A new choice for high-accuracy, highly compatible current sensing: NOVOSENSE launches the NSCSA21x-Q series high-precision current sense amplifiers
  NOVOSENSE has launched the NSCSA21x-Q series high-precision current sense amplifiers, offering a –2V to 28V common-mode input range, ultra-low ±5μV offset voltage, 130dB CMRR, and 200kHz bandwidth. Designed to meet the needs of new energy vehicles, server power supplies, telecom power systems, and energy storage, the NSCSA21x-Q series delivers exceptional accuracy and system stability in demanding environments.  Addressing Key Challenges in Modern Power and Automotive Systems  As automotive electrification and industrial intelligence advance, current sensing accuracy and system stability have become critical to overall performance. Traditional current sensors often face limitations in low-voltage detection, reverse connection protection, and dynamic response, impacting system reliability and efficiency. The NSCSA21x-Q series directly targets these pain points, overcoming three major challenges in precision current detection:  (1) High-Precision Motor Phase Current Sampling  Supports bidirectional current sensing in H-bridge structures. Combined with FOC algorithms, it enables ±0.5° electrical angle control for precise motor performance.  (2) Suppression of Parasitic Inductance Interference  In low-side sensing, the NSCSA21x-Q effectively mitigates “ground bounce” effects through PWM rejection, maintaining high accuracy even with small current signals. With a 130dB CMRR and only ±5μV input offset, it ensures signal integrity under severe transient conditions.  (3) Reverse Battery Protection  Withstands up to –28V reverse voltage, safeguarding the system against battery misconnection and simplifying protection circuit design.  Robust Performance Across All Operating Conditions  Breaking conventional design limits, the NSCSA21x-Q series supports a wide –2V to 28V common-mode range with built-in PWM suppression and chip-level reverse-voltage tolerance. Even under –28V reverse common-mode stress, the device quickly resumes normal operation. In rigorous transient tests (–2V to 12V step change), it achieves a <5μs recovery time and <50mV output disturbance, making it ideal for high-accuracy current detection in motor drives and solenoid control under PWM switching environments.  Precision and Stability Across Temperature Extremes  Featuring a ±5μV (typical) input offset voltage and ±0.5% maximum gain error, the NSCSA21x-Q maintains outstanding accuracy over a full –40°C to 125°C temperature range. With a temperature drift as low as 0.05μV/°C, it ensures stable measurements in harsh automotive and industrial conditions.Input Offset Voltage Distribution of NSCSA21x-Q SeriesCommon-Mode Rejection Ratio (CMRR) Distribution of NSCSA21x-Q Series  Fast Dynamic Response and Strong Transient Protection  With a 200kHz bandwidth (50V/V gain) and a 2V/μs slew rate, the NSCSA21x-Q supports fast current variation monitoring and real-time protection. Compared to mainstream alternatives, it achieves up to 3× faster transient response, meeting the needs of high-speed applications such as motor control and power protection.  Flexible Configurations with Automotive-Grade Reliability  The NSCSA21x-Q series offers four fixed gain options (50V/V, 75V/V, 100V/V, and 200V/V), covering both industrial and automotive versions. Packaged in an ultra-compact SC70-6 (2mm × 1.25mm) footprint, it's pin-compatible with industry standards, enabling smaller system size and higher design efficiency.Four Fixed-Gain Versions of the NSCSA21x-Q Series  The NSCSA21x-Q series is AEC-Q100 Grade 1 qualified, supporting –40°C to +125°C operation and ensuring long-term reliability in automotive environments.
