Temporal range: Early Cretaceous to present
Mymar sp. (female)
Scientific classification e
Kingdom: Animalia
Phylum: Arthropoda
Class: Insecta
Order: Hymenoptera
Superfamily: Chalcidoidea
Family: Mymaridae
Haliday, 1833
Type genus
Curtis, 1829

see text.

0-2 subfamilies
c.100 genera
c.1,400 species

Mymaridae, commonly known as fairyflies or fairy wasps, is a family of chalcid wasps found in temperate and tropical regions throughout the world. It contains around 100 genera and 1424 species. All of them are parasitoids of the eggs of other insects. Several species have been successfully used as biological pest control agents.

Like most chalcid wasps, fairyflies are very tiny insects, averaging at only 0.5 to 1.0 mm (0.020 to 0.039 in) long. They include the world's smallest known insect, with a body length of only 0.139 mm (0.0055 in).



Acmotemnus luteiclava (female)
Arescon sp. (female)

Fairyflies are very small insects. They have body lengths in between 0.13 to 5.4 mm (0.0051 to 0.21 in), averaging at 0.5 to 1.0 mm (0.020 to 0.039 in).[1] Their bodies are usually nonmetallic and colored black, brown, or yellow.[2]

They can be distinguished from other chalcid wasps by having an H-shaped pattern of sutures, known as trabeculae or carinae, below the frontmost ocelli and the inner eye margins.[1] Rarely, the sutures can also extend behind the ocelli.[3]

Fairyflies have long antennae, at least as long as the head and the mesosoma (middle part of the body).[2] The antennal toruli (sockets of the antennae) are set high on the head and near the eye margins. They are separated by a distance of three to five times their own diameter. In contrast, the antennae of other chalcid wasps are separated only by one diameter.[4] In females, the antennae are tipped with club-like segments known as clava. In males, the antennae are filiform (thread-like).[2]

Though some fairyflies are wingless or possess only short wings,[2][5] most fairyflies possess wings with long bristles (marginal setae) on the fringes. The forewings usually have hypochaeta. These are small bristles (setae) which point distinctly backwards on the ventral surface of the wing membrane.[1] The hind wings are stalked (petiolate) and very narrow.[2]

Because of their small sizes, fairyflies may sometimes be mistaken for members of the families Aphelinidae and Trichogrammatidae, but members of these other families can readily be distinguished by having much shorter antennae.[2]

Distribution and habitat

Fairyflies are some of the most common chalcid wasp, but because of their minute sizes, they are seldom noticed by humans. This apparent invisibility, their delicate bodies, and their hair-fringed wings have earned them their common name 'fairyfly'.[6]

Fairyflies are found in temperate and tropical regions throughout the world.[4] The largest number of species can be found in tropical forests, with the greatest diversity in genera found in the Southern Hemisphere (South America, New Zealand, and Australia). In the Nearctic (North America), only around 28 (of around 100) genera and 120 (of around 1424) species are found.[2]

Fairyflies can survive in all kinds of terrestrial habitats, from deserts to rainforests.[1] At least five species of fairyflies are also known to be aquatic, inhabiting freshwater ponds and streams.[7] Among these is Caraphractus cinctus, which use their wings as paddles to swim around.[8] They can remain underwater for as long as 15 days.[9][10] Because of their small sizes, however, they have to exit the water by climbing up plant stems that jut through the surface, as they would not be able to break the surface tension of the water otherwise.[11]


All known fairyflies are parasitoids of eggs of other insects. These are commonly eggs which are laid in concealed locations, like in plant tissues or underground.[4][3] They do not seem to be species-specific when it comes to choosing hosts. Some species are known to parasitize insects from several families of a single order. Their most common hosts are insects belonging to the order Hemiptera (true bugs), especially Auchenorrhyncha (leafhoppers, cicadas, and allies) and Coccoidea (scale insects),[2][12] but this might be because these groups are simply better studied. Other important host orders include Coleoptera (beetles), Diptera (true flies), Odonata (dragonflies and allies), Psocoptera (booklice and allies), and Thysanoptera (thrips). Hosts are known definitely for only a quarter of all known genera.[1][13]

