All IPs > Analog & Mixed Signal > Temperature Sensor
The category of Analog & Mixed Signal > Temperature Sensor in the Silicon Hub encompasses a wide range of semiconductor IPs designed to enable precise temperature monitoring within various electronic systems. These IPs are pivotal in ensuring reliable performance of electronic products by providing accurate temperature data, which is essential for maintaining optimal operating conditions and preventing thermal-related failures.
Temperature sensors within this category come in diverse forms, including analog and digital outputs, leveraging innovative mixed signal design techniques to achieve high precision despite varying environmental conditions. Key applications of these semiconductor IPs can be found in sectors such as consumer electronics, automotive, industrial automation, and healthcare devices, where temperature monitoring is critical for operational efficiency and safety.
Integrating temperature sensor IPs into semiconductor designs simplifies system architecture by reducing the need for additional discrete components, thereby saving space and power while enhancing overall functionality. In automotive applications, for example, these sensors are crucial for monitoring engine temperature, battery thermal management, and cabin climate control systems. In consumer electronics, they ensure safe battery operation and efficient thermal management for gadgets like smartphones and laptops.
Overall, temperature sensor semiconductor IPs play a vital role in the development of modern electronic systems by providing the precise temperature measurement capabilities required for various thermal management applications. Silicon Hub offers a comprehensive selection of these IPs, tailored to meet the stringent demands of today’s advanced technology ecosystems, ensuring your products are equipped with the latest in thermal sensing innovation.
The agileTSENSE_D temperature sensor provides a digital output, extending the capabilities of traditional temperature sensing by incorporating digital signal processing. It retains the core analog sensing mechanism but wraps the output in a digital format for easier integration into modern digital systems, including IoT devices and data centers. This product is designed for environments where digital interfacing is critical. With its adaptable architecture, the agileTSENSE_D delivers precision temperature measurements over a broad operational range, ensuring that systems maintain optimal performance and safety. This functionality is crucial for thermal monitoring and management. Agile Analog designs are based on tried and tested architectures to ensure reliability and functionality. Our automated design methodology is programmatic, systematic and repeatable leading to analog IP that is more verifiable, more robust and more reliable. Our methodology also allows us to quickly re-target our IP to different process options. Our highly configurable and multi-node analog IP products are developed to meet the customer’s exact requirements. These digitally-wrapped and verified solutions can be seamlessly integrated into any SoC, significantly reducing complexity, time and costs.
The MVH4000 series offers exceptional reliability and precision in humidity and temperature measurement. Utilizing advanced Silicon Carbide MEMS technology, these sensors boast impressive longevity and minimal power consumption. They are compact, measuring just 2.5 x 2.5 x 0.9 mm, making them perfect for applications where space is at a premium. These sensors are designed to provide fast and accurate readings, making them suitable for various time-sensitive applications. The sensors are available in digital and analog outputs, with different accuracy grades to cater to various needs and budgets. The MVH4000 series includes several models, each tailored for specific accuracy and output requirements. This range ensures that the sensors can be effectively utilized in industrial, consumer, medical, and automotive applications, offering on-chip calibration for quick and easy implementation. Key technical specifications include an operating temperature range of -40 to 125 °C, digital I2C interface, and on-chip calibration that facilitates plug-and-play functionality. These attributes make the MVH4000 series an ideal choice for applications demanding precise environmental monitoring.
The MVT4000D series are advanced digital temperature sensors designed to deliver precise and rapid temperature readings. Implementing Silicon Carbide MEMS technology, they guarantee excellent long-term stability and low power consumption. These sensors are especially useful in space-constrained environments due to their minute dimensions of 2.5 x 2.5 x 0.9 mm. They are calibrated digitally, providing high accuracy and fast response times, which make them suitable for applications where precise temperature monitoring is critical. The sensors can be integrated easily, thanks to their on-chip calibration, ensuring accuracy and reducing time-to-market for industrial, consumer, medical, and automotive applications. Featuring a digital I2C interface and supporting various resolutions from 8 to 14 bits, the MVT4000D sensors' technical highlights also include an operational temperature range between -40 to 125 °C. These features align them as optimal solutions for diverse and demanding application environments.
