Gaussian-Radial Under-Sampling Based CSMRI Reconstruction using a Modified Interpolation Approach

Maria Murad, A. Jalil, Muhammad Bilal, Shahid Ikram, Ahmad Ali, Khizer Mehmeed, Baber Khan
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Abstract

Magnetic Resonance Imaging (MRI) is used to produce detailed images of body tissues and organs using strong magnets and radio waves, but with a very slow acquisition process. Compressed Sensing (CS) has efficiently accelerated the MRI acquisition process by employing different reconstruction strategies using a fraction of the Nyquist samples. This scan time can be further reduced using a new technique called interpolated compressed sensing (iCS) by exploiting the inter-slice correlation of multi-slice MRI. In this paper, a modified fast interpolated compressed sensing (Mod-FiCS) technique is proposed using the Gaussian-Radial under-sampling scheme. The Gaussian-Radial under-sampling approach adopted by Mod-FiCS has an edge that it neither shows any streaking artifacts like Radial nor blurred edges like Gaussian. The new interpolation approach used in Mod-FiCS technique uses three consecutive slices to estimate the missing samples. Six evaluation metrics are used to analyze the performance of the proposed technique such as structural similarity index measurement (SSIM), feature similarity index measurement (FSIM), mean square error (MSE), peak signal to noise ratio (PSNR), correlation (CORR), and sharpness index (SI), and compared with recent sampling and interpolation techniques. The simulation result shows that the proposed technique has improvement both quantitatively and qualitatively.
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基于改进插值方法的高斯径向欠采样CSMRI重构
磁共振成像(MRI)是利用强磁铁和无线电波产生身体组织和器官的详细图像,但采集过程非常缓慢。压缩感知(CS)通过使用一小部分奈奎斯特样本采用不同的重建策略,有效地加速了MRI采集过程。通过利用多层MRI的层间相关性,可以进一步缩短扫描时间,这种技术称为内插压缩感知(iCS)。本文提出了一种基于高斯-径向欠采样的改进快速插值压缩感知技术。modfics采用的高斯-径向欠采样方法具有既不显示任何条纹伪影(如径向)也不显示模糊边缘(如高斯)的优点。在Mod-FiCS技术中,新的插值方法使用三个连续的切片来估计缺失样本。采用结构相似指数测量(SSIM)、特征相似指数测量(FSIM)、均方误差(MSE)、峰值信噪比(PSNR)、相关性(CORR)和清晰度指数(SI)等6个评价指标对所提技术的性能进行了分析,并与最近的采样和插值技术进行了比较。仿真结果表明,该方法在定性和定量上都有很大提高。
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