Design of an IP core for motion blur detection in fundus images using an FPGA-based accelerator

Rohit Jacob George, S. Charaan, R. Swathi, S. Rani
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Abstract

This paper focuses on applying an algorithm for real-time blur detection in fundus images via hardware acceleration. Blur in fundus images is caused due to many factors, but most of the time, with a reasonable degree of accuracy, they could be classified as motion blur. A motion blur could be modelled as an image convolved with a blur transfer function. Blur metrics are identified via techniques such as Haar DWT as it gives reasonable accuracy for most types of linear blur. First, a hardware architecture using Verilog HDL is created that computes the edge maps of images. This architecture is based on a novel algorithm that encompasses a series of Haar DWT Units. The simplicity and flexibility in this proposed architecture allow any kind of software or hardware platform to integrate the proposed model with very little to no modification, onto them. Subsequently, the IP core for the proposed architecture is developed, which can be further extended into an SoC, which can then be programmed onto a suitable FPGA system, which could then be uploaded with images that get classified as blurred and clear images. The on-chip processing system of the FPGA-SoC reads the image data and sends it to the Blur Detector IP via the DMA IP in the SoC. The whole process uses a double-buffered design in order to reduce IP stall time and increase efficiency.
基于fpga加速器的眼底图像运动模糊检测IP核设计
研究了一种基于硬件加速的眼底图像实时模糊检测算法。眼底图像的模糊是由多种因素造成的,但在大多数情况下,在合理的精度下,它们可以被归类为运动模糊。运动模糊可以建模为图像与模糊传递函数的卷积。模糊度量是通过Haar DWT等技术确定的,因为它为大多数类型的线性模糊提供了合理的准确性。首先,使用Verilog HDL创建了计算图像边缘映射的硬件架构。该体系结构基于一种包含一系列Haar DWT单元的新算法。该架构的简单性和灵活性允许任何类型的软件或硬件平台在很少修改或不修改的情况下集成所建议的模型。随后,为所提出的架构开发了IP核,可以进一步扩展到SoC,然后可以将其编程到合适的FPGA系统上,然后可以上传图像,分类为模糊和清晰图像。FPGA-SoC的片上处理系统读取图像数据,并通过SoC中的DMA IP将其发送到模糊检测器IP。整个过程采用双缓冲设计,以减少IP失速时间,提高效率。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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