All IPs > Analog & Mixed Signal > D/A Converter
The D/A Converter (Digital-to-Analog Converter) semiconductor IP serves as a crucial component in the translation of digital signals into analog formats, indispensable for numerous electronic devices. Within this category at Silicon Hub, you'll find a diverse range of D/A converter semiconductor IPs designed to offer high precision and reliability, essential for applications across consumer electronics, telecommunications, and automotive sectors.
D/A converters are pivotal in bridging the gap between digital systems and real-world analog outputs. These semiconductor IPs are implemented in a wide array of devices, from audio amplification systems to instrumentation equipment, where precise and efficient conversion is vital. With the proliferation of digital technologies, the demand for robust D/A conversion mechanisms has only increased, making these IP blocks a key focus for designers aiming to maintain signal integrity and performance across their products.
In consumer electronics, D/A converter semiconductor IPs facilitate features in devices like smartphones, televisions, and home audio systems, where digital signals need to be output as sound or video. Similarly, in telecommunications, these converters enable impeccable data transmission and reception capabilities by converting digital signals suitable for analog transmission over various media. In automotive applications, D/A converters are also used in digital dashboard displays and advanced driver-assistance systems (ADAS), requiring high precision and low power consumption.
Silicon Hub's selection of D/A Converter Semiconductor IPs encompasses a variety of specifications to meet design requirements such as resolution, sampling rate, and power efficiency. This ensures that developers can tailor their choice of D/A converter IPs to the specific needs of their applications, whether they require ultra-low power converters or high-speed and high-resolution variants. By providing access to these innovative semiconductor solutions, Silicon Hub supports the creation of cutting-edge technologies that rely on seamless digital-to-analog conversion.
The agileDAC is a digital-to-analog converter that uses a traditional capacitive DAC architecture. The agileDAC uses its own internal reference voltage. The architecture can achieve up to 10-bit resolution at sample rates up to 16 MSPS. 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.
Pacific MicroCHIP's REFS serves as a reliable band-gap and PTAT current reference suited for mixed-signal and RF ICs. It offers multiple output current settings, enhancing compatibility across varied circuit designs for consistent performance.
The DAC solutions offered by Analog Circuit Works emphasize power efficiency and precise load-drive capabilities. Each DAC is fine-tuned for specific bandwidth requirements, ensuring optimal performance across applications. Highlighted by their customizable resolutions and maximum achievable sample rates, these DACs are versatile enough to meet the demands of numerous applications. They're an excellent fit for projects needing meticulous bandwidth management without sacrificing energy efficiency or performance, promising reliable and high-quality conversion for various digital signal input scenarios.
ISPido is a robust and fully configurable Image Signal Processing (ISP) pipeline designed for high-end image processing needs. It is implemented in RTL and utilizes the AXI4-LITE protocol for flexibility. The pipeline is equipped with comprehensive features including defective pixel correction, color filter array interpolation, and color space conversion. It supports resolutions up to 7680×7680 and complies with AMBA AXI4 standards, addressing modern image processing challenges efficiently. This ISP handles inputs of 8, 10, or 12 bits depth, making it highly adaptable to different processing requirements. It features modules for statistics collection, auto-white balance, gamma correction, and high dynamic range (HDR) support. These enhancements enable users to achieve precise and accurate image quality with maximum efficiency. Furthermore, the ISPido pipeline supports YUV color conversion and chroma subsampling, ensuring compatibility with various output formats like 4:2:2 and 4:2:0. Its design ensures seamless integration into existing systems, optimizing resources while offering high-quality image output.
Presto Engineering offers a comprehensive range of foundational and platform-specific semiconductor IPs designed to meet diverse application needs. The Foundation IP includes a wide array of vital circuit blocks, such as high-accuracy sensors, digital controllers, and interface blocks. These fundamental IPs aim to reduce ASIC development risks by leveraging proven components like secure encryption blocks with low power consumption or analog front ends with enhanced specific capabilities. The Platform IPs, on the other hand, provide extensive customization options from functional design to optimized power efficiency. Users can expect specialized analog front ends tailored to demanding specifications such as high-dynamic optical handling, ultra-low-power motion ISP, and MCU integration. Moreover, RFID/NFC/UHF/ISM connectivity solutions are part of this lineup, all of which contribute to efficient energy management and harvesting applications. Presto Engineering's semiconductor IP offerings are geared towards enabling rapid development and ensuring cost-effective project realization, which in turn helps firms achieve faster market entry. By providing validated and efficiently designed IPs, Presto supports clients in overcoming both technical hurdles and market competition, facilitating successful product integration and implementation.
