All IPs > Analog & Mixed Signal > Analog Front Ends
Analog Front Ends (AFEs) are integral components in modern electronic design, bridging the gap between analog signals from the outside world and the digital systems that process these signals. At Silicon Hub, our semiconductor IPs in the Analog Front Ends category are engineered to ensure high fidelity and efficiency in transferring signals with minimal loss or distortion. These components are crucial in a variety of applications, from telecommunications to medical devices, where precise signal interpretation is paramount.
Analog Front Ends serve as the initial interface in communication systems, sensor networks, and various digital processing environments. They typically include amplifiers, filters, and converters designed to condition incoming analog signals for further digital processing. This conditioning is vital for achieving accurate, high-quality data capture, allowing downstream digital processors to work more effectively. Whether dealing with audio signals, video inputs, or complex sensor data, AFEs ensure the integrity of the analog portion of the signal chain.
In the realm of telecommunications, Analog Front Ends are employed to refine and equalize signals received from mobile networks, satellites, or optical fibers, ensuring clear and reliable communication. In consumer electronics, they are crucial in devices like smartphones and televisions, where high-resolution signal conversion and processing are required to maintain performance standards. Analog Front Ends also find applications in medical instrumentation, where they play a role in sensitive equipment such as ECGs and MRIs by enabling accurate physiological data collection and analysis.
Our collection at Silicon Hub features a variety of Analog Front Ends semiconductor IPs designed to meet the most demanding industry standards. We offer solutions that provide scalability, cost-effectiveness, and power efficiency, essential for both emerging technologies and traditional systems. By integrating these AFEs into your projects, you can ensure your devices are equipped to handle the challenges of modern signal processing, ultimately enhancing your products' capabilities and competitiveness in the market. Explore our range to find the perfect match for your design needs.
The Mixel MIPI C-PHY IP (MXL-CPHY) is a high-frequency, low-power, low cost, physical layer. (Learn more about Mixel’s MIPI ecosystem at Mixel MIPI Central which gives you access to Mixel’s best of class MIPI ecosystem supply chain partners.) The C-PHY configuration consists of up to three lane modules and is based on 3-Phase symbol encoding technology, delivering 2.28 bits per symbol over three-wire trios and targeting a maximum rate of 2.5 Gsps, 5.7Gbps. The C-PHY is partitioned into a digital module – CIL (Control and Interface Logic) and a mixed-signal module. The PHY IP is provided as a combination of soft IP views (RTL, and STA Constraints) for the digital module, and hard IP views (GDSII/CDL/LEF/LIB) for the mixed-signal module. This unique offering of both soft and hard IP permits architectural design flexibility and seamless implementation in customer-specific design flow. The CIL module interfaces with the protocol layer and determines the global operation of the module. The interface between the PHY and the protocol is using the PHY-Protocol Interface (PPI). The mixed-signal module includes high-speed signaling mode for fast-data traffic and low-power signaling mode for control purposes. During normal operation, a lane switches between low-power and high-speed mode. Bidirectional lanes can also switch communication direction. The change of operating mode or direction requires enabling and disabling of certain electrical functions. These enable and disable events do not cause glitches on the lines that would result in a detection of incorrect signal levels. All mode and direction changes are smooth to always ensure a proper detection of the line signals. Mixel’s C-PHY is a complete PHY, silicon-proven at multiple foundries and multiple nodes. It is built to support the MIPI Camera Serial Interface (CSI) and Display Serial Interface (DSI).
The Mixel MIPI D-PHY IP (MXL-DPHY) is a high-frequency low-power, low cost, source-synchronous, physical layer compliant with the MIPI® Alliance Standard for D-PHY. (Learn more about Mixel’s MIPI ecosystem at Mixel MIPI Central which gives you access to Mixel’s best of class MIPI ecosystem supply chain partners.) Although primarily used for connecting cameras and display devices to a core processor, this MIPI PHY can also be used for many other applications. It is used in a master-slave configuration, where high-speed signals have a low voltage swing, and low-power signals have large swing. High-speed functions are used for high-speed data traffic while low-power functions are mostly used for control. The D-PHY is partitioned into a Digital Module – CIL (Control and Interface Logic) and a Mixed Signal Module. It is provided as a combination of Soft IP views (RTL, and STA Constraints) for Digital Module, and Hard IP views (GDSII/CDL/LEF/LIB) for the Mixed Signal Module. This unique offering of Soft and Hard IP permits architectural design flexibility and seamless implementation in customer-specific design flow. The CIL module interfaces with the protocol layer and determines the global operation of the lane module. The interface between the D-PHY and the protocol is called the PHY-Protocol Interface (PPI). During normal operation, the data lane switches between low-power mode and high-speed mode. Bidirectional lanes can also switch communication direction. The change of operating mode or direction requires enabling and disabling certain electrical functions. These enable and disable events do not cause glitches on the lines that would otherwise result in detections of incorrect signal levels. Therefore, all mode and direction changes occur smoothly, ensuring proper detection of the line signals. Mixel’s D-PHY is a complete PHY, silicon-proven at multiple foundries and multiple nodes. This MIPI PHY is fully integrated and has analog circuitry, digital, and synthesizable logic. Our D-PHY is built to support the MIPI Camera Serial Interface (CSI) and Display Serial Interface (DSI) using the PHY Protocol Interface (PPI). Mixel has provided this IP in many different configurations to accommodate different applications. The Universal Lane configuration can be used to support any allowed use-case, while other configurations are optimized for many different use cases such as Transmit only, Receive only, DSI, CSI, TX+ and RX+. Both TX+ and RX+ configurations support full-speed loopback operation without the extra area associated with a universal lane configuration.
