All IPs > Multimedia > VGA
The VGA (Video Graphics Array) category within our Multimedia section offers a diverse selection of semiconductor IPs that cater to a range of visual and graphical display applications. These IPs are crucial for designing systems that handle video signals and facilitate high-quality graphics rendering. Our VGA offerings are optimized for integration into various multimedia devices and ensure compatibility with existing infrastructures, making them ideal for applications that require dependable and efficient video display capabilities.
VGA semiconductor IPs are integral in developing video interfaces that connect graphics sources to monitors or displays. These IPs enable the conversion and transmission of video signals, maintaining the integrity and clarity of visual output. They are particularly useful in applications where traditional VGA connections are preferred, such as in industrial and commercial settings where legacy equipment must be supported alongside modern display technologies.
Incorporating VGA semiconductor IPs into your design ensures not only backward compatibility with older systems but also leverages the robustness of VGA standards for average display resolutions. This makes them particularly valuable in education and training environments, as well as in products designed for mass market settings where cost-effectiveness is a priority.
By choosing from our selection of VGA semiconductor IPs, developers and engineers can create multimedia products that prioritize reliability and performance. Whether you're working on developing video transmission systems, display adapters, or graphics cards, our IPs provide the necessary foundation to support a wide array of visual processing needs in today's dynamic technology landscape.
The Chimera GPNPU by Quadric redefines AI computing on devices by combining processor flexibility with NPU efficiency. Tailored for on-device AI, it tackles significant machine learning inference challenges faced by SoC developers. This licensable processor scales massively offering performance from 1 to 864 TOPs. One of its standout features is the ability to execute matrix, vector, and scalar code in a single pipeline, essentially merging the functionalities of NPUs, DSPs, and CPUs into a single core. Developers can easily incorporate new ML networks such as vision transformers and large language models without the typical overhead of partitioning tasks across multiple processors. The Chimera GPNPU is entirely code-driven, empowering developers to optimize their models throughout a device's lifecycle. Its architecture allows for future-proof flexibility, handling newer AI workloads as they emerge without necessitating hardware changes. In terms of memory efficiency, the Chimera architecture is notable for its compiler-driven DMA management and support for multiple levels of data storage. Its rich instruction set optimizes both 8-bit integer operations and complex DSP tasks, providing full support for C++ coded projects. Furthermore, the Chimera GPNPU integrates AXI Interfaces for efficient memory handling and configurable L2 memory to minimize off-chip access, crucial for maintaining low power dissipation.
The KL630 AI SoC represents Kneron's sophisticated approach to AI processing, boasting an architecture that accommodates Int4 precision and transformers, making it incredibly adept in delivering performance efficiency alongside energy conservation. This chip shines in contexts demanding high computational intensity such as city surveillance and autonomous operation. It sports an ARM Cortex A5 CPU and a specialized NPU with 1 eTOPS computational power at Int4 precision. Suitable for running diverse AI applications, the KL630 is optimized for seamless operation in edge AI devices, providing comprehensive support for industry-standard AI frameworks and displaying superior image processing capabilities.
The ARINC 818 Streaming IP Core is engineered to deliver real-time streaming conversion between a pixel data bus and an ARINC 818 formatted Fibre Channel (FC) serial data stream, or vice versa. This core is pivotal in applications where precision and timing are critical, providing efficient data handling for high-resolution display systems commonly used in avionics. Tailored for flexibility, this IP core supports bidirectional conversion, which provides seamless integration into existing infrastructure, enhancing both legacy systems and new installations. By handling ARINC 818 formatted FC data, it ensures consistent and accurate data synchronization, making it ideal for mission-critical aerospace applications. This IP core excels in environments requiring advanced data processing and synchronization. Its design minimizes latency while maximizing throughput, ensuring high-quality transmission and reception of visual data. The ARINC 818 Streaming IP Core is a vital asset in enhancing the performance and reliability of communication and display systems in complex aerospace technologies.
The ARINC 818 Direct Memory Access (DMA) IP Core is specifically designed to optimize data transaction processes within ARINC 818 protocols, particularly emphasizing receipt and transmission efficiency. This core is an essential component for embedded applications where offloading of formatting, timing, and buffer management is crucial for operational success. Ideal for avionics applications, the core simplifies integration by efficiently managing data transfer operations between system nodes through coordinated DMA mechanisms. It provides a streamlined hardware solution, reducing the overhead typically associated with direct memory operations and improving the overall system performance. Built with scalability in mind, the ARINC 818 DMA IP Core supports various data rates and configurations, enhancing its adaptability to different system architectures. By minimizing CPU intervention in data handling, it increases processing efficiency, further ensuring high-speed data handling with minimal delay or disruption.