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Release time:2026-01-15 17:20 reading:262 Continue reading>>
Renesas丨Silicon to Software: RoX AI Studio Advances Software-Defined Vehicle Design
  Software-defined vehicles (SDV) are upending traditional automotive design. While vehicle development is still highly iterative, the industry is in the throes of a historic transformation where manufacturers are compressing once-sequential hardware-to-software design cycles into more efficient software-first design flows.  This so-called shift-left approach is exemplified by Renesas' adoption of digital tools and AI models as part of a broader digitalization and software strategy aimed at accelerating design and innovation, while simultaneously optimizing R&D efficiency. In the automotive sector, the evolution is driven by practical considerations given that a typical vehicle now embeds more than 100 million lines of code. Heavier software dependence requires continuous updating and deployment, multi-supplier integration, design validation at scale, and reflects an ecosystem where OEMs insource more software and chipmakers ship platforms, not parts. Renesas anticipated these changes with the scalable R-Car hardware and software development platform. R-Car supports the transition of E/E designs to more central processing architectures, including advanced driver assistance systems (ADAS) and autonomous vehicle design. Last year, we added R-Car Open Access (RoX), an extended platform for SDVs that provides a pre-integrated, out-of-the-box environment with hardware, operating systems, software stacks, and tools to accelerate next-generation vehicle development.  R-Car leverages a heterogeneous architecture that features Arm® CPUs with multiple hardware accelerators. RoX includes a common set of toolchains that allows software reuse across electronic control units (ECUs) for ADAS, in-vehicle information (IVI) systems, and centralized data gateways. By enabling cloud-native development and customized design simulation, the RoX platform expands SDV lifecycle support through continuous updates that align with a modern value chain where OEMs and service providers increasingly co-own software.  Introducing RoX AI Studio: Cloud-Native MLOps on R-Car  Many of our automotive customers have embraced R-Car and the Renesas RoX platform as a means to accelerate SDV development and manage the complexity of in-vehicle embedded processing systems. In doing so, we found a persistent "lab-to-road" gap between how designers employ AI training in the cloud and how they deploy new features in automotive SoCs.  RoX AI Studio, a new extension of the original RoX platform, closes that gap. The machine learning operations (MLOps) tool lets teams remotely evaluate AI models using a managed cloud control plane that connects engineers with hardware-in-the-loop (HIL) device farms so they can profile real-world performance without waiting for scarce lab boards. Continuous integration and deployment (CI/CD) keeps the full toolchain current, so improvements arrive automatically with no local installs required. The result is faster iteration, fewer surprises, and a direct line from model training to road-ready, HIL model validation.  What Is MLOps – and How Does RoX AI Studio Enable It for SDVs?  To define MLOps, it's important to understand what preceded it. MLOps builds on a concept called DevOps – short for development operations – in which tools and best practices are combined to shorten software design lifecycles. This is achieved by breaking down silos between development and IT operations teams to help them collaborate more effectively.  DevOps governs deterministic integrate/test/deploy processes for conventional software code and services. MLOps adds AI data and models, where development lifecycles are iterative, experiments branch, and choices must be tracked, compared, and promoted. By anchoring model validation on R-Car silicon, RoX AI Studio becomes the bridge between model-in-training and model-in-production, turning the art and science of AI model development into repeatable and scalable engineering operations with targeted KPIs.  RoX AI Studio operationalizes automotive MLOps for SDVs in several ways:  Model Intake and Registry: Renesas provides a curated model zoo that includes many popular AI models. Users can also use a bring your own model (BYOM) approach to ingest their own custom or proprietary models and receive a quick performance evaluation on R-Car silicon.  Automated Updates: Orchestration workflows in our MLOps tool simplify the user experience by abstracting model processing for silicon deployment, while CI/CD toolchains automate the release and deployment of the latest version of the AI toolchain for R-Car SoCs.  HIL Evaluation: MLOps in the cloud connects to a physical lab hosting an array of R-Car silicon devices that run inference experiments on demand. This allows remote validation of AI models without requiring physical co-location with the hardware.  Results and Artifacts: Collects metrics and logs from inference experiments and aggregates them as metric comparison tables and plots.  Scaled Experimentation: Runs multiple models/variants in parallel to compare accuracy vs. latency under real-world operating constraints.  Flexible Deployment: Will allow designers to begin on the Renesas cloud for speed and then mirror the same stack later in a private cloud when silicon is more widely available for individual projects.  RoX AI Studio Is Advancing Automotive's "Shift Left" Strategy  Automotive timelines are compressing. Manufacturers are moving from three to four-year platform development cycles to one to two-year cycles augmented by ongoing over-the-air (OTA) updates to provide on-road product feature enhancements. That means design teams adopting the shift-left philosophy need to test hardware and software earlier using target (remote or virtual) devices.  That's a challenge for OEMs, many of which have invested heavily in AI model training and are striving to continuously improve their networks by deploying feature updates to their vehicles in the field. At the same time, shorter development cycles mean they must test many device options simultaneously – at scale and across multiple vectors – without over-investing in the wrong development path.  When OEMs and Tier 1 suppliers use RoX AI Studio, they can quickly validate their devices by testing at scale and within the context of their specific MLOps network strategy. RoX AI Studio makes this practical by creating a simplified developer experience for managing cloud-to-lab infrastructure and automated workflows for pre-trained model deployment and evaluation on R-Car SoC targets. It runs experiments in parallel, as opposed to serially, and provides access to device farms that allow global teams to start development before boards arrive and continue at scale.  For automotive OEMs, this means earlier starts and fewer late surprises, reusable software investments that move from cloud to vehicle, and a clean path to private-cloud deployment and virtual platforms that yield better results and shorten time to market.  Platform Thinking for the Software-Defined Era  Car makers designing SDVs are committed to developing hardware and software in parallel, and the market is converging on cloud-native machine learning tools – but with no universal MLOps winner yet.  Renesas RoX AI Studio provides a standardized SDV design foundation and operationalizes AI development on that foundation by moving beyond DevOps to support a "one-stop studio" model. Together, the RoX platform and RoX AI Studio are enabling a shift-left culture change: validate earlier, iterate faster, deploy confidently.  Renesas RoX AI Studio is currently available to select customers with a broad introduction planned in 2026.