The Mixel MIPI C/D-PHY combo IP (MXL-CPHY-DPHY) is a high-frequency low-power, low cost, physical layer compliant with the MIPI® Alliance Standard for C-PHY and D-PHY. (Learn more about Mixel’s MIPI ecosystem at Mixel MIPI Central which gives you access to Mixel’s best of class MIPI ecosystem supply chain partners.) The PHY can be configured as a MIPI Master or MIPI Slave, supporting camera interface CSI-2 v1.2 or display interface DSI v1.3 applications in the D-PHY mode. It also supports camera interface CSI-2 v1.3 and display interface DSI-2 v1.0 applications in the C-PHY mode. The high-speed signals have a low voltage swing, while low-power signals have large swing. High-Speed functions are used for high-speed data traffic while low-power functions are mostly used for control. The C-PHY is based on 3-Phase symbol encoding technology, delivering 2.28 bits per symbol over three-wire trios, operating with a symbol rate range of 80 to 4500 Msps per lane, which is the equivalent of about 182.8 to 10260 Mbps per lane. The D-PHY supports a bit rate range of 80 to 1500 Mbps per Lane without deskew calibration, and up to 4500 Mbps with deskew calibration. The low-power mode and escape mode are the same in both the D-PHY and C-PHY modes. To minimize EMI, the drivers for low-power mode are slew-rate controlled and current limited. The data rate in low-power mode is 10 Mbps. For a fixed clock frequency, the available data capacity of a PHY configuration can be increased by using more lanes. Effective data throughput can be reduced by employing burst mode communication. Mixel’s C-PHY/D-PHY combo is a complete PHY, silicon-proven at multiple foundries and multiple nodes. The C/D-PHY is fully integrated and has analog circuitry, digital, and synthesizable logic.
The Vantablack S-VIS Space Coating is engineered for space applications, where it serves as an advanced stray light suppression and blackbody coating. Suitable for use on satellite instruments, this coating helps to minimize the light reflection that can occur in space environments, thereby ensuring higher accuracy in optical measurements and instrument calibration. Vantablack S-VIS offers exceptional spectral absorption from ultraviolet through to the terahertz range, crucial for a variety of optical systems. Its lightweight and highly absorbent properties allow for more compact baffle and calibration systems without compromising performance. The coating has demonstrated reliability in space missions, offering consistent absorption over extended periods. This coating is particularly critical for optical systems that operate under the challenging conditions of space, including variations in temperature and pressure, as well as the intense radiation environment. It has been applied successfully in low earth orbit operations, enhancing the operability of instruments by reducing system complexity and improving the accuracy of optical sensors.
The HOTLink II Product Suite is another remarkable offering from Great River Technology. Built to complement their ARINC 818 suite, HOTLink II provides an integrated framework for crafting high-performance digital data links. This suite ensures seamless, secure, and reliable data transmission over fiber or copper cables across various platforms. Developed with a focus on flexibility and functionality, the HOTLink II capabilities enhance system integrators' ability to deploy effective communication solutions within aircraft and other demanding environments. The emphasis on robust, low-latency data transfer makes it an ideal choice for real-time applications where precision and reliability are paramount. Broad compatibility is a hallmark of HOTLink II, facilitating integration into diverse infrastructures. Backed by Great River Technology's expertise and support, customers are empowered to advance their system communication capabilities efficiently and cost-effectively.
The CT25203 serves as a critical analog front-end for 10BASE-T1S Ethernet systems, working in conjunction with other Canova Tech IP like the CT25205 digital core for a complete solution. This product is engineered to align with the stringent OA TC14 specification, allowing seamless communication over standard 3-pin interfaces commonly used in automotive and industrial Ethernet networks. Its high-voltage process technology ensures optimal electromagnetic compatibility, critical for maintaining performance in challenging environments.
