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 C100 is designed to enhance IoT connectivity and performance with its highly integrated architecture. Built around a robust 32-bit RISC-V CPU running up to 1.5GHz, this chip offers powerful processing capabilities ideal for IoT applications. Its architecture includes embedded RAM and ROM memory, facilitating efficient data handling and computations. A prime feature of the C100 is its integration of Wi-Fi components and various transmission interfaces, enhancing its utility in diverse IoT environments. The inclusion of an ADC, LDO, and a temperature sensor supports myriad applications, ensuring devices can operate in a wide range of conditions and applications. The chip's low power consumption is a critical factor in this design, enabling longer operation duration in connected devices and reducing maintenance frequency due to less charging or battery replacement needs. This makes the C100 chip suitable for secure smart home systems, interactive toys, and healthcare devices.
The Time-Triggered Protocol (TTP) is an advanced communication protocol designed to enable high-reliability data transmission in embedded systems. It is widely used in mission-critical environments such as aerospace and automotive industries, where it supports deterministic message delivery. By ensuring precise time coordination across various control units, TTP helps enhance system stability and predictability, which are essential for real-time operations. TTP operates on a time-triggered architecture that divides time into fixed-length intervals, known as communication slots. These slots are assigned to specific tasks, enabling precise scheduling of messages and eliminating the possibility of data collision. This deterministic approach is crucial for systems that require high levels of safety and fault tolerance, allowing them to operate effectively under stringent conditions. Moreover, TTP supports fault isolation and recovery mechanisms that significantly improve system reliability. Its ability to detect and manage faults without operator intervention is key in maintaining continuous system operations. Deployment is also simplified by its modular structure, which allows seamless integration into existing networks.
ISELED Technology emerges as a revolutionary solution in automotive lighting, integrating digital control of smart RGB LEDs and addressing automotive gradings. The initiative offers precisely calibrated Smart RGB LEDs, deftly facilitating color calibration at production, providing manufacturers with a streamlined implementation process. Primarily, ISELED excels in reducing complexities associated with the management of color mixing and compensation. Ideal for ambient and functional lighting, ISELED supports daisy-chain configurations of RGB LEDs, enhancing both aesthetic and functional vehicle illumination possibilities. The integrated communication protocol simplifies color adjustments through a straightforward digital interface, moving away from traditional 3-channel current control methods. These advancements promote innovation beyond aesthetics by fostering significant reductions in system cost and complexity. This comes from integrated features such as onboard calibration data storage, which removes dependency on external resources during vehicle manufacturing, making ISELED an optimal choice for next-generation automotive lighting technologies.
eSi-Analog provides a comprehensive solution for integrating critical analog functionality within custom ASIC and SoC devices. This IP is optimized for low power consumption, which makes it highly suitable for applications spanning a variety of industry standards across multiple voltage domains. By incorporating proven silicon technology, eSi-Analog facilitates the development of analog components such as data converters, amplifiers, and sensor interfaces, tailored to meet specific project requirements. It supports a wide array of electronic environments, offering vital enhancements to system reliability and performance. This analog IP is also notable for its ability to integrate seamlessly with both standard and custom digital components, promoting a cohesive, scalable infrastructure that can easily accommodate next-generation applications. Its robustness is evident in its adaptability to diverse industry needs, from automotive electronics to industrial control systems.
The MVH4000 series offers highly precise and fully calibrated sensors for both relative humidity and temperature. Relying on proprietary Silicon Carbide MEMS technology, these sensors are built to provide exceptional long-term stability. They boast rapid response times, extremely low power consumption, and a compact design, making them ideal for applications that demand reliable and swift operation.<br><br>The sensors excel in saving energy with their minimal current consumption, significantly prolonging battery life. They also ensure superior accuracy and long-term reliability, making them a cost-effective solution for various uses. Their built-in calibration supports seamless integration for plug-and-play functionality.<br><br>Available in multiple accuracy levels and offering both digital and analog outputs, the MVH4000 sensors can be customized to meet specific operational needs. Evaluation kits help facilitate the integration and testing process for developers.
Designed for precision applications in healthcare and IoT sectors, the Stereax micro battery offers a compact yet powerful energy solution. These rechargeable batteries are tailored to support miniaturized medical devices such as neurostimulators and sensors. Stereax batteries stand out due to their razor-thin design and robust energy capacity, features that are crucial for frequent and reliable device operations. The Stereax series is specifically engineered to deliver consistent power in a mm-scale form factor which aligns seamlessly with the dimensions of most electronic chips. The absence of liquid or polymer within its construction enhances its reliability and safety, crucial for sensitive applications in medical and industrial environments. One of the captivating aspects of these batteries is their performance excellence despite the miniature size. They are crafted for longevity with over 1000 charge cycles, minimal leakage rates, and sustained pulse power delivery, assuring long-term functionality in critical applications. The collaboration with Cirtec Medical frames a pathway for widespread utilization in med-tech and smart sensor industries.