Presto Engineering offers a comprehensive range of foundational and platform-specific semiconductor IPs designed to meet diverse application needs. The Foundation IP includes a wide array of vital circuit blocks, such as high-accuracy sensors, digital controllers, and interface blocks. These fundamental IPs aim to reduce ASIC development risks by leveraging proven components like secure encryption blocks with low power consumption or analog front ends with enhanced specific capabilities. The Platform IPs, on the other hand, provide extensive customization options from functional design to optimized power efficiency. Users can expect specialized analog front ends tailored to demanding specifications such as high-dynamic optical handling, ultra-low-power motion ISP, and MCU integration. Moreover, RFID/NFC/UHF/ISM connectivity solutions are part of this lineup, all of which contribute to efficient energy management and harvesting applications. Presto Engineering's semiconductor IP offerings are geared towards enabling rapid development and ensuring cost-effective project realization, which in turn helps firms achieve faster market entry. By providing validated and efficiently designed IPs, Presto supports clients in overcoming both technical hurdles and market competition, facilitating successful product integration and implementation.
With its focus on enhancing optical signal reception, the RT923 utilizes a trans-impedance amplifier (TIA) to support data rates of up to 10Gbps. This IP is ideally suited for optical networking applications where capturing weak optical signals and converting them to electrical signals efficiently is critical. With excellent noise performance and high linearity, it provides steadfast reliability in the face of varying signal environments. Its application can be seen in high-bandwidth data communications such as metropolitan area networks and data center interlinks, offering low power consumption and high gain.
The Advanced Electrolyte Model (AEM) is an advanced simulation tool designed to revolutionize the optimization of electrolyte chemistry. Created by Dr. Kevin Gering at Idaho National Laboratory and distributed by Ridgetop Group, this molecular simulation tool acts as a virtual laboratory, enabling comprehensive exploration of electrolyte properties at a genome level. Using advanced theoretical models like Nonprimitive, Nonrestricted Associated Mean Spherical Approximation and an ion-solvation equation of state, AEM offers precise predictions with an impressive average deviation within only 5-10% from lab data. AEM's robust database of over 50 solvents and 30 salts offers diverse options for users wanting to explore electrolyte properties. Its impact goes beyond providing scientific insights; it accelerates the shift to electric transportation and broader adoption of grid-scale battery systems by enhancing battery research and development. The goal is to achieve a cleaner, sustainable energy future, all at reduced costs and time investments. AEM ultimately serves as a catalyst for change, allowing the international battery research community to drive forward innovative solutions in green energy storage.
The aLFA-C product is an advanced interfacing ASIC designed for space applications, specifically for infrared readout ICs (ROICs) and other image sensors. It integrates much of the typical front-end electronics infrastructure in a single solution, offering versatility through features such as operation on a single unregulated supply using onboard LDOs and regulators, and compatibility with external clocks or crystal oscillators. Communication with external devices is achieved via a SpaceWire interface, and a programmable sequencer with 8 levels of nesting enhances the control towards the ROIC. Capable of handling 32 programmable digital outputs, the aLFA-C also allows the customization of input thresholds and output formats, supporting CMOS, LVDS, and CML. Its analog acquisition system includes 32 signal channels plus 4 reference channels, each with differential or single-ended input capability and 16-bit ADC resolution. The ADCs are equipped with features like calibration and post-correction, supporting various configurations for enhanced speed and performance. Additionally, the aLFA-C provides several programmable voltage sources and current outputs, accompanied by measurement capabilities for resistance, voltage, and current, making it extremely flexible for a wide range of applications. Its design is robust against radiation, exhibiting tolerance against TID, SEU, and SEL, and operates efficiently in temperatures from 35K to 330K, making it ideal for the harsh environments of space.
