Additional file 2: Table S1. of Exome QTL-seq maps monogenic locus and QTLs in barley

Provisional exome sequences (PESs) based on Morex loci [3]. Table S2. RNA-seq data of Haruna Nijo used to restructure the pseudo reference sequence (PRS) in the QTL-seq analysis. Table S3. Number of aligned RNA-seq reads with PESs and detected SNPs against PES. Table S4. Number of reads and sequences used and mapped in the QTL-seq analysis of Blp. Table S5. Number of reads and sequences used and mapped in the QTL-seq analysis of net blotch resistance genes. (DOCX 32 kb

Additional file 1: Figure S1. of Exome QTL-seq maps monogenic locus and QTLs in barley

Kernel color in the haploid mapping population. Figure S2. Depth of the mapped reads on the PRS in the exome-captured QTL-seq analysis for Blp mapping. Figure S3. Plots showing the SNP index of each chromosome generated by exome-captured QTL-seq analysis for Blp mapping in barley. Figure S4. Plots of the ΔSNP index of chromosome 1H generated by exome-captured QTL-seq analysis for Blp mapping. Figure S5. Infected leaf phenotypes. Figure S6. Depth of the mapped reads on PRS in the exome-captured QTL-seq analysis for net blotch resistance. Figure S7. Plots of the SNP index of each chromosome generated by exome-captured QTL-seq analysis for mapping of net blotch resistance. Figure S8. Plots of the ΔSNP index of chromosome 3H (left) and 6H (right) generated by exome-captured QTL-seq analysis for net blotch resistance. (DOCX 5291 kb

Vapor-Phase Synthesis of ZIF‑8 MOF Thick Film by Conversion of ZnO Nanorod Array

ZIF-8 metal organic framework “micrometer-thick” films were constructed from ZnO precursor by a vapor-phase synthesis. The ZnO-to-ZIF-8 crystal transformation proceeded in the presence of 2-methylimidazole (Hmim) vapor. Continuous coatings of intergrown ZIF-8 crystals require control of a nucleation density. The dependence of ZnO crystal plane on the ZnO-to-ZIF-8 crystal transformation was investigated using four bulk ZnO single crystals: <i>a</i>-plane (11–20), <i>c</i>-plane (0001), <i>m</i>-plane (10–10), and <i>r</i>-plane (10–11). It was revealed that the <i>m</i>-plane (10–10) of ZnO is more effectively transformed into ZIF-8. In this work, highly oriented ZnO nanorod array film was used to provide the transport pathway of Hmim molecules and volume expansion space of ZnO-to-ZIF-8 crystal transformation for nucleation and crystal intergrowth. The high conversion of ZnO nanorod array into ZIF-8 in a short time could be achieved because (1) such mass transfer is easy due to the uniform internanorod distance being maintained during reaction and (2) the surface of the nanorod array is dominated by the highly reactive <i>m</i>-plane (10–10)