All IPs > Analog & Mixed Signal > Oversampling Modulator
The Oversampling Modulator category within Silicon Hub's Analog & Mixed Signal section houses a comprehensive range of semiconductor IPs specially designed to improve signal resolution and processing in high-performance integrated circuits. These IP solutions are integral in the conversion of analog signals into digital formats, utilizing advanced techniques to achieve superior resolution and reduce quantization noise. An oversampling modulator essentially increases the signal-to-noise ratio (SNR) by sampling the signal at a higher rate than the Nyquist frequency, which is paramount for applications requiring high fidelity data conversion.
Oversampling modulators are a critical component in the design and development of devices that demand precise digital representation of analog inputs, such as in high-end audio equipment, instrumentation, and communications systems. These systems often require robust performance characteristics to handle complex signals with minimal distortion and loss. By utilizing semiconductor IPs in this category, developers can streamline their design process, reduce time-to-market, and optimize the performance of their signal processing applications.
In products ranging from digital audio converters to advanced communication transceivers, oversampling modulator semiconductor IPs provide the necessary tools for achieving precise analog-to-digital and digital-to-analog conversion, while maintaining data integrity. They are particularly useful in applications that necessitate the suppression of noise and the enhancement of dynamic range, where audio and data quality are paramount. In addition, these modulators can also play a role in reducing system power consumption, thus contributing to the development of energy-efficient solutions.
Our selection of oversampling modulator semiconductor IPs at Silicon Hub caters to a broad spectrum of needs within various industries. Whether you are developing consumer electronics, automotive systems, or medical devices, our library of IPs offers versatile solutions capable of adapting to the unique requirements of specialized applications. Empower your development projects with our state-of-the-art modulator IP offerings to ensure exceptional signal processing and conversion capabilities in your innovative designs.
Altek's 3D Imaging Chip is a breakthrough in the field of vision technology. Designed with an emphasis on depth perception, it enhances the accuracy of 3D scene capturing, making it ideal for applications requiring precise distance gauging such as autonomous vehicles and drones. The chip integrates seamlessly within complex systems, boasting superior recognition accuracy that ensures reliable and robust performance. Building upon years of expertise in 3D imaging, this chip supports multiple 3D modes, offering flexible solutions for devices from surveillance robots to delivery mechanisms. It facilitates medium-to-long-range detection needs thanks to its refined depth sensing capabilities. Altek's approach ensures a comprehensive package from modular design to chip production, creating a cohesive system that marries both hardware and software effectively. Deployed within various market segments, it delivers adaptable image solutions with dynamic design agility. Its imaging prowess is further enhanced by state-of-the-art algorithms that refine image quality and facilitate facial detection and recognition, thereby expanding its utility across diverse domains.
The aLFA-C is a programmable interfacing ASIC designed specifically for space-borne infrared ROICs and other image sensors. It significantly reduces the need for traditional front-end electronics by integrating essential functions onto a single chip. A standout feature includes its capability to operate with a single unregulated supply, aided by on-chip LDOs and regulators. aLFA-C offers extensive programmability, including a fully programmable sequencer for ROIC interfacing, and supports various digital output configurations such as CMOS, LVDS, or CML. It includes SPI interfaces for seamless image sensor integration and features analog acquisition over multiple channels, with high precision 16-bit ADCs, allowing parallel or interleave configuration for flexible data handling speeds. This ASIC is equipped with several measurement capabilities for resistance, voltage, and current, and provides programmable voltage and current sources. With resilience against TID, SEU, and SEL, it's highly reliable in harsh space environments. It's operational over a wide temperature range from 35K to 330K, suitable for varied applications in extreme conditions.
An efficient analog-to-digital conversion solution that enhances signal processing in high-speed applications. This pipeline ADC offers top-tier resolution and data throughput, making it an ideal fit for systems requiring rapid data acquisition and processing. Suitable for wireless communications and high-performance computing, its ability to maintain accuracy and speed is further complemented by its versatile application across various technologies.
Advanced Silicon's Sensing Integrated Circuits are engineered for exceptional performance in diverse sensor systems, ranging from photo-diode based detectors to low-noise pixel arrays for photon detection. These ICs leverage multi-channel configurations with integrated per channel analog-to-digital conversion, providing superb noise specs, ADC linearity, and resolution. This makes them ideal for use in digital X-ray systems, CT and PET scanners, particle detectors, and even fingerprint detection solutions. By enhancing integration and performance while minimizing size and power consumption, these products empower highly efficient and advanced sensor applications.
The TW330 distortion correction IP is tailored for use in applications requiring dynamic image transformations, such as VR headsets and automotive HUDs. Utilizing GPU-powered technologies, it offers real-time coordinate transformations, distortion corrections, and other modifications up to a resolution of 16K x 16K in both RGB and YUV formats. This IP is crucial for enhancing visual accuracy and display adaptability across varied markets.