The MXL-LVDS-MIPI-RX is a high-frequency, low-power, low-cost, source-synchronous, Physical Layer that supports the MIPI® Alliance Standard for D-PHY and compatible with the TIA/EIA-644 LVDS standard. (Learn more about Mixel’s MIPI ecosystem at Mixel MIPI Central which gives you access to Mixel’s best of class MIPI ecosystem supply chain partners.) The IP is configured as a MIPI slave and consists of 5 lanes: 1 Clock lane and 4 data lanes, which make it suitable for display serial interface applications (DSI). The High-Speed signals have a low voltage swing, while Low-Power signals have large swing. High-Speed functions are used for High-Speed Data traffic while low power functions are mostly used for control.
The MXL-LVDS-DPHY-DSI-TX is a combo PHY that consists of a high-frequency low-power, low-cost, source-synchronous, Physical Layer supporting the MIPI® Alliance Standard for D-PHY and a high performance 4-channel LVDS Serializer implemented using digital CMOS technology. (Learn more about Mixel’s MIPI ecosystem at Mixel MIPI Central which gives you access to Mixel’s best of class MIPI ecosystem supply chain partners.) In LVDS mode, both the serial and parallel data are organized into 4 channels. The parallel data is 7 bits wide per channel. The input clock is 25MHz to 150MHz. The serializer is highly integrated and requires no external components. The circuit is designed in a modular fashion and desensitized to process variations. This facilitates process migration, and results in a robust design.
The MXL4254A is a silicon proven Quad Gigabit SerDes implemented in digital CMOS technology. Each of the four channels supports data rate up to 4.25 Gbps. It is compatible with router-backplane links, PCI Express, SATA, RapidIO, 10 Gbps Ethernet (XAUI), FibreChannel, SFI-5, SPI-5, and other communication applications.
The MXL-SR-LVDS is a high performance 4-channel LVDS Serializer implemented using digital CMOS technology. Both the serial and parallel data are organized into four channels. The parallel data width is programmable, and the input clock is 25MHz to 165MHz. The Serializer is highly integrated and requires no external components. It employs optional pre-emphasis to enable transmission over a longer distance while achieving low BER. The circuit is designed in a modular fashion and desensitized to process variations. This facilitates process migration, and results in a robust design.
The Mixel MIPI M-PHY (MXL-MPHY) is a high-frequency low-power, Physical Layer IP that supports the MIPI® Alliance Standard for M-PHY. (Learn more about Mixel’s MIPI ecosystem at Mixel MIPI Central which gives you access to Mixel’s best of class MIPI ecosystem supply chain partners.) The IP can be used as a physical layer for many applications, connecting flash memory-based storage, cameras and RF subsystems, and for providing chip-to-chip inter-processor communications (IPC). It supports MIPI UniPro and JEDEC Universal Flash Storage (UFS) standard. By using efficient BURST mode operation with scalable speeds, significant power savings can be obtained. Selection of signal slew rate and amplitude allows reduction of EMI/RFI, while maintaining low bit error rates.
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.
Advanced Silicon's Sensing Integrated Circuits are expertly crafted to handle a wide range of sensor requirements, from high-performance photodiode-based detectors to crystal-based photon detection arrays. These ICs are particularly advantageous for systems requiring high levels of functionality and integration, while reducing overall system size, power consumption, and cost. These designs ensure precise detection and signal processing, ideal for complex sensor applications. Their charge sensing ICs feature embedded per-channel A-to-D conversion, which greatly enhance the performance metrics like noise figures and ADC linearity for image scanning technologies. These are extensively used in cutting-edge applications like digital X-ray flat panel detectors, CT scanners, and fingerprint detectors. Meanwhile, their capacitive sensing ICs are renowned for exceptional sensitivity and interference rejection, especially in large screen and rugged touch application contexts. This suite of sensing ICs showcases Advanced Silicon’s dedication to delivering unmatched design support and leading-edge technology solutions. Their innovations facilitate advanced image capturing capabilities and enhance the reliability and efficiency of the systems they are integrated into. These ICs are versatile tools for industries seeking to implement precise sensing technologies in their devices.
The Dynamic PhotoDetector for Smartphone Applications is ActLight's state-of-the-art solution for enhancing mobile light sensing technology. This component integrates cutting-edge Dynamic PhotoDetector capabilities, utilizing a unique mode of operation that offers unprecedented levels of sensitivity and performance in detecting light changes. Aimed at applications like proximity and ambient light sensing, the DPD ensures that smartphones can dynamically adjust functions such as screen brightness and feature activation based on environmental lighting, thereby offering users a richer, more adaptive experience. It is particularly efficient in optimizing power consumption due to its ability to operate at lower voltages than traditional sensors, which not only preserves battery life but also supports sustainable device usage. The sensor's design allows for seamless incorporation into existing smartphone architectures without necessitating major redesigns, enabling manufacturers to easily enhance their devices with high-precision light sensing capabilities. Its ability to capture highly accurate 3D data further paves the way for innovative applications in augmented and virtual realities, making the DPD a versatile tool for future-looking smartphone features.
