Complete

Histeridae

Clown beetles

Michael S. Caterino
Click on an image to view larger version & data in a new window
Click on an image to view larger version & data in a new window
taxon links [up-->]Anapleini [up-->]Onthophilinae [up-->]Niponiinae [up-->]Saprininae [up-->]Paromalini [up-->]Dendrophilini [up-->]Chlamydopsinae [up-->]Abraeinae [up-->]Bacaniini [up-->]Histerinae [up-->]Tribalinae Not MonophyleticNot MonophyleticPhylogenetic position of group is uncertain[down<--]Histeroidea Interpreting the tree
close box

This tree diagram shows the relationships between several groups of organisms.

The root of the current tree connects the organisms featured in this tree to their containing group and the rest of the Tree of Life. The basal branching point in the tree represents the ancestor of the other groups in the tree. This ancestor diversified over time into several descendent subgroups, which are represented as internal nodes and terminal taxa to the right.

example of a tree diagram

You can click on the root to travel down the Tree of Life all the way to the root of all Life, and you can click on the names of descendent subgroups to travel up the Tree of Life all the way to individual species.

For more information on ToL tree formatting, please see Interpreting the Tree or Classification. To learn more about phylogenetic trees, please visit our Phylogenetic Biology pages.

close box
Relationships after Caterino & Vogler 2002.
Containing group: Histeroidea

Introduction

The Histeridae contains about 330 genera and 3900 species (Mazur, 1997). They are mostly predaceous, occurring in a wide variety of habitats for which they are variously specialized. Reputedly typical histerids are shiny, black, ovoid beetles found in dung and carrion. But these represent only a small fraction of true histerid diversity. Many species are associated with dead or dying trees, and other decomposing vegetable matter. Some of the most interesting histerids live in various symbioses, some in vertebrate nests and burrows, and many in the colonies of social insects (Kovarik & Caterino, 2000).

Characteristics

Despite the diversity of body forms in histerids, they may be generally recognized by three main features:

1. The elytra are shortened exposing two (rarely one) abdominal tergites (the terminalmost of which is modified as a pygidium).
2. The head can be retracted deep into the prothorax.
3. The antenna is elbowed (the scape is elongate) and the terminal three antennomeres form a distinct club.
   

 

Drawings copyright © M. S. Caterino, 2002

Discussion of Phylogenetic Relationships

The phylogeny of Histeridae has received significant recent attention. The first modern cladistic analysis was performed by Ohara (1994). Although his analysis utilized only 9 informative characters, and a relatively limited taxon set, some interesting results were obtained. In particular, his analysis highlighted the first character evidence that the two longstanding divisions of Histeridae, Saprinomorphae and Histeromorphae (Wenzel, 1944), were likely not monophyletic.

Click on an image to view larger version & data in a new window
Click on an image to view larger version & data in a new window

Tree from Ohara (1994)

Ohara’s study was expanded upon by Slipinski and Mazur (1999), who analyzed 29 adult characters over a much larger taxon set. Their analysis supported Ohara’s notion that Wenzel’s divisions were artifical, and, significantly, they were the first to provide evidence that the monophyly of some of the subfamilies and tribes was likewise questionable (in particular, Dendrophilinae, Tribalinae, and Exosternini).

Click on an image to view larger version & data in a new window
Click on an image to view larger version & data in a new window

Tree from Slipinski and Mazur (1999)

Both of these studies concluded that Niponius, a cylindrical bark beetle predator from SE Asia, is the most basal extant histerid, and that the shape and habits of this beetle represent the plesiomorphic condition for the family. This concurs with a previous opinion expressed by Roy Crowson (1955), and seems consistent with the accepted hypothesis that the ecomorphologically similar Synteliidae is the sister group of the Histeridae.

The most recent attempt to resolve histerid phylogeny was based on a diverse dataset including adult and larval morphology as well as 18S rDNA sequences (Caterino & Vogler, 2002). That study resulted in the tree presented at the top of this page. Although far from completely resolving histerid phylogeny, this study conflicts seriously with the previous two studies. In particular, the status of Niponius as sister to the remainder of the family finds no support. Rather the most basal groups are suggested to be Onthophilinae and Anapleini. The most significant implication of this resolution is for scenarios of ecomorphological evolution of the family. Instead of having highly specialized subcortical forms as plesiomorphic for the family, it suggests that basal histerids were rather unspecialized, and that various specialized forms and habits have arisen many times during the course of the family’s evolution.

Caterino & Vogler (2002) agree with many of Slipinski & Mazur’s (1999) findings with regard to nonmonophyly of groups like Dendrophilinae, although the specific placements of all of its tribes remain uncertain. Both studies found evidence for a relationship between Bacaniini and Abraeinae. Slipinski and Mazur further placed Anapleini with this group, though Caterino & Vogler’s data found no evidence for this, and instead placed Anapleini at or near the base of Histeridae. Both studies found some evidence of a relationship between the ‘core dendrophilines’, Dendrophilini and Paromalini, although Caterino & Vogler also placed Niponius within this group, possibly as sister group to the latter tribe.

Where Slipinski & Mazur hypothesized the highly specialized cylindrical Trypanaeinae were sister to Abraeinae, Caterino & Vogler suggest that in fact Trypanaeinae are derived from within Abraeinae, and possibly within Teretriini.

Bacaniini have traditionally been included in Dendrophilinae on the basis of a (faintly) prolonged prosternal lobe and exposed antennal cavities, both of which now appear to be plesiomorphies. Slipinski and Mazur (1999) find evidence for a relationship between Bacaniini and Abraeinae in morphological data. Caterino & Vogler (2002) were not able to resolve Bacaniine relationships unambiguously despite the addition of molecular data to morphology.

