All IPs > Analog & Mixed Signal > Photonics
Photonics semiconductor IPs play a vital role in the ever-growing field of optical technologies and integrated communications. As the demand for faster and more reliable communication networks increases, these IPs provide essential functionalities that help optimize the performance of optical systems. At Silicon Hub, we offer a comprehensive collection of photonics IPs that cater to a variety of applications including data transmission, sensor technology, and integrated photonic circuits. These IPs are designed to meet the rigorous demands of modern communication systems and facilitate the development of advanced technological solutions.
Photonics IPs are crucial for enabling photon management and manipulation, allowing designers to capitalize on the benefits of light as a carrier of information. This category includes a variety of IP cores such as modulators, detectors, and laser drivers, all tailored to improve the efficiency and performance of optical communication links. By leveraging these technologies, developers can create innovative products that deliver higher bandwidth, lower power consumption, and enhanced signal integrity, essential for applications such as data centers, telecommunications, and fiber-optic networks.
Integrated photonic circuits (IPCs) are another key application area for photonics semiconductor IPs. These IPCs combine multiple photonic functionalities into a single chip, offering significant advantages in terms of miniaturization, performance, and cost-effectiveness. Photonics IPs provide the building blocks necessary for the integration of components like waveguides, modulators, and amplifiers, ensuring seamless interconnection and interaction of optical signals on a compact platform. As a result, IPCs are driving innovations in fields such as quantum computing, biosensing, and lidar technologies.
In addition to communications and sensors, photonics semiconductor IPs are used in a diverse range of technologies, from healthcare to automotive industries. They are integral to developing systems that require precise light manipulation and measurement capabilities. Our category at Silicon Hub ensures that you have access to state-of-the-art photonics IPs that help transform your ideas into reality, enhancing productivity and enabling you to keep pace with the rapid technological advancements in the digital age. Explore our offerings today and discover how photonics semiconductor IPs can redefine your next project.
Silicon Creations delivers precision LC-PLLs designed for ultra-low jitter applications requiring high-end performance. These LC-tank PLLs are equipped with advanced digital architectures supporting wide frequency tuning capabilities, primarily suited for converter and PHY applications. They ensure exceptional jitter performance, maintaining values well below 300fs RMS. The LC-PLLs from Silicon Creations are characterized by their capacity to handle fractional-N operations, with active noise cancellation features allowing for clean signal synthesis free of unwanted spurs. This architecture leads to significant power efficiencies, with some IPs consuming less than 10mW. Their low footprint and high frequency integrative capabilities enable seamless deployments across various chip designs, creating a perfect balance between performance and size. Particular strength lies in these PLLs' ability to meet stringent PCIe6 reference clocking requirements. With programmable loop bandwidth and an impressive tuning range, they offer designers a powerful toolset for achieving precise signal control within cramped system on chip environments. These products highlight Silicon Creations’ commitment to providing industry-leading performance and reliability in semiconductor design.
The Ring PLLs offered by Silicon Creations illustrate a versatile clocking solution, well-suited for numerous frequency generation tasks within integrated circuit designs. Known for their general-purpose and specialized applications, these PLLs are crafted to serve a massive array of industries. Their high configurability makes them applicable for diverse synthesis needs, acting as the backbone for multiple clocking strategies across different environments. Silicon Creations' Ring PLLs epitomize high integration with functions tailored for low jitter and precision clock generation, suitable for battery-operated devices and systems demanding high accuracy. Applications span from general clocking to precise Audio Codecs and SerDes configurations requiring dedicated performance metrics. The Ring PLL architecture achieves best-in-class long-term and period jitter performance with both integer and fractional modes available. Designed to support high volumes of frequencies with minimal footprint, these PLLs aid in efficient space allocation within system designs. Their use of silicon-proven architectures and modern validation methodologies assure customers of high reliability and quick integration into existing SoC designs, emphasizing low risk and high reward configurations.
