All IPs > Multimedia > WMV
The WMV (Windows Media Video) category within the realm of multimedia semiconductor IPs is dedicated to components and solutions that support the encoding, decoding, and processing of WMV video formats. WMV is a widely used video codec developed by Microsoft, designed to offer high quality video streaming and playback. This category is crucial for industries looking to integrate Windows-compatible video functionality into their products, including consumer electronics, PCs, and media servers.
WMV semiconductor IPs are essential for facilitating seamless video streaming services and applications. They are tailored to optimize the efficiency of video playback, ensuring reduced latency and enhanced video quality in both online and offline settings. These IPs support various levels of video resolution, making them suitable for different types of digital content, from standard to high definition. The integration of WMV IPs allows manufacturers to expand the video capabilities of their devices, ensuring compatibility with a broad spectrum of media content and providing users with a reliable, high-quality viewing experience.
Incorporating WMV multimedia semiconductor IPs can significantly enhance the capabilities of digital devices, providing support for dynamic video applications. Devices such as smart TVs, video game consoles, set-top boxes, and mobile phones can benefit from these IPs, enabling them to exploit advanced video codecs to deliver a superior media experience. These IPs ensure that products remain competitive in a rapidly evolving digital market by allowing for smooth integration of video technologies that meet consumer demands for quality and performance.
Developers and designers in the multimedia field will find a range of products within this category, including video encoder and decoder IPs that are highly configurable, enabling custom solutions tailored to specific needs and performance benchmarks. Whether designing for consumer electronics, professional multimedia equipment, or enterprise-level digital broadcasting tools, WMV multimedia semiconductor IPs offer indispensable functionality to meet the diverse demands of the multimedia industry.
The Metis AIPU PCIe AI Accelerator Card by Axelera AI is designed for developers seeking top-tier performance in vision applications. Powered by a single Metis AIPU, this PCIe card delivers up to 214 TOPS, handling demanding AI tasks with ease. It is well-suited for high-performance AI inference, featuring two configurations: 4GB and 16GB memory options. The card benefits from the Voyager SDK, which enhances the developer experience by simplifying the deployment of applications and extending the card's capabilities. This accelerator PCIe card is engineered to run multiple AI models and support numerous parallel neural networks, enabling significant processing power for advanced AI applications. The Metis PCIe card performs at an industry-leading level, achieving up to 3,200 frames per second for ResNet-50 tasks and offering exceptional scalability. This makes it an excellent choice for applications demanding high throughput and low latency, particularly in computer vision fields.
The Ncore Cache Coherent Interconnect from Arteris provides a quintessential solution for handling multi-core SoC design complications, facilitating heterogeneous coherency and efficient caching. It is distinguished by its high throughput, ensuring reliable and high-performance system-on-chips (SoCs). Ncore's configurable fabric offers designers the ability to establish a multi-die, multi-protocol coherent interconnect where emerge cutting-edge technologies like RISC-V can seamlessly integrate. This IP’s adaptability and scalable design unlock broader performance trajectories, whether for small embedded systems or extensive multi-billion transistor architectures. Ncore's strength lies in its ability to offer ISO 26262 ASIL D readiness, enabling designers to adhere to stringent automotive safety standards. Furthermore, its coupling with Magillem™ automation enhances the potential for rapid IP integration, simplifying multi-die designs and compressing development timelines. In addressing modern computational demands, Ncore is reinforced by robust quality of service parameters, secure power management, and seamless integration capabilities, making it an imperative asset in constructing scalable system architectures. By streamlining memory operations and optimizing data flow, it provides bandwidth that supports both high-end automotive and complex consumer electronics, fostering innovation and market excellence.