Designed to deliver optimal power supply monitoring and integrity assurance, Analog Bits' sensors IP is aimed at high-performance computing environments. These sensors have an integrated small footprint and are capable of monitoring both on-chip and system power effectively. Engineered for processes down to 5nm, with plans underway for implementations in 3nm, these sensors are sought for their ability to manage energy efficiency and allow for SW load balancing by detecting PVT variations and voltage spikes—critical for maintaining security and reliability. They empower a comprehensive power management strategy useful for various demanding industry applications.
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 MVT4000D series consists of digital temperature sensors noted for their exceptional accuracy and calibration. Built on Silicon Carbide MEMS technology, these sensors promise outstanding long-term stability and are characterized by their quick response and minimal power usage.<br><br>These sensors are ideal for a wide spectrum of applications thanks to their accurate readings and energy efficiency, which results in lower costs over time. With a compact size, they are perfectly suited for critical real estate on PCBs.<br><br>The series supports multiple resolutions for output and various power supply voltage levels, ensuring they meet diverse design demands in industrial, consumer, medical, and automotive spaces.
Tower Semiconductor's BCD technology platform excels in power management applications, offering exceptional versatility and efficiency. With capabilities to handle up to 700V, it stands out as a leading solution for high voltage applications such as motor drivers, DC-DC converters, and PMICs. The technology is engineered to deliver low resistance and high current handling, which is crucial for maintaining efficiency in power-dense environments. This BCD platform supports advanced isolation schemes and high digital integration, making it ideal for integrating complex power control systems within minimal footprint. The comprehensive process allows for the production of power ICs that cater to diverse industries including automotive, industrial, and consumer electronics. Equipped with robust design rules and a wide array of supported MOSFETs, diodes, and bipolar transistors, Tower's BCD solutions enhance reliability and performance. This technology is part of their expansive semiconductor offering, reflecting their commitment to providing tailored solutions that meet the modern industry's stringent demands for efficiency and integration.
The MVWS4000 series integrates multiple sensing capabilities into a single, efficient package that includes humidity, pressure, and temperature measurements. These sensors are engineered for precision and reliability, utilizing Silicon Carbide technology to ensure high performance and low energy consumption.<br><br>Designed for fast response times, these sensors cater to time-sensitive applications, offering comprehensive environmental monitoring in battery-operated devices. They are available in different accuracy grades, allowing for flexible budgeting without compromising performance.<br><br>The compact design and low power requirements make the MVWS4000 series ideal for OEM applications, contributing to the efficiency of portable and stationary devices across industrial, consumer, and medical sectors.
Thermal oxide or SiO2 is a pivotal insulating film utilized in semiconductor devices, serving functions as both ‘field oxide’ and ‘gate oxide’. NanoSILICON, Inc. provides robust thermal oxide processing services using silicon wafers oxidized in high-temperature furnaces ranging from 800°C to 1050°C. The process ensures high purity and low defects, leveraging quartz tubes that provide a stable, high-temperature environment to produce high-density, high-breakdown voltage films. The dry oxidation process involves a reaction of silicon with oxygen to form SiO2, characterized by slow growth but resulting in a high-density layer ideal for isolation purposes. Conversely, the wet oxidation process engages steam, enabling rapid growth of the oxide layer even at lower temperatures, suitable for creating thicker oxides. This flexibility ensures that NanoSILICON can cater to a variety of requirements for different semiconductor applications. NanoSILICON ensures batch thickness uniformity and an impressive degree of thickness accuracy within wafers. Their use of equipment such as the Nanometrics 210 guarantees precise measurement and adherence to specific industry standards. This focus on meticulous quality control assures that the thermal oxides produced meet stringent electrical and physical specifications necessary for reliable device performance.
This advanced sensor from Microdul is designed to detect human presence with minimal energy consumption, making it perfect for applications where battery life is a paramount consideration. The sensor excels in environments where reducing power usage is crucial, especially in wearable technology that might not always be in active use. Its ability to operate in static conditions means it can maintain performance while significantly lowering energy draw in standby modes, extending battery life without compromising sensitivity and functionality.
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.
This sophisticated temperature sensor by Microdul is tailored for the Internet of Things applications, blending accuracy with supreme power efficiency. It is optimized to conserve energy, enhancing the battery life of IoT devices. Ideal for energy-harvesting setups, this sensor allows seamless integration into smart devices, providing reliable temperature monitoring while maintaining minimal power requirements. It's perfect for scenarios where long-term, maintenance-free operation is a necessity.
Microdul's capacitive proximity switch is engineered for exceptional energy efficiency, adeptly detecting touch and proximity events. The switch is versatile enough to cater to single buttons, keyboards, sliders, or proximity switches, making it suitable for a range of interactive applications. With its ultra-low power consumption, it becomes an ideal choice for systems where energy savings are crucial, such as in handheld devices or smart panels, extending the usability phase of these devices significantly.
The CANsec Controller Core is developed for secure communication in automotive networks. Building on the Controller Area Network (CAN) protocol, this core introduces enhancements for data security, ensuring that messages transmitted across the network are resistant to tampering and unauthorized interception. With the growing complexity and interconnectedness of vehicle systems, the CANsec architecture provides robust protection against emerging cybersecurity threats, making it an essential component for modern automotive designs.
