The grass huntsman spider genus Pseudomicrommata Järvi, 1914 is revised in the Afrotropical Region, resulting in the recognition of four valid species. The type species, P. longipes (Bösenberg & Lenz, 1895) is redescribed and recorded from Kenya, Tanzania, Botswana, South Africa and Namibia. Pseudomicrommata vittigera (Simon, 1897) stat. rev. (from South Africa and Namibia) is revalidated and its male described here for the first time. Two new species are described: P. mary sp. n. (male and female) from Guinea and Ivory Coast, and P. schoemanae sp. n. (female) from Cameroon.
Despite being amongst the largest and most frequently encountered spiders, the huntsman spiders (family Sparassidae Bertkau, 1872) have been infrequently studied in Africa (e.g. Jäger & Kunz 2005; Moradmand 2013). To date, 33 sparassid genera have been reported from Africa, of which just four genera have been revised taxonomically, including Palystes L. Koch, 1875 (by Croeser 1996), Cebrennus Simon, 1880 (by Jäger 2000, 2014), Chrosioderma Simon, 1897 (by Silva 2005) and Eusparassus Simon, 1903 (by Moradmand & Jäger 2012; Moradmand 2013).
Pseudomicrommata Järvi, 1914 will be the fifth African genus to be studied at length and is revised here. Pseudomicrommata species are medium-sized Sparassidae strongly associated with vegetation, mostly grasslands and savannahs, hence the common name “grass huntsman spider”. The genus is easily distinguished from other African Sparassidae because of its unique coloration, with the body decorated by a single darker median stripe dorsally in contrast to the rest of the paler body. This kind of coloration can be observed in other foliage-dwelling Sparassidae, such as the species of the European genus Micrommata Latreille, 1804.
The systematic position of Pseudomicrommata within Sparassidae is not fully understood. Järvi (1914) placed Pseudomicrommata along with Eusparassus in his newly proposed subfamily Eusparassinae Järvi, 1914, using the characters of the female copulatory organs. Later, Jäger and Kunz (2003) added new somatic characters to those proposed by Järvi and proposed some other African genera to be included in Eusparassinae. Recent molecular analyses by Moradmand et al. (2014) suggested that Eusparassinae should be considered monotypic, with the genus Eusparassus as the subfamily name-bearing taxon. The remaining genera formerly included in Eusparassinae, including Pseudomicrommata, were recovered in a separate clade named the “African Clade”. The monophyly of the African Clade was not fully resolved, but a close relationship between Pseudomicrommata and the genus Arandisa Lawrence, 1938, a desert-dwelling Sparassidae endemic to southwestern Africa, was recovered (Moradmand et al. 2014).
Prior to this study, Pseudomicrommata was known as a monotypic genus, with its type species P. longipes (Bösenberg & Lenz, 1985) described from Eastern Africa (World Spider Catalog 2015). Prior to this revision all individuals of Pseudomicrommata were thought to be P. longipes. After a taxonomic revision of the genus, using a large number of specimens from all its distribution range, I concluded that at least four different species are present in the Afrotropical Region. These four species are here diagnosed and (re)described.
MATERIAL AND METHODS
Specimens for this study were obtained from the main African spider collections in Europe and Africa (see the list of collections and curators). Morphological investigations were performed using a Leica MZ 165C stereomicroscope equipped with a drawing tube. Specimens were submerged in 70 % ethanol for examination, measurements and illustrations. The description methodology follows Moradmand (2013). Measurements are given in millimetres. The size classes of specimens are according to Jäger (2001) [small (3–10), medium (10–20)]. Details of the characters used for description and diagnosis are listed below.
The following abbreviations are used throughout the text: AB — anterior bands of epigynal field; ALE — anterior lateral eyes; AME — anterior median eyes; AMP — anterior margin of epigynal pocket; C — conductor; CD — copulatory duct; CO — copulatory opening; DK — field numbers used by Dirk Kunz; dRTA — dorsal RTA; EA — embolic apophysis; EF — epigynal field; EP — epigynal pocket; EM — embolus membrane; fTL — first turning loop; GPO — glandular pores; LL — lateral lobes; MS — median septum; PLE — posterior lateral eyes; PME — posterior median eyes; PMP — posterior margin of epigynal pocket; RTA — retrolateral tibial apophysis; SD — Sparassidae DNA numbers in SMF; SS — slit sensillum; sTL — second turning loop; T — tegulum; vRTA — ventral RTA; I–IV — 1st to 4th leg.