Fairyflies include the smallest known insect, Dicopomorpha echmepterygis from Costa Rica, which have males that are only 0.139 mm (0.0055 in) long. They do not have wings or eyes, their mouths are mere holes, and their antennae are simply spherical blobs. The ends of their legs have been modified into suction cups for clutching at females long enough to fertilize them.[6] They are so small, their entire bodies are smaller than a single-celled Paramecium.[14][15] Four male individuals, lined up end-to-end, would just about encompass the width of a period at the end of a typical printed sentence.[1] The females of the species, however, are typical fairyflies, and are much larger.[6][9]

Life cycle

Very little is known of the life histories of fairyflies as only a few species have been observed extensively.[2] They are usually solitary, but can sometimes be gregarious.[4][3]

Mating occurs immediately after emergence. No courting behaviors have been observed and each female is fertilized by only one male.[16] Once fertilized, the males lose interest in the female and the female also loses interest in further mating.[17] In Prestwichia aquatica, mating has been reported to occur prior to the emergence of females from the host eggs.[16] In P. aquatica, Anagres incarnatus, A. armatus, and Anaphes nipponicus, females outnumber males in each brood; from two females for each male to twenty females for each male.[16] In Polynema striaticorne, it is the opposite, with males outnumbering females by a ratio of three to one or more. In Anagrus atomus, A. frequens, A. optabilis, A. perforator, and Polynema euchariformes, females are able to reproduce without males (parthenogenesis), though males may still sometimes be found within broods.[18][16]

Adult lifespans of fairyflies are very short.[16] In Stethynium, adults (males and females) can live for only 1 to 2 days. In Anagrus, depending on the species, it can range from 3 to 11 days.[19] Each fertilized (or parthenogenic) female can lay a maximum of only about 100 eggs.[18] Access to food can prolong lifespans and increase fecundity.[19] In Gonatocerus, it has been shown that with the absence of hosts, females, can resorb eggs, retaining energy in order to live longer and increase the chances of finding hosts.[20]

After emerging, females search rapidly for suitable host eggs by tapping their antennae over stems or barks of plants. When a telltale scar left by egg-laying insects is found, they will insert their antennae into the recess and check to see if the eggs are suitable. If they are, she will thrust her ovipositor into all of the eggs and lay her own eggs inside in quick succession. She retains contact with each of the eggs with her antennae while doing this.[18][16]

Most fairyflies require a sufficient amount of development in embryos inside the eggs before they attack it, as they can't mature if the eggs are too new or if the embryos inside are too advanced. Older host embryos are apparently harder to digest for the fairyfly larvae.[17] However, there are exceptions. Some species of Polynema can attack embryos at various stages of development. They have been recorded to produce three successive generations in a single brood of the treehopper Ceresa.[16]

All fairyflies possess ellipsoid eggs with a long tapering stalk. They develop rapidly once laid and can hatch in six hours to two days.[17] Several generations may be produced in a year, often on different hosts.[1]

Fairyflies have two to four larval stages, all apparently without functional spiracles or tracheae.[3] .[21] Metamorphosis occurs completely within the host egg.[1] They are peculiar for insects which exhibit complete metamorphosis (holometabolism) in that they produce two distinct kinds of larval instars before pupation. In some fairyflies like Anaphes, the first instar is a highly mobile "mymmariform" larva. The second instar, however, is a completely immobile sac-like larva without discernible segments, spines, or setae. In other fairyflies like Anagrus, this is reversed. The first instar is immobile, while the second instar is a very distinctive highly active "hystriobdellid" larva.[1][18] At least one instar of the larvae is capable of overwintering when laid in colder seasons.[3][16]


An illustration of the 'feather-winged' Mymar pulchellum by John Curtis, c. 1840

The family Mymaridae was first established in 1833 by the Irish entomologist Alexander Henry Haliday. Haliday and two close friends and respected entomologists in their own right, John Curtis and Francis Walker, were influential in the early studies on Hymenoptera in the 19th century.[22][23]

