost of getting products to market and accelerate the path to design wins. Sean Redmond, managing partner for the U.K. branch of Silicon Catalyst, said, “What we are seeing is that for semiconductor startups, time is not their best friend. Hence, the more you take out the risk the better, and having Mayfield back our startups is a huge benefit.”


(备注:文章来源于网络,信息仅供参考,不代表本网站观点,如有侵权请联系删除!)

在线留言询价

相关阅读
What is a silicon controlled rectifier and its types
  The advent of electronic devices and power control systems has revolutionized various industries. One crucial component that plays a significant role in these systems is the Silicon Controlled Rectifier.  Silicon Controlled Rectifiers are vital components in electronic devices and power control systems. It allows current to flow in only one direction while providing control over the power output. It consists of three layers of semiconducting material, forming a P-N-P-N structure. This article will be exploring their types, applications, and working principle. Understanding SCRs is crucial for comprehending their significance in modern technology.  What is a silicon controlled rectifier and its typesA Silicon Controlled Rectifier is an electronic component based on thyristors (power electronic power devices) and designed to allow current flow in only one direction while controlling the power output.  It comprises three layers of semiconducting material: two P-type layers sandwiching an N-type layer or vice versa, creating a P-N-P-N structure. SCRs are available in various types, each with unique characteristics and applications.  Some common types include phase-controlled SCRs, light-activated SCRs (also known as LASCRs), and gate turn-off SCRs (GTOs). Phase-controlled are widely used in power control applications, while LASCRs are primarily used in light-sensitive circuits. GTOs provide additional control features, allowing the device to be turned off by a gate signal. Understanding the different types helps in selecting the appropriate device for specific applications.  What is the main purpose of SCRThe primary function of a Silicon Controlled Rectifier is to convert alternating current (AC) to direct current (DC), controllable rectification and voltage stabilization, and can be used as a contactless switch in automation equipment, as well as play the role of switching and voltage regulation, that is, it can be used in AC circuits to adjust the output voltage.  It act as efficient rectifiers by allowing current flow during specific portions of the AC waveform. This controlled rectification process enables the regulation of voltage and current levels in various electronic systems. By controlling the timing and duration of the current flow, SCRs can precisely manage the power output. This makes them crucial components in power control systems, where stable and controlled DC power is required. It find extensive applications in industries such as power electronics, industrial automation, and consumer electronics. They are commonly used in motor drives, heating systems, lighting control, power supplies, and more. The ability is to convert AC to DC with high efficiency and accuracy makes them indispensable in modern technology.  What are the applications of silicon controlled rectifiersSilicon Controlled Rectifiers have diverse applications across a wide range of industries. Their ability to control power flow and handle high currents makes them invaluable in various electronic systems.  They are commonly used in power electronics, industrial automation, and consumer electronics. They find extensive applications in motor drives, where they control the speed and torque of electric motors.  They are also utilized in heating systems, such as electric furnaces and electric water heaters, to precisely regulate temperature. In lighting control, it is employed in dimmers to adjust the brightness of light sources.  Additionally, it plays a significant role in power supplies, battery chargers, and voltage regulators. With the increasing demand for electric vehicles and renewable energy systems, it is used in electric vehicle charging stations and solar power inverters. The wide-ranging applications showcase their versatility and importance in modern technology-driven industries.  How does a SCR controller workAn SCR controller operates by controlling the triggering to switch between on and off states. When a control signal exceeds a specific threshold voltage, it triggers the gate of the SCR, allowing current to flow through the device. It remains in the conducting state until the current drops below a specified level or a reverse voltage is applied across it. This working principle enables precise control over the power flow in a circuit. By adjusting the timing and duration of the control signal, it can regulate the amount of power delivered to the load.  They are widely used in applications that require accurate and efficient power control, such as motor speed control, heating systems, and voltage regulation. The ability is to rapidly switch on and off with high precision makes them indispensable in various electronic systems.