Material from the following museum collections was included in this study (curators are given in parentheses):
Muséum national d'Histoire naturelle, Paris, France (Christine Rollard);
Musée royal de l' Afrique centrale, Tervuren, Belgium (Rudy Jocqué, Christophe Allard);
KwaZulu-Natal Museum, Pietermaritzburg, South Africa (Audrey Ndaba, Chrizelda Stoffels);
National Collection of Arachnida, Agricultural Research Council (ARC) — Plant Protection Research Institute, Pretoria, South Africa (Ansie Dippenaar-Schoeman, Petro Marais);
Iziko South African Museum, Cape Town, South Africa (Dawn Larsen);
Senckenberg Research Institute, Frankfurt am Main, Germany (Julia Altmann, Peter Jäger);
Museum für Naturkunde, Berlin, Germany (Anja Friederichs, Jason Dunlop);
Zoological Museum, University of Hamburg, Germany (Hieronymus Dastych).
Family Sparassidae Bertkau, 1872
Genus Pseudomicrommata Järvi, 1914
Micrommata Latreille, 1804 [in part]: Bösenberg & Lenz 1895: 34, pl. 1, fig. 11; Simon 1897a: 490; Simon 1897b: 65, fig. 54; Lawrence 1927: 43, fig. 30; Lessert 1936: 271, figs 68–69 (misidentification).
Type species: Pseudomicrommata longipes (Bösenberg & Lenz, 1895), subsequent designation of genus by Järvi (1914) using the material of Simon, 1897b sub Micrommata vittigerum (junior synonym of P. longipes).
Extended and comparative diagnosis: Pseudomicrommata (and Arandisa) are distinguishable from other Sparassidae genera by a distinct pair of epigynal pockets (EP) in females, while the median septum (MS) is clearly visible throughout the epigynal field (EF) between the EP (e.g. Figs 8, 28, 33) (pocket-like structures present in the Asian genera Sinopoda Jäger, 1999 and Bhutaniella Jäger, 2000 too, but in a different morphology: MS, if present, is not extended into the anterior half of the EF). In males, Pseudomicrommata (and Arandisa) have an enlarged embolic apophysis (EA) originating from the median point of the embolus. The presence of a median dark stripe running the length of the dorsum (Fig. 1) clearly distinguishes Pseudomicrommata from its closest relative, Arandisa. Additionally, in Pseudomicrommata spp. the anterior lateral eyes (ALE) are usually the largest, while in Arandisa spp. the posterior lateral eyes (PLE) are distinctly the largest eyes. Moreover, Pseudomicrommata is diagnosable from Eusparassus by the presence of three pairs of ventral tibial spines on legs I–IV (two pairs in Eusparassus).
Redescription: Small to medium-sized Sparassidae; prosoma slightly longer than wide; opisthosoma elongated; leg formula IV II I III or IV II III I; two rows of eyes, with anterior row recurved and posterior row procurved, AME smallest, remaining eyes subequal (Fig. 6); chelicerae with two anterior and three to four posterior teeth, posterior row with first two larger and one or two smaller teeth, cheliceral furrow without denticles (Fig. 7); cheliceral basal segment (paturon) with single bristle at distal retromarginal end close to fang base (Fig. 19); male palp with embolus and tegulum forming “U”; EA well developed, embolus membrane (EM) present, conductor small and hyaline (Figs 3–5); tegulum with small projection at its transition part to embolus (Fig. 15); subtegulum not clearly visible; dorsal (dRTA) and ventral retrolateral tibial apophysis (vRTA) well developed, nearly the same length (Figs 3, 15, 23); female epigyne with epigynal EF longer than wide (Fig. 8) or as long as wide (Fig. 28); anterior bands of epigynal field (AB) mostly not (Fig. 20) or weakly developed (Fig. 11); median septum visible alongside epigynal field (e.g. Figs 8, 33); copulatory ducts (CD) elongated, a pair of parallel simple ducts comprising more than half of entire vulva; vulva in posterior half continuing with two turning loops, termed here first and second (f-, sTL), glandular pores present mostly on fTL (Figs 9, 10) or additionally on sTL (Figs 29, 30).