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Release time:2025-12-31 17:27 reading:380 Continue reading>>
GigaDevice Achieves ISO/SAE 21434 Certification and ASP<span style='color:red'>IC</span>E CL2 Assessment, Strengthening Automotive Cybersecurity Together with TÜV Rheinland
  GigaDevice, a leading semiconductor company specializing in Flash memory, 32-bit microcontrollers (MCUs), sensors, and analog products, has been awarded the ISO/SAE 21434 Road Vehicles Cybersecurity Engineering certification by TÜV Rheinland. In parallel, the MCAL (Microcontroller Abstraction Layer) software of GD32A7 automotive-grade MCUs successfully passed the ASPICE Capability Level 2 (CL2) assessment. These milestones demonstrate GigaDevice’s alignment with internationally recognized practices in automotive cybersecurity and software project management, reinforcing its competitiveness in the global automotive electronics market.  ISO/SAE 21434, jointly issued by ISO and SAE, defines a comprehensive cybersecurity risk-management framework that spans the entire vehicle lifecycle. As vehicles become increasingly connected and intelligent, cybersecurity has emerged as a foundational requirement for protecting user privacy and ensuring a secure, reliable mobility experience. Achieving this certification confirms that GigaDevice has established an end-to-end cybersecurity governance framework across the design, development, and mass-production phases of its automotive product portfolio—helping customers streamline compliance, accelerate program approvals, and enhance market competitiveness.  The ASPICE assessment model, governed by the German Association of the Automotive Industry (VDA), is one of the industry's most important standards for evaluating software development capability. ASPICE CL2 requires companies to adopt structured processes for project planning, monitoring, and traceability. Developed in full compliance with AUTOSAR, the GD32A7 MCAL software supports major compilers and debugging toolchains while meeting both functional-safety and cybersecurity requirements. Passing ASPICE CL2 affirms the maturity of GigaDevice’s software-development lifecycle and underscores its commitment to high-reliability automotive solutions.  Driven by new infrastructure such as 5G, AI, and the IoT, vehicles are evolving into interactive intelligent terminals. Automotive-grade chips play a central role in this transition, enabling continuous advancements in vehicle intelligence. Designed for next-generation automotive platforms, the GD32A7 series leverages the Arm® Cortex®-M7 core and offers multiple configurations, including single-core, multi-core, and lockstep architectures. With a maximum frequency of 320MHz and up to 1300 DMIPS of compute performance, the devices support 2.97V–5.5V operation and deliver stable performance across a –40°C to +125°C temperature range. The series are well suited for applications such as body electronics, intelligent cockpit systems, chassis control, and powertrain subsystems.  The GD32A71x/GD32A72x families comply with ISO 26262 ASIL B, while the GD32A74x series supports ASIL D requirements. All product lines integrate a Hardware Security Module (HSM) with TRNG, AES, HASH, ECC/RSA, and Chinese SM2/SM3/SM4 cryptographic engines, meeting the Evita Full information-security architecture and providing robust data protection for in-vehicle systems.  Wenxiong Li, Vice President of GigaDevice and General Manager of the Automotive BU, stated: “Achieving ISO/SAE 21434 certification and ASPICE CL2 capability assessment marks an important milestone in elevating our automotive-grade MCU development to higher standards of security and process maturity. GigaDevice will continue to expand the GD32 MCU automotive portfolio and deepen our collaboration with TÜV Rheinland to deliver higher-performance, higher-security products and a more complete ecosystem for our customers.”  Bin Zhao, General Manager of Industrial Services and Cybersecurity at TÜV Rheinland Greater China commented: “GigaDevice has demonstrated exceptional execution and technical competence in establishing automotive cybersecurity systems and software development processes. Obtaining ISO/SAE 21434 certification and ASPICE CL2 capability assessment provides strong validation for its entry into global automotive supply chains. We look forward to further collaboration to advance innovation and deployment in automotive electronics safety.”  GigaDevice and TÜV Rheinland also announced the establishment of a strategic partnership focused on functional safety, cybersecurity, personnel training, and certification services. The collaboration aims to integrate both parties' strengths to enhance competitiveness across automotive, industrial, and emerging markets—delivering safer and more reliable products and solutions to customers worldwide.