Haliday originally described fairyflies as the tribe "Mymares" of the family "Chalcides". He based his descriptions on the type genus Mymar, described by Curtis in 1829.[24]

Earlier attempts of classification by Walker treated the group as a genus, and classified all other known fairyflies under it as subgenera. Walker (who was infamous for his shortcomings in systematic nomenclature)[22] later conceded to Haliday's classification in a letter in 1839 and requested assistance from Haliday in classifying the chalcid wasps collected by Charles Darwin on his voyage on the HMS Beagle.[25] "Mymares", as well as other "tribes" were elevated to the family rank (as Mymaridae) by Haliday in 1839.[26][9][27]

Haliday described fairyflies as "the very atoms of the order Hymenoptera" and remarked on the beauty of their wings when viewed under the microscope.[24] These characteristics of fairyflies also made them popular to entomologists and microscopists of the late 19th century and the early 20th century. The beautifully mounted fairyfly specimens of the early 20th century English microscopist Fred Enock is possibly the most famous of the collections.[28][9]

Taxonomy and etymology

The family Mymaridae is the most primitive member of the chalcid wasp superfamily (Chalcidoidea).[29] There are approximately 1424 species of fairyflies grouped in about 100 genera.[3] The largest genera are Anagrus, Anaphes, Gonatocerus, and Polynema, which comprise approximately half of all known species. They are the most commonly encountered fairyflies, followed by Alaptus, Camptoptera, Erythmelus, Ooctonus, and Stethynium, which make up a further quarter of known species.[1][30] Mymaridae are considered to be monophyletic, but their exact relationships with other chalcid wasps remain unclear.[17]

No commonly accepted subfamilies have been acknowledged,[3] but there are two notable proposals. Annecke and Doutte (1961) proposed the subfamilies Alaptinae and Mymarinae based on the morphology of the gaster. Peck et al. (1964) proposed the subfamilies Gonatocerinae and Mymarinae based on the number of segments (tarsomeres) in the tarsi. Both systems included further tribal categories.[16] A fossil subfamily was also proposed for a genus recovered from Canadian amber.[1]

Of the extant fairyfly genera, the genus Eustochomorpha is the most primitive.[31] For the list of subordinate taxa, see the section below.

The generic name Mymar (and by extension, Mymaridae) was derived by Curtis from the Greek word μΰμαρ (mumar), an Aeolian variant of the standard Greek μῶμος (mōmos, "spot" or "blot", also "blame", "reproach", or "disgrace").[26]

Economic importance

Gonatocerus triguttatus laying its eggs in glassy-winged sharpshooter eggs embedded in a leaf

Fairyflies have been used for the biological pest control of various crop pests.[32] They are especially valued for their ability to locate the eggs of their hosts.[33] Of the fairyflies, the cosmopolitan genus Anagrus is the most promising, as it can parasitize a wide range of hosts. There are at least ten known instances of successful introductions of fairyflies to control pests.[17]

In Hawaii, Anagrus optabilis has been successfully used to control the sugarcane planthopper (Perkinsiella saccharicida).[18] In South Africa, Anaphes nitens was introduced very successfully to control the eucalyptus snout beetle (Gonipterus scutellatus).[17]

Anagrus epos has also previously been used effectively against the grape leafhopper (Erythroneura elegans) and the variegated grape leafhopper (Erythroneura variabilis).[34][35] At first it met limited success as the wasps died in winter for lack of a host. The planting of wild blackberries (Rubus spp.) near vineyards in California brought along with it the blackberry leafhopper (Dikrella cruentata). Though not pests, D. cruentata proved to be sufficient hosts for A. epos in winter, allowing them to survive into the next year.[33][17] They have also been shown capable of overwintering in prune leafhoppers (Edwardsiana prunicola).[36]

