Skip to main content
. 2019 Jun 3;43:460–472. doi: 10.1016/j.ebiom.2019.04.054

Table 3.

Investigation of a voxel fate:

Probability of turnover of a normal brain tissue voxel at t1 to turn into ABT at t4:

ABT10 ABT20 ABT>20 n
NBTBBBD1 0·284⁎,⁎⁎⁎ (0·122–0·594) 0·196 (0·106–0·412) 0·212 (0·099–0·464) 70
NBTBBBD~1 0·089 (0·068–0·141) 0·063 (0·045–0·101) 0·069 (0·052–0·117) 70



Probability of persistence of an abnormal brain tissue voxel with BBBD to remain ABT at t4:
Total n
ABTBBBD1 0·697 (0·584–0·841)⁎⁎ 70
ABTBBBD2 0·721 (0·596–0·838)⁎⁎ 61
ABTBBBD3 0·740 (0·630–0·937)⁎⁎ 64



Probability of persistence of an abnormal brain tissue voxel without BBBD to remain ABT at t4:
Total n
ABTBBBD~1 0·244 (0·102–0·348) 70
ABTBBBD~2 0·252 (0·121–0·377) 61
ABTBBBD~3 0·242 (0·114–0·353) 64

Significant difference between probabilities of a normal brain tissue (NBT) voxel with blood brain barrier damage (BBBD) (NBTBBBD1) and without BBBD (NBTBBBD~1) to become an abnormal brain tissue (ABT4) voxel at t4 (p < 0·05, Wilcoxon sum-rank test).

⁎⁎Significant difference between probabilities of ABT voxel with BBBD (ABTBBBDj) and without BBBD (ABTBBBD~j) to remain an ABT4 voxel at t4 (where j = 1, …,3 denotes time interval t1-t3) (p < 0·05, Wilcoxon sum-rank test).

⁎⁎⁎Significant difference between different regions: ABT10, ABT20 and ABT>20 (p < 0·05, Kruskal-Wallis test).