FlexWay Interconnect is tailored for developers aiming to integrate scalable, low-power network-on-chip (NoC) solutions into IoT edge devices and microcontroller units (MCUs). It is celebrated for its adaptability in small to medium-scale designs, facilitating efficient interconnect setup with uncomplicated, cost-effective elements. Equipped to handle expansive bandwidth demands with limited power use, FlexWay capitalizes on Arteris’ advanced algorithms and graphical interfaces for optimal chip architecture design. By supporting multi-clock, voltage, and power domains with integrated clock gating, the IP maintains thorough power management across different configurations. It is engineered to easily adapt to various protocols, promising easy integration with existing systems without sacrificing performance. FlexWay’s intelligent design offers considerable flexibility, making it a prime choice for industries grappling with significant on-chip communication demands. By simplifying the design process and ensuring energy-efficient data management, this IP is integral for bringing cutting-edge IoT applications to fruition swiftly and cost-effectively.
The VoSPI Rx for FLIR Lepton IR Sensor is designed to cater to infrared sensor needs for various applications. Specially configured to support the FLIR Lepton sensor, this receiver facilitates effective and precise data handling of infrared signals, crucial in environments demanding high thermal accuracy. It provides real-time processing capabilities, aligning with the rigorous demands of security and monitoring applications. This receiver excels in maintaining data integrity, ensuring that the thermal data transmitted across platforms is of the highest accuracy. Its sophisticated engineering allows it to work seamlessly with other system components, enhancing system performance and reliability. The receiver is integrated with features that boost signal processing while minimizing latency, providing a seamless operational environment. This ensures that users can rely on it for consistent performance across various industry applications, boosting both efficiency and reliability.
The Vega eFPGA is a flexible programmable solution crafted to enhance SoC designs with substantial ease and efficiency. This IP is designed to offer multiple advantages such as increased performance, reduced costs, secure IP handling, and ease of integration. The Vega eFPGA boasts a versatile architecture allowing for tailored configurations to suit varying application requirements. This IP includes configurable tiles like CLB (Configurable Logic Blocks), BRAM (Block RAM), and DSP (Digital Signal Processing) units. The CLB part includes eight 6-input Lookup Tables that provide dual outputs, and also an optional configuration with a fast adder having a carry chain. The BRAM supports 36Kb dual-port memory and offers flexibility for different configurations, while the DSP component is designed for complex arithmetic functions with its 18x20 multipliers and a wide 64-bit accumulator. Focused on allowing easy system design and acceleration, Vega eFPGA ensures seamless integration and verification into any SoC design. It is backed by a robust EDA toolset and features that allow significant customization, making it adaptable to any semiconductor fabrication process. This flexibility and technological robustness places the Vega eFPGA as a standout choice for developing innovative and complex programmable logic solutions.
The FlexNoC Interconnect is engineered as a physically-aware network-on-chip (NoC) IP that serves as the backbone of semiconductor solutions in high-demand markets. It assists SoC developers in creating quick, reliable network setups with minimal power consumption. By incorporating top-grade algorithms and a user-friendly interface, FlexNoC facilitates flexible and efficient interconnect designs for both small and large-scale SoCs. Featuring robust support for comprehensive topologies, FlexNoC is highly advantageous in navigating the complexities of long interchip pathways using virtual channels and synchronous communications. It supports multi-channel memory such as HBMx, ensuring outstanding bandwidth and seamless off-chip memory access. The IP’s physical awareness advances timing closure processes and reduces interconnect area, contributing to reduced power usage and enhanced scalability. Designed for wide application across automotive, consumer electronics, and industrial sectors, FlexNoC offers standard protocol interoperability and advanced power management with state-of-the-art security measures. The IP’s ability to maintain high frequencies and lower latencies while ensuring compact die areas makes it indispensable for projects aiming for time-efficient delivery and market distinction.
HEVC/H.265 Main/Main10/ Main Still Picture Profile @L5.2 AVC/H.264 BP/CBP/MP/HP/HP10 @L5.2 Capable of encoding up to 8K ((8192x4096) A 32-bit AMBA3 APB bus for host CPU system control 128-bit AMBA3 AXI for data transfer (Optionally, additional secondary AXI) Latency tolerance Low power consumption Programmability Configurable IP Multi-instances Frame buffer compression (CFrame) Rotation & Mirroring Bit-depth & chroma sub-sample conversion Background detection 3DNR Lambda table QP Map Custom mode decision, etc.
