Cockroaches are among the most recognizable of all insects. In addition to their role as pests, they play a key ecological role as decomposers. Despite numerous studies of cockroach phylogeny in recent decades, relationships among most major lineages are yet to be resolved. Here we examine phylogenetic relationships among cockroaches based on five genes (mitochondrial 12S rRNA, 16S rRNA, COII; nuclear 28S rRNA and histone H3), and infer divergence times on the basis of 8 fossils. We included in our analyses sequences from 52 new species collected in China, representing 7 families. These were combined with data from a recent study that examined these same genes from 49 species, resulting in a significant increase in taxa analysed. Three major lineages, Corydioidea, Blaberoidea, and Blattoidea were recovered, the latter comprising Blattidae, Tryonicidae, Lamproblattidae, Anaplectidae, Cryptocercidae and Isoptera. The estimated age of the split between Mantodea and Blattodea ranged from 204.3 Ma to 289.1 Ma. Corydioidea was estimated to have diverged 209.7 Ma (180.5–244.3 Ma 95% confidence interval [CI]) from the remaining Blattodea. The clade Blattoidea diverged from their sister group, Blaberoidea, around 198.3 Ma (173.1–229.1 Ma). The addition of the extra taxa in this study has resulted in significantly higher levels of support for a number of previously recognized groupings.
Cockroaches are considered to play a key role in terrestrial ecosystems, recycling dead plants, dead animals and excrement and contributing to ecosystem functioning via the breakdown of organic matter and the release of nutrients1. The morphologically and ecologically diverse group Blattodea including Isoptera is widely accepted to be a monophyletic2,3,4,5,6,7,8,9,10,11,12,13.
In recent decades a number of studies have examined the phylogeny of Blattodea based on morphological characters6,14,15,16, molecular data3,7,8,9,11,13,17,18,19, or both10,12. Taken together, these studies displayed some consistent relationships, including Ectobiidae (=Blattellidae) being paraphyletic with respect to Blaberidae6,7,10,11,12,13,19, and Isoptera being placed within Blattodea as sister to Cryptocercidae (morphological methods6; molecular methods3,7,8,11,12,17,19; combined data10,11,12). The monophyly of termites and their closest relatives Cryptocercus is supported by strong synapomorphies, such as xylophagy, biparental care, proctodeal trophallaxis and a rich and highly specific hindgut fauna of flagellates20,21,22.
Despite these advances, the evolutionary relationships among the main lineages of Blattodea have yet to be well resolved, and a number of other results from previous studies remain under discussion. These include: (i) the proposal that Tryonicidae and Lamproblattidae are given family status and excluded from Blattidae6; (ii) the proposed sister grouping between Nocticolidae and Corydiidae (=Polyphagidae)11; (iii) the sister group relationships between Lamproblattidae and Blattidae12; (iv) the sister group of Cryptocercidae + Isoptera, which may be either Tryonicidae, Anaplecta, or Tryonicidae + Anaplecta 12.
Although the Nocticolidae are generally accepted to be a monophyletic group, the placement of Nocticolidae and the relationships with Corydiidae have been debated over the last 20 years. Grandcolas15 proposed that Nocticolidae should be lowered to the subfamily level and be synonymised with Latindiinae. In most other studies, Nocticolidae were recovered as the sister group to Corydiidae7,9,11,19. When additional Latindiinae taxa were included, Nocticolidae was recovered to be the sister group to Latindia + Paralatindia 12,13.
In this study, we sequenced three mitochondrial (12S rRNA, 16S rRNA and COII) genes and two nuclear (28S rRNA and Histone H3) genes from 52 blattarian (mainly Ectobiidae, Blaberidae and Blattidae) species collected in China, including representatives of three important genera: Anaplecta, Nocticola and Cryptocercus. Combining these sequences with previously published sequences, and using 8 fossils, we performed phylogenetic and divergence date analyses, and inferred the biogeographic history and timescale of evolution within Blattodea.
