University of Kentucky Research Foundation

The Ohio State University

Purdue Research Foundation

University of Cincinnati

Other

Ball State University

Oxford Nanopore Technologies Limited

Guo, Peixuan

Peixuan Guo

Hui Li

Dan Shu

Yi Shu

Farzin Haque

Emil Khisamutdinov

Daniel Jasinski

Carlo M Croce

Tae Jin Lee

Wei Luo

Shaoying Wang

Stephen M Hoeprich

Lakmal Nishantha Jayasinghe

Michael Robert Jordan

Chunlei Zhang

Daxiang Cui

Hongran Yin

Mario Vieweger

Zhouxiang Ji

Xin Li

Sijin Guo

Xijun Piao

Mehdi Rajabi

Xiaoting Zhang

Fengmei Pi

Disclosed herein are compositions and methods that involve inserting connector protein channels of bacteriophage DNA packaging motors into copolymeric membranes via liposome-polymer fusion, which can be used as nanopore sensors for biomedical applications such as high throughput protein sequencing or cancer diagnosis. For example, disclosed are compositions comprising a copolymeric membrane into which a connector protein channel of a bacteriophage packaging motor has been inserted.

Bacteriophage-derived nanopore sensors

Disclosed herein are high Tm RNA nanostructures that can be composed of one or more modules or motifs to build RNA nanostructures with or without layers. The RNA nanostructures can have a core domain and three or more double-stranded arms and formulations thereof to conjugate high copy numbers of therapeutics, pH responsive or enzyme cleavable drug cargo. Also described herein is a design strategy for generation of synthetic RNA oligonucleotides that can self assemble into highly thermostable RNA structures. Also described herein are uses of the RNA nanostructures described herein.

RNA nanostructures, methods of making, and uses thereof

The presently-disclosed subject matter relates to an artificial RNA nanostructure and method of use thereof. In particular, the presently-disclosed subject matter relates to RNA nanoparticles and RNA dendrimers, and methods of disease diagnosis and treatments using the RNA nanostructure and RNA dendrimers.

RNA nanoparticles and method of use thereof

The presently-disclosed subject matter relates to an artificial RNA nanostructure molecule and method to treat brain tumor in a subject. More particularly, the presently disclosed subject matter relates to a RNA nanostructure containing a multiple branched RNA nanoparticle, a brain tumor targeting module, and an effective amount of a therapeutic agent. Further, the presently disclosed subject matter relates to a method of using the RNA nanostructure composition to treat brain tumor in a subject having or at risk of having brain tumor.

RNA nanoparticles for brain tumor treatment

Disclosed herein are three-dimensional cage molecules, wherein the cage molecule is composed of RNA. Also disclosed is a composition including the three-dimensional cage molecule, as well as a pharmaceutical composition containing the three-dimensional cage molecule. Also disclosed herein are methods of administering a cage molecule, composition, or formulation thereof to a subject in need thereof.

Self-assembled 3D RNA cage nanoparticles

RNA nanoparticles functionalized with a HER2-targeting RNA aptamer and at least one MED1 siRNA for targeted delivery of MED1 siRNA to human cancer cells via human epidermal growth factor receptor 2 (HER2) receptors, pharmaceutical compositions of the inventive RNA nanoparticles, and methods for treating breast, HER2-implicated cancers, and in particular therapeutic-resistant cancer such as tamoxifen-resistant breast cancer, by administering pharmaceutical compositions of the inventive RNA nanoparticles.

Multifunctional RNA nanoparticles and methods for treating cancer and therapeutic resistant cancer

The presently-disclosed subject matter relates to RNA-based composition and method to treat breast cancer in a subject. More particularly, the presently disclosed subject matter relates to a RNA nanostructure and composition containing a multiple branched RNA nanoparticle, a breast cancer targeting module, and an effective amount of a breast cancer therapeutic agent. Further, the presently disclosed subject matter relates to a method of using the RNA nanoparticle composition to treat breast cancer in a subject having or at risk of having breast cancer.

miRNA for treatment of breast cancer

The present invention is directed towards an artificial RNA nanostructure comprising multiple external strands of RNA, each external strand comprising about 40-50 nucleotides; one internal strand of RNA comprising more than about 50 nucleotides; the internal strands and external strands assembled to form a triangle nanostructure, a square nanostructure, or a polygon nanostructure and a pRNA three-way junction (3WJ) motif at each vertex of the nanostructure. Such nanostructure can be provided in a composition together with an adjuvant for use in inducing the production of high affinity neutralizing antibodies or inhibitory antibodies, inducing the production of cytokines, inducing an immune response in a subject, or a combination thereof.

RNA-based compositions and adjuvants for prophylactic and therapeutic treatment

A method is described for the identification of multi-subunit biocomplex drug targets. The method includes identifying a target that performs a biological function, wherein the target comprises one or more subunits, wherein a minimum number of the one or more subunits is inactivated to inhibit the biological function. The method includes selecting a drug that binds specifically to each subunit of the one or more subunits with a target probability. The method describes a relationship between inhibition efficiency of the drug and total number of the one or more subunits using a binomial distribution, wherein the inhibition efficiency comprises a probability that the delivered drug blocks the biological function. The method includes confirming empirically the relationship using an experimental target. The method includes administering the drug to the target to treat a multi-drug resistant disease, wherein the target comprises a biological complex in a mammalian subject.

Method for designing compounds and compositions useful for targeting high stoichiometric complexes to treat conditions, including treatment of viruses, bacteria, and cancers having acquired drug resistance

The presently-disclosed subject matter relates to RNA-based composition and method to treat gastric cancer in a subject. More particularly, the presently disclosed subject matter relates to a RNA nanostructure and composition containing a multiple branched RNA nanoparticle, a gastric cancer targeting module, and an effective amount of a therapeutic agent. Further, the presently disclosed subject matter relates to a method of using the RNA nanoparticle composition to treat gastric cancer in a subject having or at risk of having gastric cancer.

RNA nanoparticle for treatment of gastric cancer

A conductive channel-containing membrane includes a membrane layer, and a SPP1 connector polypeptide variant that is incorporated into the membrane layer to form an aperture through which conductance can occur when an electrical potential is applied across the membrane. A method of sensing a molecule, such as a polypeptide or nucleic acid molecule, makes use of the conductive channel-containing membrane. A method of DNA sequence makes use of the conductive channel-containing membrane.

Lipid bilayer-integrated SPP1 connector protein nanopore and SPP1 connector protein variants for use as lipid bilayer-integrated nanopore

Disclosed herein are compositions comprising extracellular vesicles, such as exosomes, displaying an RNA nanoparticle on its surface. The RNA nanoparticle can target the extracellular vesicle to a given cell via a targeting moiety. The extracellular vesicle can also comprise a functional moiety, which can be used in treatment or diagnostics.

Growing community of inventors

Columbus, OH, United States of America

Peixuan Guo