The Hyperspectral Imaging System is designed to provide comprehensive imaging capabilities that capture data across a wide spectrum of wavelengths. This system goes beyond traditional imaging techniques by combining multiple spectral images, each representing a different wavelength range. By doing this, it enables the identification and analysis of various materials and substances based on their spectral signatures. Ideal for applications in agriculture, healthcare, and industry, it allows for the precise characterisation of elements and compounds, contributing to advancements in fields such as remote sensing and environmental monitoring.
Functioning as a comprehensive cross-correlator, the XCM_64X64 facilitates efficient and precise signal processing required in synthetic radar receivers and advanced spectrometers. Designed on IBM's 45nm SOI CMOS technology, it supports ultra-low power operation at about 1.5W for the entire array, with a sampling performance of 1GSps across a bandwidth of 10MHz to 500MHz. The ASIC is engineered to manage high-throughput data channels, a vital component for high-energy physics and space observation instruments.
The BlueLynx Chiplet Interconnect is a sophisticated die-to-die interconnect solution that offers industry-leading performance and flexibility for both advanced and conventional packaging applications. As an adaptable subsystem, BlueLynx supports the integration of Universal Chiplet Interconnect Express (UCIe) as well as Bunch of Wires (BoW) standards, facilitating high bandwidth capabilities essential for contemporary chip designs.\n\nBlueLynx IP emphasizes seamless connectivity to on-die buses and network-on-chip (NoCs) using standards such as AMBA, AXI, and ACE among others, thereby accelerating the design process from system-on-chip (SoC) architectures to chiplet-based designs. This innovative approach not only allows for faster deployment but also mitigates development risks through a predictable and silicon-friendly design process with comprehensive support for rapid first-pass silicon success.\n\nWith BlueLynx, designers can take advantage of a highly optimized performance per watt, offering customizable configurations tailored to specific application needs across various markets like AI, high-performance computing, and mobile technologies. The IP is crafted to deliver outstanding bandwidth density and energy efficiency, bridging the requirements of advanced nodal technologies with compatibility across several foundries, ensuring extensive applicability and cost-effectiveness for diverse semiconductor solutions.
The XCM_64X64_A is a powerful array designed for cross-correlation operations, integrating 128 ADCs each capable of 1GSps. Targeted at high-precision synthetic radar and radiometer systems, this ASIC delivers ultra-low power consumption around 0.5W, ensuring efficient performance over a wide bandwidth range from 10MHz to 500MHz. Built on IBM's 45nm SOI CMOS technology, it forms a critical component in systems requiring rapid data sampling and intricate signal processing, all executed with high accuracy, making it ideal for airborne and space-based applications.
The DSC Decoder is a cutting-edge solution geared towards decoding Display Stream Compression (DSC) data, ensuring optimal performance in delivering high-definition video content. Aligned with the VESA DSC 1.2a standard, this decoder allows for real-time decompression of video streams with high efficiency, ideal for devices and systems needing to manage bandwidth while maintaining a superior visual quality output. Its application stretches across industries, catering to devices that require high-performance video processing like professional display systems, gaming consoles, and even military-grade visual equipment. The decoder supports integration with both SoCs and FPGAs, offering flexibility and adaptability without compromising the integrity or speed of the data being processed. The DSC Decoder’s engineering excellence enables it to manage high-resolution videos up to 16K seamlessly, offering an uncompromised experience in graphics rendering and broadcast quality. It plays a vital role in environments where performance, speed, and video quality cannot be sacrificed, making it a key component in the next generation of multimedia solutions.
The DSC Encoder by Trilinear Technologies efficiently compresses digital video streams, adhering to the VESA Display Stream Compression 1.2a standards. This encoder is engineered for high-speed, real-time operations, making it suitable for both consumer technology and professional-grade applications. Its primary function is to reduce the bandwidth required for transmitting high-resolution video data, crucial for today's demanding multimedia environments. By implementing state-of-the-art compression techniques, the DSC Encoder allows for the seamless handling of up to 16K visual data without degrading quality, making it invaluable for applications that necessitate high-definition displays. This includes everything from advanced gaming systems and home entertainment setups to professional broadcasting and video production devices. Designed to integrate effortlessly with FPGAs and SoCs, the DSC Encoder facilitates the handling of large amounts of data with minimal power consumption, ensuring efficient processing without overheating or significant energy use. It is an indispensable tool for developers looking to incorporate higher quality media experiences without the technological constraints of older systems.
Dyumnin's RISCV SoC is built around a robust 64-bit quad-core server class RISC-V CPU, offering various subsystems that cater to AI/ML, automotive, multimedia, memory, and cryptographic needs. This SoC is notable for its AI accelerator, including a custom CPU and tensor flow unit designed to expedite AI tasks. Furthermore, the communication subsystem supports a wide array of protocols like PCIe, Ethernet, and USB, ensuring versatile connectivity. As for the automotive sector, it includes CAN and SafeSPI IPs, reinforcing its utility in diverse applications such as automotive systems.
