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 is a versatile processor specifically designed to enhance machine learning inference tasks on a broad range of devices. It provides a seamless blend of traditional digital signal processing (DSP) and neural processing unit (NPU) capabilities, which allow it to handle complex ML networks alongside conventional C++ code. Designed with a focus on adaptability, the Chimera GPNPU architecture enables easy porting of various models and software application programming, making it a robust solution for rapidly evolving AI technologies. A key feature of the Chimera GPNPU is its scalable design, which extends from 1 to a remarkable 864 TOPs, catering to applications from standard to advanced high-performance requirements. This scalability is coupled with its ability to support a broad range of ML networks, such as classic backbones, vision transformers, and large language models, fulfilling various computational needs across industries. The Chimera GPNPU also excels in automotive applications, including ADAS and ECU systems, due to its ASIL-ready design. The processor's hybrid architecture merges Von Neumann and 2D SIMD matrix capabilities, promoting efficient execution of scalar, vector, and matrix operations. It boasts a deterministic execution pipeline and extensive customization options, including configurable instruction caches and local register memories that optimize memory usage and power efficiency. This design effectively reduces off-chip memory accesses, ensuring high performance while minimizing power consumption.
The G-Series Controller from MEMTECH is conceived for graphics-heavy computing environments, balancing high bandwidth and low power demands. This controller supports GDDR6 devices at speeds reaching up to 18 Gbps. It incorporates dual-channel support, advanced scheduling, and error detection ensuring robust data throughput with minimal latency. Suitable for applications such as gaming, video processing, and AI, the G-Series Controller facilitates efficient integration and supports various power-saving features.
Engineered for high-efficiency data compression, the DSC Encoder from Trilinear Technologies enables the effective encoding of Display Stream Compression data, critical for optimal video output without sacrificing quality. This encoder's design focuses on achieving maximal compression while preserving the integrity of the source material, making it ideal for cutting-edge display technologies. Efficiency is its standout feature, allowing it to effectively handle a wide range of encoding tasks without significant power draw, which is increasingly important in portable and battery-powered devices. The DSC Encoder supports numerous formats and resolutions, offering excellent flexibility for integration into existing digital video systems. With a focus on precision and performance, this encoder meets the high demands of present-day display environments. Trilinear Technologies ensures that each encoder maintains consistency and reliability, adhering to industry standards that keep it competitive. It is an exemplary product for various high-definition multimedia roles, from consumer electronics to professional AV installations.
The DSC Decoder by Trilinear Technologies decodes Display Stream Compression data to allow for efficient and high-fidelity display output. It represents state-of-the-art technology in handling compressed video streams, ensuring that the data is accurately rendered for high-end applications. Specially designed to cater to modern digital displays, the DSC Decoder supports varying data rates and formats, thus enhancing the versatility of any multimedia framework it is integrated into. It achieves superior performance with minimal resource usage, providing an optimal balance between power and processing capabilities. Innovation and meticulous engineering converge in this decoder, evidencing Trilinear's commitment to delivering robust solutions. Parameters such as signal accuracy and systemic reliability are prioritized, making it well-suited for high-definition broadcasting and real-time video applications where performance and quality are critical benchmarks.
The ARINC 818 Streaming core is engineered to facilitate real-time streaming by converting pixel bus data into ARINC 818 formatted Fibre Channel serial data streams and vice versa. It is specially tailored for aerospace and defense applications that rely on precise data formatting and high-quality data exchange standards. This core efficiently manages data frame conversion, ensuring that video and graphical data conform to ARINC 818 standards. By managing both pixel-to-FC data conversion and vice versa, it provides comprehensive support for video streaming in complex avionic systems. Its design minimizes latency and ensures high fidelity and reliability. Optimized for ease of integration, this core supports high-speed data transfers essential for real-time processing needs. It is perfectly suited for environments that demand stringent data exchange protocols and have zero tolerance for errors or delays. Its robust architecture makes it an asset for mission-critical aerospace applications.
