Abstract: Provided herein are RNA aptamers targeting CD5L. Further provided herein are methods of use thereof for the treatment of a disease or disorder, such as cancer.

Abstract: Provided herein are DNA aptamers targeting AXL receptor kinase. The DNA aptamers may comprise a thiophosphate backbone and be chemically modified. Further provided herein are methods of use thereof for the treatment of a disease or disorder, such as cancer.

Abstract: The present invention provides that exosomes from ovarian cancer patients contain nuclear proteins and genomic DNA at an increased proportion. As such, detecting nuclear-derived exosomes provides a method of early detection of ovarian cancer. Furthermore, the level of nuclear-derived exosomes can be monitored over time to assess responsiveness to genotoxic therapy.

Abstract: The present invention discloses c-MYC-siRNA formulation as a potential therapeutic target for cisplatin-resistant ovarian cancer. It is disclosed targeting c-MYC with small interfering RNA (siRNA) in the cisplatin-resistant ovarian cancer cell line inducing a significant cell growth arrest and inhibition of cell proliferation. Apoptosis and arrest of cell cycle progression were also observed after c-MYC-siRNA-based silencing of c-MYC. Furthermore, delivering nanoliposomal c-MYC-siRNA, decreased tumor weight and number of tumor nodules compared with a liposomal-negative control siRNA.

Abstract: Isolated or recombinant anti-EGFL6 monoclonal antibodies are provided. In some cases, antibodies of the embodiments can be used for the detection, diagnosis and/or therapeutic treatment of human diseases, such as cancer.

Abstract: Isolated or recombinant anti-EGFL6 monoclonal antibodies are provided. In some cases, antibodies of the embodiments can be used for the detection, diagnosis and/or therapeutic treatment of human diseases, such as cancer.

Abstract: Disclosed are nanoparticles for the delivery of a therapeutic agent or a diagnostic agent to a subject that include a chitosan and a polyphosphate, wherein the chitosan nanoparticles are coated with polylactic acid. Methods of delivering a therapeutic agent or a diagnostic agent to a subject for the treatment or prevention of a disease are also disclosed. For example, the treatment of ovarian cancer in a subject by inhibiting the expression of ZNF034 is disclosed.

Abstract: The present invention discloses c-MYC-siRNA formulation as a potential therapeutic target for cisplatin-resistant ovarian cancer. It is disclosed targeting c-MYC with small interfering RNA (siRNA) in the cisplatin-resistant ovarian cancer cell line inducing a significant cell growth arrest and inhibition of cell proliferation. Apoptosis and arrest of cell cycle progression were also observed after c-MYC-siRNA-based silencing of c-MYC. Furthermore, delivering nanoliposomal c-MYC-siRNA, decreased tumor weight and number of tumor nodules compared with a liposomal-negative control siRNA.

Abstract: Provided herein are lipid-based nanoparticles (e.g., exosomes) having (a) a core comprising a cationic polymer and a therapeutic agent (e.g., a therapeutic protein, an antibody, an inhibitory RNA, and/or a small molecule drug) and (b) a lipid coating comprising an exosomes-derived membrane. Furthermore, the present invention provides methods of producing such nanoparticles as well as methods for use of such lipid-based nanoparticles in therapy.

Abstract: The present invention discloses c-MYC-siRNA formulation as a potential therapeutic target for cisplatin-resistant ovarian cancer. It is disclosed targeting c-MYC with small interfering RNA (siRNA) in the cisplatin-resistant ovarian cancer cell line inducing a significant cell growth arrest and inhibition of cell proliferation. Apoptosis and arrest of cell cycle progression were also observed after c-MYC-siRNA-based silencing of c-MYC. Furthermore, delivering nanoliposomal c-MYC-siRNA, decreased tumor weight and number of tumor nodules compared with a liposomal-negative control siRNA.

Abstract: Isolated or recombinant anti-EGFL6 monoclonal antibodies are provided. In some cases, antibodies of the embodiments can be used for the detection, diagnosis and/or therapeutic treatment of human diseases, such as cancer.

