Computational and Mathematical Methods in Medicine

Computational and Mathematical Methods in Medicine / 2013 / Article
Special Issue

Computational Methodology of Optical Molecular Imaging

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Editorial | Open Access

Volume 2013 |Article ID 432107 |

Chenghu Qin, Yujie Lu, Jimin Liang, Deming Kong, Huadan Xue, "Computational Methodology of Optical Molecular Imaging", Computational and Mathematical Methods in Medicine, vol. 2013, Article ID 432107, 1 page, 2013.

Computational Methodology of Optical Molecular Imaging

Received08 Sep 2013
Accepted08 Sep 2013
Published09 Oct 2013

Molecular imaging emerging in the early 21st century has been rapidly developed. Over more than 10 years, optical molecular imaging has become an important tool in preclinical research and has been translated into the clinical for clinical diagnosis and therapy. Computational methodology has shown its indispensable position in developing molecular probes, building imaging instruments, researching reconstruction algorithms, and studying signal and image processing. Relevant research not only adapts existing computational methods but also develops novel strategies to tackle with challenging problems in optical molecular imaging.

This special issue is devoted to the topic of computational algorithms and strategies in optical molecular imaging. Five exciting papers assembled in this special issue present a common theme, that is, improving the imaging and image processing performance in optical molecular imaging by using computational techniques. The papers address several problems in optical molecular imaging, including optical tomographic reconstruction for bioluminescence tomography and image processing such as image segmentation, 3D rendering, and cell morphological measurements. In detail, J. Yu et al. make use of a hybrid multilevel adaptive finite element reconstruction scheme and sparse regularization to acquire quantitative information of bioluminescent sources. The work of Q. Wu et al. is to take advantage of a high-order photon propagation model and Bregman optimization algorithm to improve bioluminescence tomography. The morphology information of living cells and 3D tissue images at the micrometer level can be obtained by using existing computational algorithms from the developed digital holographic microscopy and multichannel spectral imaging laser scanning confocal microscope in the research progress of Y. Wang et al. and Y. Zhang et al., respectively. J. Zheng et al. report that retinal vessels are also efficiently extracted with multiscale hessian-enhancement-based nonlocal mean filter.


We hope that this exciting special issue highlights some of the current efforts to use sophisticated computational methods to solve the challenges in optical molecular imaging. We believe that relevant progress can propel the development of efficiently solving relevant problems. We would like to thank all the anonymous reviewers for their time and efforts and the publishing office for making a timely production schedule.

Chenghu Qin
Yujie Lu
Jimin Liang
Deming Kong
Huadan Xue

Copyright © 2013 Chenghu Qin et al. This is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.

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