Histeridae contains two entirely myrmecophilous subfamilies, Hetaeriinae and Chlamydopsinae. Relationships of these have proven particularly difficult to resolve. Most traditional classifications have placed the two as sister families. Recent authors, from Wenzel (1944) onward, have unanimously rejected this view (notwithstanding difficulties finding specific character support for the opinion). Both morphological and molecular data find Hetaeriinae to be closely related to, and probably within, Histerinae. The relationships of Chlamydopsinae, however, remain very obscure. Ohara (1994) suggested a close relationship to Onthophilinae. Slipinski & Mazur’s analysis resulted in a Chlamydopsine/Heteariine sister group relationship, but the authors themselves expressed doubt. Caterino & Vogler’s data were inconclusive, but the authors speculatively agreed with Ohara’s suggestion, with the caveat that Onthophilinae itself is of questionable monophyly.

Onthophilinae and Tribalinae have generally been considered closely related (or have been combined in a single subfamily; Wenzel, 1944; Slipinski and Mazur, 1999.) Ohara (1994) was the first to explicitly disagree with this idea.  Analyses presented by Caterino & Vogler (2002) support Ohara's view, resolving Onthophilus and the three examined Tribalinae far apart. However, this cannot be assumed to hold for members of these groups not examined. Convincing synapomorphies for either subfamily remain to be proposed.

Most of the ideas and relationships presented here would benefit greatly from additional examination. 18S proved highly informative for histerid relationships, but many crucial taxa need to be added to this data set. The most desirable additions would include Niponius (Japan & SE Asia), Chlamydopsinae (Indoaustralian), Peploglyptus (a very rare but widespread myrmecophile), Stictostix (Australia & western USA), Sphaericosoma (Madagascar), and Trypolister (South America).

Other Names for Histeridae

References

Caterino, M. S., and A. P. Vogler. 2002. The phylogeny of the Histeroidea. Cladistics 18(4):394-415.

Crowson, R. A. 1955. The Natural Classification of the Families of Coleoptera. Nathaniel Lloyd, London.

Halstead, D. G. H. 1963. Coleoptera: Histeroidea. Handbooks for the Identification of British Insects 4:1-16.

Kovarik, P. W., and M. S. Caterino. 2001. Histeridae. Pages 212-227 in Arnett, R.H., Jr., and M. C. Thomas. (eds.). American Beetles. Volume 1. Archostemata, Myxophaga, Adephaga, Polyphaga: Staphyliniformia. CRC Press LLC, Boca Raton, FL. xvi + 443 pp.

Kryzhanovskij, O. L., and A. N. Reichardt. 1976. Beetles of the Superfamily Histeroidea. Fauna SSSR, Novaya Seriya 111:1-432.

Mazur, S. 1997. A world catalogue of Histeridae. Genus (Supplement):1-373.

Ohara, M. 1994. A revision of the superfamily Histeroidea of Japan. Insecta Mastumurana (N.S.) 51:1-283.

Slipinski, S. A., and S. Mazur. 1999. Epuraeosoma, a new genus of Histerinae and phylogeny of the family Histeridae. Annales Zoologici (Warszawa) 49:209-230.

Vienna, P. 1980. Coleoptera: Histeridae. Fauna d'Italia 16:1-386.

Wenzel, R. L. 1944. On the classification of histerid beetles. Fieldiana, Zoology 28:51-151 +plates.

Information on the Internet

Masahiro Ohara’s Histeridae home page

Title Illustrations
Click on an image to view larger version & data in a new window
Click on an image to view larger version & data in a new window
Scientific Name Hololepta
Location Mexico
Specimen Condition Dead Specimen
Image Use creative commons This media file is licensed under the Creative Commons Attribution-ShareAlike License - Version 3.0.
Copyright © 2002
Scientific Name Trypaneus junceus
Location central America
Specimen Condition Dead Specimen
Image Use creative commons This media file is licensed under the Creative Commons Attribution-ShareAlike License - Version 3.0.
Copyright © 2002
Scientific Name Onthophilus giganteus
Location Florida, USA
Specimen Condition Dead Specimen
Image Use creative commons This media file is licensed under the Creative Commons Attribution-ShareAlike License - Version 3.0.
Copyright © 2002
Scientific Name Saprinus discoidalis
Location California, USA
Specimen Condition Dead Specimen
Image Use creative commons This media file is licensed under the Creative Commons Attribution-ShareAlike License - Version 3.0.
Copyright © 2002
About This Page


Santa Barbara Museum of Natural History, Santa Barbara, California, USA

All Rights Reserved.

Citing this page:

Caterino, Michael S. 2002. Histeridae. Clown beetles. Version 07 March 2002. http://tolweb.org/Histeridae/9223/2002.03.07 in The Tree of Life Web Project, http://tolweb.org/

edit this page
close box

This page is a Tree of Life Branch Page.

Each ToL branch page provides a synopsis of the characteristics of a group of organisms representing a branch of the Tree of Life. The major distinction between a branch and a leaf of the Tree of Life is that each branch can be further subdivided into descendent branches, that is, subgroups representing distinct genetic lineages.

For a more detailed explanation of the different ToL page types, have a look at the Structure of the Tree of Life page.

close box

Histeridae

Page Content

articles & notes

collections

people

Explore Other Groups

random page

  go to the Tree of Life home page
top