The agileTSENSE_A is a general-purpose temperature sensor that utilizes a ΔVBE sensing mechanism to amplify and transform temperature-related voltages into a single-ended signal. This sensor is designed to work seamlessly with the agileADC to provide digital outputs with impressive accuracy of +/-0.25°C. It's especially significant for modern SoCs, where thermal management is crucial for power optimization and security threat detection. This sensor covers a wide operating range from -20°C to +100°C. It features a rapid startup time and minimal current consumption, making it apt for SoC integrations where efficiency is key. Further customization options allow for ease of incorporation into diverse systems. Agile Analog designs are based on tried and tested architectures to ensure reliability and functionality. Our automated design methodology is programmatic, systematic and repeatable leading to analog IP that is more verifiable, more robust and more reliable. Our methodology also allows us to quickly re-target our IP to different process options. Our highly configurable and multi-node analog IP products are developed to meet the customer’s exact requirements. These digitally-wrapped and verified solutions can be seamlessly integrated into any SoC, significantly reducing complexity, time and costs.
Thermal Oxide Processing is a critical service offered by NanoSILICON, Inc., utilizing silicon dioxide (SiO2) as a key insulation material in semiconductor devices. This material serves as a field oxide, separating conductive layers like polysilicon and metal from the silicon base. Additionally, it functions as a gate oxide, playing a crucial role in the device's operation. Silicon wafers are subjected to oxidation within a high-temperature range of 800°C to 1050°C in quartz tube furnaces, ensuring a slow and controlled heating process to prevent deformation. The characteristics of dry oxidation, which include slow oxide growth and high density, make it suitable for high breakdown voltage applications. On the other hand, wet oxidation offers faster growth, even at lower temperatures, allowing for the creation of thicker oxide layers. These processes are conducted using ultra-pure steam and oxygen sources, ensuring batch thickness uniformity within ±5% and intra-wafer uniformity within ±3%. Technical proficiency is emphasized with the employment of advanced measurement tools like the Nanometrics 210 for optical parameter adjustment and precise film thickness verification. This technique allows for accurate measurement at various stages of the semiconductor fabrication, from as small as 10µm, guaranteeing the high quality of the thermal oxide films.
The MVWS4000 series sensors integrate humidity, pressure, and temperature measurement into a single, compact unit. Designed for accuracy and efficiency, these sensors are based on proprietary Silicon Carbide technology. This ensures reliability and ultra-low power consumption, which is crucial for battery-powered and OEM applications. The sensors offer different accuracy grades, supporting customization for various budgetary and precision needs. These attributes make them perfect for time-sensitive applications, where fast and precise environmental data is required. Their digital I2C and SPI outputs further enable seamless integration into a wide array of devices. Key technical specs include a power supply range of 1.71 to 3.6 Vdc, current consumption lower than 1μA at 1Hz operation, and a comprehensive operating range. These sensors are versatile, fitting diverse applications in sectors like industrial, consumer, medical, and automotive, contributing significantly to environmental monitoring and control.
The Time-Triggered Protocol (TTP) is a communication protocol engineered to address the growing complexity and safety requirements of distributed electronic networks. TTP facilitates reliable network operation for modern vehicle systems, reducing lifecycle costs and supporting seamless integration. This protocol offers significant improvements in communication bandwidth compared to traditional systems such as ARINC 429 and CAN. TTP's capacity for deterministic communication aids in designing advanced integrated systems, offering robust solutions for time- and safety-critical applications, backed by mature development tools and standard components.
