Langland's Mouse Spider Missulena langlandsi Framenau & Harms, 2013
Fauna Portal species: 7634Diagnosis
(after Greenberg et al. 2021): Missulena langlandsi is a red-headed Pilbara region mouse spider and is similar to M. davidi, which is widespread in the central Pilbara. They differ from M. david by thin rastellar spines (strong and conical in the former) and their size (carapace > 3.00 mm in M. davidi, < 2.9 mm in M. langlandsi up to 2.8 mm) (Greenberg et al. 2021).
(after Harms & Framenau 2013): Males of M. langlandsi differ from other red-headed Missulena (M. occatoria, M. insignis and M. reflexa) in their small body size (about < 5.0 in M. langlandsi, > 8.0 in other species), small number of cheliceral teeth (retrolateral row with less than 7 teeth), rastellum with less than 8 spines, patellae III with less than 30 rasps, patellae IV with less than 15 rasps, and the undivided second pair of sigilla (see Womersley 1943: 262). Females of M. langlandsi are unknown.
Status
- native
Linnean Holotype
Australia
- Western Australia
Fauna Portal Records
The map shows all records that have been verified as part of the Fauna Portal project and may not represent the true distribution of a species. Specifically, for described species, check the link to the Atlas of Living Australia on this page for potential wider distributions. Fauna Portal Reference specimens and Linnean types are shown in red. If you identified a specimen that exceeds the distribution of an undescribed species as illustrated here, please contact the Fauna Portal team who can assist with the lodgement of the specimen in a public institution and display on the map.
Similar Species
Publications
Framenau V.W. & Harms H. (2013): New species of Mouse Spiders (Araneae: Mygalomorphae: Actinopodidae: Missulena) from the Pilbara region, Western Australia. Zootaxa. 3637: 521 - 540
Greenberg M.R., Huey J.A., Framenau V.W. & Harms D. (2021): Three new species of mouse spider (Araneae: Actinopodidae: Missulena Walckenaer, 1805) from Western Australia, including an assessment of intra specific variability in a widespread species from the arid biome. Arthropod Systematics & Phylogeny. 79: 509 - 533