Video Codec Standard HEVC/H.265: Main profile @ L5.1 High tier AVC/H.264: Baseline/Constrained Baseline/Main/High profile @ L5.2 Performance 4K60fps@500MHz Max resolution: 8192 x 8192 Min resolution: 256 x 128 Bit depth: 8-bit depth Features Frame buffer compression (FBC) Multi-instances 3rd Party I/F Bit depth and YUV format conversion of the source picture Encoder Features I/P picture coding Picture/Block level of rate control ROI coding Background coding Interface AMBA3 32-bit APB I/F for host I/F AMBA3 128-bit AXI for data transfer (Optional AXI can be used to alleviate bandwidth usage.)
HEVC/H.265 - Main/Main10 Profile @L5.1 AVC/H.264 - BP/CBP/MP/HP/HP10 Profile @ L5.2 Capable of decoding up to 4K60fps (8192x4096) A 32-bit APB bus and 128-bit AMBA3 AXI buses (w/ additional secondary AXI) Burst Write Back Map converter Low delay Low power consumption Configurable IP Latency tolerance Programmability Multi-instances Frame buffer compression (CFrame) Secondary AXI interfaces Downscaler (on-the-fly mode)
The MultiSync Core is designed to deliver reliable synchronization for networks requiring precise time alignment across distributed systems. It ensures that all nodes within a network maintain consistent time, which is crucial for applications in telecommunications, broadcasting, and an array of timing-dependent industries. The MultiSync Core enables clock synchronization with minimal jitter and drift, maintaining network reliability. Employing advanced synchronization techniques, this core supports a variety of standard time protocols and can easily be integrated into a wide range of network types, offering flexible deployment options. Its ability to maintain high precision and low latency in time distribution minimizes errors often experienced in complex network environments. This core's implementation leads to enhanced operational efficiency by maintaining synchronized systems, thereby improving overall network performance. The MultiSync Core's compatibility with industry-standard protocols ensures seamless interoperability and makes it an integral part of any high-level network synchronization strategy.
Video Codec Standard AV1: Main profile @ L5.1 HEVC: Main/Main10 profile, Main/Main 10 Still Picture profile @ L5.1 High tier AVC: Baseline/Constrained Baseline/Main/High/High 10 profile @ L5.2 (Interlaced coding tools are not supported) Performance 4K60fps@500MHz Max resolution: 8192 x 8192 Min resolution: 256 x 128 Bit depth: 8-/10-bit depth Features Frame buffer compression (FBC) Multi-instances 3rd Party I/F Bit depth and YUV format conversion of the source picture Encoder Features I/P/B picture encoding Picture/Block level of rate control ROI coding Background coding Interface AMBA3 32-bit APB I/F for host I/F AMBA3 128-bit AXI for data transfer * Optional AXI can be used to alleviate bandwidth usage
Video Codec Standard AV1: Main/High profile @ L6 Main tier 50Mbps Professional profile except 12-bit @ L6 Main tier 50Mbps Mono/YUV420/YUV422/YUV444 8-/10-bit HEVC/H.265: Main/Main 10/Main 4:2:2 10 profile @ L6 High tier Main 4:4:4/Main 4:4:4 10 profile @ L6 High tier (Only support 4:2:0 coding tools, high precision weighted prediction, and chroma QP offset list) AVC/H.264: Baseline/Constrained Baseline/Main/High/High10 profile @ L6 High 10 Intra/High 4:2:2/High 4:2:2 Intra profile with frame_mbs_only_flag = 1 @ L6 High 4:4:4 Predictive/High 4:4:4 Intra/CAVLC 4:4:4 Intra profile @ L6 with: frame_mbs_only_flag = 1 bit_depth_luma ≤ 10 bit_depth_chroma ≤ 10 frame_mbs_only_flag = 1 and qpprime_y_zero_transform_bypass_flag = 0 VP9 (Decoder only): Profile 0 and Profile 2 (12-bit not supported), YUV420 8/10-bit Performance 4K120fps@500MHz with a dual-core 4K240fps@1GHz or 8K60fps@1GHz with a dual-core Max resolution: 8192 x 8192 Min resolution: 256 x 128 Bit depth: 8-/10-bit depth Features Frame buffer compression (FBC) Multi-instances 3rd Party I/F Bit depth and YUV format conversion of the source picture Rotate/Mirror Down-scaler Crop Encoder Features I/P/B picture coding Picture/Block level of rate control ROI coding Background coding Interface AMBA3 32-bit APB I/F for host I/F AMBA3 128-bit AXI for data transfer (optional AXI can be used to alleviate bandwidth usage.)