Omni Design Technologies' Linear Regulators & Bandgap Reference IP is crafted to handle the stringent power requirements of today's integrated circuits. These IPs utilize advanced control methodologies to provide excellent transient response and low noise output, delivering robust power supply solutions for high-performance systems. The LDO regulators are available in both internally and externally compensated variations, stabilizing factors like power supply rejection across wide bandwidths vital for stable device operation. These solutions are designed to offer high power efficiency while maintaining a low quiescent current, making them perfect for portable and battery-operated devices demanding long-term operation. The bandgap references ensure consistent output under varying environmental and load conditions without requiring calibration, offering a seamless operation across a range of IC applications. Effortlessly integrating with other Omni Design IPs, including ADC and DAC solutions, these IPs support process nodes extending from 28nm to the latest FinFET designs. With configurable output currents and voltages, they can be precisely adapted to meet the specific needs of advanced cutting-edge applications like wireless communications, data centers, and automotive systems.
Analog Bits' sensor IPs are engineered to offer comprehensive monitoring of process, voltage, and temperature (PVT) conditions. These silicon-proven sensors are designed with the smallest core area and lowest power footprint yet deliver precise measures critical for power efficiency and reliability. The sensors are fully integrated on-die, which eliminates the typical challenges seen in ensuring integrity across the power delivery subsystem. This enhanced monitoring is pivotal in detecting voltage irregularities, optimizing load balancing, and maintaining energy efficiency.
The OmniTRUST™ PVT Monitor IP is a robust solution designed to manage and monitor process, voltage, and temperature variations in semiconductor devices. This IP is essential for improving the reliability and efficiency of electronic systems by offering precise and real-time feedback on operational parameters. It acts as a critical enabler for dynamic thermal management and voltage regulation, ensuring that electronic systems operate under optimal conditions. Capable of monitoring over a wide temperature range, the OmniTRUST™ PVT Monitor IP provides high accuracy in temperature readings and versatile voltage monitoring capabilities. Its design facilitates low standby power modes, enhancing the overall energy efficiency of the IP. This makes it indispensable for applications where device reliability and consistent performance are key concerns, such as in automotive electronics and portable devices. The PVT Monitor is customizable and can be adapted for use across various process nodes. It seamlessly fits into Omni Design’s broader portfolio of power management and monitoring solutions, supporting functions critical for modern electronic systems, such as predictive maintenance and adaptive performance adjustments.
eSi-Analog is a portfolio of silicon-proven analog IP blocks that play a pivotal role in enabling custom ASIC and SoC designs. The offerings include a variety of critical analog functions such as oscillators, PLLs, and low-dropout regulators (LDOs), all optimized for low power consumption and high performance. These blocks are designed for easy integration across numerous process nodes, catering to diverse customer specifications in sectors ranging from wireless communication to healthcare. By incorporating advanced analog technology, eSi-Analog helps ensure that systems meet both performance and cost targets while maintaining high levels of functionality.
The OmniTRUST™ PVT Monitor ODT-PVT-ULP-001C-16FFCT is a dedicated monitoring IP designed for comprehensive management of process, voltage, and temperature variables in electronic designs. Crafted using a 16nm CMOS process, it offers a compact and efficient solution ideal for integration into next-generation SoCs needing accurate environmental condition monitoring. This PVT monitor operates reliably across an extensive temperature range, providing high accuracy readings crucial for device optimization and reliability. Its low power consumption features make it apt for portable devices and applications where energy efficiency is paramount. Flexibly integrating into a variety of process nodes, the ODT-PVT-ULP-001C-16FFCT sets the standard for operational assurance by offering features that promote continuous condition assessment, contributing significantly to the device’s adaptive management strategies. It's an invaluable component for industries requiring meticulous monitoring systems, such as automotive and consumer electronics sectors.
The C100 is a highly integrated, low-power IoT SoC chip designed to implement control and interconnection functionalities. It incorporates an advanced 32-bit RISC-V CPU, clocked at up to 1.5GHz, with embedded RAM and ROM for enhanced computational efficiency and capability. This chip integrates multiple transmission interfaces including Wi-Fi, and features components such as ADC, LDO, and temperature sensors, making it suitable for a broad range of IoT applications. Designed to facilitate simpler, faster, and wider application development, the C100 aims to offer high efficiency processing capabilities.