Gonatocerus triguttatus, Gonatocerus tuberculifemur, and Anagrus epos (which is probably a species complex) were also studied for possible use in controlling glassy-winged sharpshooters (Homalodisca vitripennis) in California.[37][38][35] Gonatocerus triguttatus and Gonatocerus ashmeadi were eventually introduced in California in 2000. It proved to be very successful, causing a ~90% decline in populations of glassy-winged sharpshooters.[39]

In 2005, Gonatocerus ashmeadi was used against invasive glassy-winged sharpshooters in Tahiti and Moorea of the French Polynesia. Again, it was very effective, bringing down the pest density by ~95% in just a year after introduction.[40] It was subsequently also released in the Society Islands, the Marquesas, and Austral, where similar results were obtained against glassy-winged sharpshooters.[41]

In Australia and Israel, members of the genus Stethynium are being investigated as possible biological control agents for gall-forming crop pests, particularly Ophelimus maskelli.[19]

Fossil record

Compression fossil of Gonatocerus greenwalti from the Kishenehn Formation of Montana

Fairyflies are well-represented in fossil amber inclusions, copal, and compression fossils. Fossils of fairyflies have been found from the Early Cretaceous up to the Miocene epoch. It is, in fact, the only family of chalcid wasps definitely known to date back to the Cretaceous period.[42]

Paleogene and Neogene fossils of fairyflies were first described in 1901 by Fernand Anatole Meunier. He described fossil fairyflies from Baltic amber, most of them from the Eocene (55 to 37 mya). In 1973, Richard L. Doutt described several species from the Burdigalian (20 to 15 mya) amber of Mexico. In 1983, Csaba Thuróczy described another species from Baltic amber, this time dating to the Oligocene (33 to 23 mya). And in 2011, John T. Huber and Dale Greenwalt described fairyfly fossils from the oil shales of the Kishenehn Formation (Lutetian age) of Montana. These comprised two new genera and six species.[43]

Cretaceous fairyflies are much rarer. In 1975, Carl M. Yoshimoto described four genera of fairyflies from the Cretaceous of Canada. In 2011, John T. Huber and George Poinar, Jr. described the genus Myanmymar from Burmese amber. Dating back to the Upper Albian age (about 100 mya) of the Early Cretaceous, it is the oldest known fairyfly (and chalcid wasp). They are surprisingly very similar to modern genera, though with a greater number of flagellar segments and longer forewing veins. The characteristics of the fossil (taking into account Yoshimoto's earlier discoveries) led them to conclude that fairfylies either may have existed much earlier than Myanmymar, or that they may have diversified rapidly during that time period.[42]


Mymaridae includes the genera listed below.[44][45] Allomymar and Metanthemus has been transferred to the family Aphelinidae. The fossil genus Protooctonus has been transferred to the family Mymarommatidae, and is now considered to be a synonym of Archaeromma. Shillingsworthia is also excluded, as it was a tongue-in-cheek hypothetical concept of a species from the planet Jupiter, "described" by Alexandre Arsène Girault in 1920 to disparage his boss Johann Francis Illingworth.[26][46]
Genera marked with † are extinct.

Allanagrus magniclava (female)
Camptopteroides verrucosa
Enneagmus pristinus fossilized in amber
Paracmotemnus sp. (female)
Myanmymar aresconoides (female) is the oldest known fairyfly fossil. It was recovered from Early Cretaceous amber.