Material and Methods
DNA extraction, amplification, purification and sequencing
We sampled 5 genes of 52 species (Table S1) from Blattodea in this study: mitochondrial 12S rRNA, 16S rRNA, COII, nuclear 28S rRNA and Histone H3. Total DNA was extracted from hindleg tissues of samples preserved in 100% ethanol. The extraction procedure was according to the TIANamp Genomic DNA Kit (Tiangen Biotech, Beijing). Fragments of 12S rRNA, 16S rRNA, COII, 28S rRNA and H3 were amplified using PCR. Primers for the amplifications of these partial genes are given in Table 1.
For PCR amplification, a 25 μL cocktail of 1 μL DNA template, 15.25 μL double-distilled H2O (ddH2O), 2 μL MgCl2 (25 mM), 2.5 μL 10*PCR Loading Buffer, 0.25 μL Taq DNA polymerase (TakaRa DNA kit; 100 mM Tris-HCl, pH8.3, 500 mM KCl), 2 μL dNTP mixture (1 mM concentration of each dNTP) and 1 μL of each primer was used. The PCR conditions included are given in Table S2. The amplified products were electrophoresed in a 1% agarose gel. PCR products were used for sequencing. In the case where sequencing was not successful, purified PCR fragments were cloned and sequenced.
All new sequences were checked for contamination using unrestricted BLAST searches, and NJ trees were produced based on the alignment of each sequenced fragment to check for internal contamination and incorrectly identified GenBank sequences.
Sequence alignment and phylogenetic analysis
The taxon sample consists of 103 Blattodea taxa (ingroup) and 26 outgroup taxa (Table S3). The molecular data set consists of five genes: the mitochondrial 12S (390 nucleotides, nt), 16S (430nt), COII (730nt), and the nuclear 28S (600nt), H3 (330nt); the total length of the aligned molecular data set is 2831 nt. GenBank sequences were used when available from previous works on Blattodea7,11,12,13, but some problematic sequences were not used in this study, e.g. Supella longipalpa. For Mantodea28 and others see Table S3. New sequences and their GenBank numbers were listed in Table S3. In our study, names of chimeric taxa (i.e. Gryllus, Mantophasmatidae and Oligotomidae) followed Djernæs et al.12.
Sequences were aligned via the online MAFFT 7 (http://mafft.cbrc.jp/alignment/server/). For ribosomal genes (12S, 16S and 28S), alignments were adjusted according to the first sequence because some ribosomal gene sequences from GenBank were reversed. The Q-INS-i algorithm was selected protein-coding genes (COII, H3), the G-INS-i algorithm was used with other parameters at their default values. Protein-coding genes (COII, H3) were inspected visually and manually corrected in Mega629 after translation into amino acids; few gaps were detected, and alignment was straightforward. Alignments of the ribosomal sequences (12S, 16S and 28S) were inspected visually and manually adjusted in Mega629. Poorly aligned characters were removed but these were limited.
Subsequent analyses were performed on the combined dataset utilizing Maximum likelihood (ML) and Bayesian inference (BI). Bayesian inference (BI) was performed using MrBayes 3.230 and maximum likelihood (ML) was performed using RAxML 7.7.131.
The molecular data set was divided into 9 partitions (partitioned by gene: 12S, 16S, 28S, COII, H3; COII and H3 were divided by codon position (pos1–3)). For ML, the GTRGAMMA model was selected for the combined datasets and 1000 bootstrap replicates were performed. For BI, PartitionFinder v.1.1.132 was used to choose models and model selection was based on BIC. For the 9 partitions, PartitionFinder resulted in the following models: GTR+I+ G: 12S, 16S, COII_pos1, COII_pos2, 28S; TVM+G: COII_pos3; GTR+G: H3_pos1; JC+I: H3_pos2; TVM+I+G: H3_pos3. Two independent sets of Markov chains were run, each with one cold and three heated chains for 1 × 107generations, and every 1000th generation was sampled. Convergence was inferred when a standard deviation of split frequencies <0.01 was completed. Sump and sumt burninfrac were set to 25% and contype was set to allcompat.