The ARINC 818 DMA core is designed to provide a holistic solution for the receipt and transmission of ARINC 818 protocols. It maximizes efficiency by offloading critical tasks such as formatting, timing, and buffer management from the host processor, thereby optimizing resource use and performance in embedded environments. This core is well-suited for aerospace systems, where efficient data handling is paramount. By providing robust support for the ARINC 818 data interface, the core ensures high data integrity and low latency, indispensable for maintaining system reliability. Its architecture is engineered to handle complex data structures and formats, facilitating seamless data transfer between subsystems. The DMA functionality ensures consistent performance under demanding operating conditions, catering to both legacy and modern platform requirements.
The Hyperspectral Imaging System developed by IMEC revolutionizes the observation capabilities of a wide spectrum of wavelengths in just one frame. This system taps into the potential of spectral imaging, advancing Earth and space exploration through its ability to capture detailed environmental data. The hyperspectral imaging system, being chip-based, ensures enhanced efficiency and precision while lowering the energy footprint compared to traditional methods. This cutting-edge technology is capable of transcending applications from Earth monitoring, where it aids in identifying and assessing natural resources, to next-generation satellite observation. By employing advanced methodologies for data acquisition and processing, the hyperspectral imaging system enhances the quality and accuracy of images captured from diverse environments. Moreover, its compact and efficient form factor makes it adaptable for integration into various imaging platforms, providing unparalleled insights with high fidelity. Furthering the realm of optical imaging, IMEC's system is designed for broad adaptability across sectors like agriculture, forestry, and urban planning, facilitating an in-depth understanding of ecological and environmental dynamics. The seamless integration with machine learning algorithms allows for the conversion of vast spectral data into actionable insights, providing users with the tools needed to make informed decisions on conservation, resource management, and urban development. Combining state-of-the-art sensor technologies with robust computing abilities, IMEC's Hyperspectral Imaging System stands as a cornerstone of modern observational science.
The BlueLynx Chiplet Interconnect offers an advanced die-to-die interconnect solution, tailored to meet the rigorous demands of contemporary chiplet designs. With support for Universal Chiplet Interconnect Express (UCIe) and the Open Compute Project's Bunch of Wires (BoW), this IP establishes a robust physical and link layer interface for chiplet communications. It's built to connect efficiently with on-die bus standards like AMBA AXI and ACE, streamlining the process of linking chiplets within advanced package configurations. Technologically sophisticated, BlueLynx supports a variety of fabrication nodes ranging from 16nm down to 3nm, ensuring compatibility across multiple semiconductor foundries. This interconnect solution is silicon-proven and enables not only rapid development but also minimizes the traditional risks associated with new designs. Clients receive a comprehensive ASIC integration package, including platform software and design references, which allows for swift silicon bring-up and ensures that first-pass silicon achieves expected operational standards. The architecture of BlueLynx is designed to be both customizable and efficient. With data rates stretching from 2 Gb/s up to over 40 Gb/s, and low power consumption underpinning its design, BlueLynx manages to provide a high bandwidth density of over 15 Tbps/mm². This results in optimal performance scaling across diverse applications while accommodating advanced 3D packaging options. The PHY component of the IP is specifically designed for high compatibility and minimal latency, built on the architecture that supports configurable serialization and deserialization ratios, multiple PHY slices, along with detailed specifications for bump pitch and package applications.
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 Video Wall Display Management System builds on the flexible use of FPGAs to simplify multi-display setups from a single video source. It inputs HDMI or DisplayPort signals, processes them for various display configurations, and manages outputs across multiple monitors—ideal for digital signage and event spaces where customized display arrangements are required. Supporting input resolutions up to 3840x2400 at 60 frames per second, the system can output resolutions reaching 1920x1200 per display. The solution features an easy-to-use software interface, enabling bezel compensation and input cloning or stretching over different arrangements, with future expansion plans to link multiple FPGAs for extended display support. Pre-configured modes streamline user control, including cloned or independent display options, with automatic EDID parsing to ensure compatibility with various hardware setups. This scalability and adaptability make it an appealing solution for dynamic digital display environments, supported by Korusys’ acclaimed technical expertise and service.
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.