The MVDP2000 series is engineered for precise differential pressure measurement using advanced capacitive sensing technology. These sensors, known for their robust performance, are calibrated impeccably over both pressure and temperature ranges, providing reliable results with minimized power usage. Highly suitable for OEM applications, these sensors are ideal for environments requiring fast response and accuracy.\n\nBuilt to the exacting needs of portable applications, these sensors offer digital and analog outputs for easy integration. Featuring a compact 7 x 7 mm DFN package, they operate efficiently over a wide temperature spread and are rated for demanding industrial and medical applications.\n\nTheir optimization for low power consumption and quick response time significantly increases their utility in fast-paced environments like HVAC systems, respiratory devices, and other critical monitoring applications. With customizable options, these sensors support specific application adaptations, making them adaptable and efficient.
ELFIS2 is a sophisticated visible light imaging ASIC designed to deliver superior performance under the extreme conditions typical in space. Known for its radiation hard design, it withstands both total ionizing dose (TID) and single event effects (SEU/SEL), ensuring dependable operation even when exposed to high radiation levels in outer space. This image sensor features HDR (High Dynamic Range) capabilities, which allow it to capture clear, contrast-rich images in environments with varying light intensities, without motion artifacts thanks to its Motion Artifact Free (MAF) technology. Additionally, its global shutter ensures that every pixel is exposed simultaneously, preventing distortion in high-speed imaging applications. Utilizing back-side illumination (BSI), the ELFIS2 achieves superior sensitivity and quantum efficiency, making it an ideal choice for challenging lighting conditions. This combination of advanced features makes the ELFIS2 particularly well-suited for scientific and space-based imaging applications requiring exacting standards.
Building upon advanced CMOS processes, this image sensor technology is tailored to meet the demands of high-resolution image capture with exceptional clarity and speed. It showcases the integration of sophisticated pixel architectures alongside cutting-edge analog-to-digital conversion techniques. These elements work in tandem to ensure outstanding image quality, making the technology ideal for applications like digital cameras, smartphones, and security cameras. The technology's core strength lies in its ability to deliver high dynamic range and low-light sensitivity, expanding its usability across different lighting conditions. It supports a wide array of pixel sizes and formats, allowing for customization based on specific application needs. Alongside these features, the technology provides efficient noise reduction and energy management, contributing to prolonged battery life and enhanced sensor performance. Moreover, the CMOS Image Sensor Technology benefits from sustained innovation and development, ensuring it remains at the forefront of imaging advancements. It is equipped with various supportive resources such as reference designs and application notes, which help integrate the sensors seamlessly into new products. This positions Tower Semiconductor's technology as a vital enabler for modern imaging devices where precision and detail are critical.
The Hyperspectral Imaging System by Imec offers enhanced imaging capabilities, chiefly used in space exploration and Earth observation for on-chip spectral imaging. This technology allows for efficient data capture across numerous spectral bands, giving a comprehensive view that is critical for scientific and commercial applications. With its compact and robust design, the system delivers high-resolution imaging while maintaining the portability needed for field applications. This advanced imaging system leverages on-chip technology that combines innovative hardware and software solutions, contributing to its high efficiency and accuracy in capturing detailed spectral information. The hyperspectral imaging achieved allows for assembling vast datasets rapidly, which is valuable in various applications ranging from environmental monitoring to agricultural assessments. Incorporating lead-free quantum dot photodiodes, the system ensures environmentally friendly operation and precise spectral capture. The modular design of the system facilitates easy integration into existing platforms, expanding its usability across different sectors requiring advanced imaging capabilities.
ISPido is a comprehensive image signal processing (ISP) pipeline that is fully configurable via the AXI4-LITE protocol. It features a complete ISP pipeline incorporating modules for defective pixel correction, color filter array interpolation using the Malvar-Cutler algorithm, and a series of image enhancements. These include convolution filters, auto-white balance, color correction matrix, gamma correction, and color space conversion between RGB and YCbCr formats. ISPido supports resolutions up to 7680x7680, ensuring compatibility with ultra-high-definition applications, up to 8K resolution systems. It is engineered to comply with the AMBA AXI4 standards, offering versatility and easy integration into various systems, whether for FPGA, ASIC, or other hardware configurations.
Designed for smaller scale transformations, the TW220/240 IP handles tasks such as distortion correction, scaling, and rotation for images up to 4K x 4K resolution. It supports RGB and YUV formats, offering vital capabilities for applications needing precision in image processing at lower resolutions. Its applications span from consumer digital products to professional imaging equipment.