Coloration (live): Body background is pale grey or greenish-brown, with prosoma and opisthosoma decorated mid-dorsally with a reddish-brown stripe; additional longitudinal stripes present on the legs (Fig. 1).
Natural history and habitat preferences: Females construct a papery egg sac attached to grass leaves (one female specimen from NCA). The species were recorded mostly from savannah grasslands (Fig. 2), but also occur in bushes, small trees and leaf litter (male specimens in Guinea).
Distribution: Widely distributed in tropical Africa, including Kenya, Tanzania, Rwanda, Burundi, Congo, Cameroon, Ivory Coast, Guinea, Namibia, Botswana and South Africa.
Species included: Pseudomicrommata longipes (Bösenberg & Lenz, 1895), P. vittigera (Simon, 1897) stat. rev., P. mary sp. n. and P. schoemanae sp. n.
Pseudomicrommata longipes (Bösenberg & Lenz, 1895)
Figs 1, 3–14
Diagnosis: Males with diagnostic EA, which in ventral view is narrow proximally, widened medially and bifurcated distally (Figs 3, 5, 14). Females can be recognised (especially in comparison with closely similar P. vittigera) by the vulva equipped with several glandular pores (GPO) (Figs 9, 10, 12) and sTL extending beyond fTL laterally in dorsal view (Figs 9, 12).
Male (ranges: n=11, single measurements: holotype).
Measurements: Medium sized; total length 10.9–12.9, total length of holotype: 11.3, prosoma length 5.1–5.5, prosoma width 4.2–4.7, anterior width of prosoma 2.3–2.6, opisthosoma length 5.8–7.4, opisthosoma width 2.3–3.0. Eye diameters: AME 0.22, ALE 0.31, PME 0.24, PLE 0.30; eye interdistances: AME-AME 0.15, AME-ALE 0.09, PME-PME 0.40, PME-PLE 0.30, AME-PME 0.75, ALE-PLE 0.42, clypeus height at AME 0.17, clypeus height at ALE 0.28.
Chelicerae: With 2 anterior and 3 posterior teeth (first two larger than the third one) (Fig. 7).
Legs: Leg formula: IV II I III. Palp 6.6 [2.6, 1.1, 0.5, 2.4], I 21.7 [6.1, 2.6, 5.2, 5.7, 2.1], II 23.8 [7.0, 2.8, 6.1, 5.9, 2.0], III 21.5 [6.2, 3.2, 5.0, 5.1, 2.0], IV 23.3 [7.1, 2.4, 5.8, 5.9, 2.1].
Spination: Palp 131, 001/101, 1211; Legs: Femur I–III 323, IV 321/322; Patella I–IV 000/101; Tibia I–IV 2126/2226; Metatarsus I–III 2024, IV 3036.
Female (ranges: n=20, single measurements: MRAC 211305 from Tanzania).
Measurements: Medium sized; total length 15.3–18.3, prosoma length 5.8–6.5, prosoma width 4.7–5.1, anterior width of prosoma 2.8–3.1, opisthosoma length 9.5–11.8, opisthosoma width 4.1–6.0. Eye diameters: AME 0.34, ALE 0.48, PME 0.44, PLE 0.46; eye interdistances: AME-AME 0.21, AME-ALE 0.08, PME-PME 0.56, PME-PLE 0.37, AME-PME 0.85, ALE-PLE 0.52, clypeus AME 0.27, clypeus ALE 0.38. Chelicerae: As in males.
Legs: Leg formula: IV II I III. Measurements of palp and legs. Palp 6.9 [2.0, 1.1, 1.3, 2.5], I 19.8 [6.5, 3.0, 4.9, 5.0, 2.0], II 21.4 [6.5, 3.0, 4.9, 5.0, 2.0], III 19.0 [6.0, 2.7, 4.3, 4.4, 1.6], IV 21.8 [6.7, 2.6, 5.2, 5.6, 1.8].
Spination: Palp 131, 001/101, 1013; Legs: Femur I–III 323, IV 321/322; Patella I–IV 000/101; Tibia I–IV 1016/2026; Metatarsus I–III 0004/1014/2024, IV 3036.