The Polar ID Biometric Security System is Metalenz's revolutionary solution for face authentication, delivering a new level of biometric security through advanced polarization imaging. Unlike conventional facial recognition systems, Polar ID captures the unique 'polarization signature' of each human face, offering enhanced security by effortlessly differentiating between real faces and potential spoofing attempts with sophisticated 3D masks. This innovative use of meta-optics not only enhances security but also reduces the need for complex optical modules traditionally required in consumer devices. Polar ID stands out in its ability to operate efficiently under varied lighting conditions, from bright sunlight to complete darkness. It achieves this with more than 10 times the resolution of current structured light systems, ensuring reliable and secure facial recognition performance even when users wear glasses or face coverings. By operating in the near-infrared spectrum, Polar ID extends its utility to scenarios previously challenging for facial recognition technology, thus broadening its application range. Designed for mass-market deployment, Polar ID minimizes the footprint and complexity of face unlock systems. By doing away with bulky modules, it offers a compact and cost-effective alternative while maintaining high-security standards. This innovation enables widespread adoption in consumer electronics, allowing a seamless integration into smartphones, tablets, and other mobile devices, potentially replacing less secure biometric methods like fingerprint recognition.
The 3D Imaging Chip developed by Altek is a remarkable example of cutting-edge imaging technology, tailored to meet the evolving needs of industries that require three-dimensional image capture. This chip is designed to provide high-resolution 3D images, making it ideal for applications in areas such as augmented reality, virtual reality, and industrial automation. The chip integrates advanced depth-sensing capabilities, ensuring that it can capture intricate details with high fidelity. This feature is particularly beneficial for tasks that require precise measurements and accurate representations of spatial relationships, such as in robotics and autonomous systems. The 3D Imaging Chip's robustness also contributes to its functionality in challenging environments, making it suitable for a variety of industrial applications. Additionally, this chip is engineered to operate efficiently, incorporating power management techniques that enhance its performance while minimizing energy consumption. Altek's focus on innovation is evident in the chip's ability to deliver enhanced depth perception and its integration with AI technologies, which significantly expand its application potential.
The Vantablack S-VIS coating is specifically tailored for space applications, where it serves a crucial role in suppressing stray light in optical systems and blackbody calibration of infrared camera systems. Its exceptionally high performance and spectrally flat absorption from the UV to the near-millimeter spectral range make it indispensable for ensuring accurate readings and operations in the challenging environment of space. One of the prominent applications of the S-VIS coating is in the reduction of launch weight for instruments, thanks to its ability to absorb light efficiently from all angles. This not only enhances the operation of devices like star trackers and optical calibration systems but also minimizes the overall size and complexity of these systems, offering significant cost savings. This coating has proven its reliability in harsh space conditions since its first deployment in low Earth orbit in 2015. Its capabilities in outgassing management and thermal stability are well-documented, making it a trusted solution for enhancing the operational longevity and performance of space missions.
The EW6181 is a cutting-edge multi-GNSS silicon solution offering the lowest power consumption and high sensitivity for exemplary accuracy across a myriad of navigation applications. This GNSS chip is adept at processing signals from numerous satellite systems including GPS L1, Glonass, BeiDou, Galileo, and several augmentation systems like SBAS. The integrated chip comprises an RF frontend, a digital baseband processor, and an ARM microcontroller dedicated to operating the firmware, allowing for flexible integration across devices needing efficient power usage. Designed with a built-in DC-DC converter and LDOs, the EW6181 silicon streamlines its bill of materials, making it perfect for battery-powered devices, providing extended operational life without compromising on performance. By incorporating patent-protected algorithms, the EW6181 achieves a remarkably compact footprint while delivering superior performance characteristics. Especially suited for dynamic applications such as action cameras and wearables, its antenna diversity capabilities ensure exceptional connectivity and positioning fidelity. Moreover, by enabling cloud functionality, the EW6181 pushes boundaries in power efficiency and accuracy, catering to connected environments where greater precision is paramount.
The Hyperspectral Imaging System from Imec offers unparalleled capabilities in capturing spectral data, enabling detailed analysis and identification of materials based on their spectral signatures. This system is designed to provide high-resolution imaging across a range of wavelengths, making it an invaluable tool for industries such as agriculture, mining, and environmental monitoring. By integrating cutting-edge sensor technology, the system facilitates advanced analytics that support decision-making in various applications requiring precise material composition detection. This advanced imaging solution leverages Imec’s proprietary sensor innovations, which inherently allow for real-time data acquisition and processing. The compact nature of the system makes it adaptable for field deployments, allowing users to conduct in-situ analyses efficiently. Moreover, its robust design ensures consistent performance in diverse environmental conditions, thus broadening its application scope. Core to the Hyperspectral Imaging System is Imec’s commitment to enhancing the functionality of their semiconductor technology. With its ability to seamlessly integrate into existing infrastructures, it offers users a cost-effective upgrade path for significantly improving the precision of their diagnostic capabilities. As industries look for integrated solutions, this imaging system stands out by offering a high degree of customization to meet specific operational needs.
