Figures & data
Figure 1. A reference image of Euphaea ochracea sequenced in this work, collected from Ayer Hitam Forest Reserve Johor, Malaysia.
![Figure 1. A reference image of Euphaea ochracea sequenced in this work, collected from Ayer Hitam Forest Reserve Johor, Malaysia.](/cms/asset/68c23ac0-18d5-460c-bf01-e96c61c8750b/tmdn_a_2179355_f0001_c.jpg)
Figure 2. Draft mitogenome map of E. ochracea generated in this study. Genes encoded on the heavy strand are transcribed in a clockwise manner, while those encoded on the light strand are transcribed in an anti-clockwise manner. Protein-coding genes are indicated in greyish-blue, transfer RNAs in purple and ribosomal RNAs in green. The innermost circle represents the mitogenome coordinates (Kbp).
![Figure 2. Draft mitogenome map of E. ochracea generated in this study. Genes encoded on the heavy strand are transcribed in a clockwise manner, while those encoded on the light strand are transcribed in an anti-clockwise manner. Protein-coding genes are indicated in greyish-blue, transfer RNAs in purple and ribosomal RNAs in green. The innermost circle represents the mitogenome coordinates (Kbp).](/cms/asset/5b3ab12a-328b-46ac-b844-9ab4a3386d37/tmdn_a_2179355_f0002_c.jpg)
Figure 3. Phylogenetic analysis based on Maximum-Likelihood of 11 Odonata mitogenome sequences, including the newly sequenced E. ochracea, using 13 concatenated protein-coding genes (PCGs). All congeneric mitogenome sequences from Euphaeidae was used in the analyses. Nodal support values indicate the Maximum-Likelihood bootstrap support value (BP). The newly sequenced E. ochracea is highlighted in bold. Mnais tenuis (MW15098) (Wang et al. Citation2021); Vestalis Melania (JX050224) (Chen et al. Citation2015); Atrocalopteryx melli (MG011692) (Xu et al. Citation2018); Euphaea decorata (KF718294), Euphaea ornata (KF718295), Euphaea yayeyamana (KF718293) (Cheng et al. Citation2018); Euphaea sp. (MT671490) (Macher et al. Citation2020); Euphaea ochracea (ON165247) (this study); Euphaea formosa (HM126547) (Lin et al. Citation2010); Pesudolestes mirabilis (FJ606784) (unpublished); Ischnura pumilio (KC878732) (Lorenzo-Carballa et al. Citation2014).
![Figure 3. Phylogenetic analysis based on Maximum-Likelihood of 11 Odonata mitogenome sequences, including the newly sequenced E. ochracea, using 13 concatenated protein-coding genes (PCGs). All congeneric mitogenome sequences from Euphaeidae was used in the analyses. Nodal support values indicate the Maximum-Likelihood bootstrap support value (BP). The newly sequenced E. ochracea is highlighted in bold. Mnais tenuis (MW15098) (Wang et al. Citation2021); Vestalis Melania (JX050224) (Chen et al. Citation2015); Atrocalopteryx melli (MG011692) (Xu et al. Citation2018); Euphaea decorata (KF718294), Euphaea ornata (KF718295), Euphaea yayeyamana (KF718293) (Cheng et al. Citation2018); Euphaea sp. (MT671490) (Macher et al. Citation2020); Euphaea ochracea (ON165247) (this study); Euphaea formosa (HM126547) (Lin et al. Citation2010); Pesudolestes mirabilis (FJ606784) (unpublished); Ischnura pumilio (KC878732) (Lorenzo-Carballa et al. Citation2014).](/cms/asset/83bf5c54-0c8c-4af5-875d-f9b51c48a0f2/tmdn_a_2179355_f0003_b.jpg)
Data availability statement
The genome sequence data that support the findings of this study are openly available in GenBank of NCBI at (https://www.ncbi.nlm.nih.gov/) under accession no. ON165247. The associated BioProject, SRA and BioSample numbers are PRJNA753627, SRR15422665 and SAMN20720553 respectively.