Other material examined: BOTSWANA: Palapaye, 23.xii.1980, leg. P. Reavell, on herbs, 1♂ (NCA 81/82). KENYA: Eastern Prov.: Kibwezi, 23–24.xii.1905, leg. K.P. Scheffler, grassland steppes, 2♂ 5♀ 5 imm. (ZMB 31331). NAMIBIA: Kunene: Annabis Farm, 20°00′S, 14°38′E, 23–24.ii.1969, leg. B. Lamoral & R. Day, with egg sac attached to grass, 1♀ (NMSA 11526). SOUTH AFRICA: Free State Prov.: Brandfort district, Amanzi Private Game Reserve, 28°36.042′S 26°25.791′E, 17.xii.2010, leg. C. Haddad & V. Butler, canopy fogging, Olea europea africana, canopy height 8 m, 10:00 am, 1♀ (SD742, SMF); same locality, 28°35.435′S, 26°26.157′E, 1425 m, 25.x.2011, leg. C. Haddad, 1♂ (SD1117, SMF). Gauteng Prov.: Roodeplaat Dam, 20.xi.1991, leg. A. Leroy, in grass, 1♀ (NCA 92/164). KwaZulu-Natal Prov.: Maritzburg (=Pietermaritzburg), ii.1945, 4♀ (NMSA 4309); Ndumo Game Reserve, 26°54.425′S 32°19.191′E, 11.ii.2005, post AFRAS 2005 excursion, leg. D. Kunz, 1♀ (DK323, SMF); same data as previous but 26°53.025′S 32°10.050′E, 8.ii.2005, 1♀ (DK298, SMF); same data as previous but 26°54.425′S 32°19.191′E, 5.ii.2005, 1♂ (DK269, SMF); Ndumo Game Reserve, 28.xi.1973, 1♂ (NMSA 20171); Pietermaritzburg, Ashburton, 27.i.1982, under brick in Acacia karroo veld, 1♂ (NMSA 20170); Nyala Game Reserve, 12.xii.1980, in dense grass at side of path, 1♀ (NMSA 20171); Zululand, Mfongosi, ii.1918, leg. W.E. Gonzo, 1♀ (misidentified as Micrommata vittigera, Lawrence det.) (SAMC B4023). Limpopo Prov.: Tuinplaas, Springbokvlakte, Settlers (Tweekaansen), 19.xii.2002, leg. M. van Jaarsveld, 1♂ (NCA 2003/1322); Nylsvley Nature Reserve, 6.iii.1998, leg. J. Leeming, on grass, sweep net, 1♀ (NCA 98/570); Farm Rochdale, between Waterpoort and Louis Trichardt IV, slopes of Soutpansberg, 4.xii.1998, leg. W. Croucamp, 1♀ (NCA 2001/308). North West Prov.: Barberspan, xii.1990, leg. K. Morgan, in passage of house, 1♂ (NCA 91/812); same data as previous but 2.ii.1991, 1♀ (NCA 91/813). TANZANIA: Mkomazi Game Reserve, Igire Ridge, 15.iii.1995, leg. A. Russell-Smith, grassland, 2♂ 1♀ (MRAC 211305).
Known geographical distribution: Kenya, Tanzania, Botswana, South Africa and Namibia (Fig. 40).
Remarks: For a long time P. longipes was thought to be the only species of Pseudomicrommata widespread in tropical Africa. Recent molecular investigation (Moradmand et al. 2014) revealed a clue, that in spite of similarity in morphology between species in South Africa and Guinea (in particular females), considerable genetic distance can be observed (see Moradmand et al. 2014: fig. 3).
Diagnosis: Males with clearly distinguishable EA having two spoon-shaped projections (Figs 15–17). Female vulva with sTL not extending laterally beyond fTL in dorsal view (Fig. 21) otherwise similar to P. longipes.
Male (ranges: n = 2, single measurements: NCA 98/357).
Measurements: Small sized; total length 8.8, prosoma length 4.5, prosoma width 3.8, anterior width of prosoma 2.2, opisthosoma length 4.3, opisthosoma width 2.4. Eye diameters: AME 0.25, ALE 0.38, PME 0.31, PLE 0.35; eye interdistances: AME-AME 0.13, AME-ALE 0.04, PME-PME 0.32, PME-PLE 0.24, AME-PME 0.51, ALE-PLE 0.21, clypeus height at AME 0.28, clypeus height at ALE 0.32.