ArrayNav represents a significant leap forward in navigation technology through the implementation of multiple antennas which greatly enhances GNSS performance. With its capability to recognize and eliminate multipath signals or those intended for jamming or spoofing, ArrayNav ensures a high degree of accuracy and reliability in diverse environments. Utilizing four antennas along with specialized firmware, ArrayNav can place null signals in the direction of unwanted interference, thus preserving the integrity of GNSS operations. This setup not only delivers a commendable 6-18dB gain in sensitivity but also ensures sub-meter accuracy and faster acquisition times when acquiring satellite data. ArrayNav is ideal for urban canyons and complex terrains where signal integrity is often compromised by reflections and multipath. As a patented solution from EtherWhere, it efficiently remedies poor GNSS performance issues associated with interference, making it an invaluable asset in high-reliability navigation systems. Moreover, the system provides substantial improvements in sensitivity, allowing for robust navigation not just in clear open skies but also in challenging urban landscapes. Through this additive capability, ArrayNav promotes enhanced vehicular ADAS applications, boosting overall system performance and achieving higher safety standards.
FaintStar is an advanced sensor-on-a-chip designed by Caeleste, tailored for high precision applications such as medium-high accuracy star trackers and navigation cameras. Characterized by its 1020 x 1020 pixel configuration with a 10um pixel pitch, this sensor provides superior imaging capabilities required for accurate celestial navigation and rendezvous scenarios. The sensor incorporates 12-bit analog-to-digital conversion which enhances its precision in translating the captured light into digital signals, crucial for detailed image processing and analysis. Additionally, it offers flight-proven reliability with a technology readiness level 9 (TRL9), indicative of its operational success in environments approximating actual missions. FaintStar is radiation-tolerant, making it robust against total ionizing dose (TiD), proton, and other space-related radiation, thus assuring dependable performance in space conditions. It features a SpaceWire LVDS command and data interface, providing efficient data transfer capabilities, which, along with its ITAR-free status and ESCC evaluations, makes it a highly versatile and sought-after component for aerospace applications.
The MVUM1000 Ultrasound Sensor Array is a state-of-the-art medical imaging tool utilizing CMUT technology. Its linear array of up to 256 elements allows for high sensitivity and integrability with interface electronics. Supporting various imaging modes, it is ideal for handheld and cart-based ultrasound devices, maximizing usability while minimizing power consumption for effective medical diagnostics.
The Yuzhen 600 RFID Chip embodies T-Head's expertise in developing ultra-efficient integrated circuits tailored for RFID applications, where low-power and high-performance standards are paramount. This chip is engineered to streamline RFID processes, ensuring swift and accurate reading and writing of tags even in dense environments. By adopting compact design principles, the Yuzhen 600 minimizes energy consumption while maximizing throughput speeds, ensuring extended operational life for applications in supply chain management and logistics. Equipped with sophisticated RF processing capabilities, the chip supports various RFID standards, making it versatile for global applications. Its robust design guarantees resilient performance under diverse environmental conditions, thereby enhancing reliability in critical operations. This adaptability extends to encryption features, ensuring data security and integrity during transactions and data exchanges. T-Head's Yuzhen 600 is optimized for integration into a wide range of applications, from retail inventory management to industrial asset tracking, offering businesses a dependable tool to enhance operational efficiency and reduce costs. Its presence in T-Head's diverse product portfolio highlights a commitment to advancing connected technologies.
The Moonstone series introduces high-efficiency laser sources tailored for advanced photonic applications. These laser sources are engineered to cater to sophisticated computational and communication needs, offering excellent precision and reliability. Their integration into photonic systems ensures not only high performance but also greater energy efficiency, crucial for demanding environments that prioritize both speed and sustainability. With Moonstone, users are equipped with the tools necessary to push the boundaries of what's achievable in photonic-based technologies, acting as a cornerstone for innovative developments across optical computing sectors.