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Release time:2025-12-26 16:25 reading:390 Continue reading>>
Murata:SCH16T-K20 High-Precision 6-Axis IMU for Robotics and Camera Systems
  Murata Manufacturing Co., Ltd. has announced the expansion of its SCH16T series of high-performance inertial measurement units (IMUs) with the introduction of the SCH16T-K20, targeting industrial, prosumer, and consumer markets worldwide. Designed for OEMs in robotics, drones, and camera systems, as well as IMU module manufacturers and system integrators requiring safety-critical IMUs, the SCH16T-K20 delivers market-leading precision, mechanical robustness, and reliability.  In demanding inertial measurement applications such as dead-reckoning navigation as well as drone and camera stabilization, small measurement errors can accumulate over time leading to unpredictable measurement results. In these applications, key IMU parameters such as noise density, offset bias drift, and vibration rectification ultimately limit the end-application performance and achievable response speed. Murata improves all the key areas with the new SCH16T-K20, which features a brand-new MEMS accelerometer and improved gyroscope temperature calibration.  The SCH16T-K20 is a 6 axis IMU with a typical gyroscope noise density of 0.0004 (°/s)/√Hz, gyroscope bias instability of 0.3 °/h, and accelerometer noise density as low as 33 µg/√Hz. Like all other SCH16T products, the SCH16T-K20 has a wide operating temperature range from -40 °C to +110 °C, a supply voltage of 3.0–3.6 V, and I/O voltage of 1.7–3.6 V, and a compact size of 0.46 × 0.53 × 0.11 inch (11.8 × 13.4 × 2.9 mm).  The driver behind the SCH16T-K20 accelerometer performance improvement is the brand-new accelerometer MEMS based on Murata’s proven 3D MEMS technology. The new MEMS uses a double-differential measurement principle, familiar from current SCA3400 and legacy SCA103T series sensors. The double differential measurement enables SCH16T-K20’s market leading low noise density, as well as thermal and lifetime stability.  The SCH16T-K20 also includes an enhanced version of the market-leading low-noise SCH16T gyroscope, now tuned specifically for the -40 °C to +85 °C temperature range to enable low offset bias shift across that range. All SCH16T series products are carefully validated with a test set based on AEC-Q100 operating temperature Grade 1 (-40 °C to +125 °C) standards*, ensuring reliable operation over a wide temperature window. The series sensors include market-leading self-diagnostic features, making them suitable for safety-critical applications. Murata’s unique MEMS stands out in the competitive IMU market for its exceptional mechanical resilience to shocks and vibration rectification. The series’ robust design and reliability contribute to longer device lifespans and reduced waste.  The SCH16T-K20 becomes the highest-performing variant in the SCH16T lineup while maintaining pin-to-pin and software compatibility. This compatibility makes integration of different SCH16T variants easy for OEMs and module designers. Mass production of the SCH16T-K20 is scheduled to begin in the first half of 2026. Murata will continue developing sensor solutions aligned with evolving market demands, contributing to safer, more sustainable, and higher-performing technologies across industrial and consumer markets.