Chelicerae: With 2 anterior and 3 posterior teeth (two large and one smaller) (Fig. 19). Legs: Leg formula: IV II III=I. Measurements of palp and legs. Palp 4.8 [1.5, 0.8, 0.7, 1.8], I 16.0 [4.6, 2.1, 3.8, 4.1, 1.4], II 17.9 [5.2, 2.2, 4.5, 4.6, 1.4], III 16.0 [4.8, 1.7, 4.0, 4.1, 1.4], IV 18.6 [5.5, 1.7, 4.7, 5.3, 1.4].
Spination: Palp 131, 101, 2121; Legs: Femur I–III 223/323, IV 323; Patella I–IV 101; Tibia I–IV 2126/2226; Metatarsus I–III 2024, IV 3036.
Palp: As in diagnosis, with cymbium two times longer than tibia; the transition part of tegulum to embolus with a clear process, an additional retrolateral hump-like process present on tegulum (Fig. 15); vRTA much shorter than dRTA, both pointed distally (Figs 15, 16).
Female (ranges: n = 6, single measurements: syntype).
Measurements: Medium sized; total length 11.3–13.5, prosoma length 4.7–5.5, prosoma width 4.1–4.6, anterior width of prosoma 2.5–3.6, opisthosoma length 6.6–8.0, opisthosoma width 3.5–4.0. Eye diameters: AME 0.28, ALE 0.40, PME 0.33, PLE 0.34; eye interdistances: AME-AME 0.15, AME-ALE 0.05, PME-PME 0.41, PME-PLE 0.32, AME-PME 0.47, ALE-PLE 0.34, clypeus AME 0.31, clypeus ALE 0.36.
Chelicerae: As in males.
Legs: Leg formula: IV II III I. Measurements of palp and legs. Palp 6.1 [1.8, 0.9, 1.2, 2.2], I 16.1 [4.8, 2.3, 3.9, 3.8, 1.3], II 17.9 [5.7, 2.4, 4.1, 4.3, 1.4], III 16.3 [5.2, 2.3, 3.7, 3.8, 1.3], IV 18.8 [5.8, 2.3, 4.1, 5.2, 1.4].
Spination: Palp 131, 001/101, 2120/2120, 1013; Legs: Femur I–III 223/323, IV 321/322; Patella I–IV 000/101; Tibia I–IV 1016/2026; Metatarsus I–III 0004/2024, IV 0006/3036.
Epigyne/vulva: As in diagnosis, with sTL much smaller than fTL; GPO only present on fTL (Figs 20–22) (for more details see the genus redescription).
Other material examined: SOUTH AFRICA: Limpopo Prov.: Letsitele Kraal, Nelspruit, 27.ii.1976, leg. A.S. Dippenaar, with egg sacs on grasses, 2♀ (NCA 76/125); Rietbokpan, Pafuri (near Kruger National Park) [22.93°S 31.02°E], 13.i.1996, leg. A. Leroy, 1♂ (NCA 98/357); same data as previous, on plant, 1♂ (NCA 2001/100). Mpumalanga Prov.: 2D Ranch, Loskop Dam Nature Reserve, 27.ii.1994, leg. A. Leroy, 1♀ (NCA 2001/101).
Remarks: P. vittigera stat. rev. was previously known only from females and the male is described here for the first time. The male characters confirm that P. vittigera stat. rev. must be considered a valid species and be withdrawn from the junior synonymy of P. longipes. Diagnosing species status solely on females is not an easy task, which is the reason why previous taxonomists decided to synonymise this species with the more widespread P. longipes. This conclusion might also be applied to P. ovambica (Lawrence, 1927) from Namibia. However, until its potential male is discovered and described, this species should remain a junior synonym of P. vittigera.
Known geographical distribution: South Africa and Namibia, although latter records are unlikely to be conspecific (Fig. 40).
Etymology: This species is dedicated to my wife Maryam (nickname: Mary), for all her love and support; noun in apposition.
