Abstract: In one or more embodiments, the present invention provides novel artificial, non-naturally-occurring double stranded DNA segments (and related methods) capable of acting as decoy binding sites for oncogenic transcription factors and a general method for suppressing aberrant activity of oncogenic transcription factors that promote cancer progression. In various embodiments, the present invention involves the sequestration of targeted oncogenic transcription factors at these artificial, non-naturally occurring engineered transcription factor binding sites, which have been introduced into the cells using oncolytic or other viruses that can be engineered to selectively target cancer cells.

Abstract: Elevated high mobility group A (HMGA) protein expression in human cancer cells, and especially human pancreatic cancer cells, is correlated with resistance to the chemotherapy agent gemcitabine. The present invention uses HMGA-targeted AT-rich phosphorothioate DNA (AT-sDNA) aptamers to suppress HMGA carcinogenic activity. Cell growth of human pancreatic cancer cells (AsPC-1 and Miapaca-2) transfected with AT-sDNA were monitored after treatment with gemcitabine. Significant increases in cell death in AT-sDNA transfected cells compared to non AT-rich sDNA treated cells were observed in both cell lines. The data indicates the potential use of HMGA targeted DNA aptamers to enhance chemotherapy efficacy in human cancer treatment, and in particular human pancreatic cancer treatment.

Abstract: Elevated high mobility group A (HMGA) protein expression in human cancer cells, and especially human pancreatic cancer cells, is correlated with resistance to the chemotherapy agent gemcitabine. The present invention uses HMGA-targeted AT-rich phosphorothioate DNA (AT-sDNA) aptamers to suppress HMGA carcinogenic activity. Cell growth of human pancreatic cancer cells (AsPC-1 and Miapaca-2) transfected with AT-sDNA were monitored after treatment with gemcitabine. Significant increases in cell death in AT-sDNA transfected cells compared to non AT-rich sDNA treated cells were observed in both cell lines. The data indicates the potential use of HMGA targeted DNA aptamers to enhance chemotherapy efficacy in human cancer treatment, and in particular human pancreatic cancer treatment.

Abstract: Elevated high mobility group A (HMGA) protein expression in human cancer cells, and especially human pancreatic cancer cells, is correlated with resistance to the chemotherapy agent gemcitabine. The present invention uses HMGA-targeted AT-rich phosphorothioate DNA (AT-sDNA) aptamers to suppress HMGA carcinogenic activity. Cell growth of human pancreatic cancer cells (AsPC-1 and Miapaca-2) transfected with AT-sDNA were monitored after treatment with gemcitabine. Significant increases in cell death in AT-sDNA transfected cells compared to non AT-rich sDNA treated cells were observed in both cell lines. The data indicates the potential use of HMGA targeted DNA aptamers to enhance chemotherapy efficacy in human cancer treatment, and in particular human pancreatic cancer treatment.

Abstract: In one particular embodiment, the disclosure is directed to a conveyor belt including a set of warp knitted yarns configured in warp-oriented wales and a set of weft insert yarns inserted in the set of warp-oriented wales. The set of weft insert yarns have a cross-sectional aspect ratio at least about 2:1.

Abstract: The present invention relates to a process for preparing 2,6-dichloropyridine which comprises reacting an organic solvent-free, catalyst-free reaction mixture comprising 2-chloropyridine and chlorine in the presence of a hydrogen chloride scavenger and ultraviolet light, and optionally in the presence of added moisture, at a temperature of between about 90.degree. C. and about 185.degree. C. Also claimed is a method for preventing calcium chloride plugging of the chlorine feed stream and for preventing calcium chloride build-up in the above reaction mixture which comprises adding moisture in the form of water or steam, or a combination thereof, to the reaction mixture prior to, or during, the reaction of said process.