The Video Wall Display Management System is a flexible solution using FPGA technology, designed for high-quality image processing and output across multiple displays. It handles input from HDMI or Display Port sources, delivering processed video synchronized on up to four individual screens. This system is ideal for setups requiring intricate video configurations, such as digital signage or multi-display environments. It supports resolutions up to 3840x2400p60 for input and up to 1920x1200p60 for outputs, providing excellent image clarity and synchronization. Its flexibility is enhanced by supported configuration modes including Stretch, Cloned, and Independent outputs, with customizable bezel compensation. A software API facilitates easy configuration and control, ensuring seamless management of video outputs. The Video Wall System is continually being refined, with future developments aiming at greater support for larger display setups through linked FPGA units. This system provides a robust solution for customizable, high-quality video display management, catering to diverse application needs.
The DSC Encoder is a sophisticated tool designed for image compression, ensuring high-quality visuals without compromising on data integrity. This technology is especially advantageous for applications requiring efficient bandwidth usage, such as high-resolution displays and streaming services. By employing cutting-edge compression algorithms, the DSC Encoder reduces data size while maintaining visual fidelity, making it an essential component in modern multimedia systems. This encoder is engineered for seamless integration into various systems, providing flexibility in design and implementation. It supports a wide range of display resolutions and can be adapted to fit specific needs, whether for ASIC or FPGA deployments. Its robust performance in compressing video streams makes it a cornerstone in contemporary digital media environments, optimizing both storage and transmission efficiency. In addition to its core functionality, the DSC Encoder is designed with scalability in mind. It easily adapts to different processing nodes, ensuring compatibility across various semiconductor processes. This adaptability, coupled with its high-performance metrics, makes it an invaluable asset for designers aiming to incorporate top-tier video processing capabilities into their products.
The Akida1000 Reference SoC is a complete neural processing device designed for integration into AI systems, featuring 1.2 million neurons and 10 billion synapses. This SoC is configurable as a standalone embedded AI accelerator or can be paired with an MCU or CPU for enhanced performance. The Akida1000 uses event-based processing optimized for real-time neural network tasks, gaining efficiency from its large SRAM and scalable neural processing units, which are fully configurable to meet application-specific needs. It supports fully integrated networks, eliminating the need for frequent weight swaps between memory systems, thus enhancing throughput and reducing power consumption.
Marquee Semiconductor is adept at designing Network-on-Chip (NoC) based subsystems that skillfully interlink various chip components, enhancing both coherent and non-coherent network designs. By leveraging sophisticated integration techniques, they expertly combine these features into scalable chiplet architectures. This approach not only boosts performance but also facilitates the creation of flexible solutions tailor-made for intricate chip designs. The company employs advanced methodologies to ensure their NoC systems function efficiently, maximizing data throughput while minimizing latency. This finesse in designing NoC ecosystems provides clients with highly reliable and adaptable semiconductor solutions. Furthermore, these platforms are optimized to support a broad spectrum of applications, extending their utility across different technological domains. Marquee Semiconductor's commitment to innovation is evident in their capacity to foresee and address potential design challenges, making them a reliable partner for cutting-edge semiconductor projects. The company continues to lead the charge in developing integrated systems that push the boundaries of current technology landscapes, ensuring seamless operations and meeting high industry standards.
The G-Series Controller from MEMTECH is designed for applications requiring high memory bandwidth, such as graphics processing, AI video processing, and gaming. This GDDR6 solution supports dual 16-channel configurations with speeds reaching up to 20 Gbps, making it an ideal solution for compute-intensive tasks that demand swift data handling and processing. Advanced scheduling engines enhance its efficiency by optimizing throughput, while hardware auto-initialization and comprehensive error correction modes ensure error-free operation and data integrity. G-Series Controllers boast a DFI 5.0 interface, allowing easy integration with memory systems and reducing development complexities. G-Series Controllers are crafted to meet high-performance computing and graphics needs within tight power budgets, delivering enhancements in latency and speed without requiring a large footprint. As a fully optimized controller, it provides exceptional performance for advanced computing environments where power and space are precious resources.
The MIPI D-PHY Analog Transceiver facilitates seamless data transmission and reception across various applications adhering to the MIPI Alliance standards. This IP conforms to the D-PHY specification, making it suitable for high-speed camera and display interfaces. It boasts a flexible configuration that supports both transmitting and receiving functions within a single compact design. Additionally, the transceiver's architecture is optimized for low latency and power efficiency, essential features for mobile and embedded applications where battery life and heat are significant considerations. The MIPI D-PHY Analog Transceiver is compatible with major process nodes, further enhancing its adaptability and deployment across different technology fronts.