The ARINC 818 Product Suite offered by Great River Technology is designed to support the entire lifecycle of ARINC 818 enabled systems. This suite offers tools for the development, qualification, and testing of ARINC 818 products. With robust simulation capabilities and expert guidance, clients benefit from a streamlined process to bring complex ARINC 818-based systems to functional reality. Whether for airborne, ground, or naval applications, the suite provides comprehensive support in implementing ARINC 818 protocols. Great River Technology's ARINC 818 tools are the cornerstone for organizations needing to integrate advanced video and data systems operationally. The product suite includes a development suite and flyable products, offering resources for learning, implementing, and testing ARINC 818 standards. Their unique ability to productize every aspect of the ARINC 818 standard demonstrates unparalleled commitment to customer success in avionic technology. Clients can access specialized interface solutions that facilitate easy integration into varied technological environments. As a leading supplier of ARINC 818 tools globally, Great River Technology supports the development and qualification of systems to assure performance in demanding operational circumstances.
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.
The FaintStar sensor is designed to excel in detecting low-light astronomical phenomena. This advanced sensor combines large pixel architecture with high sensitivity to capture faint signals with exceptional clarity. It is engineered to provide stellar image quality despite challenging lighting conditions in space, thanks to its integrated noise-reduction technologies. With applications primarily in astronomy, the FaintStar sensor supports missions that require precise and reliable low-light imaging solutions to unlock mysteries of the cosmos.
The MXL-DS-LVDS is a high performance 4-channel LVDS Deserializer implemented using digital CMOS technology. Both the serial and parallel data are organized into four channels. The parallel data can be 7 or 10 bits wide per channel. The input clock is 25MHz to 165MHz. The De-serializer is highly integrated and requires no external components. Great care was taken to insure matching between the Data and Clock channels to maximize the deserializer margin. The circuit is designed in a modular fashion and desensitized to process variations. This facilitates process migration, and results in a robust design.
The AFX010x Product Family serves benchtop and portable data-acquisition systems, offering up to four channels with a resolution reaching up to 16 bits. It boasts a sampling rate capability of up to 5 GSPS, supported by a digitally-selectable 3dB bandwidth extending to 300 MHz. Integrated features such as a single-to-differential amplifier and offset DAC make it a comprehensive solution for high-resolution systems. The family includes products suitable for a variety of applications, ensuring high signal integrity and power efficiency. This product line is engineered for minimal power consumption while maintaining high sampling rates and wide bandwidth. Each AFE IC encompasses four independent, highly integrated channels. These channels feature programmable input capacitance, a programmable gain amplifier (PGA), offset DAC, ADC, and a digital processor. The AFX010x products are pin-to-pin compatible in a standard package, designed for high integration and reduced PCB footprint. The product's versatility is highlighted by features such as the capability to choose different power modes, allowing adaptability to specific needs. With low power consumption and advanced on-chip technology like clock synthesizers, these products offer exceptional configurability and SWaP-C optimization. Applications extend to areas like handheld and benchtop oscilloscopes, non-destructive testing, and noise diagnostics.
Enosemi's analog and mixed-signal devices are designed to handle both low and high-speed electrical signals, making them integral to the implementation and operation of advanced photonic circuits. These devices play a crucial role in ensuring signal integrity and seamless integration between various components within a circuit, facilitating high-fidelity data processing and transmission. The product range includes various amplifiers, filters, and converters, each meticulously crafted to enhance performance while minimizing power consumption and signal distortion. By leveraging these devices, engineers can achieve precise control over electrical signals, enabling the efficient operation of complex photonic systems. These devices are particularly well-suited for high-performance applications where accuracy and speed are paramount. By providing reliable and versatile solutions, Enosemi ensures that its products meet the highest standards required for next-generation photonic applications, aiding clients in achieving superior performance and reliability in their designs.
The Dynamic PhotoDetector designed for Smart Rings by ActLight is a transportable innovation in light sensing technology catered specifically for the constraints of miniaturized electronics. This specialized DPD technology is crafted to enhance the capability of biometric sensors within smart rings, offering unprecedented accuracy in data reading without the complication of added amplification systems. Suited for low voltage operation, the DPD for smart rings ensures prolonged device usability by efficiently managing power consumption and reducing the frequency of battery recharging, a critical aspect for small form-factor devices. By harnessing ActLight's patented sensing technology, this sensor achieves exceptional performance in detecting minute light changes, making it possible to deliver precise biometric monitoring for parameters like heart rate directly from a smaller device. The ability to fit high-performance sensing technology into such a small footprint allows for a seamless blend with the modern aesthetics and functional demands of smart rings. Consequently, these sensors not only provide reliable data but do so while enabling stylish, efficient designs in next-gen wearable technology.