Designed for accurate temperature monitoring applications, the Linear Temperature Sensor ensures precise thermal readings across a wide range of conditions. It integrates easily into a variety of systems, providing reliable data necessary for effective thermal management in electronic and industrial environments.
Tower Semiconductor's Non Imaging Sensor technology is expertly crafted to serve a range of industrial and consumer applications, focusing on sensors that do not rely on visual data. This includes pressure sensors, accelerometers, and other similar devices that translate physical properties into digital signals. With an emphasis on high performance and reliability, these sensors are developed to function efficiently under extreme conditions, supporting markets like automotive, aerospace, and industrial automation. The technology boasts low power consumption and high precision, which are crucial for maintaining functionality and accuracy in real-time applications. This platform is designed to provide adaptable solutions capable of integrating into various systems, emphasizing modular processes that can be customized for specific operational requirements. Through innovative sensor designs and vital strategic partnerships, Tower continues to expand the possibilities of non-imaging sensors, influencing sectors ranging from smart consumer electronics to advanced robotic systems.
The OmniTRUST™ PVT Monitor IP from Omni Design Technologies offers a reliable means of observing process, voltage, and temperature variations across integrated circuits. Ideal for autonomous systems and IoT applications, these monitors help maintain optimal device operations by dynamically managing thermal and voltage indices. These compact and low-power monitors extend across a broad temperature range, ensuring accuracy and reliability. They support differential and single-ended voltage inputs and can adapt to user-triggered monitoring scenarios, conserving power during inactivity. A vital part of maintaining device longevity, OmniTRUST™ PVT Monitors address thermal management and voltage variation concerns, enhancing not only the stability but also the efficiency of systems across wide-ranging applications from AI processors to IoT devices.
The CM6216ea is an ultra-high-precision temperature sensor designed for applications demanding exact temperature readouts. It exhibits remarkable accuracy with a deviation of only ±0.1°C and is also noted for its energy efficiency in operation. This makes it suitable for extensive use in environments where precise temperature monitoring is critical, such as in industrial automation or complex electronic systems. Produced using UMC's 0.25μm CMOS technology, the CM6216ea integrates seamlessly into mixed-signal ICs, providing accurate environmental data for enhanced control and safety features. The sensor operates across a broad temperature range, making it adaptable for use in diverse conditions, from automotive systems to consumer electronics. Apart from its precision, the CM6216ea is engineered to minimize power usage, meeting the demands of battery-operated devices that benefit from extended operational periods without sacrificing performance. This reliable, high-precision sensor is integral to intelligent systems requiring constant, accurate temperature feedback, supporting advancements in temperature-dependent technological applications.
Omni Design's linear regulators and bandgap reference solutions are developed to provide robust power management for high-speed semiconductor applications. These components utilize advanced control methodologies to deliver excellent transient response and low noise, crucial for high-performance data converters. Internally compensated LDOs feature an integrated pass transistor and sustain stability with minimal capacitance, optimizing the overall solution size and performance. While the externally compensated variants achieve excellent stability with significant external capacitance, these linear regulators are particularly suited to environments demanding high power supply rejection. Equipped with high-performance bandgap architectures, these solutions affirm stable reference voltages and currents across a wide bandwidth, seamlessly integrating with Omni Design's comprehensive product offerings. Their applicability extends across diverse process nodes, ensuring consistent power management efficiency in an array of cutting-edge integrated circuits.
Designed for monitoring and measuring applications, this SAR ADC comes with an integrated temperature sensor suitable for low-frequency and DC measurements such as voltage and temperature. This ADC features a 12-bit resolution and operates at 20 kSPS, providing precise data for sensor and monitoring systems. It includes a differential input range and offers temperature compensation, making it versatile for various environmental controls and monitoring systems.
The TS5111 and TS5110 device incorporate thermal sensing capability which is controlled and read over two wire bus. These device operate on I2C and I3C two wire serial bus interface. The TS5 designed for Memory Module Applications. The TS5 device intended to operate up to 12.5 MHz on a I3C Basic Bus or up to 1 MHz on a I2C Bus. All TS5 devices respond to specific pre-defined device select code on the I2C/I3C Bus.
StarIC's STAR4000 charge pump showcases an elegant solution for regulating voltage in compact electronic applications. It integrates a frequency-regulated voltage doubler followed by a tripler, utilizing a regulation loop to allow fully programmable output voltage levels. This design is particularly geared for applications that require precise control of power supply outputs with minimal inefficiency. The charge pump's innovative approach to voltage regulation maximizes conversion efficiency while ensuring reliable performance across a range of load conditions, ideal for power-sensitive applications. Utilization of this IP ensures flexibility in design, compelling for businesses aiming to streamline power management while achieving high energy efficiency. It is adaptable to various use cases, offering a versatile and reliable option for advanced electronic systems needing compact voltage regulation mechanisms.
The VS1001REF provides a stable and programmable voltage output, critical for a range of precision analog applications. With a versatile architecture composed of a precision voltage generator and output buffer, it ensures exceptional long-term stability and precise reference output. It’s an indispensable component in settings that demand accuracy and reliability, such as instrumentation and detection systems.
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