Abstract: Disclosed herein are new peptide inhibitors against beta-lactam resistance that can improve the efficacy of currently available antibiotics. Methods of using the peptide inhibitors for treating bacterial infections are also disclosed.

Abstract: Provided are compounds having Formula (1), compositions thereof, and methods of modulating CFTR activity. Also provided are methods of treating a condition associated with decreased CFTR activity comprising administering to a subject an effective amount of a compound of Formula (1), optionally with other therapeutic agent(s).

Abstract: Disclosed herein is a new and improved therapy for the treatment of cancer, which comprises the step of altering cell membrane lipid composition by treating a cancer cell with an enzyme inhibitor which inhibits enzymes regulating the cholesterol biosynthetic pathway. One preferred protein target in the cholesterol biosynthetic pathway to inhibit is oxidosqualene cyclase. In some forms, inhibitors of one or more pathways are combined with an existing chemotherapeutic agent to combat drug resistance and enhance the therapeutic efficacy of conventional therapy.

Abstract: The present disclosure relates to methods and compositions for modulating the activity of KCNQ channels as a means for reducing the effects of aberrant KCNQ channel function associated with epilepsy, deafness and arrhythmias including but not limited to, Long-QT syndrome (“LQTS”), and atrial fibrillation. The present disclosure also relates to the discovery of certain regions of KCNQ channels that interact with various channel stimulating molecules such as, ATP, and PIP2, as well as KCNQ channel domains that effect voltage dependant channel activation. The disclosure is also directed to the use of small molecules to modulate KCNQ channel activity in a cell. Moreover, the present disclosure relates to the therapeutic effects of treating a subject with modulators of KCNQ channel activity.

Abstract: The present disclosure relates to methods and compositions for modulating the activity of KCNQ channels as a means for reducing the effects of aberrant KCNQ channel function associated with epilepsy, deafness and arrhythmias including but not limited to, Long-QT syndrome (“LQTS”), and atrial fibrillation. The present disclosure also relates to the discovery of certain regions of KCNQ channels that interact with various channel stimulating molecules such as, ATP, and PIP2, as well as KCNQ channel domains that effect voltage dependant channel activation. The disclosure is also directed to the use of small molecules to modulate KCNQ channel activity in a cell. Moreover, the present disclosure relates to the therapeutic effects of treating a subject with modulators of KCNQ channel activity.

Abstract: The present disclosure relates to methods and compositions for modulating the activity of KCNQ channels as a means for reducing the effects of aberrant KCNQ channel function associated with epilepsy, deafness and arrhythmias including but not limited to, Long-QT syndrome (“LQTS”), and atrial fibrillation. The present disclosure also relates to the discovery of certain regions of KCNQ channels that interact with various channel stimulating molecules such as, ATP, and PIP2, as well as KCNQ channel domains that effect voltage dependant channel activation. The disclosure is also directed to the use of small molecules to modulate KCNQ channel activity in a cell. Moreover, the present disclosure relates to the therapeutic effects of treating a subject with modulators of KCNQ channel activity.

Abstract: The present disclosure relates to methods and compositions for modulating the activity of KCNQ channels as a means for reducing the effects of aberrant KCNQ channel function associated with epilepsy, deafness and arrhythmias including but not limited to, Long-QT syndrome (“LQTS”), and atrial fibrillation. The present disclosure also relates to the discovery of certain regions of KCNQ channels that interact with various channel stimulating molecules such as, ATP, and PIP2, as well as KCNQ channel domains that effect voltage dependant channel activation. The disclosure is also directed to the use of small molecules to modulate KCNQ channel activity in a cell. Moreover, the present disclosure relates to the therapeutic effects of treating a subject with modulators of KCNQ channel activity.

Abstract: The present invention identifies the cholesterol biosynthetic pathway, including the enzyme oxidosqualene cyclase, as new protein targets for anti-tumor therapeutics. The present invention further provides a class of oxidosqualene cyclase inhibitors containing a tertiary amine linked with aromatic ring structures, as a new class of anticancer agents. Compounds disclosed herein have been tested in 19 cell lines including breast cancer, prostate cancer, lung cancer (including drug-resistant lung cancer H69AR), colon cancer, ovarian cancer (including drug-resistant OVCAR-3), and pancreatic cancer cells, as wells as in human breast and prostate xenograft tumor growth in nude mice, and have been shown to be active.