Certus Semiconductor's Analog I/O offerings bring ultra-low capacitance and robust ESD protection to the forefront. These solutions are crafted to handle extreme voltage conditions while securing signal integrity by minimizing impedance mismatches. Key features include integrated ESD and power clamps, support for broad RF frequencies, and the ability to handle signal swings below ground. Ideal for high-speed RF applications, these Analog I/Os provide superior protection and performance, aligning with the most demanding circuit requirements.
This ADC is an 8-bit, asynchronous analog-to-digital converter specifically designed for telecommunication applications. The product offers efficient performance for data conversion tasks that require fast and reliable sampling within digital communication systems. Embedded within it is a design optimized for telecommunication environments, merging reliability with compact form factors to efficiently translate analog signals into digital data streams. This ADC is thus ideal for telecommunications applications where maintaining clear and accurate signal conversion is critical.
Tower Semiconductor showcases its advanced CMOS Image Sensor technology, designed for high-performance optical applications. This technology is crafted to meet the diversified needs of industrial, medical, consumer, and automotive sectors, providing unparalleled imaging quality and customizable pixel designs. It supports a sophisticated range of applications from DSLR cameras to high-end smartphones and security systems. The platform offers Back-Side and Front-Side Illumination capabilities, ensuring superior light sensitivity and efficiency. Coupled with Tower's extensive expertise in pixel technology, the CMOS image sensors promise high resolution and low noise, key components in delivering exceptional image quality. Committed to pushing the boundaries of sensor resolution and capability, Tower Semiconductor supports 8” and 12” wafer platforms, accommodating large sensor designs needed for professional photography and scientific applications. This level of adaptability and performance solidifies their position as experts in imaging technology, constantly evolving to keep pace with the demands for more sophisticated, high-performance imaging devices.
ActLight's Dynamic PhotoDetector for Hearables represents a significant leap in the realm of audio and biometric data sensing within compact audio devices, such as earbuds and headphones. This advanced light sensing technology leverages dynamic operation that enables the detection of changes in light intensity with great precision and reliability, setting new standards in hearable technology. One of its standout features is its ability to operate on a low voltage supply, which directly translates into reduced power consumption and extended battery life in hearable devices—an essential quality for devices meant to be used over sustained periods without frequent recharging. Designed with high sensitivity in mind, the DPD for hearables is capable of capturing detailed biometric data, providing real-time feedback on parameters such as heart rate and stress levels. These capabilities make the sensor particularly well-suited for integrating into sleek, energy-efficient hearables, empowering users with enhanced data accuracy for health and fitness applications. Its combined benefits of miniaturization, high performance, and low energy requirement make it an ideal choice for modern, on-the-go lifestyle products.
ELFIS2 represents a leap forward in high-speed imaging, particularly valuable for scientific research that demands rapid capture rates without sacrificing detail or clarity. This sensor enhances image quality under fast-paced conditions, perfect for understanding dynamic processes in both natural and laboratory settings. Its low-noise design further supports clarity in fast imaging scenarios, making it an ideal choice for scientific experiments that necessitate temporal precision along with visual accuracy.
ParkerVision's Energy Sampling Technology has revolutionized the paradigm of RF signal processing with an inventive approach for frequency down-conversion. Traditionally dominated by super-heterodyne techniques, which used high L.O. power to achieve sensitivity and linearity, these were not suited for low-power CMOS applications as well as modern integrated transceivers. Energy Sampling Technology provides the highest sensitivity and dynamic range required for modern receivers while enhancing selectivity and interference rejection. By eliminating RF signal division between I and Q paths, ParkerVision's technology helps in reducing power consumption and improving demodulation accuracy. It offers a compact and cost-effective solution feasible with CMOS technologies, allowing for the development of multimode receivers compatible with advancing CMOS geometries and power levels. The benefits span various transmission standards like GSM, EDGE, CDMA, UMTS, and LTE, making it relevant for devices such as handsets and embedded modems. This technology fundamentally shifts RF signal processing by using matched-filter correlators, enhancing the overall performance capabilities of direct conversion receivers. The elimination of redundant components reduces silicon area, and improved dynamic range lessens the need for external filters. This technology paves the way for a wide array of innovative applications across contemporary wireless ecosystems, thereby facilitating rapid technological leaps in the communication field.