AAAGATATTGGAACTATATATTTGATTTTGGGAATTTGATCAGCTATATTGGGGACAGCGATGAGAGTAATTATTCGGACAGAGTTAGGTCAGGTAGGAAGATTATTGGGTGATGATCATCTTTATAATGTAATTGTAACAGCTCATGCCTTAGTTATGATCTTTTTTATGGTCATGCCTATTATGATTGGAGGGTTTGGAAATTGGTTAGTCCCTTTAATATTAGGTGCTCCTGATATAGCATTTCCTCGTATGAATAATTTAAGATTTTGGTTATTACCACCCTCATTATTTATATTACTTTTATCATCATTGACTGATGTAGGAGTGGGAGCAGGTTGAACTATTTATCCTCCTTTGTCTTCTAGATTGGGTCATGGTGGAGGAGGTATGGATTTTGCGATTTTTTCTTTGCATTTAGCAGGAGCATCTTCTATTATGGGAGCTATTAATTTTATTTCTACTATTGTAAATATGCGTATGTCTGGGATGAGAATAGAGAAAGTATCTTTGTTTGTTTGATCAGTACTTATTACTACTATTTTATTATTATTGGCTTTGCCTGTATTGGCAGGGGCTATTACTATGTTACTGACTGATCGAAATTTTAATACATCATTTTTTGATCCGGCTGGTGGGGGAGATCCTGTGTTATTCCAACATTTGTTTTGGTTTTTTGGTCATCCTGAAGTATATATTTTAATTTTGCCAGGTTTTGGCATGATTTCTCATATTGTGAGAAGATCAGTCGGGAAACGTGAGCCTTTTGGAGTGTTAGGAATGATTTATGCAATAGCTGGAATTGGAGGGATAGGTTTTGTGGTGT
AAAGATATTGGAACTATATATTTGATTTTAGGGGTTTGATCAGCTATATTGGGAACAGCAATGAGAGTAATTATTCGGACAGAGTTAGGACAAGTAGGAAGATTATTGGGTGATGATCATCTTTATAATGTAATTGTAACAGCTCATGCTCTAGTTATGATTTTTTTTATGGTCATGCCTATTATGATTGGAGGGTTTGGAAATTGGTTAGTTCCTTTAATATTAGGAGCTCCTGATATAGCATTTCCTCGTATGAATAATTTAAGATTTTGGTTATTACCACCTTCATTATTTATATTACTTTTATCATCATTGACTGATGTAGGTGTGGGGGCAGGTTGAACTATTTATCCTCCTTTATCTTCTAGATTGGGTCATGGTGGTGGGGGTATGGATTTTGCGATTTTTTCTTTACACTTAGCAGGAGCATCTTCTATTATAGGAGCTATTAATTTTATTTCTACTATTGTAAATATACGTGTATCTGGAATGAGAATAGAGAAAATATCTTTGTTTGTTTGATCAGTATTTATCACTACTATTTTATTATTATTGGCTTTGCCTGTTTTAGCAGGGGCTATTACTATGTTGCTGACTGATCGAAATTTTAATACATCATTTTTTGATCCGGCTGGTGGGGGGGATCCTGTGTTATTCCAACATTTATTTTGGTTTTTTGGACATCCTGAGGTATATATTTTAATTTTGCCAGGTTTTGGTATGATTTCTCATATTGTGAGAAGATCAGTTGGGAAACGTGAACCTTTTGGAGTGTTAGGAATGATTTATGCAATAGCTGGAATTGGAGGGATAGGATTTGTGGTGT
AACTATATATTTGATTTTAGGTATTTGATCAGCTATATTGGGGACAGCAATGAGAATAATTATTCGGACAGAGTTAGGGCAAGTAGGAAGATTATTGGGAGATGATCATCTTTATAATGTAATTGTAACGGCTCATGCTCTAGTTATGATTTTTTTTATGGTCATACCTATTATGATTGGGGGGTTTGGAAATTGGTTAGTTCCTTTAATATTAGGAGCTCCTGATATAGCATTTCCTCGTATGAATAATTTAAGATTTTGGTTATTACCACCTTCATTATTTATATTACTTTTATCATCATTGACTGATGTAGGTGTGGGGGCAGGTTGAACTATTTATCCTCCTTTATCCTCTAGATTGGGTCATGGTGGTGGAGGTATGGATTTTGCGATTTTTTCTTTGCACTTAGCAGGAGCATCATCTATTATAGGAGCTATTAATTTTATTTCTACTATTTTAAATATGCGTATATCTGGAATGAGAATAGAGAAAGTATCTTTGTTTGTTTGATCAGTATTTATCACTACTATTTTATTATTATTGGCTTTGCCTGTTTTAGCAGGGGCCATTACTATGTTGCTGACTGATCGAAATTTTAACACATCATTTTTTGATCCAGCTGGCGGAGGTGATCCTGTGTTATTCCAGCATTTATTT
