Multiple Aneurysms AnaTomy CHallenge 2018 (MATCH): Phase I: Segmentation

PurposeAdvanced morphology analysis and image-based hemodynamic simulations are increasingly used to assess the rupture risk of intracranial aneurysms (IAs). However, the accuracy of those results strongly depends on the quality of the vessel wall segmentation.MethodsTo evaluate state-of-the-art segmentation approaches, the Multiple Aneurysms AnaTomy CHallenge (MATCH) was announced. Participants carried out segmentation in three anonymized 3D DSA datasets (left and right anterior, posterior circulation) of a patient harboring five IAs. Qualitative and quantitative inter-group comparisons were carried out with respect to aneurysm volumes and ostia. Further, over- and undersegmentation were evaluated based on highly resolved 2D images. Finally, clinically relevant morphological parameters were calculated.ResultsBased on the contributions of 26 participating groups, the findings reveal that no consensus regarding segmentation software or underlying algorithms exists. Qualitative similarity of the aneurysm representations was obtained. However, inter-group differences occurred regarding the luminal surface quality, number of vessel branches considered, aneurysm volumes (up to 20%) and ostium surface areas (up to 30%). Further, a systematic oversegmentation of the 3D surfaces was observed with a difference of approximately 10% to the highly resolved 2D reference image. Particularly, the neck of the ruptured aneurysm was overrepresented by all groups except for one. Finally, morphology parameters (e.g., undulation and non-sphericity) varied up to 25%.ConclusionsMATCH provides an overview of segmentation methodologies for IAs and highlights the variability of surface reconstruction. Further, the study emphasizes the need for careful processing of initial segmentation results for a realistic assessment of clinically relevant morphological parameters.

Thomas Wagner | Yi Qian | David A Steinman | Vitor M Pereira | Matthew Howard | Christof Karmonik | Philipp Berg | Samuel Voß | Gábor Janiga | Oliver Beuing | Sylvia Saalfeld | Alexander Brawanski | Hui Meng | Georg Hille | Leonid Goubergrits | Hiroyuki Takao | Andreas Spuler | Muhammad Owais Khan | Nikhil Paliwal | Hamidreza Rajabzadeh-Oghaz | György Paál | Dan Dragomir-Daescu | Masaaki Shojima | Kristian Valen-Sendstad | Aslak W Bergersen | Jan Bruening | Salvatore Cito | Senol Piskin | Hernán G Morales | Alison L Marsden | Kuniyasu Niizuma | Shin-Ichiro Sugiyama | Soichiro Fujimura | Aslak W. Bergersen | Simona Hodis | Tin Lok Chiu | Anderson Chun On Tsang | Ender A Finol | Nicole M Cancelliere | Kerstin Kellermann | Bong Jae Chung | Juan R Cebral | Gabriele Copelli | Jordi Pallarès | Benjamin Csippa | Saba Elias | Mariya Pravdivtseva | Santhosh Seshadhri | Sergey Sindeev | Sergey Frolov | Yu-An Wu | Kent D Carlson | A. Marsden | G. Janiga | V. Pereira | L. Goubergrits | A. Spuler | C. Karmonik | D. Steinman | K. Carlson | E. Finol | H. Meng | J. Cebral | D. Dragomir-Daescu | M. O. Khan | A. Brawanski | J. Pallarés | S. Frolov | Y. Qian | P. Berg | S. Cito | S. Hodis | K. Valen-Sendstad | Gabriele Copelli | M. Shojima | T. L. Chiu | S. Saalfeld | S. Voss | O. Beuing | H. Morales | N. Paliwal | K. Niizuma | J. Bruening | Saba N. Elias | G. Paál | S. Sugiyama | B. Chung | S. Piskin | A. Tsang | H. Rajabzadeh-Oghaz | H. Takao | S. Fujimura | Georg Hille | S. Sindeev | N. Cancelliere | M. Pravdivtseva | S. Seshadhri | B. Csippa | Kerstin Kellermann | M. Howard | T. Wagner | Yu-An Wu | S. Voß | Shin-ichiro Sugiyama | Hamidreza Rajabzadeh-Oghaz | Kuniyasu Niizuma

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