2023-10-13 10:59 阅读量:2069
Silicon Photonics Will Become Key to Semiconductor Future Development
  In recent years, with the rise of AI and 5G technologies leading to increasing computational demands, Silicon Photonics technology has once again become a focal point of discussion in the semiconductor industry.  AMEYA360 Perspective:  Rewriting Semiconductor Development Rules with Silicon Photonics  Since the development of the semiconductor industry, the industry’s trajectory has largely followed the development predicted by Gordon Moore – roughly doubling the number of transistors that can be accommodated on an integrated circuit approximately every two years. However, as chip sizes continue to shrink, chip architecture design is gradually being challenged. Semiconductor manufacturers, including TSMC, Samsung, and Intel, are striving to break through Moore’s Law as their goal. Others have publicly announced their focus on mature processes (the industry divides at 7nm, with 7nm and below considered advanced processes) and optimization of existing technologies.  However, even as manufacturers push the boundaries of Moore’s Law, leading to increased transistor density per unit area, signal loss issues inevitably arise during signal transmission since chips rely on electricity to transmit signals. Despite the increased transistor count, power consumption problems persist. Silicon Photonics technology, which replaces electrical signals with optical signals for high-speed data transmission, successfully overcomes this challenge, achieving higher bandwidth and faster data processing. With this approach, chips do not need to cram more transistors per unit area or pursue smaller nanometers and nodes. Instead, they can achieve higher integration and performance on existing processes, further advancing technology.  Optimistic about Silicon Photonics Technology, but Breakthroughs Will Take Time  Currently, Silicon Photonics technology still faces various challenges, including alignment and coupling, thermal management, modulation and detection, expansion and integration, among others. Significant breakthroughs are unlikely in the short term, and major global manufacturers are still in the early development stages. In Taiwan, recent reports suggest that TSMC is actively venturing into Silicon Photonics technology. While TSMC has not officially confirmed this news, during the Silicon Photonics International Forum, a senior vice president from TSMC clearly stated, “If a good Silicon Photonics integration system can be provided, it can address the key issues of energy efficiency and AI computing power. This could be a Paradigm Shift, and we might be at the beginning of a new era.”  This suggests that TSMC is optimistic about the development of Silicon Photonics technology. Although Taiwanese companies have not formally announced their entry into the Silicon Photonics field, it is expected that with the explosive growth in demand for data transmission, storage, and computing driven by AI technology, Silicon Photonics will undoubtedly be a critical technology for future semiconductor development.
2023-09-18 16:23 阅读量:2169
SIT Announced a Dual Channel Local Interconnect Network (LIN) Transceiver--SIT1022Q
  SIT1022Q is a dual channel Local Interconnect Network (LIN) physical layer transceiver that is compliant with LIN 2.0, LIN 2.1, LIN 2.2, LIN 2.2A, ISO 17987-4:2016 (12V) and SAE J2602 standards. It is mainly suitable for in-vehicle networks with a transmission rate of 1kbps to 20kbps.       SIT1022Q controls the state of the LINx bus through the TXDx pin, and can convert the data stream sent by the protocol controller into a bus signal with the best slew rate and waveform shaping to minimize electromagnetic radiation emission (EME). The LIN bus output pin has an internal pull-up resistor. Only when used as a master node, the LIN bus port needs to be pulled up to VBAT through an external resistor in series with a diode. SIT1022Q receives the data stream on the bus through the LINx pin, and transmits the data to the external microcontroller through the receiver’s output pin RXDx.  