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1 results from the phase II clinical benchmark ispinesib.
2 her as a single agent or in combination with Ispinesib.
3 to define the mechanism of KSP inhibition by ispinesib.
4 ligand ispinesib to generate the degrader F1-ispinesib.
5 mRNA as a target selectively degraded by F1-Ispinesib.
7 This series also binds in the presence of Ispinesib, a known anticancer KSP inhibitor in phase I/I
10 sin Eg5 against the potent second-generation ispinesib analogue SB743921 (1), a phase I/II clinical c
11 -metabolizing enzymes and hERG compared with ispinesib and SB-743921, which is important given the li
13 83 and MLN8237), Wee1 kinase (MK-1775), KSP (ispinesib), and tubulin (taxanes, vinca alkaloids), are
14 AT9283, GSK-690693, and gedatolisib, whereas ispinesib, AT7519, and KW-2478 were weaker substrates.
18 graphy to identify a new structure of an Eg5-ispinesib complex and have combined this with transient
21 though, achieving durable brain exposures of ispinesib is critical for adequate tumor cell engagement
23 Our results demonstrate that the delivery of ispinesib is restricted by P-gp and Bcrp efflux at BBB.
25 itor), AT9283, (Janus kinase 2/3 inhibitor), ispinesib (kinesin spindle protein inhibitor), gedatolis
27 he wild-type KSP motor domain as well as two ispinesib mutants (D130V and A133D) identified to confer
28 consistent with the physiological effect of ispinesib on cells, which is to prevent KSP-driven mitot
31 nstrate direct binding of these compounds to Ispinesib-resistant mutants (D130V, A133D, and A133D + D
34 crp inhibitor-improves brain accumulation of ispinesib, resulting in remarkably reduced tumor growth
39 ATP-uncompetitive inhibitors, monastrol and ispinesib, we report here the results of thermal denatur
40 mber of small molecule inhibitors, including ispinesib, which is being used in clinical trials in pat