The C100 represents an advanced integration of wireless microcontroller capabilities for Internet of Things (IoT) applications. Built around a powerful 32-bit RISC-V CPU operating at speeds up to 1.5GHz, this chip delivers high-efficiency processing and data handling. Embedded with RAM and ROM, the C100 is designed to maintain high performance while minimizing power usage. Complementing its processing power, the C100 integrates extensively with wireless functionalities including Wi-Fi, and supports a multitude of transmission interfaces. Additionally, it includes an Analog-to-Digital Converter (ADC), Low Dropout Regulator (LDO), and a temperature sensor, allowing it to cater to diverse application needs swiftly and efficiently. Its design seeks to offer seamless application development that is broad in range yet simple and fast, making it a perfect choice for developers focused on creating robust IoT solutions. The C100's strength lies not just in its integrated components but also in its ability to adapt to secure, high-performance environments, making it useful for smart home systems, healthcare devices, and more.
The eSi-Analog portfolio is crafted to integrate vital analog functions into custom ASICs and SoCs, optimized for a variety of applications. This low-power and silicon-proven technology adapts to meet specific project requirements, blending seamlessly with leading foundry processes. The analog IPs can include amplifiers, A/D and D/A converters, and other critical components. These IPs are fully flexible, adaptable, and provided with significant configurability, ensuring that custom specifications can be met with precision. This tailored approach supports a range of sectors from automotive to healthcare, enabling critical analog functionalities in compact and power-efficient designs.
The Terefilm Photopolymer is a groundbreaking material designed to tackle key challenges in semiconductor manufacturing, such as precision mass transfer and high-resolution photolithography. This innovative material balances precise patternability with clean decomposition, making it ideal for applications that demand high accuracy and stringent cleanliness standards in production. Terefilm offers exceptional thermal stability, remaining intact at temperatures up to 180°C before UV exposure. Once exposed to low-energy UV irradiation, the decomposition temperature drops significantly, facilitating a low-energy vaporization process. This unique feature allows Terefilm to integrate seamlessly into high-temperature process flows, making it incredibly versatile in manufacturing settings. One of the key advantages of Terefilm is its ability to decompose completely into gaseous products, leaving no residue. This results in a cleaner and more efficient manufacturing process, eliminating the need for subsequent cleaning steps commonly associated with other solutions. Terefilm's precise patterning capabilities allow for controlled decomposition, ensuring uniform activation and vaporization over targeted areas, which is essential for reliable and repeatable semiconductor manufacturing processes.
Pacific MicroCHIP's XCM_64X64_A is a sophisticated cross-correlator ASIC, comprising an array of 128 ADCs each running at 1GSps. It is optimized for radar receivers and spectrometers, delivering low power consumption and supporting bandwidths from 10MHz to 500MHz.
The XCM_64X64 from Pacific MicroCHIP is an advanced cross-correlation system with a complete 64 by 2-channel configuration, suitable for synthetic radar and spectrometric applications. It minimizes power use while offering high-speed processing capabilities over a wide frequency range.
The SMS Fully Integrated Gigabit Ethernet & Fibre Channel Transceiver Core offers a highly efficient PHY solution for high-speed data transmission. It is designed with a versatile architecture that supports gigabit Ethernet and Fibre Channel standards, focusing on achieving low latency and high data integrity. This core showcases comprehensive integrated systems, including high-speed drivers and clock recovery techniques, which are crucial for achieving optimal signal clarity and reducing jitter. A key aspect of this transceiver is its compatibility with IEEE 802.3z standards for gigabit Ethernet, making it an ideal choice for applications requiring robust connectivity solutions. The design leverages advanced phase detectors and proprietary signal processing methods to enhance performance by minimizing errors and noise in the transmission path. This core is particularly suitable for environments that demand high reliability and performance consistency, such as data centers and network infrastructure. The SMS transceiver also supports a wide range of operational conditions, thanks to its flexible interface design and low power consumption. Its modular architecture allows easy customization to meet specific application needs, ensuring it can be seamlessly integrated into larger system-on-chip (SoC) applications. This transceiver core represents a blend of cutting-edge technology and practical application design, aiding in the deployment of next-generation communication systems.