Diagnosis: Males distinguished easily from other congeners by the EA narrow proximally, widened medially and pointed distally in ventral view (embolus tip is not as bifid as in P. longipes) (Figs 23, 25); in females, epigyne with PMP longer than AMP (Figs 28, 31) and vulva clearly with additional GPO on sTL (besides those on fTL) (Figs 29, 30, 32), currently unique amongst the known species.
Male (ranges: n = 11, single measurements: holotype).
Measurements (holotype largest): Medium sized; total length 10.9–12.9, prosoma length 4.5–4.8, prosoma width 4.2–4.7, anterior width of prosoma 2.0–2.2, opisthosoma length 5.4–6.1, opisthosoma width 2.5–3.2. Eye diameters: AME 0.22, ALE 0.38, PME 0.34, PLE 0.33; eye interdistances: AME-AME 0.14, AME-ALE 0.04, PME-PME 0.38, PME-PLE 0.34, AME-PME 0.64, ALE-PLE 0.28, clypeus height at AME 0.24, clypeus height at ALE 0.31.
Chelicerae: With 2 anterior and 4 posterior teeth (first two larger with two additional smaller ones) (Fig. 27).
Legs: Leg formula: IV II I III. Palp 6.1 [1.8, 0.7, 1.0, 2.6], I 17.8 [5.1, 2.4, 4.3, 4.4, 1.6], II 19.1 [5.6, 2.4, 4.7, 4.7, 1.7], III 16.9 [5.2, 2.1, 4.1, 3.9, 1.6], IV 19.3 [5.8, 1.9, 4.7, 5.2, 1.7].
Spination: Palp 131, 101, 2121/2111; Legs: Femur I–III 323, IV 321/322; Patella I–IV 000/101; Tibia I–IV 2126/2226; Metatarsus I–III 2024, IV 3036.
Palp: As in diagnosis, with cymbium nearly three times longer than tibia, dRTA distally pointed, vRTA distally hump-like, subtegulum not visible (Figs 23, 24); EA membranous and hyaline proximally, hard and sclerotized distally (Fig. 25).
Female (ranges: n=8, single measurements: SD 1105).
Measurements: Medium sized; total length 11.8–15.9, prosoma length 4.5–5.1, prosoma width 3.7–4.2, anterior width of prosoma 2.1–2.4, opisthosoma length 7.3–10.8, opisthosoma width 3.1–5.7. Eye diameters: AME 0.25, ALE 0.38, PME 0.36, PLE 0.34; eye interdistances: AME-AME 0.18, AME-ALE 0.04, PME-PME 0.37, PME-PLE 0.32, AME-PME 0.68, ALE-PLE 0.32, clypeus AME 0.16, clypeus ALE 0.22.
Chelicerae: As in males.
Legs: Leg formula: IV II I III. Measurements of palp and legs. Palp 5.3 [1.4, 0.9, 1.1, 1.9], I 15.0 [4.4, 2.1, 3.5, 3.6, 1.4], II 16.1 [4.9, 2.2, 3.8, 3.7, 1.5], III 14.2 [4.5, 1.8, 3.3, 3.2, 1.4], IV 16.2 [5.0, 1.8, 3.8, 4.1, 1.5].
Spination: Palp 131, 001/101, 2121, 1113; Legs: Femur I–III 323, IV 321/322; Patella I–IV 000/101; Tibia I–IV 1016/2026; Metatarsus I–III 0004/2024, IV 3036.
Epigyne/vulva: As in diagnosis, with EF nearly as wide as long; AMP bending posteriorly (Fig. 28), sTL extending beyond fTL in lateral view (Figs 29, 32) (for more details see the genus redescription).
Holotype ♂: GUINEA: Prefecture de Lola: Mount Nimba, SE Gbakole, Plateau de Zouguépo, 07°43′N, 08°24′W, 500 m, 26.i.1952, leg. M. Lamotte, Nº 19 (SMF).
