University of Texas System

National Institutes of Health, a Component of the US Dept. of Health & Human Services

Rhone Poulenc Rorer

Introgen Therapeutics Inc.

Introgen Research Institute, Inc.

Jack A Roth

Tapas Mukhopadhyay

Lin Ji

Bingliang Fang

Toshiyoshi Fujiwara

Gabriel Lopez-Berestein

David Edward Stewart

Wei-Wei Zhang

Elizabeth A Grimm

Laurie B Owen-Schaub

Michael A Tainsky

John Dorrance Minna

Michael I Lerman

Ralph B Arlinghaus

Deborah R Wilson

Bulent Ozpolat

Xiaomei Jin

Jacki Lin

Tapas Mukopadhyay

Tong Sun

Bruno Tocque

Sunil D Chada

Laurent Bracco

Tomoyuki Saeki

David J Stewart

Stephen G Swisher

Abner Mhashilkar

Timothy J McDonnell

Mary Lapadat-Tapolsky

Julia A Lee

Ignacio I Wistuba

Brian D Almond

Therese M Timmons

Rajagopal Ramesh

Shaoyu Yan

Wei Wei Zhang

Maria I Nunez

Elizabeth M Bruckheimer

Mona G Sarkiss

Charles Lu

De Wei Cai

Ignatio Wistuba

John Minna

David Stewart

A method of treating a subject having a cancer comprising administering a tumor suppressor therapy, such as a TUSC2 therapy, in conjunction with an immune checkpoint inhibitor. Kits and reagents for use in cancer therapy are also provided.

Methods and compositions for TUSC2 immunotherapy

The present invention relates to non-viral gene therapy methods and compositions for treatment of hyperproliferative disease in humans. More specifically, the invention is directed, in one embodiment, to lipid formulations which form stable liposome structures, capable of efficient in vivo nucleic acid transfer. In other embodiments, methods and compositions are directed to liposome transfer of anti-proliferative nucleic acids, wherein the transfer of the nucleic acids is cell specific via cell specific targeting moieties. The present invention, thus provides non-viral, liposome compositions and methods of gene transfer particularly useful for targeting and treating hyperproliferative disease.

Methods and compositions for non-viral gene therapy for treatment of hyperproliferative diseases

Tumor suppressor genes play a major role in the pathogenesis of human lung cancer and other cancers. Cytogenetic and allelotyping studies of fresh tumor and tumor-derived cell lines showed that cytogenetic changes and allele loss on the short arm of chromosome 3 (3p) are most frequently involved in about 90% of small cell lung cancers and greater than 50% of non-small cell lung cancers. A group of recessive oncogenes, Fus1, 101F6, Gene 21 (NPRL2), Gene 26 (CACNA2D2), Luca 1 (HYAL1), Luca 2 (HYAL2), PL6, 123F2 (RaSSFI), SEM A3 and Beta* (BLU), as defined by homozygous deletions in lung cancers, have been located and isolated at 3p21.3.

Chromosome 3p21.3 genes are tumor suppressors

A method for predicting a subject's response to a TUSC2 therapy is provided. In particular, a subject's response is predicted based on the proportion of cancers cells that are apoptotic. Also provided is a method of treating a subject previously predicted to have a favorable response with a TUSC2 therapy. Methods for treating cancer by administration of a TUSC2 therapeutic in conjunction with an EGFR inhibitor and/or a protein kinase inhibitor are also disclosed. Kits and reagents for use in TUSC2 therapy are provided.

TUSC2 therapies

A nanoparticle-polypeptide complex comprising a bioactive polypeptide in association with a nanoparticle, wherein the bioactive polypeptide is modified by the addition of a chemical moiety that facilitates cellular uptake of the protein. The polypeptide can be a protein or a peptide. In some embodiments, the amino acid sequence of the protein or peptide is derived from the amino acid sequence of a tumor suppressor gene product.