The ADX series of continuous-time Delta-Sigma ADCs from SCALINX represents a pinnacle of precision and flexibility, leveraging the advantages of fast sampling and high bit resolution for diverse signal conversion challenges. This series boasts varying configurations, including 80MS/s with a 16-bit resolution and a 40MHz bandwidth, as well as a 1.25GS/s speed at 10-bit resolution handling a 300MHz bandwidth. Such flexibility allows designers to match ADC specifications closely with system requirements, optimizing performance across different applications. At the core, the ADX series is powered by proprietary SCCORETM Technology, ensuring high-speed data processing capabilities coupled with efficient noise filtering and signal fidelity improvements. This makes them ideal for applications in a wide array of sectors, including telecommunications, instrumentation, and high-speed data acquisition systems. With variations supporting different foundries and process nodes, the ADX series provides designers with an adaptable solution across multiple technology platforms. Additionally, these ADCs bring advantages in terms of system integration due to their silicon-proven status, ensuring reliability and performance consistency. The programmability inherent in the design structure supports diverse operating conditions, making them suitable for tasks that range from simple data acquisition tasks to more complex multi-channel signal processing setups.
SystematIC's expertise in analog converters and amplifiers is evident in its sensor array solutions. Designed for optimal signal integrity and noise performance, these converters and amplifiers are integral in sensor interfacing applications where precision is paramount. Leveraging high-resolution AD conversion and low-noise front-end designs, these solutions facilitate accurate and reliable data collection from various sensors. This IP offers a suite of integrated signal processing capabilities, crucial for developing complex sensor systems requiring seamless analog-to-digital transitions and enhanced signal clarity.
Analog IPs from Key ASIC are designed to handle various analog functionalities within integrated circuits, ensuring precision and efficiency in signal management.
Tower Semiconductor’s CMOS Image Sensor technology stands as an industry leader, driven by its advanced pixel design and high-end imaging solutions. This technology caters to an ever-growing demand for quality image sensing in a variety of fields including automotive, industrial, and medical applications. Utilizing innovative pixel technology, Tower Semiconductor excels in producing sensors that promise superior image sharpness and low-light performance, crucial for high-definition imaging systems. The company's CMOS Image Sensors deliver unparalleled customization capabilities, ensuring each sensor meets precise application requirements. By offering robust manufacturing processes and distinct pixel architectures, Tower Semiconductor provides customers with personalized solutions that enhance their product performance and market competitiveness. Advanced features include backside illumination and stitching technology, which cater to a variety of imaging needs from small handheld devices to large-format applications. Tower Semiconductor maintains its edge through significant R&D in sensor technology, ensuring their image sensors embody the latest technological advancements. The process is available on 8” and 12” wafers, allowing for extensive versatility in device fabrication and facilitating large-scale production for leading global markets, reinforcing their commitment to quality and innovation in imaging systems.
The VR-3V3-1V2-1-55-U is a meticulously engineered voltage regulator that transitions a 3.3V input to a stable 1.2V output. Manufactured with UMC's advanced 0.06 µm process technology, this regulator is compact, featuring a tiny area footprint of just 0.053406 mm2. Its output is consistent and robust, with an impressive PSRR (Power Supply Rejection Ratio) of 40 dB. This voltage regulator is especially tailored for scenarios that necessitate precise voltage regulation with high efficiency and low power dissipation. Its compact design and high performance are ideal for portable electronics and battery-powered applications where space and energy efficiency are paramount. The VR-3V3-1V2-1-55-U stands out for reducing power consumption while maintaining consistency, making it an excellent choice for systems where power efficiency and size constraints are significant considerations. With a maximum output current of 1mA, it is well suited to support a variety of low-power electronic applications.
Enosemi's analog and mixed-signal devices are engineered for seamless integration into advanced photonic circuits, enabling high-speed data processing and signal conversion. These devices leverage cutting-edge technologies to offer both low and high-speed functionalities, catering to a wide range of applications, including telecommunications and data communications. The IP is silicon-verified, which ensures reliability and reduces integration times, offering a cost-effective solution for complex photonic systems.