Divergence dating analysis
We performed divergence date analyses based on the combined mitochondrial, nuclear and histone dataset of Blattodea and 26 outgroups (see Table S3). For this analysis, the molecular clock was calibrated using eight minimum age constraints based on termite, cockroach and mantid fossils as shown in Table 2. Analyses were performed using a relaxed molecular-clock model with the Bayesian phylogenetic program BEAST 1.8.033. Rate variation was modeled among branches using uncorrelated lognormal relaxed clocks33, with a single model for all genes. A Yule speciation process was used for the tree prior34 and posterior distributions of parameters, including the tree, were estimated using MCMC sampling. We performed two replicate MCMC runs, with the tree and parameter values sampled every 5000 steps over a total of 50 million generations. A maximum clade credibility tree was obtained using Tree Annotator within the BEAST software package with a burn-in of 1000 trees. Acceptable sample sizes and convergence to the stationary distribution were checked using Tracer 1.533.
For the concatenated dataset (12S rRNA, 16S rRNA, 28S rRNA, COII and H3), phylogenetic analyses yielded essentially identical topologies with generally high support values across the topologies for the two methods utilized (ML and BI) (Figs 1 and S1). Three recognized major lineages of Blattodea from ML and BI inferences were recovered with high support: Corydioidea, Blattoidea and Blaberoidea.
Corydioidea was recovered as sister to the remaining Blattodea (MLB = 100, BPP = 100), and was the first clade within Blattodea. Nocticolidae was recovered as sister group to Latindia + Paralatindia (MLB = 100, BPP = 100).
Blaberoidea was comprised of Blaberidae and Ectobiidae. In our inferred trees, Ectobiidae was paraphyletic with respect to Blaberidae with high support. All Ectobius clustered together and were recovered as the sister to the remaining Blaberoidea (MLB = 100), or to the remaining Ectobiidae (BPP = 46). Nyctiborinae + Latiblattella was the sister group of Blaberidae in both methods (BPP = 64, MLB = 100). For four subfamilies of the Blaberidae, (Oxyhaloinae, Blaberinae, Panchlorinae and Panesthiinae) relationships were the same among the two trees; for the remaining subfamilies (Perisphaerinae, Pycnoscelinae, Epilamprinae, Paranauphoetinae and Diplopterinae) there was lower resolution.
Blattidae, Tryonicidae, Lamproblattidae, Anaplectidae, Cryptocercidae and Isoptera formed one large clade, Blattoidea (MLB = 100, BPP = 100). Blattidae was the earliest branching lineage within this clade (MLB = 100, BPP = 100). The topology derived from ML analyses showed that Anaplectidae was the sister group of (Cryptocercidae + Isoptera), followed by Lamproblattidae + Tryonicidae (both MLB = 100). However, in BI analyses, Anaplectidae was recovered to be the sister group of Lamproblattidae + Tryonicidae (BPP = 79), followed by Cryptocercidae + Isoptera (BPP = 99). Cryptocercidae was recovered as the sister group of Isoptera (MLB = 100, BPP = 100). North American Cryptocercus species (Cryptocercus punctulatus) and Asian species were recovered as sister groups (MLB = 100, BPP = 100).
Divergence time analysis
The estimated age of the split between Mantodea and Blattodea was 243.6 Ma (204.3 Ma to 289.1 Ma 95% confidence interval [CI]). Corydioidea was recovered as the earliest branching group within Blattodea, having diverged 209.7 Ma (180.5–244.3 Ma 95% CI) from the remaining taxa. The clade comprising Blattidae, Tryonicidae, Lamproblattidae, Anaplectidae, Cryptocercidae and Isoptera diverged from its sister group, Blaberoidea, around 198.3 Ma (173.1–229.1 Ma). The divergence of Blattidae from the remaining group of this clade occurred about 178.2 Ma (155.2–204.4 Ma). The divergence of the lineages leading to termites and Cryptocercus was estimated to have occurred 146.4 Ma (137–164.2 Ma 95% CI). American and Asian Cryptocercus were estimated to have diverged 67.2 Ma (44.1–96.3 Ma 95% CI). Anaplectidae + (Lamproblattidae + Tryonicidae), was estimated to have arisen 154.8 Ma (133.3–179.3 Ma 95% CI). Latiblattella sp.3 from Pseudophyllodromiinae, and Nyctibora sp.1 and Paratropes sp.1 from Nyctiborinae clustered together, and were recovered as the first clade in Blaberoidea, emerging 183.6 Ma (158.4–214.9 Ma 95% CI) from the remaining Blaberoidea. Blaberidae was found to be monophyletic in this analysis and began to diverge 134.7 Ma (110.6–162.0 Ma) from the remaining Ectobiidae. The lineages leading to most Blattodea species diverged from their sister lineages around 100 Ma or less.