GUC’s Mixed-Signal Front-End is designed to address the complex requirements of modern analog signal processing applications. This product blends both analog and digital circuits to efficiently manage and convert real-world signals into data that digital systems can process. Targeted at sectors where precise signal interpretation and processing are critical, this mixed-signal solution enhances the capability of system designs. The solution integrates various components necessary for complete signal chain management, ensuring minimal signal distortion and high-accuracy outcomes. It supports a wide range of applications from communications to industrial automation where data integrity is paramount. By compacting multiple functionalities into a single, optimized front-end, the solution reduces overall system complexity and cost. This Mixed-Signal Front-End is pivotal in systems where sensor data must be accurately translated into actionable digital information. Its versatile design supports developments in fields with stringent requirements for latency and performance, showcasing GUC’s commitment to engineering excellence in semiconductor solutions. By simplifying signal processing tasks, it extends the capabilities of integrated systems, setting new standards in analog processing technologies.
The SiC Schottky Diode by Nexperia is a specialized semiconductor component designed to facilitate efficient rectification in high-frequency applications. Unlike conventional diodes, this SiC variant offers significantly lower reverse recovery charges and power losses, boasting improved energy efficiency. It finds its applications in high-power systems such as photovoltaic inverters, power supplies, and electric vehicle chargers, where it contributes to improved system performance and reliability. With its ability to operate at higher temperatures without significant loss of efficiency or performance, this Schottky diode is a favorite in applications demanding compact size yet robust performance. Implementing SiC technology enhances the diode's thermal stability, which ensures consistent functionality in power management systems exposed to extreme conditions. Consequently, designers can achieve higher current ratings without increasing the component size or cost. The innovative design of the SiC Schottky Diode ensures minimal leakage current, which conserves energy and contributes to the overall cut down of electromagnetic interference. Its high switching speeds complement its energy-saving capabilities, making it a preferable choice for modern power electronics where efficiency and performance are pivotal. Designed with sustainability and performance in mind, this diode is an ideal fit for forward-thinking applications that value long-term efficiency improvements.
Akronic excels in the design of Analog and Mixed-Signal (AMS) integrated circuits, employing both CMOS and BiCMOS technologies. Their extensive experience enables them to create essential building blocks for modern telecom and radar transceivers. Their design range covers a broad spectrum of IC fabrication technologies, from conventional to the latest node dedicated processes. They specialize in providing comprehensive chip design solutions that adapt to diverse requirements. Critical components designed by Akronic include advanced low-pass filters, gain-control operations, signal converters, and frequency synthesis elements, far exceeding industry standards. These elements, characterized by flexibility and precision, contribute significantly to the performance and reliability of electronic systems across various applications.
The ADQ7DC model is a highly sophisticated digitizer designed for both single and dual-channel applications. It stands out with its impressive sampling rate of up to 10 GSPS, complemented by 14-bit resolution, enabling exquisite detail and clarity in the captured signals. Its input bandwidth reaches up to 3 GHz, catering to demanding applications that require high-speed and high-fidelity data processing. This digitizer is suitable for high-performance data acquisition, making it a preferred choice for industries that rely on critical signal detection and analysis.
This fractional-N synthesizer operates over an expansive frequency range from 1 GHz to 16 GHz, delivering low phase noise performance crucial for high-demand applications. Engineered to suit a variety of advanced needs, it supports stable operation in high-frequency environments, making it ideal for modern wireless communication systems. The synthesizer's design focuses on maximizing spectral efficiency while minimizing noise, a critical factor for improving the signal integrity in telecommunications networks. This is achieved through sophisticated architecture that allows for effective frequency synthesis with reduced spurious emissions, enhancing both the clarity and reliability of transmitted signals. Employing this synthesizer, engineers can achieve precise frequency generation which is essential for applications like RF communication systems, where maintaining signal fidelity is paramount. With its wide bandwidth and low noise characteristics, it is well-suited for integration into systems that require robust performance under varying conditions. This synthesizer is a vital component in modern transceiver and radio communication designs, contributing to expanded operational metrics and system efficiencies.
Silhouse is a cutting-edge machine vision solution designed to accelerate the implementation of image processing applications across various industries. Its state-of-the-art technology provides rapid image analysis and processing capabilities, enabling users to harness machine learning algorithms for enhanced visual data interpretation. From improving quality control processes in manufacturing to enabling automation in logistics, Silhouse is versatile and scalable, making it ideal for diverse industrial applications. The platform's ability to integrate with existing systems allows for seamless adoption and instant benefits, thereby reducing deployment times and costs normally associated with traditional vision systems. The adaptability and precision of Silhouse empower users to conduct complex image-based analysis tasks effectively, fostering innovation in sectors where visual data is critical. Its robust design ensures reliability and accuracy, establishing it as a valuable resource in industrial settings demanding high-speed, quality image processing.