High-resolution Image Processing IP Performance 4K60p@400MHz (600MHz for display interface) Features Support various color format : YUV420, YUV422, YUV444, and RGB Up-/Down-scaler x1/8~x8 : selectable scaler algorithm with Bi-cubic and Lanczos Two scalers, connected to DRAM and display/direct I/F respectively, operating at different ratios at the same time (configurable to one scaler option) Color space conversion : YUV2RGB and RGB2YUV, coefficient downloadable Optional features Crop and digital zoom : scaling on cropped region Flip : horizontal and vertical 3rd Party interfaces: such as AFBC v1.2 and PVRIC v4 (support output only) Interface Display Interface : 3 channels for components with vertical/horizontal sync signal (ITU-R BT.601 compatible) Direct Interface (optional feature) : On-the-fly interface based on ready-valid protocol Support CF10 (Chips&Media’s Frame buffer compression) for Chips&Media video codec Support AFBC v1.2 and PVRIC v4 (optional feature) for output of MAPI
Video Codec Standard HEVC/H.265: Main profile @ L5.1 High tier AVC/H.264: Baseline/Constrained Baseline/Main/High profile @ L5.2 Performance 4K60fps@500MHz with a single-core Max resolution: 8192 x 8192 Min resolution: 256 x 128 Bit depth: 8-/10-bit depth Features Frame buffer compression (FBC) Multi-instances 3rd Party I/F Bit depth and YUV format conversion of the source picture Encoder Features I/P/B picture coding Picture/Block level of rate control ROI coding Background coding Interface AMBA3 32-bit APB I/F for host I/F AMBA3 128-bit AXI for data transfer (Optional AXI can be used to alleviate bandwidth usage.)
The MPEG-H Audio System is a revolutionary advancement in audio coding for television and virtual reality applications. It is designed to deliver immersive, 3D audio experiences that enhance both broadcast and user-driven environments. Its pioneering interactive sound capabilities empower users to personalize audio settings according to their preferences, making it ideal for both professional and home entertainment systems. In television broadcasting, MPEG-H integrates seamlessly with existing infrastructure, offering an unparalleled audio experience that keeps pace with the rapidly evolving media landscape. The system supports both traditional and next-generation broadcast standards, ensuring a wide range of compatibility and future-readiness. For virtual reality, MPEG-H plays a crucial role in creating realistic audio environments, augmenting visual experiences with soundscapes that adapt to user perspectives. It provides a new level of audio detail and spatial accuracy, which is crucial for immersive applications where sound directionality enhances the realism and engagement of the user experience.
Video Codec Standard AV1: Main profile @ L5.1 Main tier 50Mbps HEVC/H.265: Main/Main 10 profile @ L5.1 High tier AVC/H.264: Baseline/Constrained Baseline/Main/High/High10 profile @ L5.2 (Interlaced coding tools are not supported.) VP9 (Decoder only): Profile 0 and Profile 2 (12-bit not supported) Performance 4K60fps@500MHz with a single-core Max resolution: 8192 x 8192 Min resolution: 256 x 128 Bit depth: 8-/10-bit depth Features Frame buffer compression (FBC) Multi-instances 3rd Party I/F Bit depth and YUV format conversion of the source picture Encoder Features I/P/B picture coding Picture/Block level of rate control ROI coding Background coding Interface AMBA3 32-bit APB I/F for host I/F AMBA3 128-bit AXI for data transfer (Optional AXI can be used to alleviate bandwidth usage.)