Our analyses using Maximum likelihood (ML) and Bayesian inference (BI) showed that the backbones of the inferred trees were nearly identical, and partly in agreement with previous studies12. Three major blattodean lineages, Corydioidea, Blattoidea and Blaberoidea, were recovered with high support values. Our result was markedly different from previous phylogenetic studies based only on morphological characters6,15,43. A number of previous molecular studies did not include Anaplectidae7,8,11,19, Lamproblattidae7,8,19 or Tryonicidae11 or combinations of these7,8. Legendre et al.13 included a large number of taxa in their analyses, however several molecular markers were missing for a number of taxa. Ware et al.10 combined molecular and morphological data of 59 taxa (12 taxa with both molecular and morphological data, and 15 taxa with only morphological data), and used doublet and MK models in MrBayes.
Placement and monophyly of members within Corydioidea
Corydioidea was found as the sister group to the remaining Blattodea and considered as the basal split within Blattodea with high support (BPP = 100, MLB = 100), consistent with previous studies7,10 but not congruent with a recent study13. We found Nocticolidae to be monophyletic and firmly nested within Corydiidae with strong support values (BPP = 100, MLB = 100), partially consistent with the results of Djernæs et al.13 (morphological analyses; molecular and combined analyses). The placement of Nocticolidae found here was not consistent with the proposal that Nocticolidae was the sister group of Corydiidae7,11. In Djernæs et al.12, N. babindaensis formed an exceedingly long branch. Similarly, very long branches were found in the Nocticola clade in the study of Legendre et al.13. In our study, N. babindaensis (epigean, from Australia) and one Chinese Nocticola species (termitophilous, Zhao Tiexiong, pers. obs., from China), were well grouped together and formed two short terminal branches (Figs 1 and S1), also with N. australiensis (cavernicolous, from Australia) and Nocticola sp. (Cutta Cutta) (cavernicolous, from Australia) as their sister group. The inclusion of our Nocticola specimen, the first from outside Australia, provides molecular support for the monophyly of this family. That N. babindaensis and N. australiensis are placed in different clades is consistent with the notion that N. babindaensis and N. australiensis are from two different species groups based on the presence or absence of the male tergal gland44.
The family Nocticolidae consists of 8 genera, mainly distributed in Madagascar, Australia, Africa and southeastern Asia. It contains representatives with depigmentation and thinning of cuticle, the reduction or loss of eyes, the reduction or loss of tegmina and wings, the elongation and attenuation of appendages, and a more slender body form45. Although Nocticola representatives show broad morphological similarities to ectobiid cockroaches, the complex and highly variable nature of their genitalia indicates a closer relationship with Corydiidae44.
Currently the subfamily Latindiinae is composed of three genera, the type genus Latindia with 9 species, Buboblatta with 2 species and Sinolatindia with 1 species46,47. Latindiinae are gracile, delicate, small bodied cockroaches with a number of features similar to ectobiid cockroaches. These include legs weakly covered with spines, long cerci, both sexes winged, and very complex male genitalia46,48,49. In both our study and that of Djernæs et al.12, the placement of Latindia + Paralatindia as the sister group of Nocticolidae indicates that Latindiinae should be upgraded to the family Latindiidae.