SIT1022Q can operate from 5.5V to 18V and supports 12V applications. SIT1022Q has an extremely low quiescent current consumption in sleep mode and standby mode. It can quickly minimize power consumption in the event of a failure. The device can be placed in normal mode via a signal on the pin SLP_Nx.  PIN CONFIGURATION  FEATURE  Compliant with LIN 2.x/ISO 17987-4:2016 (12V)/SAE J2602  Compatible with K line  Integrated over-temperature protection function (thermal shutdown)  Integrated dominant time out function  Integrated bus pull-up slave termination resistor  Bus current limiting protection  Supply undervoltage detection  Very low power consumption in sleep mode and standby mode  Support LIN bus remote wake-up  LIN data transmission rate up to 20kbps  Available in SOP14 and DFN4.5×3-14 packages
2023-01-03 15:44 阅读量:2564
Silicon mass produces CANFD chip SIT1043Q with board sleep and wake up
  SIT1043Q is an interface chip applied between CAN protocol controller and physical bus, supports 5Mbps Flexible Data-Rate, and has the capability of differential signal transmission between bus and CAN protocol controller. The SIT1043Q features a CAN bus fault protection from -58V to +58V, and the receiver common mode input voltage can reach -30V to +30V, which is suitable for 12V or 24V application systems. The SIT1043Q is powered by multiple power supplies and has multiple system protection and diagnostic functions to improve the stability of the device and CAN.         In addition, SIT1043 has five working modes: normal mode, silent mode, standby mode, go-to-sleep mode and sleep mode. It supports local wake-up and remote wake-up in low power mode. The provided low power mode management can greatly save the power of CAN bus application system. SIT1043Q with INH pin function can control the LDO that supplies power to the system, so that the system can shut down LDO output in sleep mode to achieve the lowest power consumption, so as to meet the customers’ low power requirement.  Main applications is automotive and transport, such as body control, automotive gateway, ADAS, information, entertainment, BMS.  SIT1043Q APPEARANCE:   SIT1043Q PIN DISCRIPTION:    FEATURES  ➢Fully compatible with the ISO 11898-2:2016 standard  ➢Low power sleep mode and standby mode  ➢Remote wake-up function and local wake-up function  ➢±58V BUS protection  ➢±30V receiver common mode input voltage  ➢I/O pin supports 3.3V/5V MCU  ➢Driver (TXD) dominant timeout function  ➢Under voltage protection on VBAT, VCC and VIO pins  ➢High-speed CAN, support 5Mbps CAN with Flexible Data-Rate  ➢Sleep mode INH output pin with power disable function  ➢-40℃ to 150℃ junction temperature range with over temperature protection  ➢The typical loop delay from TXD to RXD is less than 100ns  ➢High ElectroMagnetic Immunity  ➢Transceiver in unpowered state disengages from the bus  ➢With SPLIT pin for common-mode stabilization
2022-11-09 09:56 阅读量:2482
  • 一周热料
  • 紧缺物料秒杀
型号 品牌 询价
TL431ACLPR Texas Instruments
BD71847AMWV-E2 ROHM Semiconductor
CDZVT2R20B ROHM Semiconductor
RB751G-40T2R ROHM Semiconductor
MC33074DR2G onsemi
型号 品牌 抢购
TPS63050YFFR Texas Instruments
BP3621 ROHM Semiconductor
ESR03EZPJ151 ROHM Semiconductor
STM32F429IGT6 STMicroelectronics
IPZ40N04S5L4R8ATMA1 Infineon Technologies
BU33JA2MNVX-CTL ROHM Semiconductor
热门标签
ROHM
Aavid
Averlogic
开发板
SUSUMU
NXP
PCB
传感器
半导体
相关百科
关于我们
AMEYA360微信服务号 AMEYA360微信服务号
AMEYA360商城(www.ameya360.com)上线于2011年,现 有超过3500家优质供应商,收录600万种产品型号数据,100 多万种元器件库存可供选购,产品覆盖MCU+存储器+电源芯 片+IGBT+MOS管+运放+射频蓝牙+传感器+电阻电容电感+ 连接器等多个领域,平台主营业务涵盖电子元器件现货销售、 BOM配单及提供产品配套资料等,为广大客户提供一站式购 销服务。