AACTATATATTTGATTTTAGGGGTTTGATCAGCTATATTGGGAACAGCAATGAGAGTAATTATTCGGACAGAGTTAGGACAAGTAGGAAGATTATTGGGTGATGATCATCTTTATAATGTAATTGTAACAGCTCATGCTCTAGTTATGATTTTTTTTATGGTCATGCCTATTATGATTGGAGGGTTTGGAAATTGGTTGGTTCCTTTAATATTAGGAGCTCCTGATATAGCATTTCCTCGTATGAATAATTTAAGATTTTGGTTATTACCCCCTTCATTATTTATATTACTTTTATCATCATTGACTGATGTAGGTGTGGGGGCAGGTTGAACTATTTATCCTCCTTTATCTTCTAGATTGGGTCATGGCGGTGGGGGTATGGATTTTGCGATTTTTTCTTTACACTTAGCAGGAGCATCTTCTATTATAGGGGCTATTAATTTTATTTCTACTATTGTAAATATACGTATATCTGGAATGAGAATAGAGAAAGTATCTTTGTTTGTTTGATCAGTATTTATCACTACTATTTTATTATTATTGGCTTTGCCTGTTTTAGCAGGGGCTATTACTATGTTGCTGACTGATCGAAATTTTAATACATCATTTTTTGATCCGGCTGGTGGGGGGGATCCTGTGTTATTCCAACATTTATTT
AAAGATATTGGAACTATATATTTGATTTTAGGGGTTTGATCAGCTATATTGGGAACAGCAATGAGAGTAATTATTCGGACAGAGTTAGGACAAGTAGGAAGATTATTGGGTGATGATCATCTTTATAATGTAATTGTAACAGCTCATGCTCTAGTTATGATTTTTTTTATGGTCATGCCTATTATGATTGGAGGGTTTGGAAATTGGTTAGTTCCTTTAATATTAGGAGCTCCTGATATAGCATTTCCTCGTATGAATAATTTAAGATTTTGGTTATTACCACCTTCATTATTTATATTACTTTTATCATCATTGACTGATGTAGGTGTGGGGGCAGGTTGAACTATTTATCCTCCTTTATCTTCTAGATTGGGTCATGGTGGTGGGGGTATGGATTTTGCGATTTTTTCTTTACACTTAGCAGGAGCATCTTCTATTATAGGAGCTATTAATTTTATTTCTACTATTGTAAATATACGTATATCTGGAATGAGAATAGAGAAAGTATCTTTGTTTGTTTGATCAGTATTTATCACTACTATTTTATTATTATTGGCTTTGCCTGTTTTAGCAGGGGCTATTACTATGTTGCTGACTGATCGAAATTTTAATACATCATTTTTTGATCCGGCTGGTGGGGGGGATCCTGTGTTATTCCAACATTTATTTTGGTTTTTTGGACATCCTGAGGTATATATTTTAATTTTGCCAGGTTTTGGTATGATTTCTCATATTGTGAGAAGATCAGTTGGGAAACGTGAACCTTTTGGAGTGTTAGGAATGATTTATGCAATAGCTGGAATTGGAGGGATAGGATTTGTGGTGT
AACTATATATTTGATTTTAGGAATTTGATCAGCTATATTGGGGACAGCGATGAGAGTAATTATTCGAACAGAGTTAGGACAGGTAGGAAGATTATTGGGTGATGATCATCTTTATAATGTAATTGTAACAGCTCATGCTTTAGTTATGATCTTTTTTATGGTCATACCTATTATGATTGGAGGGTTTGGAAATTGGTTAGTCCCTTTAATATTAGGAGCTCCTGATATAGCATTTCCTCGTATGAATAATTTAAGATTTTGGATATTACCACCCTCATTATTTATATTACTTTTATCATCATTGACTGATGTAGGAGTGGGGGCAGGTTGAACTATTTATCCTCCTTTGTCTTCTGGGTTGGGTCATGGTGGAGGAGGTATGGATTTTGCGATTTTTTCTTTGCATTTAGCAGGAGCATCTTCTATTATGGGAGCTATTAATTTTATTTCTACTATTGTAAATATGCGTATGTCTGGGATGAGAATAGAGAAAGTATCTTTGTTTGTTTGATCAGTACTTATTACTACTATTTTATTATTATTGGCTTTGCCTGTATTGGCAGGGGCTATTACTATGTTGCTGACTGATCGAAATTTTAATACATCATTTTTTGATCCGGCTGGTGGGGGAGATCCTGTGTTATTCCAACATTTGTTT