This technology platform is devoted to radio frequency and includes features such as a high-performance silicon-germanium process. It is designed to enhance both RF circuits and mixed-signal designs, making it suitable for applications in wireless communication and infrastructure. This technology leverages the improved speed and reduced power consumption benefits of SiGe BiCMOS, making it a cornerstone for modern communication solutions. The SiGe BiCMOS Technology offers exceptional performance in terms of frequency response and signal integrity. It allows designers to create smaller, more efficient chips that are capable of forming the backbone of diverse RF applications. Its versatility is evident in the wide array of devices it supports, enabling compact yet powerful units suitable for today's demanding technological environments. With its strong emphasis on cost-effectiveness, SiGe BiCMOS Technology is adept at reducing material usage and power consumption. The process's integration capability allows for the accommodation of diverse components on a single chip, enabling significant advancements in system simplification while enhancing component reliability and longevity.
Photowave represents a cutting-edge optical communications solution tailored for AI-driven memory applications in modern data centers. This hardware leverages photonics to offer substantial improvements in both latency and energy efficiency, supporting disaggregated memory configurations through PCIe 5.0/6.0 and CXL 2.0/3.0 interfaces. This advancement enables data center managers to efficiently scale resources, either within a single rack or across multiple servers, providing flexible and scalable data handling capabilities. With its focus on maximizing the advantages of light transmission, Photowave is set to redefine the boundaries of communication speed and energy utilization in high-performance computing environments.
Silicon Creations offers a diverse suite of PLLs designed for a wide range of clocking solutions in modern SoCs. The Robust PLLs cover an extensive range of applications with their multi-functional capability, adaptable for various frequency synthesis needs. With ultra-wide input and output capabilities, and best-in-class jitter performances, these PLLs are ideal for complex SoC environments. Their construction ensures modest area consumption and application-appropriate power levels, making them a versatile choice for numerous clocking applications. The Robust PLLs integrate advanced designs like Low-Area Integer PLLs that minimize component usage while maximizing performance metrics, crucial for achieving high figures of merit concerning period jitter. High operational frequencies and superior jitter characteristics further position these PLLs as highly competitive solutions in applications requiring precision and reliability. By incorporating innovative architectures, they support precision data conversion and adaptable clock synthesis for systems requiring both integer and fractional-N modes without the significant die area demands found in traditional designs.
Sensor Interface Derivatives are critical in bridging the analog and digital realms, especially in the burgeoning Internet of Things (IoT) market. These devices convert various analog signals—like temperature, voltage, and geographical position—into digital form for seamless integration with digital systems. Designed for durability in varying environmental conditions, these interfaces ensure autonomous and long-lived battery performance. ASIC North's sensor interface solutions excel in managing radio communication interfaces and include built-in digital signal processing to filter data before transmission, enhancing efficiency. They feature a sensor concentrator capability that stimulates sensors while measuring responses across multiple channels, adeptly handling various signal types through robust interface circuits. With extensive experience in Analog to Digital and Digital to Analog conversion, ASIC North has successfully deployed millions of these interfaces with a high production yield, underscoring their reliability and quality. These interfaces not only withstand environmental stresses but also offer a long battery life, making them ideal for IoT applications.
The Bioptx Biosensing Band and Platform represents a leap in wearable health technology, enabling continuous and non-invasive monitoring of health parameters through advanced spectroscopic techniques. It integrates Rockley Photonics' proprietary photonic integrated circuit (PIC) technologies, which utilize miniaturized short-wave infrared (SWIR) lasers alongside conventional LED-based photoplethysmography (PPG). This combination allows for real-time biomarker analysis on a compact, wearable form factor, delivering vital insights into hydration and body temperature as well as heart rate, heart rate variability, respiratory rate, and blood oxygen levels. The Bioptx platform is engineered for seamless integration with various applications through its recently released Developer API, which facilitates streamlined connectivity and software integration. This feature paves the way for enhanced data accuracy and accessibility, supporting both consumer and clinical uses. Deployed through their ecosystem of devices, including the Bioptx Band, the platform is designed to provide expanded biomarker data through its cloud-connected framework, thus enabling improved health and wellness monitoring on the go. The development of the Bioptx system illustrates Rockley Photonics' commitment to advancing health monitoring technology through innovative applications of photonics. Collaborations with experts, like Dr. Stavros Kavouras and strategic industry partners, have further strengthened its potential to impact fields ranging from athletic training to chronic disease management, underscoring the broad utility of this next-generation sensing solution.