Placement of Anaplectidae
Consistent with results from a previous molecular study12, in our study Anaplectidae had a close genetic relationship with Blattoidea (Blattidae, Tryonicidae, Lamproblattidae, Cryptocercidae and Isoptera) and together formed one large clade, similar to the results of Djernæs et al.12. Species of Anaplecta have a small body size and brown color, and are very similar to ectobiid cockroaches, however they don’t rotate their ootheca before producing them, and the subgenital plate of females is bilobed. Moreover, the male genitalia are more complicated than that of other ectobiids and similar to Blattidae (Fig. S2). It would therefore appear reasonable that Anaplecta is closer to Blattoidea than to Ectobiidae.
Placement and monophyly of Blaberoidea
Within Blaberoidea, Blaberidae is strongly supported to be monophyletic, but Ectobiidae was paraphyletic. This confirmed the results of previous studies6,7,8,9,10,11,12,13,15. Compared with Djernæs et al.12, more ectobiids and blaberids (52 species vs 12 species) were included in our analysis, and our results were quite different. Species of Blaberidae and Ectobiidae each formed monophyletic groups, with the exception of the three ectobiid genera Nyctibora, Paratropes and Latiblattella, which clustered together as the sister group of Blaberidae (BI = 64, MLB = 100). Our finding from ML analysis that Ectobiinae was the earliest branch within the clade Blaberoidea (MLB = 100) is inconsistent with Djernæs et al.11,12 and Che et al.50, but, to some extent, similar to the results of Murienne19 (Fig. 1). However, in BI analysis, Ectobius was recovered as the sister of Pseudophyllodromiinae and Blattellinae, similar to other recent molecular studies11,12,13.
Grandcolas15 proposed that Blaberidae was the sister-group of Pseudophyllodromiinae based on morpho-anatomical characters. In contrast, we found Pseudophyllodromiinae (Latiblattella) and Nyctiborinae (Nyctibora and Paratropes) as sister to Blaberidae, similar to Klass16. Some Pseudophyllodromiinae representatives (Supella, Balta and Margattea were included) were placed as the sister of Blaberidae11, but support values were low.
The estimated age of the split between Mantodea and Blattodea (243.6 Ma (204.3–289.1 Ma 95% CI) shown in Fig. 2) is older than some recent estimates around the Triassic-Jurassic boundary (~200 Ma)51,52,53, although much younger than others (Djernæs et al.12: 273 ± 15 Ma; Legendre et al.13: ~ 300 Ma). However, the divergence time is much older than that of Che et al.50 (2017: 155.41 Ma (145.0–185.09 Ma)), which was based on only a single mitochondrial marker.
The divergence of the lineages leading to termites and Cryptocercus was estimated to have occurred 146.4 Ma (137–164.2 Ma 95% CI), similar to previous studies (Misof et al.52: 145 Ma; Tong et al.53: 140 Ma; Che et al.54: 145.8 Ma) but younger than others (Djernæs et al.12: 185 ± 19 Ma; Legendre et al.13: 195 Ma). The 67.2 Ma (44.1–96.3 Ma 95%CI; Fig. 2) divergence time of the Asian and American Cryptocercus lineages is consistent with recent estimates (Che et al.54: 55.09 Ma (41.55–72.28 Ma); Maekawa et al.18 58.7–77.8 Ma). The divergence times of Corydioidea from the remaining Blattodea, and Blattidae from the remaining Blattoidea were estimated beyond 250 Ma and 220 Ma by Djernæs et al.12, somewhat older than our 209.7 Ma (180.5–244.3 Ma 95% CI) and 178.2 Ma (155.2–204.4 Ma).
Overall our estimated divergence times are younger than those of Djernæs et al.12 and Legendre et al.13. One possible reason for this is the selection of fossils for node calibration. In the aforementioned studies, the following were used: 1) a divergence event within Mantodea; 2) the basal split between Mantodea and Blattodea; 3) splits within termites. Calibrating evolutionary rates on the basis of fossils closely related to the taxa under investigation is thought to increase the accuracy of inferred evolutionary timescales55.
This study is a comprehensive analysis of Blattodea phylogeny based on mitochondrial and nuclear genes. Although some deeper nodes are not well resolved, the recovery of major nodal support for the proposed interfamily relationships is an advance over the majority of previous studies. Perhaps the most instructive finding of the present study is the strong effect of additional sampling on Blattodea molecular analyses. For instance, the inclusioin of additional Ectobiidae and Blaberidae representatives appears to greatly influence the resulting Blaberoidea topology. In future reconstructions of cockroach phylogeny, the introduction of samples that better represent the full diversity of the group is therefore recommended.