Tower Semiconductor provides a robust SiGe BiCMOS technology that is a game-changer for RF applications, leveraging high-frequency performance while maintaining power efficiency. This technology is pivotal in enabling products that require low noise, high gain, and broad bandwidth, crucial for telecommunications and consumer electronics. The SiGe BiCMOS platform is known for its ability to enhance system performance with minimal power consumption. By integrating the high-frequency capabilities of SiGe with the power and scalability benefits of CMOS, this technology facilitates the production of next-generation RF modules. Supported by multiple process nodes, it allows for seamless adaptation to various application-specific demands. The technology has proven capabilities for satellites, wireless communication, and high-speed data transfer applications. Additionally, the process is designed to support multiple frequency bands, catering to a wide array of devices from mobile handset components to sophisticated radar systems. Its strength lies in enabling compact designs that integrate multiple functionalities, driving advancements in RF observation and manipulation.
Enosemi's photonic subsystems are integral to the development of advanced optical circuits, providing comprehensive solutions that integrate multiple optical components into cohesive systems. These subsystems facilitate efficient light signal modulation, amplification, and conversion necessary for complex optical networking tasks. By utilizing validated designs and comprehensive testing methodologies, these subsystems offer high reliability and performance. They support a wide array of applications, from high-capacity data transmission networks to intricate photonic processing systems, enabling groundbreaking advancements in optical circuit technology. The subsystems are crafted to meet diverse client needs, offering customization options to suit specific application requirements. This flexibility ensures that clients can leverage the latest photonic technologies to optimize their systems and achieve superior operational efficiency and effectiveness.
The Dynamic PhotoDetector (DPD) technology for wearables by ActLight is designed to revolutionize how light sensors operate in portable electronic devices. This innovative sensor distinguishes itself from traditional photodiodes by utilizing a dynamic mode of operation rather than a static one. It is engineered to provide superior sensitivity and can detect even minimal light changes, making it particularly effective in wearable technology environments where energy efficiency and compact components are crucial. By operating at significantly lower power levels, ActLight’s DPD for wearables not only conserves energy but also minimizes system complexity, which is beneficial for achieving designs that need to fit within the minute confines of wearable devices. With its ability to measure light intensity across a wide range, this sensor facilitates the accurate monitoring of various biometric data such as heart rate and physical activity levels, directly impacting the effectiveness of health and wellness applications. Additionally, the DPD integrates seamlessly into existing wearable electronics, supporting a multitude of applications beyond its robust biometric tracking capabilities. Its small size does not compromise its functionality, making it an ideal choice for next-generation wearable devices that demand high precision, efficiency, and adaptability.
The N5186A MXG Vector Signal Generator by Keysight is crafted to deliver high-quality digital and analog RF signal generation for a broad spectrum of applications, including wireless communication testing and radar design evaluation. Aimed at delivering exceptional metrological performance, this generator is versatile across a variety of frequencies and delivers superb signal fidelity with less distortion and noise, ideal for testing advanced wireless communications systems. This vector signal generator is enhanced with cutting-edge ARB (Arbitrary Waveform Generation) capabilities and broad modulation bandwidth options. Engineers can create complex modulation schemes efficiently, replicating near-actual environmental signals accurately. This flexibility ensures robust testing scenarios, enhancing the quality and reliability of the communication devices undergoing testing, while also supporting next-gen wireless protocols like LTE and 5G. Furthermore, the N5186A MXG offers user-friendly configuration options, capable of integrating seamlessly into automated test setups. With its compact design combined with powerful signal capabilities, it stands out as a reliable choice for RF testing purposes, catering equally to demanding lab environments and dynamic field operations.
The Heimdall platform is engineered for applications requiring low-resolution image processing and quick interpretation. It integrates image signal processing capabilities into a compact design, perfect for IoT applications where space and power consumption are constraints. The platform supports various image-related tasks including object detection and movement tracking. With a core image sensor of 64x64 pixels, Heimdall is optimized for environments where minor details are less critical. This makes it ideal for motion sensing, smart lighting, and automation systems where the understanding of space occupancy or movement is essential. The platform's energy-efficient design, capable of integrating energy-harvesting technology, ensures sustainable operation in remote and hard-to-reach locations. By providing rapid image interpretation, Heimdall supports quick decision-making processes crucial for smart infrastructure and security applications.
These interface conditioners are designed to work with industrial sensors that use Wheatstone bridges, amplifying and processing their minute differential voltages for subsequent digital transmission. Granite SemiCom's design integrates advanced features such as digital signal transmission over an I2C interface and easy programming and debugging capabilities. Ideal for remote or distributed sensor systems, these conditioners support various configurations that enhance communication security and data integrity across potentially vast distances.