Video Codec Standard HEVC: Main/Main10 profile @ L6 High tier AVC: Baseline/Constrained Baseline/Main/High/High 10 profile @ L6 (Interlaced coding tools are not supported) Performance 4K120fps@500MHz or 8K60fps@1GHz Max resolution: 8192 x 8192 Min resolution: 256 x 128 Bit depth: 8-/10-bit depth Features Frame buffer compression (FBC) Multi-instances 3rd Party I/F Bit depth and YUV format conversion of the source picture Encoder Features I/P/B picture encoding Picture/Block level of rate control ROI coding Background coding Interface AMBA3 32-bit APB I/F for host I/F AMBA3 128-bit AXI for data transfer *Optional AXI can be used to alleviate bandwidth usage
Video Codec Standard AV1: Main profile @ L6 Main tier 50Mbps HEVC/H.265: Main/Main10 profile @ L6 High tier AVC/H.264: Baseline/Constrained Baseline/Main/High/High 10 profile @ L6 VP9 (Decoder only): Profile 0 and Profile 2 (12-bit not supported) Performance 4K120fps@500MHz with a dual-core 4K240fps@1GHz or 8K60fps@1GHz with a dual-core Max resolution: 8192 x 8192 Min resolution: 256 x 128 Bit depth: 8-/10-bit depth Features Frame buffer compression (FBC) Multi-instances 3rd Party I/F Bit depth and YUV format conversion of the source picture Encoder Features I/P/B picture coding Picture/Block level of rate control ROI coding Background coding Interface AMBA3 32-bit APB I/F for host I/F AMBA3 128-bit AXI for data transfer (Optional AXI can be used to alleviate bandwidth usage.)
Video Codec Standard HEVC: Main/Main Still Picture profile @ L5.1 High tier AVC: Baseline/Constrained Baseline/Main/High profiles @ L5.2 Performance 4K60fps@500MHz Max resolution: 8192 x 4096 Min resolution: 256 x 128 Bit depth: 8-/10-bit depth Features Multi-instances Frame-buffer compression (CFrame) In-loop filter Rotation & Mirroring Bit depth & chroma sample format conversion Lossless coding Background coding MapConverter 3DNR, etc. Interface 32-bit AMBA3 APB bus 128-bit AMBA3 AXI buses Primary AXI interface and an optional secondary AXI interface
Supported standards for Decoder ISO/IEC23008-2 HEVC/H.265, ITU-T Rec. H.265 Main/Main10 Profile L5.1 AVC/H.264 BP/CBP/MP/HP/HP10 Profile @ L5.2 AVS2 Main/Main10 Profile @L8.0.60 Main performance 4K(3840x2160) 60fps @ 450MHz Max. resolution: 8192x4096 Features Frame buffer compression (CFrame) Embedded Post-processing (w/Down-scaler) Low delay Low power consumption Latency tolerance Interface AMBA 32-bit APB interface for Host CPU AMBA 128-bit AXI interface for the external memory
Video Codec Standard HEVC: Main/Main Still Picture profile @ L5.1 High tier AVC: Baseline/Constrained Baseline/Main/High profiles @ L5.2 Performance 4K60fps@500MHz Max resolution: 8192 x 4096 Min resolution: 256 x 128 Bit depth: 8-bit Features Multi-instances Frame-buffer compression (CFrame) In-loop filter Rotation & Mirroring Bit depth & chroma sample format conversion Lossless coding Background coding Down-scaler (On-the-fly mode) MapConverter 3DNR, etc. Interface 32-bit AMBA3 APB bus 128-bit AMBA3 AXI buses Primary AXI interface and an optional secondary AXI interface
Brief specification HEVC/H.265 Main/Main10 Profile @L5.1 AV1 Main Profile @ L5.1 VP9 Profile 0/ Profile 2 @L5.1 AVC/H.264 BP/CBP/MP/HP/HP10 Profile @ L5.2 AVS2 Main/Main10 Profile @L8.0.60 Main performance 4K(3840x2160) 60fps @ 450MHz Max. resolution: 8192x4096 System I/F A 32-bit APB bus and 128-bit AMBA3 AXI buses (w/additional Secondary AXI) Burst Write Back (BWB) Features Frame buffer compression (CFrame) Embedded Post-processing (w/Down-scaler) Low delay Low power consumption Latency tolerance
Video Codec Standard AV1: Main profile @ L6 High tier HEVC/H.265: Main/Main10 profile @ L6 High tier AVC/H.264: Baseline/Constrained Baseline/Main/High/High 10 profile @ L6 Performance 4K120fps@500MHz with a dual-core 4K240fps@1GHz or 8K60fps@1GHz with a dual-core Max resolution: 8192 x 8192 Min resolution: 256 x 128 Bit depth: 8-/10-bit depth Features Frame buffer compression (FBC) Multi-instances 3rd Party I/F Bit depth and YUV format conversion of the source picture Encoder Features I/P/B picture coding Picture/Block level of rate control ROI coding Background coding Interface AMBA3 32-bit APB I/F for host I/F AMBA3 128-bit AXI for data transfer (Optional AXI can be used to alleviate bandwidth usage.)