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Release time:2025-12-26 16:09 reading:344 Continue reading>>
ROHM’s Flexible Brushed DC Motor Driver <span style='color:red'>IC</span>s for a Wide Range Applications
  ROHM has developed two new motor driver ICs for brushed DC motors, BD60210FV (20V, 2ch) and BD64950EFJ (40V, 1ch). They are intended for use in home and office appliances such as refrigerators, air conditioners, printers, and robotic vacuum cleaners.  In recent years, the electrification of consumer and industrial equipment - especially white goods - has accelerated, increasing the demand for energy-efficient brushed DC motors. At the same time, motor drivers are expected to support multiple applications and use cases while reducing external component count and size.  To address these needs, these new products adopt highly versatile packages, making them ideal not only for new platform designs but also for redesigns and derivative products. Additionally, they achieve ultra-low standby current (Typ: 0.0μA, Max: 1.0μA), significantly contributing to power savings during standby operation.  The BD60210FV can function as a dual H-bridge (2ch) motor driver with direct PWM control, capable of driving two DC brush motors, a bipolar stepper motor driver, or solenoid driver. Its H-bridge circuit configuration eliminates the need for a boost circuit, minimizing external components and contributing to space-saving and simplified design. It supports input voltage from 8V to 18V and 1A/phase continuous current and 4A/phase peak current.  The BD64950EFJ features a single H-bridge (1ch) that supports both direct PWM control and constant current PWM control. Its low on-resistance design reduces heat generation, enabling efficient motor drive. With a 40V withstand voltage and 3.5A continuous current (6A peak), it is suitable for high-powered, high-voltage (24V) DC brush motor applications.  Both products are now in mass production (sample price: $1.5/unit, tax excluded). Online sales have also started, and they (BD60210FV, BD64950EFJ) can be purchased from online distributors such as AMEYA360. Evaluation boards (BD60210FV-EVK-001, BD64950EFJ-EVK-001) are also available to support application development and design.  ROHM will continue to expand its motor drive solutions for consumer and industrial equipment, contributing to greater comfort and energy savings in society.  Application Examples  •Consumer Equipment: Refrigerators (ice maker rotation, fan valve control), Air conditioners (louver control), Printers (carriage movement), Robotic vacuum cleaners (brush rotation), Water heaters and rice cookers (valve control), Humidifiers (fan control) etc.  •Industrial Equipment: Automatic doors and shutters (operation control), Small conveyors (transport control), Power tools (rotation control), Other small motor control applications, etc.  Terminology  H-Bridge  An electronic circuit used to control the rotation direction of a motor. It is called an H-bridge because it comprises four electronic switches (MOSFETs) whose arrangement resembles the letter “H”.  Direct PWM Control  A method where a PWM (Pulse Width Modulation) signal is directly applied to the H-bridge to control motor speed. The voltage supplied to the motor is adjusted by the PWM duty cycle. This method offers a simple circuit configuration and high responsiveness.  Constant Current PWM Control  A control method that uses PWM to maintain a constant current to the motor. It allows the motor to maintain torque even at low speeds and is used in applications requiring precise control.
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Release time:2025-12-18 15:39 reading:514 Continue reading>>
GigaDevice Launches GD25NX Series xSPI NOR Flash with Dual-Voltage Design Optimized for high-speed, low-power 1.2 V SoC applications
  GigaDevice, a leading semiconductor company specializing in Flash memory, 32-bit microcontrollers (MCUs), sensors, and analog products, today announced the launch of its new generation of high-performance dual-voltage xSPI NOR Flash products – the GD25NX series. Featuring a 1.8 V core and 1.2 V I/O design, the GD25NX series connects directly to 1.2 V system on chips (SoCs) without an external booster circuit, significantly reducing system power consumption and BOM cost.  Building on the success of the 1.2 V I/O GD25NF and GD25NE series, the new GD25NX further extends GigaDevice's expertise in dual-voltage Flash design. With high-speed data transfer performance and outstanding reliability, the GD25NX series is ideal for demanding applications such as wearables, data centers, edge AI, and automotive electronics that require exceptional stability, responsiveness, and power efficiency.  The GD25NX xSPI NOR Flash supports an octal SPI interface with a maximum clock frequency of 200 MHz in both single transfer rate (STR) and double transfer rate (DTR) modes, delivering data throughput of up to 400 MB/s. It achieves a typical page program time of 0.12 ms and a sector erase time of 27 ms, offering 30% faster programming speed and 10% shorter erase time compared with conventional 1.8 V octal Flash products.  To safeguard data reliability, the GD25NX series integrates error correction code (ECC) algorithms and cyclic redundancy check (CRC) verification to enhance data integrity and extend product lifespan. In addition, the series supports a data strobe (DQS) functionality to ensure signal integrity in high-speed system designs, meeting the stringent data transfer stability requirements of SoCs use on data center and automotive applications.  Built on an innovative 1.2 V I/O architecture, the GD25NX series delivers outstanding performance while maintaining exceptional power efficiency. At a frequency of 200 MHz, the device achieves read currents as low as 16 mA in Octal I/O STR mode and 24 mA in Octal I/O DTR mode. Compared with the conventional 1.8 V Octal I/O SPI NOR Flash devices, the 1.2 V I/O design reduces read power consumption by up to 50%, significantly improving system energy efficiency while sustaining high-speed operation—an ideal choice for power-sensitive applications.  "The GD25NX series sets a new benchmark for combining low voltage with high performance in SPI NOR Flash," stated by Ruwei Su, GigaDevice Vice President and General Manager of Flash BU. "Its design aligns closely with mainstream SoC requirements for low-voltage interfaces, enabling higher integration and lower BOM costs for customers. Moving forward, GigaDevice will continue to expand its dual-voltage portfolio with broader density and package options to help customers build the next generation of efficient and reliable low-power storage solutions."  The GD25NX series is available in 64 Mb and 128 Mb densities, meeting diverse storage needs across various applications. These devices are supported on TFBGA24 8×6 mm (5×5 ball array) and WLCSP (4×6 ball array) packages. Samples of the 128 Mb GD25NX128J are now available for customer evaluation, while the 64 Mb GD25NX64J samples are currently being prepared. For detailed technical information or pricing inquiries, please contact your local authorized GigaDevice sales representative.