Bell, W. J., Roth, L. M. & Nalepa, C. A. Cockroaches: Ecology, Behavior, and Natural History. (The Johns Hopkins University Press, 2007).
Deitz, L. L., Nalepa, C. A. & Klass, K. D. Phylogeny of the Dictyoptera Re-examined (Insecta). Arthropod Syst. Phylo. 61, 69–91 (2003).
Lo, N., Bandi, C., Watanabe, H., Nalepa, C. & Beninati, T. Evidence for cocladogenesis between diverse dictyopteran lineages and their intracellular endosymbionts. Mol. Biol. Evol. 20, 907–913 (2003).
Terry, M. D. & Whiting, M. F. Mantophasmatodea and phylogeny of the lower neopterous insects. Cladistics 21, 240–257 (2005).
Kjer, K. M., Carle, F. L., Litman, J. & Ware, J. A Molecular Phylogeny of Hexapoda. Arthropod Syst. Phylo. 64, 35–44 (2006).
Klass, K. D. & Meier, R. A phylogenetic analysis of Dictyoptera (Insecta) based on morphological characters. Entomol. Abh. 63, 3–50 (2006).
Inward, D., Beccaloni, G. & Eggleton, P. Death of an order: a comprehensive molecular phylogenetic study confirms that termites are eusocial cockroaches. Biol. Lett. 3, 331–335 (2007).
Lo, N., Beninati, T., Stone, F., Walker, J. & Sacchi, L. Cockroaches that lack Blattabacterium endosymbionts: the phylogenetically divergent genus Nocticola. Biol. Lett 3, 327–300, doi:10.1098/rsbl.2006.0614 (2007).
Pellens, R. et al. The evolutionary transition from subsocial to eusocial behaviour in Dictyoptera: Phylogenetic evidence for modification of the “shift-in-dependent-care” hypothesis with a new subsocial cockroach. Mol. Phylogenet. Evol. 43, 616–626 (2007).
Ware, J. L., Litman, J., Klass, K. D. & Spearman, L. A. Relationships among the major lineages of Dictyoptera: the effect of outgroup selection on dictyopteran tree topology. Syst. Entomol. 33, 429–450 (2008).
Djernæs, M., Klass, K. D., Picker, M. D. & Damgaard, J. Phylogeny of cockroaches (Insecta, Dictyoptera, Blattodea), with placement of aberrant taxa and exploration of out‐group sampling. Syst. Entomol. 37, 65–83 (2012).
Djernæs, M., Klass, K. D. & Eggleton, P. Identifying possible sister groups of Cryptocercidae + Isoptera: A combined molecular and morphological phylogeny of Dictyoptera. Mol. Phylogenet. Evol. 84, 284–303 (2015).
Legendre, F. et al. Phylogeny of Dictyoptera: Dating the Origin of Cockroaches, Praying Mantises and Termites with Molecular Data and Controlled Fossil Evidence. PloS One 10, 1–27 (2015).
Klass, K. D. Die Phylogenie der Dictyoptera. (Cuvillier Verlag, Göttingen, 1995).
Grandcolas, P. The phylogeny of cockroach families: a cladistic appraisal of morpho-anatomical data. Can. J. Zool. 74, 508–527 (1996).
Klass, K. D. The external male genitalia and the phylogeny of Blattaria and Mantodea. Bonn. Zool. Monogr. 42, 1–341 (1997).
Lo, N. et al. Evidence from multiple gene sequences indicates that termites evolved from wood-feeding cockroaches. Curr. Biol. 10, 801–804 (2000).
Maekawa, K., Park, Y. C. & Lo, N. Phylogeny of endosymbiont bacteria harbored by the woodroach Cryptocercus spp. (Cryptocercidae: Blattaria): Molecular clock evidence for a late Cretaceous—early Tertiary split of Asian and American lineages. Mol. Phylogenet. Evol. 36, 728–733 (2005).
