SX RNA: USING RNA-BASED, NANO-SWITCHES TO DETECT NOVEL NON-CODING RNA EXPRESSION Scott A. Tenenbaum SUNY- College of Nanoscale Science and Engineering,

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SX RNA: USING RNA-BASED, NANO-SWITCHES TO DETECT NOVEL NON-CODING RNA EXPRESSION Scott A. Tenenbaum SUNY- College of Nanoscale Science and Engineering, Nanobioscience

The Basic sxRNA Concept + OR ● Structurally interacting RNA ● A 3-way junction structure created from trans-interaction ● An RNA sequence changes or “switches” the structure of the sxRNA in a designed manner ● This results in the formation of a new or strengthened stem- loop structure Simple Duplex Formation Structural RNA Formation (sxRNA) RNA-RNA Interactions

Structurally Interacting RNA (sxRNA)

sxRNA Technology Platform Basics sxRNA molecule has three components –Stem loop – target of protein –Flanks – complementary to trigger RNA –Coding region – makes desired protein Gene Coding RegionFlanks Stem loop 3’3’5’5’ sxRNAs are modular, i.e. change flanks for targets, change gene for use

sxRNA and SLBP Control Histone stem loop binding protein Translation Protein Translation No stem loopStem loop Gene X

sxRNA T7 -Transcription

sxRNA Potential Applications Molecular tool –Stem cell quality control –miRNA expression in cancer Genetic disorders –Cystic Fibrosis –Duchenne muscular dystrophy –Glycogen storage diseases –Polycystic kidney disease –Celiac disease –Charcot-Marie-Tooth disease –Hemophilia –Sickle-cell disease Tissue/Stem Cell Engineering –Kidney repair –Liver repair –Heart Cancer –Breast –Lung –Colon –Pancreatic –Thyroid –Bladder Antiviral, Vaccine, Imaging

Funding