The Orion Family of Pattern Projectors by Metalenz is an innovative series of high-precision projectors designed to enhance 3D depth sensing across various platforms such as smartphones, AR/VR devices, and IoT systems. These projectors feature a groundbreaking meta-optic technology that enables the transformation of laser light into high-contrast dot or line patterns, facilitating superior 3D imaging performance. By leveraging a single flat meta-optic, Orion projectors simplify the integration process, reducing the requirement for multiple optical components traditionally necessary in pattern projection systems. A key component of this family, the Orion 18K projector, stands out with its exceptional ability to generate approximately 18,000 dots in a pseudorandom pattern at 940nm. This ensures efficient operation under varying lighting conditions, both indoors and outdoors, providing class-leading power and contrast per dot. The single meta-optic design also ensures stability at extreme temperatures, making them suitable for a wide array of applications. This innovative approach results in a dramatic reduction in module size and simplifies assembly, offering a highly compact solution for 3D sensing. The Orion projectors' adaptability is further reflected in their application potential across multiple industries, including automotive, consumer electronics, and smart robotics. This versatility, combined with their superior performance metrics, positions the Orion series as a prime choice for systems requiring precise depth information. Their use extends to face authentication, security systems, and beyond, reflecting Metalenz's commitment to delivering cutting-edge optical solutions that meet the demands of modern technology markets.
DigiLens offers an advanced waveguide optic designed for augmented and virtual reality applications. This product leverages proprietary photopolymer materials combined with a sophisticated manufacturing process that includes inkjet printing and holographic contact copy. Such technologies allow for remarkable transparency and minimal eye glow, optimizing the visual experience for both indoor and outdoor environments. The waveguide optics set a benchmark in terms of efficiency, with transmission rates exceeding 90% and a thickness of less than 1.2mm. This makes them incredibly suitable for lightweight and stylish AR smartglasses that maintain performance without compromising user comfort. DigiLens' waveguides are designed to provide an industry-leading balance of visual clarity and environmental adaptability. With the capability to deliver over 500 nits/lumen, and up to 750 nits/lumen unpolarized, these waveguides ensure high brightness and impressive visual fidelity. They cater to a wide range of applications, from gaming and entertainment to professional visualizations, further establishing DigiLens’ optics as an indispensable component in next-generation AR systems.
The ELFIS2 is a sophisticated visible light imager designed by Caeleste, incorporating a robust radiation-hard design to ensure reliability in demanding environments prone to radiation exposure. It features a true high dynamic range (HDR), enabling it to function effectively even in varied lighting conditions without compromising image quality. Additionally, its motion artifact-free (MAF) imaging ensures precision and clarity in capturing moving objects, a crucial requirement for dynamic applications. The sensor is equipped with a global shutter, enabling it to capture all pixels in the field of view concurrently, a feature that is paramount for high-speed imaging applications. The incorporation of backside illumination (BSI) optimizes the sensor's performance by enhancing sensitivity and reducing noise, thereby improving the overall image output quality. This imaging solution is particularly suitable for space and scientific imaging applications, where high-performance imaging is paramount. The ELFIS2's features make it ideal for applications that demand high fidelity and radiation resistance, truly standing out as a reliable component for cutting-edge imaging needs in challenging environments.
The SµRF range from CML is engineered to address the growing demand for high-frequency, high-bandwidth applications, intrinsic to emerging markets such as 5G, Satellite, and IoT. This line of monolithic microwave integrated circuits (MMICs) reflects CML's dedication to pushing the boundaries of RF and mmWave technology. By imbedding these products in their systems, customers benefit from reliable, high-speed data transfer required in today's connected world. These innovative MMICs are designed to facilitate the seamless integration of voice, data, and control signal exchanges across various communication networks. They play a fundamental role in enabling the infrastructure necessary for the next generation of communication technologies, including satellite and advanced wireless networks. The flexibility and capability of SµRF MMICs are evident, as they can be adapted to diverse applications, each demanding unique specifications for signal integrity and processing speed. The deployment of SµRF MMICs positions CML Microsystems as a key player in the ongoing advancement of global communication systems. By aligning their development efforts with mega trends such as the "connected everything" revolution, CML ensures their products are at the cutting edge of technology innovation. This strategic focus enables them to meet the surging demand for higher data rates while maintaining robust performance and efficiency.