Bioactive FUS1 peptides and nanoparticle-polypeptide complexes

Promoters that include a tissue-selective promoter sequence and a second promoter sequence operatively coupled to the tissue-selective promoter sequence, wherein the second promoter sequence includes a minimal viral promoter sequence, are disclosed. Nucleic acids and compositions that include these promoter sequences are also disclosed. Also disclosed are methods of improving the function of a tissue-selective promoter, involving operatively coupling a tissue-selective promoter sequence with a second promoter sequence that includes a minimal viral promoter sequence. Also disclosed are methods of delivering a gene into a cell, methods of treating a subject with a hyperproliferative disease, and methods of imaging a cell that involve use of the novel promoter sequences set forth herein.

hTMC promoter and vectors for the tumor-selective and high-efficient expression of cancer therapeutic genes

Tumor suppressor genes play a major role in the pathogenesis of human lung cancer and other cancers. Cytogenetic and allelotyping studies of fresh tumor and tumor-derived cell lines showed that cytogenetic changes and allele loss on the short arm of chromosome 3 (3) are most frequently involved in about 90% of small cell lung cancers and greater than 50% of non-small cell lung cancers. A group of recessive oncogenes, Fus1, 101F6, Gene 21 (NPRL2), Gene 26 (CACNA2D2), Luca 1 (HYAL1), Luca 2 (HYAL2), PL6, 123F2 (RaSSFI), SEM A3 and Beta* (BLU), as defined by homozygous deletions in lung cancers, have been located and isolated at 3p21.3.

The present invention is directed to the use of benzimidazole derivatives for the treatment of tumors and in combination with tumor suppressor gene therapy. In a particular embodiment, treatment of p53-positive tumors with benzimidazole derivatives induces p53 expression and increases its half-life, resulting in apoptotic death of the tumor cells. Similarly, in conjunction with p53 gene therapy, benzimidazole derivatives induce p53 expression and accumulation in tumor cells regardless of their p53 status. The combination treatment subsequently elicits apoptosis of the tumor cells.

Antihelminthic drugs as a treatment for hyperproliferative diseases

An adenoviral supervector system is disclosed that is capable of expressing more than 7.5 kilobases of heterologous DNA in a replication defective adenoviral vector. The supervector system comprises an adenoviral vector construct and a helper cell. The vector construct is capable of being replicated and packaged into a virion particle in the helper cell. In particular, the helper cell expresses DNA from the E2 region of the adenovirus 5 genome and complements deletions in that region in the vector construct. In certain embodiments, the disclosed invention comprises tissue specific expression of up to 30 kb of heterologous DNA directed by an adenoviral vector. Also disclosed are methods of transferring heterologous DNA into mammalian cells.

Adenovirus supervector system

The present invention provides viral vectors that have been engineered to contain a synthetic promoter that controls at least one essential gene. The synthetic promoter is induced by a specific gene product not normally produced in the cells in which the viral vector is to be transferred. The vectors are propagated in producer or helper cells that express the inducing factor, thereby permitting the virus to replicate to high titer. The lack of the inducing factor in the target cells precludes viral replication, however, meaning that no vector toxicity or immunogenicity arises. Where the virus carries a gene of interest, this should provide for higher level expression for longer periods of time than with current vectors. Methods for making the vectors, helper cells, and their use in protein production, vaccines and gene therapy are disclosed.

Diminishing viral gene expression by promoter replacement

A variety of genetic constructs are disclosed that will find both in vitro and in vivo use in the area of tumor biology and cancer therapy. In particular, expression constructs are provided that contain a p16 encoding region and other regulatory elements necessary for the expression of a p16 transcript. One version of the expression construct is a replication-deficient adenoviral vector. Also provided are methods for the transformation of cell lines and the inhibition of cancer cell proliferation.

p16 expression constructs and their application in cancer therapy

The present invention relates to the use of tumor suppressor genes in combination with a DNA damaging agent or factor for use in killing cells, and in particular cancerous cells. A tumor suppressor gene, p53, was delivered via a recombinant adenovirus-mediated gene transfer both in vitro and in vivo, in combination with a chemotherapeutic agent. Treated cells underwent apoptosis with specific DNA fragmentation. Direct injection of the p53-adenovirus construct into tumors subcutaneously, followed by intraperitoneal administration of a DNA damaging agent, cisplatin, induced massive apoptotic destruction of the tumors. The invention also provides for the clinical application of a regimen combining gene replacement using replication-deficient wild-type p53 adenovirus and DNA-damaging drugs for treatment of human cancer.

Methods and compositions comprising DNA damaging agents and p53

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Houston, TX, United States of America

Jack A Roth