Abstract: The present invention discloses c-MYC-siRNA formulation as a potential therapeutic target for cisplatin-resistant ovarian cancer. It is disclosed targeting c-MYC with small interfering RNA (siRNA) in the cisplatin-resistant ovarian cancer cell line inducing a significant cell growth arrest and inhibition of cell proliferation. Apoptosis and arrest of cell cycle progression were also observed after c-MYC-siRNA-based silencing of c-MYC. Furthermore, delivering nanoliposomal c-MYC-siRNA, decreased tumor weight and number of tumor nodules compared with a liposomal-negative control siRNA.

Abstract: Disclosed are nanoparticles for the delivery of a therapeutic agent or a diagnostic agent to a subject that include a chitosan and a polyphosphate, wherein the chitosan nanoparticles are coated with polylactic acid. Methods of delivering a therapeutic agent or a diagnostic agent to a subject for the treatment or prevention of a disease are also disclosed. For example, the treatment of ovarian cancer in a subject by inhibiting the expression of ZNF034 is disclosed.

Abstract: The present invention discloses c-MYC-siRNA formulation as a potential therapeutic target for cisplatin-resistant ovarian cancer. It is disclosed targeting c-MYC with small interfering RNA (siRNA) in the cisplatin-resistant ovarian cancer cell line inducing a significant cell growth arrest and inhibition of cell proliferation. Apoptosis and arrest of cell cycle progression were also observed after c-MYC-siRNA-based silencing of c-MYC. Furthermore, delivering nanoliposomal c-MYC-siRNA, decreased tumor weight and number of tumor nodules compared with a liposomal-negative control siRNA.

Abstract: Disclosed are nanoparticles for the delivery of a therapeutic agent or a diagnostic agent to a subject that include a chitosan and a polyphosphate, wherein the weight ratio of the chitosan to the polyphosphate is about 1.0 or greater and the weight ratio of the polyphosphate to the therapeutic agent or diagnostic agent is about 15.0 or less. Also disclosed are nanoparticles that include a chitosan and an inhibitor of enhancer of Zeste homologue 2 (EZH2). Methods of delivering a therapeutic agent or a diagnostic agent to a subject for the treatment or prevention of a disease and methods of predicting prognosis of ovarian cancer in a subject that involve determining the expression and/or function of EZH2 in the subject are also disclosed.

Abstract: The present invention relates to the fields of molecular biology and drug delivery. In certain embodiments, the present invention provides methods for the delivery of a siNA (e.g., a siRNA) to a cell via a neutral (non-charged) liposome. These methods may be used to treat a disease, such as cancer.

Abstract: Disclosed are high density lipoprotein-nucleic acid particles, wherein the particles include (a) an apolipoprotein; (b) a nucleic acid component comprising a therapeutic nucleic acid segment; and (c) a polypeptide comprising a positively charged region, wherein the positively-charged region of the polypeptide associates with the nucleic acid component. Also disclosed are pharmaceutical compositions that include a) an apolipoprotein; (b) a nucleic acid component comprising a therapeutic nucleic acid segment; and (c) a polypeptide comprising a positively charged region. Methods that concern the particles and pharmaceutical compositions of the present invention are also set forth, as well as kits.

Abstract: Provided are methods for detecting a cancer, such as an ovarian cancer. In certain aspects, the methods involve detecting or measuring one or more volatile organic compounds (VOCs) from the breath of a subject. Apparatuses for the collection of VOCs are provided.

Abstract: This application describes a novel technology in drug discovery and drug-based imaging/detection: the wrapping technology. This technology is based on identified singularities in the structure of soluble proteins. In contrast with drug-design approaches based on standard structural considerations, the packing of a protein, or more precisely, its dehydron pattern, may be used as a selectivity filter to design small-molecule inhibitors. The wrapping technology described herein is a novel form of rational drug design for avoiding side effects in drug therapy and sharpening the inhibitory impact of drugs on the oncokinome.

Abstract: This application describes a novel technology in drug discovery and drug-based imaging/detection: the wrapping technology. This technology is based on identified singularities in the structure of soluble proteins. In contrast with drug-design approaches based on standard structural considerations, the packing of a protein, or more precisely, its dehydron pattern, may be used as a selectivity filter to design small-molecule inhibitors. The wrapping technology described herein is a novel form of rational drug design for avoiding side effects in drug therapy and sharpening the inhibitory impact of drugs on the oncokinome.