This innovative semiconductor product is engineered to significantly enhance energy efficiency through its ultra-low-power consumption capabilities. Designed to operate effectively in wearable technology, this detector is capable of registering the presence of a human body in both dynamic and static models, offering flexibility in its applications. The detector efficiently reduces power usage in devices when not in contact with the body, making it ideal for conserving energy in various electronic gadgets. Its low-power requirements also contribute to prolonging battery life in wearable applications, ensuring devices remain operational for longer periods without the need for frequent recharging.
Catering to the needs of the Internet of Things (IoT) and energy harvesting sectors, this temperature sensor sets a benchmark in ultra-low-power consumption. It is optimized to manage power effectively, which is crucial for IoT applications that require sustainable and long-lasting battery life. The effectiveness of this sensor lies in its precision in measuring temperatures while consuming minimal energy, making it indispensable for devices that must operate uninterrupted for extended periods. The sensor's low power draw ensures that it seamlessly integrates into power-sensitive applications, promoting efficient energy use without compromising on performance or accuracy.
Omni Design offers a sophisticated range of OmniTRUST™ Process, Voltage, and Temperature (PVT) monitors that are integral in ensuring the operational integrity and reliability of electronic systems. Designed for comprehensive monitoring, these PVT monitors fulfill the critical need for real-time insights into the temperature, voltage, and process variations within semiconductor devices. They play a vital role in dynamic power management, helping to prevent performance loss and maintain device reliability under different environmental conditions. Engineered to deliver accurate readings across a broad temperature span, OmniTRUST™ PVT monitors excel in providing detailed information about the state of PMOS, NMOS, and I/O devices, among other components. This precision aids in the verification of device functionality and efficacy, contributing significantly to the system's overall stability. Moreover, these monitors incorporate advanced features such as low power modes to enhance their efficiency further, making them a favored choice in high-performance sectors that demand reliability and adaptability. With support for various process nodes and the ability to customize to specific needs, these monitors are a flexible solution for the engineering challenges faced by modern electronics today.
The M31 ADC / Temp. Sensor module is a dual-function IP that offers superior performance for both analog-to-digital conversion and temperature sensing. With resolutions up to 12 bits and operation speeds up to 2.5MSPS, this IP is designed for flexible system integration, supporting both single-ended and differential input types.
The CM6216ea High-Precision Temperature Sensor is engineered to deliver exceptional temperature measurement accuracy across an extended range. This sensor is designed for applications where precision is paramount, making it ideal for use in environments that require meticulous temperature monitoring and control. With an accuracy of 0.1°C, it provides reliable data that is crucial for maintaining optimal operating conditions in various systems. Incorporating advanced technologies, the CM6216ea operates with low power consumption, making it an excellent choice for energy-efficient designs where battery life is a concern. The sensor's extended temperature range increases its versatility, allowing it to be deployed in a variety of industrial and consumer applications wher robust and precise temperature measurements are required. As part of Chipus's pursuit of cutting-edge solutions, this temperature sensor is under development, ensuring that it will continue to meet the evolving demands of high-precision monitoring tasks. It's perfectly suited for use in IoT devices, health monitors, and industrial systems where accurate temperature data drives performance and safety.
Tower Semiconductor's Non Imaging Sensor Technology offers innovative solutions that extend sensor capabilities beyond traditional imaging. The focus here is on developing technologies that meet the increasing demand for sensors capable of analyzing environmental data and enhancing the user experience in IoT applications, autonomous vehicles, and industrial systems. These sensor technologies are built on advanced CMOS processes, allowing for seamless integration into System-on-Chip (SoC) architectures. This enables the embedding of sensor capabilities directly into electronic devices, ensuring efficient performance with ultra-low power consumption, which is critical for battery-operated or low-energy-demand systems. Among the technological advancements offered, Tower Semiconductor provides solutions like UV and radiation sensors, magnetic field sensors, and proximity detectors. These sensors are designed to maintain high sensitivity and reliability, crucial for applications demanding precision data collection and environmental interaction, such as pollution monitoring, healthcare diagnostics, and industrial automation. The platform also supports a suite of design IPs that help tailor sensor functionality to specific application needs.