The SL 300X is a compact, next-generation universal DTV demodulator known for its outstanding adaptability and performance in diverse broadcasting environments. As a fully software-defined solution, it offers high throughput and precision, allowing it to work seamlessly with various digital television standards globally. This demodulator is engineered for efficiency, featuring advanced computational capabilities that support complex signal processing tasks necessary for clear, consistent video and audio quality. It ensures that broadcasters and device manufacturers can deliver reliable transmissions without extensive hardware changes, thanks to its ability to adapt quickly to evolving standards and technologies. Ideal for digital broadcasting applications, the SL 300X reduces the technical barriers to entry, providing a powerful platform for delivering high-quality content to audiences without the need for frequent hardware updates. Its small footprint also aids in reducing power consumption and operational costs, making it a cost-effective and sustainable choice for modern broadcasting needs.
The High-Voltage ICs provided by Advanced Silicon include a comprehensive range of solutions for operating Thin Film technologies. These circuits enable efficient management of TFT technology through precise DAC drivers with high-resolution output channels. Applications range from driving OLED and LCD technologies to MEMS devices. They are particularly known for their ability to handle high thermal loads and radiation environments, making them suitable for the demanding field of digital flat-panel X-RAY detectors. Their versatility extends to flat panel displays where precise analog driving of capacitive loads is essential.
The JDA1 is a versatile DAC core cell, designed for high-fidelity audio processing. It integrates a delta-sigma DAC with a PLL, eliminating the need for external clock generation by deriving all necessary sampling clocks from a 27MHz input. The JDA1 processes digital PCM inputs from 16 to 24 bits wide, supporting various standard and custom audio sample rates, including 96kHz. Its efficient silicon use requires just 0.3 to 0.4 sqmm, adapting seamlessly to scaling digital IC technologies.
The RT125 is a sophisticated optical module supporting a 28Gbps data rate, featuring a clock data recovery (CDR) mechanism, limiting amplifier (LA), and trans-impedance amplifier (TIA). Designed for high-speed data communication over short distances (SR), this module excels in maintaining signal integrity at relatively high bandwidths. Ideal for use in data center interconnections or high-speed telecom networks, the RT125 ensures optimal data throughput with minimal signal degradation. It supports robust performance through careful compensation of signal loss, making it a reliable choice for critical communications infrastructure.
This digital-to-analog converter (DAC) features dual-channel outputs, each with a resolution of 10 bits and capable of operating at speeds up to 80 megasamples per second (Msps). Designed for use in high-speed signal processing and conversion applications, this DAC provides robust performance through its ability to quickly and accurately convert digital input into corresponding analog signals. This capability is particularly advantageous in areas such as adaptive antenna processing, high-definition imaging applications, and complex audio signal handling where precision and speed are critical.
The CC-205 Wideband CMOS Rectifier is engineered to handle a wide range of frequencies, interfacing seamlessly with antennas without additional matching components. It can be configured for full-wave or half-wave rectification processes, making it adaptable to varied application needs. The rectifier is renowned for its excellent return loss characteristics (-40db), ensuring effective power transfer critical in broadcast and communication technologies.
This Sigma-Delta ADC offers precise 16-bit resolution and is implemented in SMIC's 55nm 2P7M CMOS technology. It supports a programmable gain range from 0 to 50dB and selectable microphone biases, making it adaptable for a range of audio processing applications. This ADC offers distinct analog and digital interfaces, with a PDM/I2S/TDM serial output, and consumes minimal current, enhancing its suitability for portable audio applications. With a notable 90dB SNR, it is capable of delivering high-fidelity audio outputs, crucial for advanced sound systems.
RIFTEK’s 1D Optical Micrometers deliver high-precision, non-contact measurements crucial for dimensional analysis. Utilizing a shadow technique, they measure diameters and the positioning of wires and cylindrical objects. These micrometers cover measuring ranges from 5 mm up to 100 mm with accuracies of ±0.3 µm, supporting a high sampling frequency of 10 kHz. Widely used in quality assurance and inline process measurements, they help maintain stringent tolerances in manufacturing applications.