The VDC-M Decoder is designed to decode compressed video data, specifically adapted for modern digital display requirements. It focuses on translating compressed video streams into high-quality outputs suitable for current advanced digital video applications. This decoder is tailored to ensure that video fidelity is uncompromised during the decompression process, making it ideal for high-definition displays. This decoding solution is characterized by its robust ability to handle diverse video file formats, translating them seamlessly into usable display data. Its architecture supports a variety of ASIC and FPGA configurations, providing a versatile tool for developers working across multiple platforms. With minimal integration overhead, the VDC-M Decoder stands out as a practical choice for multimedia applications needing precise video decoding. The VDC-M Decoder supports modern video processing needs, ensuring that data integrity and timing are maintained throughout the decoding process. Its capability to smoothly adapt to different chip technologies underscores its design's flexibility and efficiency. As digital media consumption continues to evolve, the VDC-M Decoder remains a vital component for extracting the best visual quality from compressed video feeds.
The DSC Decoder is integral for decompressing media files that have been compressed using a DSC Encoder, restoring the compressed data back to its original high-quality format. It's designed to work seamlessly with high-resolution displays, ensuring that every detail is rendered with clarity and precision. This technology is crucial for applications like digital television and high-definition multimedia interfaces. Built to handle intensive data processes, the DSC Decoder supports a wide variety of resolutions and color depths. It can easily integrate with existing systems, offering a versatile solution for many digital media applications. Whether deploying on ASIC or FPGA platforms, the Decoder's efficient architecture ensures minimal latency and optimal performance during video playback. The DSC Decoder's design prioritizes compatibility and ease of use, making it suitable for a broad range of platforms and display technologies. Its ability to maintain signal integrity while decompressing data rapidly is critical for applications where timing and quality are paramount. As such, the DSC Decoder is a pivotal technology for developers seeking to maintain high display standards across various devices.
The Akida1000 is a sophisticated reference chip that showcases the full potential of BrainChip's neural processing capabilities. It is engineered specifically for low-power, high-efficiency AI computation both as a standalone solution or a co-processor to augment existing systems. Emphasizing event-based processing, this chip comprises numerous configurable neural processing engines that enable it to perform complex neural tasks directly on-device. Its architecture allows for seamless integration into various technologies while providing a comprehensive package including RTL, development tools, and documentation to facilitate its adoption and use in diverse application areas.
IPCoreWorx's N-Point FFT/IFFT Core is designed with parameterization in mind, making it a versatile choice for systems that require transformation between time and frequency domains. Especially optimized for WLAN standards like 802.11 and 802.16, as well as other OFDM standards, this core enhances the system's computational efficiency. By leveraging efficient algorithms, this core reduces processing time and energy consumption, addressing the essential needs of modern communication technologies.
The Matchstiq™ Z2 is a compact RF transceiver platform ideal for applications requiring portable solutions. Offering a complete software-defined radio (SDR) setup, the Matchstiq Z2 is equipped with high-performance capabilities for on-the-move signal processing. Its small form factor doesn't compromise its robustness, making it perfect for quick deployment in various operational settings. The device operates over a frequency range from 45 MHz to 6 GHz and supports bandwidths up to 50 MHz per channel. With a single receiver and transmitter, it integrates an AMD Zynq XC7Z010-2I FPGA system-on-chip, housed in a rugged, lightweight package measuring 3.44" x 2.44" x 0.56". It caters to users needing reliable RF capabilities across diverse environments, benefiting from USB 2.0 OTG interface support and typical power usage around 2.5 W. Built to withstand field use, the Matchstiq Z2 embraces an intuitive design featuring GPS and GLONASS for precise geolocation and time-stamping. Its compact build and comprehensive feature set ensure that it can address the needs of users requiring mobility without sacrificing performance.
The Matchstiq™ Z3u delivers extraordinary on-the-go signal processing capabilities in a small yet efficient package. Designed as a software-defined radio platform, it provides an impressive suite of RF tools for a variety of tactical and strategic applications. Due to its lightweight and portable build, it's an excellent choice for operations requiring high mobility with robust communication and vision processing capabilities. This device covers a wide frequency range of 45 MHz to 6 GHz with a maximum bandwidth of up to 50 MHz per channel. It features up to two independent receivers and a single transmitter, all powered by the AMD Zynq Ultrascale+ ZU3EG system-on-chip. The Matchstiq Z3u is compact, with measurements of 2.64" x 3.63" x 0.81", and it operates efficiently with a typical power consumption of under 6 watts. Housed in a durable casing, this SDR incorporates seamless GPS and advanced clock capabilities, making it apt for geolocation and precise timing tasks. The USB 3.0 OTG interface facilitates easy integration and operation, rendering it a stellar choice for high-performance applications demanding reliability and effectiveness in diverse settings.
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