AACTATATATTTGATTNTGGGAATTTGATCAGCTATATTGGGGACAGCGATGAGAGTAATTATTCGGACAGAGTTAGGTCAGGTAGGAAGATTATTGGGTGATGATCATCTTTATAATGTAATTGTAACAGCTCATGCCTTAGTTATGATCTTTTTTATGGTCATGCCTATTATGATTGGAGGGTTTGGAAATTGGTTAGTCCCTTTAATATTAGGTGCTCCTGATATAGCATTTCCTCGTATGAATAATTTAAGATTTTGGTTATTACCACCCTCATTATTTATATTACTTTTATCATCATTGACTGATGTAGGAGTGGGAGCAGGTTGAACTATTTATCCTCCTTTGTCTTCTAGATTGGGTCATGGTGGAGGAGGTATGGATTTTGCGATTTTTTCTTTGCATTTAGCAGGAGCATCTTCTATTATGGGAGCTATTAATTTTATTTCTACTATTGTAAATATGCGTATGTCTGGGATGAGAATAGAGAAAGTATCTTTGTTTGTTTGATCAGTACTTATTACTACTATTTTATTATTATTGGCTTTGCCTGTATTGGCAGGGGCTATTACTATGTTACTGACTGATCGAAATTTTAATACATCATTTTTTGATCCGGCTGGTGGGGGAGATCCTGTGTTATTCCAACATTTGTTT
AACTATATATTTGATTTTAGGGGTTTGATCAGCTATATTGGGAACAGCAATGAGAGTAATTATTCGGACAGAGTTAGGACAAGTAGGAAGATTATTGGGTGATGATCATCTTTATAATGTAATTGTAACAGCTCATGCTCTAGTTATGATTTTTTTTATGGTCATGCCTATTATGATTGGAGGGTTTGGAAATTGGTTGGTTCCTTTAATATTAGGAGCTCCTGATATAGCATTTCCTCGTATGAATAATTTAAGATTTTGGTTATTACCCCCTTCATTATTTATATTACTTTTATCATCATTGACTGATGTAGGTGTGGGGGCAGGTTGAACTATTTATCCTCCTTTATCTTCTAGATTGGGTCATGGCGGTGGGGGTATGGATTTTGCGATTTTTTCTTTACACTTAGCAGGAGCATCTTCTATTATAGGGGCTATTAATTTTATTTCTACTATTGTAAATATACGTATATCTGGAATGAGAATAGAGAAAGTATCTTTGTTTGTTTGATCAGTATTTATCACTACTATTTTATTATTATTGGCTTTGCCTGTTTTAGCAGGGGCTATTACTATGTTGCTGACTGATCGAAATTTTAATACATCATTTTTTGATCCGGCTGGTGGGGGGGATCCTGTGTTATTCCAACATTTATTT
AACTATATATTNGATTTTAGGGGTTTGATCAGCTATATTGGGAACAGCAATGAGAGTAATTATTCGGACAGAGTTAGGACAAGTAGGAAGATTATTGGGTGATGATCATCTTTATAATGTAATTGTAACAGCTCATGCTCTAGTTATGATTTTTTTTATGGTCATGCCTATTATGATTGGAGGGTTTGGAAATTGGTTAGTTCCTTTAATATTAGGAGCTCCTGATATAGCATTTCCTCGTATGAATAATTTAAGATTTTGGTTATTACCACCTTCATTATTTATATTACTTTTATCATCATTGACTGATGTAGGTGTGGGGACAGGTTGAACTATTTATCCTCCTTTATCTTCTAGATTGGGTCATGGTGGTGGGGGTATGGATTTTGCGATTTTTTCTTTACACTTAGCAGGAGCATCTTCTATTATAGGGGCTATTAATTTTATTTCTACTATTGTAAATATACGTATATCTGGAATGAGAATAGAGAAAGTATCTTTGTTTGTTTGATCAGTATTTATCACTACTATTTTATTATTATTGGCTTTGCCTGTTTTAGCAGGGGCTATTACTATGTTGCTGACTGATCGAAATTTTAATACATCATTTTTTGATCCGGCTGGTGGGGGGGATCCTGTGTTATTCCANCATTTATTT
Araneae (Spiders)
- Actinopodidae
- Missulena
- bradleyi
- davidi
- dipsaca
- durokoppin
- faulderi
- FP-11270 (WAM MYG993)
- FP-11337 (WAM MYG252)
- FP-12574
- FP-13977 (WAM MYG969)
- FP-13978 (WAM MYG931)
- FP-13979 (WAM MYG966)
- FP-13980 (WAM MYG967)
- FP-13981 (WAM MYG968)
- FP-13982 (WAM MYG964)
- FP-13984 (WAM MYG929)
- FP-13986 (WAM MYG940)