The UWB Impulse Radar Toolkit is an advanced system designed to facilitate precise detection and localization of objects through ultrawideband radar technology. This toolkit offers invaluable capabilities for applications in security, defense, and industrial monitoring. The ultrawideband technology enhances penetration and resolution, allowing for effective operation in cluttered and complex environments. Users benefit from its robust data acquisition and processing ability, which guarantees accurate object tracking and spatial awareness in critical scenarios.
Video Codec Standard HEVC: Main/Main Still Picture profile @ L5.1 High tier AVC: Baseline/Constrained Baseline/Main/High profiles @ L5.2 Performance 4K60fps@500MHz Max resolution: 8192 x 4096 Min resolution: 256 x 128 Bit depth: 8-bit Features Multi-instances Frame-buffer compression (CFrame) In-loop filter Rotation & Mirroring Bit depth & chroma sample format conversion Lossless coding Background coding 3DNR, etc. Interface 32-bit AMBA3 APB bus 128-bit AMBA3 AXI buses Primary AXI interface and an optional secondary AXI interface
Video Codec Standard AV1: Main Profile @ L5.1 Performance 4K60fps@500MHz Max resolution: 8192 x 8192 Min resolution: 256 x 128 Bit depth: 8-/10-bit depth Features Frame buffer compression (FBC) Multi-instances 3rd Party I/F Bit-depth and YUV format conversion of the source picture Encoder Features I/P/B picture coding Picture/Block level of rate control ROI coding Background coding Interface AMBA3 32-bit APB I/F for host I/F AMBA3 128-bit AXI for data transfer * Optional AXI can be used to alleviate bandwidth usage
HEVC/H.265 Main/Main10 Profile @L5.1 AVC/H.264 BP/CBP/MP/HP/HP10 Profile @ L5.2 VP9 Profile 0/Profile 2 (HBD) AVS2 Main10 Profile @L8.0.60 Capable of decoding up to 4Kp60 (8192x4096) A 32-bit APB bus and 128-bit AMBA3 AXI buses (w/ additional secondary AXI) Burst Write Back Map converter Low delay Low power consumption Configurable IP Latency tolerance Programmability Multi-instances Frame buffer compression (CFrame) Downscaler (on-the-fly mode)
Video Codec Standard HEVC/H.265: Main/Main 10 profile @ L6 High tier AVC/H.264: Baseline/Constrained Baseline/Main/High/High 10 profile @ L6 Performance 4K120fps@500MHz or 8K30fps@500MHz with a dual-core 4K240fps@1GHz or 8K60fps@1GHz with a dual-core Max resolution: 8192 x 8192 Min resolution: 256 x 128 Bit depth: 8-/10-bit depth Features Frame buffer compression (FBC) Multi-instances 3rd Party I/F Bit-depth and YUV format conversion of the source picture Encoder Features I/P/B picture coding Picture/Block level of rate control ROI coding Background coding Interface AMBA3 32-bit APB I/F for host I/F AMBA3 128-bit AXI for data transfer (optional AXI can be used to alleviate bandwidth usage.)