Extant genera

  • Acanthomymar Subba Rao, 1970
  • Acmopolynema Ogloblin,1946
  • Acmotemnus Noyes & Valentine, 1989
  • Agalmopolynema Ogloblin, 1960
  • Alaptus Ferrière, 1930
  • Allanagrus Noyes & Valentine, 1989
  • Allarescon Noyes & Valentine, 1989
  • Anagroidea Girault, 1915
  • Anagrus Haliday, 1833
  • Anaphes Haliday, 1833
  • Anneckia Subba Rao, 1970
  • Apoxypteron Noyes & Valentine, 1989
  • Arescon Walker, 1846
  • Australomymar Girault, 1929
  • Baburia Hedqvist, 2004
  • Bakkendorfia Mathot, 1966
  • Boccacciomymar Triapitysn & Berezovskiy, 2007
  • Borneomymar Huber, 2002
  • Boudiennyia Girault, 1937
  • Bruchomymar Ogloblin, 1939
  • Caenomymar Yoshimoto, 1990
  • Callodicopus Ogloblin, 1955
  • Camptoptera Förster,1856
  • Camptopteroides Viggiani, 1974
  • Caraphractus Walker, 1846
  • Ceratanaphes Noyes & Valentine, 1989
  • Chaetomymar Ogloblin,1946
  • Chrysoctonus Mathot,1966
  • Cleruchoides Lin & Huber, 2007
  • Cleruchus Enock,1909
  • Cnecomymar Ogloblin, 1963
  • Cremnomymar Ogloblin, 1952
  • Cybomymar Noyes & Valentine, 1989
  • Dicopomorpha Ogloblin,1955
  • Dicopus Enock, 1909
  • Dorya Noyes & Valentine, 1989
  • Entrichopteris Yoshimoto, 1990
  • Eofoersteria Mathot, 1966
  • Erdosiella Soyka, 1956
  • Erythmelus Enock, 1909
  • Eubroncus Yoshimoto, Kozlov & Trjapitzin, 1972
  • Eucleruchus Ogloblin, 1940
  • Eustochomorpha Girault, 1915
  • Eustochus Haliday, 1833
  • Formicomymar Yoshimoto, 1990
  • Gahanopsis Ogloblin,1946
  • Ganomymar De Santis,1972
  • Gonatocerus Nees, 1834
  • Haplochaeta Noyes et Valentine, 1989
  • Himopolynema Taguchi, 1977
  • Idiocentrus Gahan, 1927
  • Ischiodasys Noyes & Valentine, 1989
  • Kalopolynema Ogloblin, 1960
  • Kikiki Huber & Beardsley, 2000
  • Kompsomymar Lin & Huber, 2007
  • Krokella Huber, 1993
  • Kubja Subba Rao, 1984
  • Litus Haliday,1833
  • Macrocamptoptera Girault, 1910
  • Malfattia Meunier, 1901
  • Mimalaptus Noyes & Valentine, 1989
  • Mymar Curtis,1829
  • Mymarilla Westwood, 1879
  • Myrmecomymar Yoshimoto, 1990
  • Narayanella Subba Rao, 1976
  • Neolitus Ogloblin, 1935
  • Neomymar Crawford, 1913
  • Neostethynium Ogloblin, 1964
  • Neserythmelus Noyes & Valentine, 1989
  • Nesomymar Valentine, 1971
  • Nesopatasson Valentine, 1971
  • Nesopolynema Ogloblin, 1952
  • Notomymar Doutt & Yoshimoto, 1970
  • Omyomymar Schauff, 1983
  • Oncomymar Ogloblin, 1957
  • Ooctonus Haliday,1833
  • Palaeoneura Waterhouse, 1915
  • Palaeopatasson Witsack, 1986
  • Paracmotemnus Noyes & Valentine, 1989
  • Paranaphoidea Girault, 1913
  • Parapolynema Fidalgo, 1982
  • Parastethynium Lin & Huber in Lin, Huber & La Salle, 2007
  • Platyfrons Yoshimoto, 1990
  • Platypolynema Ogloblin, 1960
  • Platystethynium Ogloblin, 1946
  • Polynema Haliday,1833
  • Polynemoidea Girault, 1913
  • Polynemula Ogloblin, 1967
  • Prionaphes Hincks, 1961
  • Pseudanaphes Noyes & Valentine, 1989
  • Pseudocleruchus Donev & Huber, 2002
  • Ptilomymar Annecke & Doutt, 1961
  • Restisoma Yoshimoto, 1990
  • Richteria Girault, 1920
  • Schizophragma Ogloblin, 1949
  • Scleromymar Noyes & Valentine, 1989
  • Scolopsopteron Ogloblin, 1952
  • Steganogaster Noyes & Valentine, 1989
  • Stephanocampta Mathot,1966
  • Stephanodes Enock,1909
  • Stethynium Enock, 1909
  • Tanyostethium Yoshimoto, 1990
  • Tetrapolynema Ogloblin, 1946
  • Zelanaphes Noyes & Valentine, 1989