The Mixed-Signal Front-End offered by Global Unichip Corp. is engineered to enhance analog signal processing capabilities, critical in various electronics industries. This technology provides a bridge between analog and digital domains, enabling precise signal processing and data conversion. The front-end is designed to work in tandem with complex silicon systems, leveraging cutting-edge mixed-signal IP to ensure optimal signal fidelity and resolution. This IP is particularly valuable in fields like telecommunications, automotive electronics, and consumer electronics, where analog signals must be accurately converted and processed within digital systems. The seamless integration into SoC structures offers flexibility and scalability for designers looking to enhance their chip capabilities without compromising on performance or efficiency. Moreover, Global Unichip's Mixed-Signal Front-End stands out with its robust customization capabilities, allowing for adaptations to specific needs and applications. This adaptability makes it a preferred choice for companies aiming to innovate within the confines of precise analog-digital interaction, ensuring that their systems can handle the rapid shifts in data inherent in modern electronics applications.
Certus Semiconductor's RF/Analog solutions encompass state-of-the-art ultra-low power wireless front-end technologies. These include silicon-proven RF IPs, full-chip RF products, and next-generation wireless IPs. The RF IPs are compatible with various process nodes, offering comprehensive transceiver solutions integrated with digital controls and modern power management strategies. Specialized for wireless applications, these products include transceivers for LTE, Wifi, GNSS, and Zigbee, each meticulously designed to enhance communication reliability and efficiency in any technology node, from 12nm to 65nm processes.
The Time-to-Digital Converter (TDC) Core is a state-of-the-art module intended for high-accuracy time measurement applications, offering time resolutions as fine as 5 picoseconds. This remarkable precision makes it indispensable in fields requiring exact timing solutions. Integrated with CP-Line technology, each component of the TDC core facilitates unparalleled accuracy in time-stamping and time interval measurements. Whether used for scientific research, communication timing, or precision instrumentation, this Core is engineered to deliver exceptional performance. The TDC core offers an innovative platform for systems that need precise timing, such as synchronization of events and phases. These capabilities extend its use in sectors like telecommunications, where inline data transfer accuracy is vital, and scientific sectors demanding high-resolution temporal measurements.
The Magnetic Hall Sensor developed at SystematIC Design is engineered to perform reliably across extended temperature ranges from -40°C to 110°C, offering an exceptional degree of sensitivity and precise current sensing capabilities. It operates with a 5.0 V single power supply, ensuring efficient energy consumption without compromising on performance. A standout feature of this sensor is its minimal magnetic hysteresis combined with low offset and thermal coefficients (TC), enhancing the accuracy of measurements. Designed to handle high dynamics, the sensor maintains operational stability even under substantial common-mode transients greater than 25kV/µs, which is crucial for industrial environments characterized by high electromagnetic interference. Moreover, the device provides a typical bandwidth of 80 kHz, making it an optimal choice for dynamic applications requiring swift response and reliable detection with minimal total output error, typically around ±1.5%. The robust design is further validated by certifications such as UL and CSA, ensuring high isolation voltage up to 3 kV RMS for one minute. With capabilities to accurately measure current ranges from ±10 A to ±30 A, this sensor proves indispensable for integration into applications demanding high precision and stability under rigorous conditions.
Pinnacle by NextNav is a cutting-edge vertical positioning system that transforms the way geolocation data is utilized in applications today. By using barometric sensors in devices such as phones and tablets, Pinnacle provides highly accurate altitude measurements that go beyond the Federal Communications Commission's requirements. This technology enables a new dimension in geographic applications by offering precise vertical location capabilities, crucial for first responders and other critical applications. The Pinnacle system boasts comprehensive metro-wide coverage through its dedicated network, ensuring scalability for diverse use cases without relying on building-specific infrastructure. This expansive coverage is powered by NextNav's proprietary technology, which operates its extensive network of altitude stations. These stations are precisely calibrated and maintained, offering reliable real-time altitude data across large urban areas. Integration is simplified through easily accessible SDKs and APIs, allowing developers to seamlessly incorporate Pinnacle’s 3D location services into existing applications. The network's independence from specific devices ensures compatibility with most existing hardware, providing seamless upgrades to 3D geolocation capabilities. Pinnacle's strong emphasis on security is demonstrated via its SOC 2 T-II certification, focusing on both security and confidentiality standards.
Omni Design specializes in Application Specific AFE IP that excels in optimizing performance for targeted applications such as 5G, LiDAR, RADAR, and automotive communications. These AFEs integrate best-in-class data converters, signal conditioning, and digital logic solutions tailored for specific market needs. Leveraging advanced FinFET nodes to 28nm technologies, these AFE solutions meet the rigorous demands of high-frequency and broadband applications. Designed for precision and reliability, Omni's application-specific AFEs ensure that signal conditioning adapts seamlessly to various communication protocols and imaging conditions. With a focus on next-gen applications, Omni Design's AFE offerings support impressive customization and integration, providing clients with solutions that unite high-speed data conversion and processing efficiency to address complex design challenges.