A comprehensive photonic interconnect that delivers exceptionally high data throughput across various communication channels. It integrates seamlessly with existing systems to enhance performance in broadband applications. Designed for scalability, it supports significant data loads without compromising speed or reliability. Featuring low power consumption, its operation is both cost-effective and environmentally sustainable. The integration helps eliminate bottlenecks typically associated with high-volume data transfer, ensuring smooth and efficient data management across platforms.
Designed to bridge the gap between digital and analog domains, the Mixed-Signal Front-End integrates both analog and digital processing capabilities into a single package, optimizing systems for a variety of high-performance computing applications. This IP offers sophisticated signal conditioning, data conversion, and filtering features, making it essential for applications that require precise data acquisition and real-time signal processing. The Front-End's architecture is fine-tuned for low power operation, ensuring that it sustains performance even as demands on processing capabilities increase, a common requirement for applications in telecommunications and consumer electronics. Its capabilities extend to amplify weak signals and convert analog inputs to high-fidelity digital outputs, tasks that are pivotal in systems requiring accurate measurements and fast processing times. GUC's solution in mixed-signal technology reflects cutting-edge innovation, allowing seamless integration with existing digital systems while maintaining a high degree of flexibility and precision. This adaptability not only enhances the performance of existing systems but also enables new applications where robust mixed-signal processing is essential for functionality and success.
The Vantablack coating for satellite constellations is engineered to dramatically reduce the visual signature of satellites, an essential feature for many space missions. With a total hemispherical reflectance of just 2% and high ATOX resistance, this coating is designed to maintain satellite performance even in the harsh conditions of space. Its lightweight nature, with a coating mass of less than 5mg/cm² at 30µm thickness, ensures it adds minimal weight to the spacecraft. One of the standout features of this formulation is its high emissivity (greater than 0.98), which stands out in the space industry for its efficacy in thermal management. This property is crucial for regulating the temperature of sensitive satellite components, thereby enhancing the reliability and longevity of the spacecraft. Moreover, the Vantablack satellite coating is praised for its ultra-low outgassing properties, conforming to ASTM E595 standards, which are critical for maintaining optical and instrument integrity over the satellite's operational lifespan. Its reliability across extreme temperatures, from -196°C to 200°C, further underscores its suitability for a variety of space missions.
The Multi-Channel Silicon Photonic Chipset is engineered to support advanced data transmission capabilities, specifically designed to enhance high-speed connectivity through a blend of state-of-the-art photonic technologies. It incorporates a comprehensive transmitter and receiver architecture targeting 4x106Gb/s data rates, efficiently supporting 400 GBASE-DR4 applications. The chipset stands out for its hybrid integration of III-V DFB lasers with electro-absorption modulators, achieving a superior optical modulation amplitude (OMA) and low TDECQ penalty, aligning with IEEE standards for high-performance communication networks. This silicon-based photonic solution leverages unique integrated technologies to address the growing demands for data center and telecommunications infrastructure. By supporting multiple channel capabilities, it provides a scalable approach to handling high-bandwidth data streams, ensuring robust and reliable performance in various network configurations. The precise engineering behind the modulation and laser integration allows this chipset to meet stringent efficiency and output requirements. Rockley Photonics designed the chipset with a focus on minimizing energy consumption while maximizing the data handling capacity, offering a competitive edge for businesses looking to upgrade network throughput without incurring significant costs. This multi-channel chipset exemplifies a significant technological advancement in photonic data transmission, supporting future growth in both enterprise and consumer broadband services.
The Laser Driver is an integral part of high-speed optical connectivity solutions, particularly within AI application networks. This driver aids in the precision modulation of laser light for data transmission, ensuring rapid and accurate data flow in extensive telecommunication environments. By fostering improved bandwidth management and reducing signal distortion, the Laser Driver enhances network reliability. Its application in AI networks demonstrates its capability to handle complex data demands efficiently, making it invaluable for cutting-edge optical technologies.
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