Paratypes: Same data as holotype, 2♀ (SMF); Same data as holotype but 15.iii.1957, Nº 50, 4♂ 4♀ (SMF); Same data as holotype but 21.i.1957, Nº 18, 2♂ (SMF); Mount Nimba, Ga forest, 746 m, 6.ii.2012, leg. A. Henrard, C. Allard, P. Bimou & M. Sidibé, sieving soil litter, primary forest, 1♀ (MRAC 238760, SD 1105); Mount Nimba, Kpéléyi Savannah, 572 m, 7.iii.2012, leg. A. Henrard, C. Allard, P. Bimou & M. Sidibé, pitfall traps, 1♂ (MRAC 238965). IVORY COAST: Adiope Doumé (Orstom), 15–20.viii.1968, leg. J.J. van Mol, 1♀ (MRAC 134636, MM); N of Korhogo, Bandama River, iii.1980, leg. J. Everts, edge riverine forest, 2♂ (MRAC 172141-2); Bouaflé, 22.i.1981, leg. J. Everts, pitfall traps, 1♂ (MRAC 174220).
Remarks: The type specimens were collected in 1952 and 1957 by mammologist Prof Dr M. Lamotte during his investigation in Mount Nimba of Guinea. A large number of spiders were donated to SMF in 1960 and kept in the collection. Mount Nimba is one of the main biodiversity hotspots in western Africa with a high level of endemicity (Lamotte & Roy 2003). It seems that P. mary sp. n. is the first of this rich collection to be described as a new species.
Known geographical distribution: Recorded from Mount Nimba and surrounding areas in Guinea and Ivory Coast (Fig. 40).
Etymology: This species is named in honour of Dr Ansie Dippenaar-Schoeman for her significant contributions to African arachnology and her assistance to my studies on African Sparassidae; noun in a genitive case.
Diagnosis: This is the only Pseudomicrommata species with a generally elongated epigyne; the enlarged epigynal pockets (EP) occupy the majority of the epigynal field (EF) space, which is unique amongst the currently known species (Figs 33, 38).
Female (ranges: n=4, single measurements: holotype).
Measurements (Holotype largest): Medium sized; total length 11.4–13.2, prosoma length 4.8–5.5, prosoma width 4.1–4.7, anterior width of prosoma 2.4–2.6, opisthosoma length 6.6–7.7, opisthosoma width 3.5–4.5. Eye diameters: AME 0.21, ALE 0.43, PME 0.36, PLE 0.35; eye interdistances: AME-AME 0.20, AME-ALE 0.06, PME-PME 0.42, PME-PLE 0.32, AME-PME 0.71, ALE-PLE 0.36, clypeus AME 0.20, clypeus ALE 0.28.
Chelicerae: Chelicerae with 2 anterior and 4 posterior teeth (two larger and two smaller ones) (Fig. 37).
Legs: Leg formula: IV II I III. Measurements of palp and legs. Palp 6.4 [1.4, 0.7, 1.1, 2.2], I 17.4 [5.1, 2.5, 4.1, 4.2, 1.5], II 18.2 [5.6, 2.4, 4.4, 4.3, 1.5], III 16.2 [5.2, 2.1, 3.8, 3.7, 1.4], IV 18.4 [5.6, 2.1, 4.4, 4.8, 1.5].
Spination: Palp 131, 101, 2121, 1013; Legs: Femur I–III 323, IV 321; Patella I–IV 000/101; Tibia I–IV 1016/2026; Metatarsus I–III 0004/1014/2024, IV 3036.
Epigyne/vulva: As in diagnosis, with generally enlarged and elongated EF, posterior part of LL behind PMP small (Figs 33, 38); CD enlarged and expanded, partially covering fTLs; sTL usually extend beyond fTL laterally (Figs 34, 39), GPO present only on fTLs (Figs 34, 35).
Holotype ♀: CAMEROON: North Prov.: Bossoum, 09°56′33″N 13°41′51″E, 11.iv.1914, leg. G. Tessmann (ZMB 48632).
Paratypes: CAMEROON: Same data as holotype, 2♀ (ZMB 48633), 1♀ (SMF).
Remarks: The type material for this study was collected by the German botanist G.
Tessmann (1884–1969) during his expedition to Cameroon in 1914.
Known geographical distribution: Only known from the type locality (Fig. 40).