The Automated Railway Crossing Surveillance System (PAKS) is developed to enhance safety at railway intersections. Using sophisticated monitoring technology, PAKS provides real-time surveillance and alerts for potential hazards at crossings. This intelligent system reduces the risk of accidents by ensuring vehicle and pedestrian safety through dynamic monitoring and instant feedback, backed by high-precision data analysis. The system's capability to operate in various environmental conditions ensures reliable performance and bolsters infrastructure safety across rail networks.
Decoding/Encoding Tools Support Extended Sequential ISO/IEC 10918-1 JPEG compliance Support one or three color components Three components in a scan (interleaved only) 8-bit and 12-bit samples for each component Support 4:2:0, 4:2:2, 4:4:0, 4:4:4 and 4:0:0 color formats Max. six 8x8 blocks in one MCU Support NV12/NV16/NV24 (CbCr Interleaved), NV21/NV61/NV42 (CrCb Interleaved) Support from 16 x 16 to 32K x 32K (32,768 x 32,768) image size Packed mode is supported 12-bit PPM format is supported Value-added Features Partial mode for encoding and decoding On-the-fly rotator/mirror ROI(Region of Interest) for decoding On-the-fly downsampler for decoding Color format converting for decoding Performance Decode up to 290M pix/s for 4:2:0 color format Encode up to 290M pix/s for 4:2:0 color format Operating clock frequency: 200MHz Ease of integration AMBA 32-bit APB (w/ PREADY) interface for communication with a host processor AMBA 64-bit AXI interface for the external memory
H.264, MVC, VP8, MPEG-1/2/4, VC-1, AVS, AVS+, H.263, Sorenson Decoding and encoding support at 1080p 60fps Supported standards for Decoder ISO/IEC 14496-10 AVC/H.264 BP/MP/HP@L4.2 ISO/IEC 14496-10/5 MVC Stereo High Profile@L4.1 ISO/IEC 14496-2 MPEG-4 SP,ASP@L6 SMPTE 421M-2006 VC-1 SP/MP/AP@L3 ISO/IEC 13818-2 MPEG-2 MP@HL ITU-T H.263(Annex I,J,K,T) AVS Jizhun @L6.2 AVS+ Guangdian @L6.2 On2 VP8 Sorenson Spark Theora Supported standards for Encoder ISO/IEC 14496-10 AVC/H.264 BP/MP/HP@L4.2 ISO/IEC 14496-10/5 MVC Stereo High Profile@L4.1 ISO/IEC 14496-2 MPEG-4 SP@L6 ITU-T H.263(Annex J,K,T) Supported Max. Resolution Supports up to 2048x2048 resolution Performance Single-stream H.264 HD(1920x1080p) 30fps decoding at <133MHz core clock H.264 HD(1920x1080p) 60fps decoding at <266MHz core clock H.264 HD(1920x1080p) 30fps encoding at <133MHz core clock H.264 HD(1920x1080p) 60fps encoding at <266MHz core clock Multi-stream Dual H.264 HD(1920x1080p) 30fps decoding at <266MHz core clock Dual H.264 HD(1920x1080p) 30fps encoding at <266MHz core clock 6SD/D1(NTSC&PAL) 30fps decoding at <133MHz core clock Full HD(1080p) encoding and decoding at <266MHz core clock Encoding Tools Selective [+/-64,+/-48] Quarter-pel and half-pel accuracy motion estimation using a full- search algorithm Flexible bit-rate control CBR VBR Fixed QP CABAC/CAVLC for AVC/H.264 Built-in pre- rotation/mirroring function 90xn degree rotation Vertical/horizontal mirroring Decoding Tools CABAC/CAVLC for AVC/H.264 MPEG-4 AC/DC prediction AVC/H.264 intra-prediction In-loop deblocking filter for H.264, H.263, and AVS Overlapped smoothing filter for VC-1 Built-in post-processing function 90xn degree rotation Vertical/horizontal mirroring De-ringing De-blocking filter for MPEG-2/4 Interface AMBA 32-bit APB interface for Host CPU AMBA 64-bit AXI interface for the external memory
