Abstract: The present disclosure provides SL and SL derivatives comprising a polar substituent adjacent to the lactone ring. Additionally, the present disclosure provides methods of using the SL and SL derivatives to inhibit the growth of leukemic cancer cells.

Abstract: The present invention provides dehydroleucodine derivatives. In particular, the present invention provides amine derivatives of dehydroleucodine and methods of using dehydroleucodine and the amine derivatives of dehydroleucodine to inhibit the growth of cancer cells.

Abstract: The present disclosure provides SL and SL derivatives comprising a polar substituent adjacent to the lactone ring. Additionally, the present disclosure provides methods of using the SL and SL derivatives to inhibit the growth of leukemic cancer cells.

Abstract: A method for treating leukemia is disclosed. The method comprises administering to a subject with leukemia an effective amount of a pharmaceutical composition comprising a naked iron oxide nanoparticle, wherein the composition is not loaded with an active agent. Also disclosed is a method for treating cancer. The method comprises administering an effective amount of a pharmaceutical composition comprising a metal oxide nanoparticle comprising a polymeric coating over a metal oxide core, wherein the nanoparticle is loaded with a reactive oxygen species (ROS)-inducing agent.

Abstract: The present disclosure provides SL and SL derivatives comprising a polar substituent adjacent to the lactone ring. Additionally, the present disclosure provides methods of using the SL and SL derivatives to inhibit the growth of leukemic cancer cells.

Abstract: The present invention provides dehydroleucodine derivatives. In particular, the present invention provides amine derivatives of dehydroleucodine and methods of using dehydroleucodine and the amine derivatives of dehydroleucodine to inhibit the growth of cancer cells.

Abstract: The present disclosure provides SL and SL derivatives comprising a polar substituent adjacent to the lactone ring. Additionally, the present disclosure provides methods of using the SL and SL derivatives to inhibit the growth of leukemic cancer cells.

Abstract: A method for treating leukemia is disclosed. The method comprises administering to a subject with leukemia an effective amount of a pharmaceutical composition comprising a naked iron oxide nanoparticle, wherein the composition is not loaded with an active agent. Also disclosed is a method for treating cancer. The method comprises administering an effective amount of a pharmaceutical composition comprising a metal oxide nanoparticle comprising a polymeric coating over a metal oxide core, wherein the nanoparticle is loaded with a reactive oxygen species (ROS)-inducing agent.

Abstract: The disclosure provides evidence that the abundance of this particular “oncogenic HSP90” species, which is not dictated by HSP90 expression alone, predicts for sensitivity to HSP90 inhibition therapy, and thus is a biomarker for HSP90 therapy. The disclosure also provides evidence that identifying and measuring the abundance of this oncogenic HSP90 species in tumors predicts of response to HSP90 therapy. “Oncogenic HSP90” is defined herein as the HSP90 fraction that represents a cell stress specific form of chaperone complex, that is expanded and constitutively maintained in the tumor cell context, and that may execute functions necessary to maintain the malignant phenotype. Such roles are not only to regulate the folding of overexpressed (i.e. HER2), mutated (i.e. mB-Raf) or chimeric proteins (i.e. Bcr-Abl), but also to facilitate scaffolding and complex formation of molecules involved in aberrantly activated signaling complexes (i.e. STATS, BCL6).

Abstract: The present invention provides dehydroleucodine derivatives. In particular, the present invention provides amine derivatives of dehydroleucodine and methods of using dehydroleucodine and the amine derivatives of dehydroleucodine to inhibit the growth of cancer cells.

Abstract: The disclosure provides evidence that the abundance of this particular “oncogenic HSP90” species, which is not dictated by HSP90 expression alone, predicts for sensitivity to HSP90 inhibition therapy, and thus is a biomarker for HSP90 therapy. The disclosure also provides evidence that identifying and measuring the abundance of this oncogenic HSP90 species in tumors predicts of response to HSP90 therapy. “Oncogenic HSP90” is defined herein as the HSP90 fraction that represents a cell stress specific form of chaperone complex, that is expanded and constitutively maintained in the tumor cell context, and that may execute functions necessary to maintain the malignant phenotype. Such roles are not only to regulate the folding of overexpressed (i.e. HER2), mutated (i.e. mB-Raf) or chimeric proteins (i.e. Bcr-Abl), but also to facilitate scaffolding and complex formation of molecules involved in aberrantly activated signaling complexes (i.e. STATS, BCL6).