Murienne, J. Molecular data confirm family status for the Tryonicus-Lauraesilpha group (Insecta: Blattodea: Tryonicidae). Org. Divers. Evol. 9, 44–51 (2009).
Honigberg, B. M. & Kuldovaá, J. Structure of a Nonpathogenic Histomonad from the Cecum of Galliform Birds and Revision of the Trichomonad Family Monocercomonadidae Kirby*. J. Protozool. 16, 526–535 (1969).
Bobyleva, N. N. Morphology and evolution of intestinal parasitic flagellates of the far-eastern roach Cryptocercus relictus. Acta Protozool. 14, 109–160 (1975).
Klass, K. D., Nalepa, C. & Lo, N. Wood-feeding cockroaches as models for termite evolution (Insecta: Dictyoptera): Cryptocercus vs. Parasphaeria boleiriana. Mol. Phylogenet. Evol. 46, 809–817, doi:10.1016/j.ympev.2007.11.028 (2008).
Kambhampati, S. A phylogeny of cockroaches and related insects based on DNA sequence of mitochondrial ribosomal RNA genes. Proc. Nat. Acad. Sci. 92, 2017–2020 (1995).
Simon, C. Evolution, Weighting, and Phylogenetic Utility of Mitochondrial Gene Sequences and a Compilation of Conserved Polymerase Chain Reaction Primers. Ann. Entomol. Soc. Am. 87, 651–701 (1994).
Cognato, A. I. & Vogler, A. P. Exploring data interaction and nucleotide alignment in a multiple gene analysis of Ips (Coleoptera: Scolytinae). Syst. Biol. 50, 758–780 (2001).
Park, Y. C., Maekawa, K., Matsumoto, T., Santoni, R. & Choe, J. C. Molecular phylogeny and biogeography of the Korean woodroaches Cryptocercus spp. Mol. Phylogenet. Evol. 30, 450–464, doi:10.1016/s1055-7903(03)00220-3 (2004).
Miura, T., Maekawa, K., Kitade, O., Abe, T. & Matsumoto, T. Phylogenetic relationships among subfamilies in higher termites (Isoptera: Termitidae) based on mitochondrial COII gene sequences. Ann. Entomol. Soc. Am. 91, 515–523 (1998).
Svenson, G. J. & Whiting, M. F. Reconstructing the origins of praying mantises (Dictyoptera, Mantodea): the roles of Gondwanan vicariance and morphological convergence. Cladistics 25, 468–514 (2009).
Tamura, K., Stecher, G., Peterson, D., Filipski, A. & Kumar, S. MEGA6: Molecular Evolutionary Genetics Analysis version 6.0. Mol. Biol. Evol. 30, 2725–2729, doi:10.1093/molbev/mst197 (2013).
Ronquist, F. et al. MrBayes 3.2: efficient Bayesian phylogenetic inference and model choice across a large model space. Syst. Biol. 61, 539–542, doi:10.1093/sysbio/sys029 (2012).
Stamatakis, A., Hoover, P. & Rougemont, J. A Rapid Bootstrap Algorithm for the RAxML Web Servers. Syst. Biol. 57, 758–771 (2008).
Lanfear, R., Calcott, B., Ho, S. Y. & Guindon, S. Partitionfinder: combined selection of partitioning schemes and substitution models for phylogenetic analyses. Mol. Biol. Evol. 29, 1695–1701, doi:10.1093/molbev/mss020 (2012).
Drummond, A. J. & Rambaut, A. BEAST: Bayesian evolutionary analysis by sampling trees. BMC Evol. Biol. 7, 214 (2007).
Gernhard, T. The conditioned reconstructed process. J. Theor. Biol. 253, 769–778 (2008).
Engel, M. S., Grimaldi, D. A. & Krishna, K. Primitive termites from the Early Cretaceous of Asia (Isoptera). Stuttgarter Beiträge zur Naturkunde Serie B (Geologie und Paläontologie) 371, 1–32 (2007).
