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引用次数: 5
摘要
描述了使用可重构平台的最小资源的自定义视觉板的硬件/软件实现。在大多数情况下,要求苛刻的机器人视觉应用需要专用硬件才能可靠运行。设计的系统基于Cyclone IV Altera FPGA器件构成可重构硬件的主处理单元,并基于32位Microchip PIC32微控制器作为补充处理器。本研究的主要目标是使用定制设计的可重构硬件的最小资源来加速图像处理算法。微控制器执行外设控制任务,从FPGA设备中释放宝贵的资源。视频图像是用CMOS图像传感器捕获的。使用FIFO-to-USB模块提供与个人计算机的USB连接。通过在VHDL中实现定制设计的控制器,将帧抓取、图像滤波和USB通信等操作任务集成到系统中。图像处理功能使用全并行管道加速,该管道被解析描述。为了测试整个系统的运行情况,还开发了一个主机接口。根据资源使用情况对系统进行了评估,并讨论了所提出的体系结构所产生的优点。
Acceleration of Image Processing Algorithms Using Minimal Resources of Custom Reconfigurable Hardware
The hardware/software implementation of a custom vision board using minimal resources out of a reconfigurable platform is described. Demanding robotic vision applications in most cases require dedicated hardware for reliable operation. The designed system is based on a Cyclone IV Altera FPGA device that constitutes the main processing unit of the reconfigurable hardware and on a 32 -- bit Microchip PIC32 micro controller as a complementary processor. The main goal of this research is to accelerate image processing algorithms using only minimal resources of the custom designed reconfigurable hardware. The micro controller serves peripheral control tasks, relieving valuable resources from the FPGA device. Video images are captured using a CMOS image sensor. USB connectivity with a personal computer is provided using a FIFO-to-USB module. Operational tasks such as frame grabbing, image filtering and USB communication are integrated to the system by implementing custom-designed controllers in VHDL. Image processing functions are accelerated using a fully parallel pipeline which is described analytically. A host computer interface has also been developed in order to test the overall system in action. The system is evaluated in terms of resource usage and the advantages emanating from the proposed architecture are discussed.