Fossil genera

The following are the fossil genera classified under Mymaridae:[26][42]

  • Carpenteriana Yoshimoto, 1975
  • Enneagmus Yoshimoto, 1975
  • Eoanaphes Huber in Huber & Greenwalt, 2011
  • Eoeustochus Huber in Huber & Greenwalt, 2011
  • Macalpinia Yoshimoto, 1975
  • Myanmymar Huber in Huber & Poinar, 2011
  • Triadomerus Yoshimoto, 1975

Collection and preservation

Despite their relative abundance, fairyflies are unpopular among modern insect collectors because of the great difficulty in collecting them.[9][47] As one of the least known insect families, there is still a large amount of information that are waiting to be discovered for fairyflies.[1] This is an area of entomology where an amateur naturalist can still make significant contributions.[10]

In the 19th century, Curtis described the methods by which Haliday collected fairyflies as thus:[48]

The minute Hymenoptera are best collected by beating into, and sweeping with, a net made of fine gauze, and Mr. Haliday recommends me to collect them in quills, and afterwards to empty their contents into hot water, by which means their wings are naturally expanded; then by introducing a card under them to take them out of the water, arranging the legs and wings when necessary with a camel's hair pencil, and leaving them upon the card till they are dry, they may afterwards be taken off with a penknife, and gummed upon the points of small pieces of drawing- or card-paper of a long triangular form.
John CurtisBritish Entomology Vol. 7 (1830)[48]

The best modern collection method is using Malaise traps. It requires little maintenance and can collect insects in great abundance. Other effective methods include yellow pan trapping, sweep nets, and suction trapping. Direct collection from leaf litter with Berlese funnels can also result in specimens that can not be collected by other means.[9][49]

Rearing is also another method that can bring the most rewards. This can be done with wild host eggs or laboratory prepared host eggs that are exposed in suitable habitats outside. They can then be taken in after a suitable amount of time has passed and examined for developing fairyflies. With this method, it is possible to observe the life history and determine the hosts of particular species of discovered fairyflies.[9]

Preservation is a problem for fairyflies (and other small chalcid wasps). Their tiny sizes require special methods. Specimens have to be dried, if collected wet, e.g. if ethyl alcohol is used as the killing agent. Drying can make specimens extremely brittle, so additional care should also be taken not to disintegrate them. Mounting specimens (preferably in permanent slides) is also time-consuming and requires a fair amount of practice. They are gummed or glued into cards, as they can not be mounted on pins like larger insects.[9][50]