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Release time:2025-12-15 15:57 reading:565 Continue reading>>
Renesas Releases its First Wi-Fi 6 and Wi-Fi/Bluetooth LE Combo MCUs for IoT and Connected Home Applications
  Renesas Electronics Corporation (TSE:6723), a premier supplier of advanced semiconductor solutions, today introduced the RA6W1 dual-band Wi-Fi 6 wireless microcontroller (MCU), along with the RA6W2 MCU that integrates both Wi-Fi 6 and Bluetooth® Low Energy (LE) technologies. These connectivity devices address the growing demand for always-connected, ultra-low-power IoT devices across smart home, industrial, medical and consumer applications. Renesas also launched fully integrated modules that accelerate development with built-in antennas, wireless protocol stacks, and pre-validated RF connectivity.  Ultra Low Power Operation for Always-Connected IoT  Today’s IoT devices must stay always connected to improve application usability and response time, while maintaining the lowest possible power consumption to extend battery life or to meet eco-friendly regulations. Renesas’ Wi-Fi 6 MCUs offer features such as Target Wake Time (TWT), which enables extended sleep times without compromising cloud connectivity and power consumption. This is critical for applications such as environmental sensors, smart locks, thermostats, surveillance cameras, and medical monitors, where real-time control, remote diagnostics and over-the-air (OTA) updates are critical.  Additionally, both MCU Groups are optimized for ultra-low power consumption, consuming as little as 200nA to 4µA in sleep mode and under 50µA in Delivery Traffic Indication Message (DTIM10). With the “sleepy connected” Wi-Fi functionality, these devices stay connected with minimal power draw, meeting the growing requirements of modern energy efficiency standards.  Scalable RA MCU Architecture with Full Software Support  Built on the Arm® Cortex®-M33 CPU core running at 160 MHz with 704 KB of SRAM, the MCUs enable engineers to develop cost-effective, standalone IoT applications using integrated communication interfaces and analog peripherals, without the need for an external MCU. Customers also have the option to design with a host MCU that can be selected from Renesas’ broad RA MCU offerings and attach the RA6W1 and RA6W2 as connectivity and networking add-ons. Both RA6W1 and RA6W2 are designed to work with Renesas’ Flexible Software Package (FSP) and e² studio integrated development environment. As the first Wi-Fi MCUs in the RA portfolio, they offer a scalable platform that supports seamless software reuse across the RA family.  High Performance Dual-Band Wi-Fi 6 with 2.4 and 5 GHz Connectivity  With support for both 2.4 and 5 GHz bands, both MCUs deliver superior throughput, low latency, and reduced power consumption. The dual-band capability dynamically selects the most suitable band based on real-time conditions, ensuring a stable and high-speed connection even in environments with many connected devices. Advanced features such as Orthogonal Frequency Division Multiple Access (OFDMA) and TWT boost performance and energy efficiency, making these solutions well suited for dense urban environments and battery-powered devices.  Robust Security and Matter-Certified Interoperability  The RA6W1 and RA6W2 devices offer advanced built-in security including AES-256 encryption, secure boot, key storage, TRNG, and XiP with on-the-fly decryption to keep data safe from unauthorized access. The RA6W1 is RED certified (Radio Equipment Directive), which makes it easier for developers to future-proof their design. Additionally, the device is Matter ready and certified with Matter 1.4, and is compatible across smart home platforms. Renesas supports both MCUs and modules through the Renesas Product Longevity Program, offering 15-year support for MCUs and 10 years for modules.  “We’re offering our customers the flexibility to design with a standalone Wi-Fi device, a Wi-Fi/Bluetooth LE combo, or fully integrated modules depending on their needs,” said Chandana Pairla, VP of the Connectivity Solutions Division at Renesas. “These wireless solutions save power, simplify system design and lower BOM cost. With hosted or hostless implementation options, customers can confidently begin their wireless onboarding journey and seamlessly integrate into next-generation connected systems.”  