Grimaldi, D. A Revision of Cretaceous Mantises and Their Relationships, Including New Taxa (Insecta: Dictyoptera: Mantodea). Am. Mus. Novit. 26, 1–47 (2003).
Nel, A. & Roy, R. Revision of the fossil “mantid” and “ephemerid” species described by Piton from the palaeocene of Menat (France) (Mantodea: Chaeteessidae, Mantidae; Ensifera: Tettigonioidea). Eur. J. Entomol. 93, 223–234 (1996).
Evangelista, D. A. Fossil calibrations for the cockroach phylogeny (Insecta, Dictyoptera, Blattodea), comments on the use of wings for their identification, and a redescription of the oldest Blaberidae. Palaeo. Electro. (in press).
Makarkin, V. N. & Menon, F. First record of fossil ‘rapismatid-like’ Ithonidae (Insecta, Neuroptera) from the Lower Cretaceous Crato Formation of Brazil. Cretaceous Res. 28, 743–753 (2007).
Schlüter, T. Zur Systematik und Palökologie harzkonservieter Arthropoda einer Taphozönose aus dem Cenomanium von NW-Frankreich. (Berliner Geowissenschaftliche Abhandlungen, 1978).
James, M. T. A Preliminary Review of Certain Families of Diptera from the Florissant Miocene Beds. J. Paleontol. 13, 241–247 (1939).
Park, L. E. & Downing, K. F. Paleoecology of an Exceptionally Preserved Arthropod Fauna from Lake Deposits of the Miocene Barstow Formation, Southern California, USA Palaios 16, 175–184 (2001).
McKittrick, F. A. Evolutionary studies of cockroaches. Mem. Cornell Univ. agric. Exp.Sta 389, 1–197 (1964).
Roth, L. M. Some cavernicolous and epigean cockroaches with six new species, and a discussion of the Nocticolidae (Dictyoptera: Blattaria). 95, 297-321 (1988).
Gibert, J. & Deharveng, L. Subterranean Ecosystems: A Truncated Functional Biodiversity. BioScience 52, 473–481 (2002).
Qiu, L., Che, Y. & Wang, Z. Sinolatindia petila gen. n. and sp. n. from China (Blattodea, Corydiidae, Latindiinae). Zookeys 596, 27–38 (2016).
Beccaloni, G. W. Cockroach Species File Online. Version 5.0/5.0., (2014).
Handlirsch, A. Geschichte, Literatur, Technik, Palaontologie, Systematik. (Schroder Chr., Handbuch der Entomologie, 1925).
Rehn, J. W. H. Classification of the Blattaria as indicated by their wings (Orthoptera). Am. Entomol. Soc. (1951).
Che, Y., Gui, S., Lo, N., Ritchie, A. & Wang, Z. Species Delimitation and Phylogenetic Relationships in Ectobiid Cockroaches (Dictyoptera, Blattodea) from China. PloS One 12, 1–25 (2017).
Grimaldi, D. A. & Engel, M. S. Evolution of the Insects. 755 (Cambridge University Press, 2005).
Misof, B. et al. Phylogenomics resolves the timing and pattern of insect evolution. Science 346, 763–767 (2014).
Tong, K. J., Duchêne, S., Ho, S. Y. & Lo, N. Comment on “Phylogenomics resolves the timing and pattern of insect evolution”. Science 349, 487–487 (2015).
Che, Y. et al. A global molecular phylogeny and timescale of evolution for Cryptocercus woodroaches. Mol. Phylogenet. Evol. 98, 201–209, doi:10.1016/j.ympev.2016.02.005 (2016).
Ho, S. Y. W. & Lo, N. The insect molecular clock. Aust. J. Entomol. 52, 101–105 (2013).
We are sincerely grateful for support from the National Natural Sciences Foundation of China (Nos. 31472026, 31672329).
The authors declare that they have no competing interests.
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Wang, Z., Shi, Y., Qiu, Z. et al. Reconstructing the phylogeny of Blattodea: robust support for interfamilial relationships and major clades. Sci Rep 7, 3903 (2017). https://doi.org/10.1038/s41598-017-04243-1
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