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Computational discovery of therapeutic candidates for preventing preterm birth
Brian L. Le, … , David K. Stevenson, Marina Sirota
Brian L. Le, … , David K. Stevenson, Marina Sirota
Published February 13, 2020
Citation Information: JCI Insight. 2020;5(3):e133761. https://doi.org/10.1172/jci.insight.133761.
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Research Article Reproductive biology Therapeutics

Computational discovery of therapeutic candidates for preventing preterm birth

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Abstract

Few therapeutic methods exist for preventing preterm birth (PTB), or delivery before completing 37 weeks of gestation. In the US, progesterone (P4) supplementation is the only FDA-approved drug for use in preventing recurrent spontaneous PTB. However, P4 has limited effectiveness, working in only approximately one-third of cases. Computational drug repositioning leverages data on existing drugs to discover novel therapeutic uses. We used a rank-based pattern-matching strategy to compare the differential gene expression signature for PTB to differential gene expression drug profiles in the Connectivity Map database and assigned a reversal score to each PTB-drug pair. Eighty-three drugs, including P4, had significantly reversed differential gene expression compared with that found for PTB. Many of these compounds have been evaluated in the context of pregnancy, with 13 belonging to pregnancy category A or B — indicating no known risk in human pregnancy. We focused our validation efforts on lansoprazole, a proton-pump inhibitor, which has a strong reversal score and a good safety profile. We tested lansoprazole in an animal inflammation model using LPS, which showed a significant increase in fetal viability compared with LPS treatment alone. These promising results demonstrate the effectiveness of the computational drug repositioning pipeline to identify compounds that could be effective in preventing PTB.

Authors

Brian L. Le, Sota Iwatani, Ronald J. Wong, David K. Stevenson, Marina Sirota

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Figure 3

Results from LPS-induced inflammation mouse model of fetal wastage.

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Results from LPS-induced inflammation mouse model of fetal wastage.
Colo...
Colored circles represent results from independent mouse pregnancies. Error bars represent mean ± SD. Comparisons were made using the Student’s 2-sided t test. (A) Comparisons between pregnancies receiving LPS-100 (n = 10), oil + LPS-100 (n = 6), DMSO + LPS-100 (n = 7), and saline (n = 7) showed a significantly reduced number of viable fetuses at E12.5 in the LPS-100 group compared with the saline group and no significant differences between the LPS-100 group and either of the vehicle groups (oil + LPS-100 and DMSO + LPS-100). (B) The LPS-100 group compared with the P4-positive control group (3xP4 + LPS-100) and the lansoprazole treatment group (3xlansoprazole + LPS-100). The P4-positive control group showed some effectiveness, while the lansoprazole treatment was significantly effective in increasing the number of viable fetuses compared with the LPS-100 group.

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