Two types of modules, Wi-Fi 6 (RRQ61001) and Wi-Fi/Bluetooth LE combo (RRQ61051) simplify design by integrating certified RF components and wireless connectivity stacks that comply with global network standards. Supported RF certification standards include the U.S. (FCC), Canada (IC), Brazil (ANATEL), Europe (CE/RED), UK (UKCA), Japan (Telec), South Korea (KCC), China (SRRC) and Taiwan (NCC). By integrating connectivity at the system level, the modules significantly reduce design effort and accelerate time to market.  Winning Combinations  Renesas offers “Advanced Low-Power Wireless HMI for Household Appliances” and “Automatic Pet Door & Tracking System” that combine the new Wi-Fi 6 MCU and Wi-Fi/Bluetooth LE MCU with numerous compatible devices from its portfolio to offer a wide array of Winning Combinations. Winning Combinations are technically vetted system architectures from mutually compatible devices that work together seamlessly to bring an optimized, low-risk design for faster time to market. Renesas offers more than 400 Winning Combinations with a wide range of products from the Renesas portfolio to enable customers to speed up the design process and bring their products to market more quickly. They can be found at renesas.com/win.  Availability  The RA6W1 MCU is now available in FCQFN and WLCSP packages, along with the RRQ61001 and RRQ61051 modules. The RA6W2 MCU (BGA package) will be available in Q1/2026. The devices are supported by the FSP, e² studio, evaluation kit and software development kit (SDK) that include flash memory, PCB trace antennas, connectors and embedded power profiler for power consumption analysis. Renesas also offers comprehensive software tools to aid system application development, as well as the Production Line Tool (PLT) for production testing of wireless MCUs.
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Release time:2025-12-12 16:28 reading:654 Continue reading>>
ROHM launches SiC MOSFETs in TOLL package that achieves both miniaturization and high-power capability
  ROHM has begun mass production of the SCT40xxDLL series of SiC MOSFETs in TOLL (TO-Leadless) packages. Compared to conventional packages (TO-263-7L) with equivalent voltage ratings and on-resistance, these new packages offer approximately 39% improved thermal performance. This enables high-power handling despite their compact size and low profile. It is ideal for industrial equipment such as server power supplies and ESS (Energy Storage Systems) where the power density is increasing, and low-profile components are required to enable miniaturized product design.  In applications like AI servers and compact PV inverters, the trend toward higher power ratings is occurring simultaneously with the contradictory demand for miniaturization, requiring power MOSFETs to achieve higher power density. Particularly in totem pole PFC circuits for slim power supplies, often called “the pizza box type,” stringent requirements demand thicknesses of 4mm or less for discrete semiconductors.  ROHM's new product addresses these needs by reducing component footprint by approximately 26% and achieving a low profile of 2.3mm thickness – roughly half that of conventional packaged products. Furthermore, while most standard TOLL package products are limited by a drain-source rated voltage of 650V, ROHM's new products support up to 750V. This allows for lower gate resistance and increased safety margin for surge voltages, contributing to reduced switching losses.  The lineup consists of six models with on-resistance ranging from 13mΩ to 65mΩ, with mass production started in September 2025 (sample price: $37.0/unit, tax excluded).   Product Lineup  Application Examples  ・Industrial equipment: Power supplies for AI servers and data centers, PV inverters, ESS (energy storage systems)  ・Consumer equipment: General power supplies  EcoSiC™ Brand  EcoSiC™ is a brand of devices that utilize silicon carbide (SiC), which is attracting attention in the power device field for performance that surpasses silicon (Si). ROHM independently develops technologies essential for the evolution of SiC, from wafer fabrication and production processes to packaging, and quality control methods. At the same time, we have established an integrated production system throughout the manufacturing process, solidifying our position as a leading SiC supplier.• EcoSiC™ is a trademark or registered trademark of ROHM Co., Ltd.  Terminology  Totem Pole PFC Circuit  A highly efficient power factor correction circuit configuration that reduces diode losses by using MOSFETs as rectifier elements. The adoption of SiC MOSFETs enables high voltage withstand capability, high efficiency, and high-temperature operation for the power supply.