H.264, MVC, VP8, MPEG-1/2/4, VC-1, AVS, AVS+, H.263, and Sorenson decoder HW IP for 2Kp60, 4:2:0 Standards AVC/H.264 BP/CBP/MP/HP L.4.1 Max: 1920x1088; Min: 16x16 MVC SHP L.4.1 Max: 1920x1088; Min: 16x16 MPEG-4 SP/ASP L.5 Max: 1920x1088; Min: 16x16 H.263 Profile 3 Max: 1920x1088; Min: 16x16 VC-1 SP/MP/AP L.3 Max: 1920x1088 or 2048x1024 Min: 16x16 MPEG-1/2 MP L.high Max: 1920x1088; Min: 16x16 Sorenson Spark Max: 1920x1088; Min: 16x16 VP8 WebM/WebP Max: 1920x1088; Min: 16x16 Theora Max: 1920x1088; Min: 16x16 AVS Jizhun/Guangdian L6.2 Max: 1920x1088; Min: 16x16 Features Frame buffer compression (CFrame) Low delay decoding Configurable IP Programmability Low power consumption Frame-based processing Multi-instances Latency tolerance Burst Write Back Down-scaler (on-the-fly mode) Map converter MPEG-2/4 De-ringing Built-in de-blocking filter A 32-bit AMBA3 APB bus and 64-bit AMBA3 AXI buses (w/additional Secondary AXI buses)
FlexGen represents the pinnacle of smart NoC IP design, crafted with an advanced AI-driven framework that automates topology generation, optimizing SoC design processes. By harnessing machine learning, FlexGen drastically enhances productivity, providing a tenfold increase in NoC design efficiency over traditional methods. The IP significantly reduces latency and minimizes power consumption through intelligent wire length reduction. FlexGen’s applicability spans across the automotive, data center, and industrial electronics sectors, cementing its role in accelerating the time-to-market for complex systems-on-chip. Its sophisticated architecture empowers designers with expert-level outcomes while cutting down manual intervention, allowing comprehensive exploration of design alternatives within shorter timelines. Embedded with efficient routing algorithms, FlexGen curtails congestion, fostering improved silicon area during physical design phases. This IP not only excels in adaptive design by offering up to 30% reduction in wire lengths, but also integrates systematically with other IPs for coherent and non-coherent procedures. Designers benefit from enhanced transport of data within SoCs, making FlexGen a cornerstone for ventures aiming to amalgamate performance with efficiency.
The FFT / IFFT Core provided by Creonic is designed for efficient computation of Fast Fourier Transform and Inverse Fast Fourier Transform algorithms. These cores are integral to modern communication systems as they enable the transformation of signals between time and frequency domains efficiently, a crucial operation in many digital signal processing applications. Designed with adaptability in mind, Creonic's FFT / IFFT cores are capable of high-speed data processing, which is essential for applications like OFDM systems and signal analysis. This makes them particularly suitable for wireless communications, satellite, and microscopy applications where transformation efficiency and rapid processing are critical. Creonic ensures that these cores are highly configurable, supporting multiple FFT sizes which can be tailored to meet specific application demands. Additionally, these cores can be easily integrated with other communication components, enabling seamless operation across various platforms, including both FPGAs and ASICs. This capability ensures that the FFT / IFFT Cores not only meet performance requirements but also significantly contribute to system flexibility.
Join the world's most advanced semiconductor IP marketplace!
It's free, and you'll get all the tools you need to discover IP, meet vendors and manage your IP workflow!
Join the world's most advanced AI-powered semiconductor IP marketplace!
It's free, and you'll get all the tools you need to advertise and discover semiconductor IP, keep up-to-date with the latest semiconductor news and more!
Plus we'll send you our free weekly report on the semiconductor industry and the latest IP launches!