The Analog/Mixed-Signal IC from Akronic is designed to meet the evolving demands of modern telecommunication and radar systems. This product excels in integrating various signal conversion and frequency synthesis functions, which are crucial for high-capacity data transmission and precise signal modulation. The IC employs sophisticated low-pass filters like Chebyshev and Butterworth to ensure optimal signal integrity and minimal distortion across a wide range of frequencies. Akronic's Analog/Mixed-Signal IC is notable for its versatile performance in base-band functions such as voltage references and gain-control operations. This versatility is underpinned by advanced components like power detectors and RSSI AGC loops, which contribute to maintaining consistent signal quality. The IC is also adept at handling high-speed ADCs and DACs, with a focus on achieving high cut-off frequencies exceeding 1GHz. One of the defining features of this IC is its frequency synthesis capability, supported by both fractional and integer-N PLLs and various reference divide and multiplier configurations. The IC's design incorporates multi-modulus prescalers, MASH, PFDs, and sophisticated loop filters, alongside highly stable VCOs and advanced ALC mechanisms. With these features, Akronic offers a robust solution for applications requiring precise frequency control and modulation.
RIFTEK's 2D Optical Micrometers are designed for comprehensive inline measurement operations, ideal for evaluating geometrical features like diameters and run-outs. Employing advanced shadow-based technology, these instruments are capable of capturing accurate data on two dimensions simultaneously, making them suitable for high-speed production checks and quality control. Models have ranges from 8x10 mm to 60x80 mm with exceptional accuracy of ±0.5 µm, providing unparalleled control in high-throughput industrial environments.
The Sigma-Delta Modulator is a high-performance component utilized in data conversion applications, offering precision by combining oversampling and noise shaping techniques. It supports a wide dynamic range and high resolution, making it ideal for applications involving audio processing and sensor interfacing. Built for seamless integration, it minimizes distortion and enhances signal-to-noise ratio, proving indispensable in systems requiring accurate and reliable data conversion.
The CT22403 from Canova Tech is a 14-bit 10MSps Calibration-SAR ADC, offering high accuracy and power efficiency. The meticulously designed architecture suits precise measurement and conversion needs, serving a broad array of applications that demand superior resolution and speed. Well-suited for power-sensitive environments, the ADC core ensures reduced consumption while maintaining accurate performance, bolstered by a robust analog front end to handle signal conditioning tasks effectively.
The High-Speed DAC from nSilition is tailored for applications requiring rapid and precise digital-to-analog conversion. Perfect for environments where speed is of the essence, this DAC excels in handling high bandwidth data transmission, making it an excellent option for telecommunications and high-performance computing applications. Its robust design ensures minimal latency and maximum throughput, crucial for maintaining seamless data conversion processes. The architecture supports extensive configurability, allowing customization to a broad range of applications. A key feature of this High-Speed DAC is its ability to maintain high fidelity and clarity in signal processing. The design incorporates leading-edge technology to reduce jitter, ensuring that signals are accurately reproduced without delay or distortion. This capability is invaluable in scenarios where signal integrity is critical, such as in test and measurement systems. Additionally, the DAC is designed to be power-efficient, balancing between performance output and energy consumption. nSilition has integrated advanced features into the High-Speed DAC to enhance its versatility and reliability. The use of optimized algorithms and noise suppression techniques contributes to its superior performance. This IP exemplifies how nSilition continues to drive advancements in digital-to-analog conversion, providing clients with solutions that meet both their current needs and future technological demands.
A variant tailored for IQ operations, this DAC extends the abilities of digitally-assisted current conversion to IQ applications at 320MSps and 12-bit resolution. Suitable for TSMC 40nm CMOS technology, it occupies 0.12 sq-mm and has a power consumption of 16 mA, demonstrating its capacity for handling complex data streams with precision. This GDSII-ready solution effectively serves communications and advanced signal processing, offering ease of design integration and robust performance metrics.