See also


  1. ^ a b c d e f g h i j k l Elisabetta Chiappini & John T. Huber (2008). "Fairyflies (Hymenoptera: Mymaridae)". In John L. Capinera. Encyclopedia of entomology. Springer. p. 1407–1409. ISBN 9781402062421. http://books.google.com.ph/books?id=50tXxazrCvoC&lpg=PP1&hl=en&pg=PA499#v=onepage&q&f=false. 
  2. ^ a b c d e f g h i John T. Huber (1997). "Chapter 14. Mymaridae". In Gary A. P. Gibson, John Theodore Huber, & James Braden Woolley. Annotated keys to the genera of Nearctic Chalcidoidea (Hymenoptera). NRC Series. NRC Research Press, National Research Council of Canada. p. 499–500. ISBN 9780660166698. http://books.google.com.ph/books?id=50tXxazrCvoC&lpg=PP1&hl=en&pg=PA499#v=onepage&q&f=false. 
  3. ^ a b c d e f g B.R. Pitkin (June 7, 2004). "Mymaridae". Universal Chalcidoidea Database, The Natural History Museum. http://www.nhm.ac.uk/research-curation/research/projects/chalcidoids/mymaridae.html. 
  4. ^ a b c d Systematic Entomology Laboratory. "Family Mymaridae". Agricultural Research Service, United States Department of Agriculture. http://www.sel.barc.usda.gov/hym/chalcids/Mymarid.html. 
  5. ^ Richard L. Doutt & Carl M. Yoshimoto (1970). "Hymenoptera: Chalcidoidea: Mymaridae of South Georgia". Pacific Insects Monograph 23: 293–294. http://ag.udel.edu/delpha/3884.pdf. 
  6. ^ a b c John T. Huber (2009). "Biodiversity of Hymenoptera". In Robert G. Foottit & Peter Holdridge Adler. Insect biodiversity: Science and Society. John Wiley and Sons. p. 313. ISBN 9781405151429. http://books.google.com.ph/books?id=LBZHpYY2_8gC&lpg=PP1&hl=en&pg=PA313#v=onepage&q&f=false. 
  7. ^ Seguei V. Triapitsyn, Ranyse B. Querino, & Malu C.B. Feitosa (2008). "A New Species of Anagrus (Hymenoptera: Mymaridae) from Amazonas, Brazil". Neotropical Entomology 37 (6): 681–684. http://www.scielo.br/pdf/ne/v37n6/a09v37n6.pdf. 
  8. ^ Gilbert Waldbauer (2008). A Walk Around the Pond: Insects in and Over the Water. Harvard University Press. pp. 25–26. ISBN 9780674027657. http://books.google.com.ph/books?id=P3vFM3-52i0C&lpg=PP1&hl=en&pg=PA25#v=onepage&q&f=false. 
  9. ^ a b c d e f g h J.S. Noyes & E.W. Valentine (1989). "Mymaridae (Insecta: Hymenoptera) — introduction, and review of genera". Fauna of New Zealand (DSIR Publishing) (No. 17). http://www.landcareresearch.co.nz/research/biosystematics/invertebrates/faunaofnz/Extracts/FNZ17/documents/FNZ17NoyesValentine1989300.pdf. 
  10. ^ a b Carl M. Yoshimoto (1990). A review of the genera of New World Mymaridae (Hymenoptera; Chalcidoidea). Sandhill Crane Press. ISBN 9781877743047. http://books.google.co.za/books?hl=en&id=FMZfG-Unl8IC&dq=Mymaridae&printsec=frontcover&source=web&ots=amNnfyxCpI&sig=TGbbhtTGktxkQ1MKSCy1oCrla2o&sa=X&oi=book_result&resnum=10&ct=result. 
  11. ^ May Berenbaum (1993). Ninety-nine more maggots, mites, and munchers. University of Illinois Press. p. 189. ISBN 9780252063220. http://books.google.com.ph/books?id=lsh9yKFVW-gC&lpg=PR1&hl=en&pg=PA189#v=onepage&q&f=false. 
  12. ^ Cedric Gillott (1999). Entomology. Springer. p. 334. ISBN 9780306449673. http://books.google.com.ph/books?id=DrTKxvZq_IcC&lpg=PR1&hl=en&pg=PA334#v=onepage&q&f=false. 
  13. ^ E. Baquero & R. Jordana (2005). "Contribution to the knowledge of the family Mymaridae Haliday (Hymenoptera: Chalcidoidea) in Navarra, North of Iberian península". Boln. Asoc. esp. Ent. 26 (3-4): 75–91. ISSN 0210-8984. http://www.entomologica.es/cont/publis/boletines/1001.pdf. 
  14. ^ John R. Meyer. "World's Smallest Insect". College of Agriculture and Life Sciences, Northern California State University. http://www.cals.ncsu.edu/course/ent425/text01/smallest.html. 
  15. ^ Christer Björkman, Karl Gotthard, & Mats W. Pettersson (2009). "Body Size". In Timothy D. Schowalter. Insect Ecology: An Ecosystem Approach. Academic Press. p. 115. ISBN 9780123741448. http://books.google.com.ph/books?id=LQqHWCtj0F0C&lpg=PP1&hl=en&pg=PA115#v=onepage&q&f=false. 
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