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2341405Designing Your Own PCIe JPEG Encoder on FPGAhttps://www.gandhi.com.mx/designing-your-own-pcie-jpeg-encoder-on-fpga-1230004471509/phttps://gandhi.vtexassets.com/arquivos/ids/2066440/176b1fbf-9243-438c-9351-5330d0a93432.jpg?v=638383460773300000https://gandhi.vtexassets.com/arquivos/ids/2063818/176b1fbf-9243-438c-9351-5330d0a93432.jpg?v=63838345730637000016411641MXNToruk SkywalkerInStock/Ebooks/2277864Designing Your Own PCIe JPEG Encoder on FPGA16411641https://www.gandhi.com.mx/designing-your-own-pcie-jpeg-encoder-on-fpga-1230004471509/phttps://gandhi.vtexassets.com/arquivos/ids/2066440/176b1fbf-9243-438c-9351-5330d0a93432.jpg?v=638383460773300000https://gandhi.vtexassets.com/arquivos/ids/2063818/176b1fbf-9243-438c-9351-5330d0a93432.jpg?v=638383457306370000InStockMXN99999DIEbook20211230004471509_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1230004471509_<p>introduction video clip : https://www.youtube.com/watch?v=30IyLIe_UO0</p><p><strong>Target audience of this 110-pages book(55 in dual page mode) is for who wants to efficiently:</strong></p><ul><li><strong>Learn practical FPGA design:</strong> A complete design from design architecture, testbench for simulation, coding, then Synthesis & Implementation to Timing Closure</li><li><strong>Write a Linux C++ program</strong> to test this PCIe FPGA JPEG encoder (with DMA and device driver)</li></ul><p><strong>At the FPGA side, you will use and design</strong></p><ul><li><strong>JPEG Encoder</strong>: this Open-source hardware IP will compress the raw image pixels into compressed JPEG image (think about this: Originally this was done by a software program to do this)</li><li><strong>PCIe Endpoint</strong> (x1/x4/x8): the interface for data transmission between FPGA and X86 Host</li><li><strong>DMA Engine</strong>: the Xilinx DMA IP for PCIe and User Logic (JPEG Encoder)</li><li><strong>DDRx Memory Controller</strong>: FPGA side memory for DMA/User Data</li><li><strong>Control Registers</strong>: for configuration and handshake signals with Linux C/C++ program</li><li><strong>AXI4 Memory Mapped (MM) and Stream IP</strong>: Xilinx IPs to convert data format and bridging all IPs and PCIe, Xilinx changed to use AXI4 interface for all IPs and Tools</li><li><strong>Custom AXI4-MM or AXI4-Stream modules Bridge</strong>: These custom modules are designed to link all of above, for example, the Open-source JPEG Encoder uses OPB Bus interface.</li></ul><p><strong>At the Linux X86 Host side, you will build a Linux C++ program which implements key functions</strong></p><ul><li><strong>Initialization</strong>: Initialization Linux C++ program and FPGA PCIe Encoder</li><li><strong>Raw image loader</strong>: load image BMP file(s) from Linux Host disk and extract raw image pixels by Linux File I/O, Memory management and other system calls. Then write the raw images pixels to FPGA DDRx Memory</li><li><strong>H/W JPEG Encoder Configuration:</strong> Configure the FPGA JPEG Encoder by software APIs (Linux standard Memory Writes and Reads to memory mapping registers of this the FPGA JPEG Encoder, but the writes/reads value and sequence must match the definition in FPGA modules. Let’s discus this more later)</li><li>Some important information must be set by C++ software to FPGA JPEG Encoder ,like the size of Images, chrominance and Luminance coeffficient tables, etc.</li><li><strong>FPGA Getting Raw image</strong>: Raw image transferred to FPGA PCIe JPEG encoder by DMA (with help of device driver)</li><li><strong>Polling "JPEG done" of FPGA PCIe JPEG encoder</strong></li></ul><p>once the compression is done, compressed JPEG bytes will be transferred to FPGA DDRx Memory by JPEG Encoder, then C++ program could read JPEG file to Host memory through DMA from FPGA PCIe DDRx Memory.</p><p><strong>Table of Contents</strong></p><p>CHAPTER 1 PREPARATION</p><p>1.1 Design Scope and What You Will Learn and Get</p><p>1.2 Facility, FPGA/Software IP and Prerequisite</p><p>1.3 Vivado Installation & Licensing</p><p>Chapter Summary/Key Takeaways</p><p>CHAPTER 2 FPGA DESIGN ARCHITECTURE</p><p>2.1 FPGA JPEG Encoder Design Top Schematic</p><p>2.2 JPEG Encoder Subsystem</p><p>2.3 Running Behavioral Simulation of JPEG Encoder IP</p><p>2.4 Understanding Testbench & Debugging JPEG File Format Error</p><p>Chapter Summary/Key Takeaways</p><p>CHAPTER 3 PCIE DMA JPEG ENCODER AND CUSTOM MODULES INTEGRATION</p><p>3.1 Custom AXI4 Interface JPEG Encoder and Testbench</p><p>3.2 Behavioral Simulation of AXI4 JPEG Encoder Subsystem</p><p>3.3 Custom RTL Module -Finite State Machine for JPEG DMA</p><p>3.4 Integrating PCIe JPEG Encoder by IP Integrator</p><p>3.5 Implementing PCIe JPEG Encoder and FPGA Configuration</p><p>Chapter Summary/Key Takeaways</p><p>CHAP 4 LINUX C/C++ PROGRAM FOR FPGA JPEG ENCODER</p><p>4.1 Test Program Subroutines and Structure</p><p>4.2 Compiling Test C/C++ Program and Installing XDMA Linux Driver</p><p>4.3 C++ Software Test with PCIe FPGA JPEG Encoder</p><p>Chapter Summary/Key Takeaways</p><p>CHAPTER 5 FURTHER DISCUSSION</p><p>5.1 Improving JPEG Compression Frame Rate</p><p>5.2 C++ Software Test with PCIe FPGA 250Mhz JPEG Encoder</p><p>5.3 Migrating to Different Hardware Boards</p>1230004471509_Toruk Skywalkerlibro_electonico_d30e94b1-f6aa-307a-af7a-36c282e6bbd5_1230004471509;1230004471509_1230004471509Toruk SkywalkerInglésMéxicohttps://getbook.kobo.com/koboid-prod-public/64441b9b-da44-4577-b91d-1d3e8ad81e36-epub-42d0c28c-c520-4e3f-aec4-23b42d887f44.epub2021-01-16T00:00:00+00:00Toruk Skywalker