- FP-13987 (WAM MYG047)
- FP-13988 (WAM MYG973)
- FP-13989 (WAM MYG972)
- FP-13990 (WAM MYG932)
- FP-13991 (WAM MYG941)
- FP-13992 (WAM MYG928)
- FP-13993 (WAM MYG970)
- FP-13994 (WAM MYG926)
- FP-13995 (WAM MYG635)
- FP-13996 (WAM MYG048)
- FP-13997 (WAM MYG046)
- FP-13998 (WAM MYG995)
- FP-13999 (WAM MYG939)
- FP-14000 (WAM MYG049)
- FP-14002
- FP-14003
- FP-14004 (WAM MYG290)
- FP-14005 (WAM MYG043)
- FP-14006 (WAM MYG930)
- FP-14008 (WAM MYG226)
- FP-14010 (WAM MYG040)
- FP-14011 (WAM MYG994)
- FP-14012 (WAM MYG962)
- FP-14013 (WAM MYG289)
- FP-14647 (WAM MYG051)
- FP-14648 (WAM MYG844)
- FP-14649 (WAM MYG927)
- FP-14651 (WAM MYG933)
- FP-14652 (WAM MYG971)
- FP-14653
- FP-377 (BWI sp. 1)
- gelasinos
- granulosa
- harewoodi
- hoggi
- ignea
- iugum
- langlandsi
- leniae
- mainae
- manningensis
- melissae
- minima
- occatoria
- pinguipes
- pruinosa
- rutraspina
- terra
- torbayensis
- Missulena
- Anamidae
- Araneae fam. indet.
- Araneidae
- Archaeidae
- Argyronetidae
- Arkyidae
- Barychelidae
- Cheiracanthiidae
- Clubionidae
- Corinnidae
- Ctenidae
- Cycloctenidae
- Deinopidae
- Desidae
- Dictynidae
- Filistatidae
- Gnaphosidae
- Halonoproctidae
- Hersiliidae
- Idiopidae
- Lamponidae
- Linyphiidae
- Lycosidae
- Mimetidae
- Miturgidae
- Mysmenidae
- Nicodamidae
- Oecobiidae
- Oonopidae
- Oxyopidae
- Paraplectanoididae
- Philodromidae
- Pholcidae
- Phonognathidae
- Pisauridae
- Prodidomidae
- Salticidae
- Scytodidae
- Segestriidae
- Selenopidae
- Sparassidae
- Symphytognathidae
- Tetrablemmidae
- Tetragnathidae
- Theridiidae
- Thomisidae
- Toxopidae
- Trachelidae
- Trachycosmidae
- Trochanteriidae
- Uloboridae
- Zodariidae
- Zoropsidae
All classes
- Arachnida
- Crustacea
- Entognatha
- Gastropoda
- Insecta
- Blattodea s. str. (Cockroaches)
- Coleoptera (Beetles)
- Dermaptera (earwigs)
- Diptera (flies, mosquitos)
- Entomobryomorpha (slender springtails)
- Hemiptera - Auchenorrhyncha (cicadas, planthoppers)
- Hemiptera - Heteroptera (True Bugs)
- Hemiptera - Sternorrhyncha (aphids, scales etc.)
- Hymenoptera - Formicidae (Ants)
- Hymenoptera excl. Formicidae (bees and wasps)
- Mantodea (Praying Mantises)
- Orthoptera - Caelifera (Grasshoppers)
- Trichoptera (Caddisflies)
- Zygentoma (silverfish)
- Myriapoda