Arasan's MIPI D-PHY Analog Transceiver is engineered to facilitate high-speed data communication between camera sensors and processors or display interfaces. Supporting both CSI-2 and DSI protocols, this transceiver ensures efficient, high-capacity data transmission with minimal power consumption. Compliant with the MIPI D-PHY specification, this IP component can function as a standalone transmitter, receiver, or complete transceiver, offering robust signal integrity for diverse multimedia applications. Capable of adapting various data rates and signaling methods, the D-PHY Transceiver is a versatile solution for manufacturers targeting mobile and automotive markets. Its architecture is optimized to handle high-speed, low-latency communication, critical for applications like modern smartphones and autonomous vehicles that demand near-instantaneous data exchange. The transceiver’s design supports multiple data lanes, configurable PLL, and integrated digital interface, which simplifies implementation in complex SoC designs. By ensuring compliance with multiple MIPI specifications, Arasan’s D-PHY Transceiver minimizes development risk and facilitates faster product rollouts.
The hypr_gate platform is a state-of-the-art high-speed data logger tailored for robust sensor fusion and data analysis needs. Capable of handling diverse data streams from sensors like radar and lidar, it ensures low-latency and real-time processing capabilities. Its customizable infrastructure supports extensive connectivity and remote updates, making it essential for advanced perception systems.
Akida1000 represents the front line of BrainChip’s AI solutions, offering a compact yet powerful processing platform for innovative applications. This SoC is particularly adept at executing neural network tasks, leveraging event-based processing for remarkable energy efficiency and reduced latency in AI operations. With its strong neuronal and synaptic capacity, Akida1000 processes an extensive range of AI computations independently from cloud systems, ensuring privacy and security in data handling. This autonomy is particularly advantageous in real-time scenarios where edge devices must react instantaneously without centralized processing delays. Akida1000 supports prototyping and scale-up options through its compatibility with BrainChip’s development kits. This allows developers to tailor AI solutions to specific needs, ensuring optimal design, quick integration, and efficient deployment in various intelligent systems.
The Akida1000 Reference SoC is BrainChip's foundational AI processor, tailored to provide a complete event-based neural processing solution. Engineered to operate as an embedded accelerator, Akida1000 performs a diverse range of AI computations at the edge, removing the necessity for cloud interaction. With capabilities for both standalone operations and as an adjunct processor, the SoC caters to multiple application scenarios. Featuring 1.2 million neurons and 10 billion synapses, the Akida1000 SoC is robust, allowing real-time AI operations across various edge devices. Its design facilitates seamless integration into existing systems, ensuring efficient data-to-event conversion and neural network execution without saturating CPU resources. Compatible with a broad array of hardware, including PCIe and Raspberry Pi development kits, Akida1000 promotes rapid prototyping and deployment. This strategic compatibility, combined with on-chip learning capabilities, positions the Akida1000 SoC as a pivotal component for developers aiming to future-proof their edge AI applications.
The Speedcore Embedded FPGA (eFPGA) is an integral part of Achronix's offerings, designed to embed programmable logic within ASICs and SoCs for enhanced performance and flexibility. It allows customers to tailor the logic, DSP, and memory resources to specific application needs, providing a customizable solution that seamlessly integrates into existing semiconductor designs. This flexibility makes it an apt choice for high-performance real-time processing tasks in AI, machine learning, 5G networking, and automotive sectors. Speedcore eFPGA stands out due to its ability to optimize system costs, reduce power consumption, and save board space by eliminating unnecessary features of standalone FPGAs. By embedding the FPGA fabric within SoCs, designers benefit from streamlined designs that maintain performance without the extra overhead associated with external components. The flexibility of Speedcore's programmable logic is pivotal in adapting to changing standards and enhancing the functionality of ASICs post-deployment. Achronix's ACE Tool Suite enhances the usability of Speedcore eFPGA by offering a complete design environment that includes RTL synthesis, place-and-route, and timing analysis. This suite simplifies the development process, providing a similar design flow to discrete FPGAs but tailored specifically for embedded applications. The Speedcore eFPGA's reputation as a production-proven, silicon-demonstrated technology highlights Achronix's capability in delivering reliable and innovative semiconductor solutions.
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 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 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.
This digital video scaler allows for flexible upscaling and downscaling operations with independent horizontal and vertical adjustments. It uses a sophisticated 5x5 FIR polyphase filter with 16-phase selectivity to produce studio-quality video output devoid of aliasing artifacts. The design negates the need for a frame buffer and additional external memory, which simplifies setup while ensuring processor efficiency.