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Release time:2025-12-04 17:10 reading:525 Continue reading>>
ROHM launches RPR-0730: High-Speed, High-Precision Optical Sensor Featuring VCSEL Technology
  ROHM has developed the “RPR-0730”, analog compact optical sensor, capable of high-precision detection of fast-moving objects. This sensor can be widely utilized in consumer and industrial equipment applications, including printers and conveyor systems.  As industrial and office equipment becomes increasingly sophisticated and automated, there is a growing demand for improved sensing technology accuracy. In applications such as label printers, material or product transport systems, and copiers, the need for technology that can identify objects more accurately is essential. Moreover, increased speed driven by productivity improvements makes the introduction of high-speed, high-precision optical sensors crucial.  The RPR-0730 is a compact reflective optical sensor (photo reflector). It employs an infrared VCSEL, which offers higher directionality than LEDs, enabling detection of finer objects. Furthermore, by using a phototransistor with analog output as the receiver, the sensor achieves a response time of 10µs. This dual combination enables high-speed, accurate identification of fine lines as narrow as 0.1mm - previously difficult to detect with conventional LED light sources. As an addition to the existing digital output sensor “RPR-0720” series, RPR-0730 expands capability to applications requiring faster sensing, such as print detection in copiers, label printers, or rotational detection in motors and gears.  The package is ultra-compact at 2.0mm × 1.0mm × 0.55mm and employs a visible light filtering resin to suppress interference from ambient light or sunlight. This enables stable detection even in environments with varying light conditions, such as factories or outdoors. The sensor can also be easily integrated into equipment requiring installation in small, confined spaces, like inside conveyors or precision instruments, making it suitable for a wider range of applications.  Mass production of the new product commenced in October 2025 (sample price: $2.2/unit, tax excluded).  Going forward, ROHM will continue to leverage its development expertise in light-emitting and light-receiving elements to create sensing products that meet customer needs, contributing to the miniaturization and enhanced convenience of various devices.  Application Examples  •Print detection, paper feed/jam detection in label printers, copiers, shredders, etc.  •Object detection of packages/specimens, workpiece position detection in conveyance systems, automatic inspection equipment, etc.  •Motor/gear rotational detection in industrial robots, etc.  Terminology  Photo reflector  A type of optical sensor combining an emitting element and a receiving element. It illuminates an object and detects the intensity of the reflected light to measure the presence or distance of an object.  VCSELL  Abbreviation for Vertical Cavity Surface Emitting LASER. A type of laser light source, it is a semiconductor laser that can emit light directly from its surface. Compared to LEDs, it offers higher directionality and is suitable for high-precision sensing. Originally adopted for optical communication applications, its use as a light source for proximity sensors and distance sensors has been expanding in recent years.  Phototransistor  A transistor-type photoelectric conversion element that converts optical signals into electrical signals. It integrates a photodiode and a transistor, controlling the base current with light to output an amplified collector current.
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Release time:2025-12-04 17:04 reading:434 Continue reading>>
Murata develops integrated passive device for Semtech’s SX126X family
  Murata Manufacturing Co., Ltd. has developed a new integrated passive device (IPD) for use with the Semtech LoRa Connect™ SX126x family, which includes the SX1261, SX1262, and LLCC68 products. Using a proprietary low-temperature co-fired ceramic (LTCC) process, Murata has successfully replaced a series of discrete matching components of the SX1261/2 reference design with a single 2.00mm x 1.25mm size LTCC component.  The IPD enables SX1261/2 radio designers to optimize for both size and performance using two dedicated parts. The LFB21892MDZ7F957 is optimized for US and European ISM bands, delivering the full output power for the US FCC bands. The LFB21892MDZ7F821 is optimized for Eurocentric designs that need to maximize the efficiency performance.  “The Murata IPD offers the most efficient development path to realizing the full performance of the SX1261/2, featuring a miniaturized form factor that can significantly reduce board space,” says Arthur Kiang, Product Manager, RF Components, Murata. “The reduction in the number of matching components enables lower material costs and simplifies the design process, leading to shorter lead times. This integration also lowers the probability of soldering and manufacturing issues, as there is only one component to monitor in production.”  “Semtech’s LoRa Connect™ SX126x family has become the trusted choice for LoRaWAN® networks and long-range IoT connectivity in applications from smart metering to industrial sensing,” says Carlo Tinella, product marketing director of wireless and sensing products at Semtech. “Murata’s IPD solution demonstrates the strength of our LoRa® ecosystem, helping radio engineers accelerate development while optimizing for both miniaturization and regulatory compliance. This partnership streamlines the path from design to deployment for millions of IoT devices being deployed globally.”  Product samples are currently available, with mass production of the IPD commencing shortly.
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Release time:2025-11-28 17:33 reading:490 Continue reading>>

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