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    Additional file 1: of A direct regulatory link between microRNA-137 and SHANK2: implications for neuropsychiatric disorders

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    Figure S1. Images of primary neuronal cultures preā€ and posttreatment. Figure S2. High conservation of the miRā€137 binding site in the SHANK2ā€3ā€™UTR and of miRā€137 between different species. Figure S3. Relative expression levels of miRā€137 in different human tissues. Figure S4. Uncropped Western blot pictures. Table S1. ASD risk genes which are predicted or validated miRā€137 targets. Table S2. Primers used for cloning, mutagenesis, and screening. Primer sequences are all shown in 5ā€²ā†’3ā€² orientation. Table S3. Origin of total RNA samples used to measure hsaā€miRā€137 relative expression across different tissues (see AdditionalĀ fileĀ 1: Figure S2 for results). Table S4. Experimentally validated miRā€137 targets. Table S5. Gene expression analysis of 69 validated miRā€137 target genes (including SHANK2) in the CommonMind RNA sequencing data. Table S6a. Gene expression analysis of validated targets from five different control microRNAs in the CommonMind RNA sequencing data. Genes labeled in gray withstand correction for multiple testing using the Benjamini-Hochberg method and a FDR of 10%. Table S6b. Comparison of the number of differentially expressed target genes of different microRNAs between SCZ and control individuals in the CommonMind RNASeq data. Table S7. Analysis of the 3ā€²UTR of the differentially expressed miR-137 genes in the DLPFC between SCZ and control individuals for additional putative miR-124 and miR-128 binding sites. (PDF 1417Ā kb
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