Engineered for high-speed digital-to-analog conversion, this 12-bit DAC operates at 320MSps, incorporating digitally assisted current techniques to enhance performance. Created for TSMC 40nm processes, this DAC balances the need for high frequency operation with power efficiency, occupying just 0.06 sq-mm and consuming 8 mA. It's a GDSII-ready IP core, perfect for communication systems and applications demanding high-speed and precise DAC operations, ensuring swift integration and reliable performance.
IQ Analog offers a suite of advanced digital transceiver technology IP cores designed to achieve exceptional performance with lower power consumption. These cores are integral components of larger, multi-core macros that combine functionalities like Analog-to-Digital Conversion, Digital-to-Analog Conversion, Phase-Locked Loops, Power Supply Regulation, and Digital Signal Processing. By integrating these mixed-signal functions, IQ Analog creates comprehensive solutions that clients can license and integrate into their own System-on-Chip products. The IP cores are designed to address the needs of the future, providing significant performance gains and cost benefits for emerging technologies. Particularly relevant for both defense radar and commercial 5G markets, these cores enable faster market deployment of high-performance solutions. The company emphasizes its commitment to using its IP to enhance bandwidth capabilities and increase sample rates, in line with the demands of modern communication systems. IQ Analog's data conversion IP cores are part of an ongoing commitment to digital innovation, offering customers access to the world's highest performance options in their field. The integration into larger mixed-signal solutions exemplifies the company's strategic approach to IP development, ensuring that they remain at the forefront of semiconductor technology innovations.
This high-gain DC-voltage amplifier delivers programmable gain with exceptionally low output noise, making it an excellent choice for applications demanding high-precision signal amplification. It includes a sophisticated offset trimming mechanism, facilitated by an accompanying 8-bit DAC, to minimize error in signal processing. Reliable in XFAB's XT018 technology, this IP can be ported to other process technologies to meet specific application requirements, ensuring consistent amplifier performance and noise reduction in sensitive applications.
The Data Converter by IPGoal excels in transforming data between various formats, optimizing it for different processing needs. This product is essential for applications that require converting signals for precision and efficiency in data handling. It supports both analog-to-digital and digital-to-analog conversions, offering flexibility in a variety of use-case scenarios. Whether it's in multimedia applications or industrial sensors, the Data Converter ensures that data integrity and quality are maintained throughout the conversion process. Engineered for performance, it minimizes errors in conversion, thereby enhancing the fidelity of the output. This makes it a perfect choice for projects where data accuracy and reliability are critical.
Analog Solutions focus on providing comprehensive analog IPs tailored for diverse process technologies from 28nm to 65nm. This suite includes essential components like ADCs, DACs, PLLs, LDOs, and PORs which are crucial for analog signal processing applications. These solutions are crafted to meet stringent performance and reliability standards, ensuring seamless integration and functionality across a variety of electronic devices. VeriSyno's Analog Solutions are designed to cater to emerging industry needs for integrated analog systems, offering high precision and robust performance. With the ability to migrate and customize IPs, they support processes from 65nm down to 180nm, providing advanced support for both legacy and cutting-edge process technologies. These solutions play a pivotal role in enabling end-users to achieve optimal analog performance, addressing the growing demand in sectors such as consumer electronics, automotive, and telecommunications.
The Mixed-Signal Front-End offerings from GUC are crafted to support a vast array of analog-signal-to-SoC transceiver applications, including wireless analog front-ends, traditional analog-to-digital converters (ADCs), and digital-to-analog converters (DACs). These designs are adept at handling sampling rates from 10KHz to beyond 10GHz, covering an analog signal bandwidth that spans from DC to over 5GHz. This extensive bandwidth capability is crucial for both direct and IQ sampling applications. To ensure optimal performance, GUC's solutions integrate components such as amplifiers, filters, calibration circuits, and high-performing phase-locked loops (PLLs). Especially designed for efficiency in terms of power, area, and cost, these solutions are ideal for communication systems, specifically in the realms of 5G and Wi-Fi, as well as video system applications. In addition to these features, GUC's Mixed-Signal Front-End IPs provide production testing solutions and interfaces compatible with APB, I2C, and JTAG, facilitating seamless integration into custom ASIC designs.