The ATEK884P5 is a sophisticated tunable band-pass filter designed for frequencies between 1 GHz and 7.5 GHz. It features finely adjustable properties that allow it to achieve up to 11 dB of insertion loss with a rejection ratio of 40 dBc. This makes it ideal for communication systems requiring precise filtering across a broad frequency range. Packaged in a 4x4 mm QFN, it offers both high performance and compact integration capabilities.
The AFBR-POC205A2 Optical Power Converter is engineered to convert optical power into electrical power efficiently. Designed to excel in networking hardware, this device ensures that optical signals are harnessed to fuel communications systems effectively. The product's architecture supports robust data integrity and efficient transmission, making it ideal for high-speed data applications. The optical to electrical power conversion capability introduces an innovative solution for power-efficient operations, especially in bandwidth-demanding environments. This converter showcases a sophisticated design, emphasizing reliability and efficiency. The AFBR-POC205A2 is particularly suited for environments requiring seamless data handling and resilience to power fluctuations. Integrated into network infrastructures, it can enhance system performance while minimizing energy consumption, aligning with sustainability goals. Featuring superior functionality, this optical power converter supports heightened electrical response sensitivity. Its design reduces power losses during conversion, leading to greater energy savings and increased operational lifespans of associated network components. Such efficiency is particularly beneficial in extensive data centers where high-performance and energy efficiency are paramount.
The AFBR-POC205A8 Optical Power Converter is a state-of-the-art solution designed to transform optical signals into electrical energy with exceptional efficiency. Key to modern data transmission systems, this converter facilitates the conversion process with minimal energy loss and maximal signal fidelity. Built for advanced network applications, the AFBR-POC205A8 integrates seamlessly with existing infrastructure, providing robust support for high-speed data requirements. Its innovative technology supports seamless data flow and integrity, crucial for maintaining operational efficiency in high-performance environments. The engineering precision of this device ensures reduced conversion bottlenecks, enhancing overall system throughput. Its capacity for maintaining signal strength post-conversion makes it invaluable in both large-scale and high-demand data communication settings. Additionally, its energy efficiency contributes to reduced operational costs, making it an economically favorable choice for enterprises aiming for sustainable practices.
Offering a robust solution for signal conversion, the TRV106TSM180BCD ADC employs a Nyquist rate approach with a single-bit switch capacitor delta-sigma modulator. It allows programmable decimation rates, accommodating diverse frequency bandwidths from 7.8125kHz to 62.5kHz. This ADC is realized in 180nm CMOS, providing high resolution and low power operation at 1.8V.
FaintStar is an innovative sensor-on-a-chip designed for applications requiring medium to high accuracy, such as star trackers and navigation cameras. It boasts a 1020 x 1020 pixel configuration with a 10um pitch and features 12-bit A-to-D conversion. The device is flight-proven with Technology Readiness Level 9, incorporating 'light-to-centroids' image processing. FaintStar is equipped with a SpaceWire LVDS command/data interface, supporting speeds of 40Mb/s and 80Mb/s, ensuring swift data transmission critical for space missions. Its radiation tolerance includes TiD, proton, and SEE data mitigations, making it suitable for demanding space environments. Importantly, it is ITAR-free and complies with ESCC 2269000 and ESCC 9020 standards for flight model procurement. This sensor is an exceptional choice for space missions needing reliable and accurate imaging capabilities, leveraging Caeleste's advancements in sensor technology to push the boundaries of what these systems can achieve.
The CT22403 ADC from Canova Tech is a precise 14-bit, 10MS/s successive approximation register (SAR) converter. It is designed to deliver high-performance data acquisition with excellent linearity and resolution. The calibration functionality ensures minimized errors and optimizes accuracy across various applications, ensuring it meets the demands of discerning industrial and consumer needs. This ADC is suitable for diverse sensing and measurement tasks, where precision and speed are not just desired but required.
The PolarEyes Polarization Imaging System expands the horizons of imaging technology by utilizing metasurface optics to capture extremely detailed polarization data from visual scenes. Metalenz's PolarEyes system is engineered to reveal layers of information that traditional cameras miss, such as the texture and material properties of an object, by harnessing the full potential of light polarization. This system is especially transformative for applications in smart devices and automation, providing critical depth and texture information for enhanced decision-making processes in systems such as robotic vision and automotive sensors. By amplifying the richness of visual data with minimal additional hardware requirements, it supports the integration of more intelligent object recognition and environmental perception across a wide range of devices. PolarEyes not only increases the sensitivity and precision of optical sensors, but it does so within the form factor constraints typical of consumer electronics. This makes it a versatile solution for industries looking to elevate the performance capabilities of existing and new technologies without incurring significant changes to device architecture or budget.
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