Genomic signatures and insights into host niche adaptation of the entomopathogenic fungus Metarhizium humberi

Additional file 1. Table S1. Main assembly summary assessed with QUAST tool in four de novo assemblers used to reconstruct the genome of Metarhizium humberi ESALQ1638.Table S2. The Geographical origin and host/substrate from each Metarhizium strain; Additional file 2 . R script used to generate Mummer-like plotting, also available at the GitLab repository: https://gitlab.nibio.no/simeon/iwanicki_et_al_21; Additional file 3 . R script used to create the phylogenetic tree, also available at the GitLab repository: https://gitlab.nibio.no/simeon/iwanicki_et_al_21; Additional file 4. Table S3. List of repetitive elements in the genome of Metarhizium humberi ESALQ1638; Additional file 5. Table S4. List of repetitive elements in Metarhizium genomes; Additional file 6. Table S5. InterPro categories related to transcription factors; Additional file 7. Table S6. InterProScan analysis and comparison of Metarhizium humberi ESALQ1638 with other 10 Metarhizium genomes and outgroups; Additional file 8. tRNAscan analyses Additional file 9. Orthologous genes in Metarhizium species; Additional file 10. InterPro category; Additional file 11. Overrepresented biological process GO-terms in rapidly evolving gene families in Metarhizium spp. Additional file 12. Spreadsheets of Metarhizium spp. predicted secretomes; Additional file 13. Metarhizium spp. secondary metabolites. Table S7. Overview of polyketide synthases (PKSs). Table S8. Overview of nonribosomal peptide synthetases (NRPS).; Additional file 14. Pathogen-host interaction (PHI) dataset.