The CM9011ff is a sophisticated RFID front-end IP adhering to EPC Gen 2 and GB communication standards. Engineered for ultra-low power consumption, this IP is optimized for use in RFID applications where minimal power draw is critical, such as in battery-less or passive tag systems. Featuring a low-power NVM from Synopsys, it ensures efficient data handling even under constrained power conditions. Developed using SilTerra’s 0.18μm CMOS process, the CM9011ff showcases versatility and compatibility with modern RFID systems requiring reliable and energy-efficient components. This IP is silicon proven, confirming its operational viability in producing high-performance RFID solutions across various industries. Ideal for products incorporating RFID for asset tracking, inventory management, and security systems, the CM9011ff balances energy efficiency with robust performance, ensuring enduring operational cycles. Its integration capability within broader systems facilitates significant improvements in RFID technology, making it an invaluable asset to state-of-the-art customer solutions.
The EPC Gen2/ISO 18000-6 Analog Front End is an integral component for RFID systems that require precise analog signal handling. This module is vital for the analog signal processing tasks mandated by the EPC Gen2 protocol, and it bridges the gap between digital logic and the analog environment inherent to RFID operations. It is crafted to offer superior performance through accurate signal conversion, noise reduction, and amplification where necessary. This ensures that the resultant signals are clean and reliable for subsequent processing by the digital back-end systems. Often deployed alongside digital protocol engines, the analog front end complements the system by preparing and optimizing the analog signals for smooth digital conversion and further processing. This front-end module is essential for systems operating under diverse environmental conditions and is perfect for applications in industries such as logistics, automated inventory management, and retail. With its adaptability, it ensures consistent performance, thereby enabling RFID systems to achieve high operational efficiencies.
The 1.8V to 5.0V Analog Front End by Actt is designed to optimize a range of applications by integrating analog functions with high efficiency. It is engineered to convert analog signals to digital in an environment-friendly way, ensuring that power consumption is kept to a minimum. With an extended voltage range, this product supports multiple use cases, from automotive to smart home applications, providing versatility and efficient energy management. Embedded within numerous IoT devices, the AFE streamlines signal processing tasks, effectively bridging the gap between the analog input world and digital output requirements. Its modular interface promotes compatibility with different electronic configurations, maintaining robust performance across various conditions. Designed for integration, it fits seamlessly into complex system-on-chip designs, facilitating smooth operation and connectivity. Moreover, this AFE can handle fluctuating signal levels while maintaining precision, vital for tasks such as sensor data acquisition and telemetry. This adaptability ensures that users can rely on it for accuracy and consistency, which are paramount in critical applications such as medical devices and industrial control systems.
This broadband wireless microwave receiver front-end operates efficiently within the 10GHz to 15GHz frequency spectrum. It is a critical component for high-frequency communications, designed to enhance signal reception with minimal noise interference, thus ensuring clarity and reliability. With its advanced architecture, the receiver front-end optimizes signal sensitivity and selectivity, which are essential for handling complex signal environments often seen in broadband wireless and satellite communications. This ensures comprehensive coverage and robust performance necessary for modern communication systems. By integrating this receiver front-end, systems can achieve enhanced filtering and amplification of incoming signals, making it suitable for deployment in sophisticated telecommunication infrastructure. The design prioritizes both performance and efficiency, providing a foundational element for the development of next-generation wireless communication solutions.
It is comprised of a high resolution Mixed-signal Front-End and of a dense Power and energy Computation Engine to achieve at the system-level a class accuracy as high as 0.1% (class accuracy of the product is 0.05%) over a range up to 1/10,000.
It is comprised of a high resolution Mixed-signal Front-End and of a dense Power and energy Computation Engine to achieve at the system-level a class accuracy as high as 0.1% (class accuracy of the product is 0.05%) over a range up to 1/10,000.
It is comprised of a high resolution Mixed-signal Front-End and of a dense Power and energy Computation Engine to achieve at the system-level a class accuracy as high as 0.1% (class accuracy of the product is 0.05%) over a range up to 1/10,000.
It is comprised of a high resolution Mixed-signal Front-End and of a dense Power and energy Computation Engine to achieve at the system-level a class accuracy as high as 0.1% (class accuracy of the product is 0.05%) over a range up to 1/10,000.
It is comprised of a high resolution Mixed-signal Front-End and of a dense Power and energy Computation Engine to achieve at the system-level a class accuracy as high as 0.1% (class accuracy of the product is 0.05%) over a range up to 1/10,000.
It is comprised of a high resolution Mixed-signal Front-End and of a dense Power and energy Computation Engine to achieve at the system-level a class accuracy as high as 0.1% (class accuracy of the product is 0.05%) over a range up to 1/10,000.
It is comprised of a high resolution Mixed-signal Front-End and of a dense Power and energy Computation Engine to achieve at the system-level a class accuracy as high as 0.1% (class accuracy of the product is 0.05%) over a range up to 1/10,000.
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