I acknowledge the authorities of the University of Isfahan, in particular the Office of Research Affairs, for their support in providing facilities for my scientific short visit (July 2014) to the Senckenberg Research Institute, Frankfurt am Main (SMF), Germany. I am thankful to Dr Peter Jäger for his cooperation during my visit to the Arachnology lab. As with my prior work, Mrs Julia Altmann (SMF) was a great help in sorting material and translating old, handwritten labels, for which I am very thankful. I thank my friend Dr Hossein Rajaei (ZMH) for his help during my visit to the Arachnid collection at the University of Hamburg. I am grateful to Dr Jason Dunlop and Mrs Anja Friederichs (ZMB) for granting me access to the rich collection of spiders under their curation. A main part of the material was loaned to me during my visit (2012) to the MRAC African spider collection (Tervuren), supported by the SYNTHESYS Project ( http://www.synthesys.info/), which is financed by the European Community Research Infrastructure Action under the FP7 “Capacities” Program. Dr Ansie Dippenaar-Schoeman and Dr Charles Haddad supported this research with their comments, and Mr Peter Webb with good quality photos, for which I am very thankful. The two referees, Dr Cristina Rheims and Dr Peter Jäger, are thanked for their constructive suggestions that improved the manuscript.
- W. Bösenberg & H. Lenz 1895. Ostafrikanische Spinnen gesammelt von Herrn Dr. F. Stuhlmann in den Jahren 1888 und 1889. Jahrbuch der Hamburgischen Wissenschaftlichen Anstalten 12(2): 27–51. Google Scholar
- P.M.C. Croeser 1996. A revision of the African huntsman spider genus Palystes L. Koch, 1875 (Araneae: Heteropodidae). Annals of Natal Museum 37: 1–122. Google Scholar
- P. Jäger 2000. The huntsman spider genus Cebrennus: four new species and a preliminary key to known species (Araneae: Sparassidae: Sparassinae). Revue Arachnologique 13(12): 163–186. Google Scholar
- P. Jäger 2001. Diversität der Riesenkrabbenspinnen im Himalaya über eine Radiation zweier Gattungen in den Schneetropen (Araneae: Sparassidae: Heteropodinae). Courier Forschungsinstitut Senckenberg 232: 1–136. Google Scholar
- P. Jäger 2014. Cebrennus Simon, 1880 (Araneae: Sparassidae): a revisionary up-date with the description of four new species and an updated identification key for all species. Zootaxa 3790(2): 319–356. Google Scholar
- P. Jäger & D. Kunz 2003. Morphological evidence for the monophyly of the re-established subfamily Eusparassinae Järvi, 1912 (Arachnida: Araneae: Sparassidae). In : U. Fritz (Ed.) 6th Annual Congress of the Gesellschaft für Biologische Systematik, Dresden, 16-18 September 2003. Electronic Supplement, 17 (2003). Organisms, Diversity and Evolution 3: 308. Google Scholar
- P. Jäger & D. Kunz 2005. An illustrated key to genera of African huntsman spiders (Arachnida, Araneae, Sparassidae). Senckenbergiana Biologica 85: 163–213. Google Scholar
- T.H. Järvi 1914. Das Vaginalsystem der Sparassiden. II. Annales Academiæ Scientiarum Fennicae 4: 132–248. Google Scholar
- M. Lamotte & R. Roy (eds) 2003. Le peuplement animal du mont Nimba (Guinée, Côte d'Ivoire, Liberia). Mémoires du Muséum National d'Histoire Naturelle series No. 190. Publications Scientifiques du Muséum, Paris, France. (In French) Google Scholar
- R.F. Lawrence 1927. Contributions to a knowledge of the fauna of South-West Africa V. Arachnida. Annals of the South African Museum 25(1): 1–75. Google Scholar
- R.F. Lawrence 1942. A contribution to the araneid fauna of Natal and Zululand. Annals of the Natal Museum 10: 141–190. Google Scholar
- R. de Lessert 1936. Araignées de l' Afrique orientale portugaise, recueillies par MM. P. Lesne et B.-B. Cott. Revue Suisse de Zoologie 43: 207–306. Google Scholar
- G. Levy 1989. The family of huntsman spiders in Israel with annotations on species of the Middle East (Araneae: Sparassidae). Journal of Zoology, London 217: 127–176. Google Scholar
- M. Moradmand 2013. The stone huntsman spiders - Eusparassus (Araneae: Sparassidae): systematics and zoogeography with revision of the African and Arabian species. Zootaxa 3675: 1–108. Google Scholar
- M. Moradmand & P. Jäger 2012. Taxonomic revision of the huntsman spider genus Eusparassus Simon, 1903 (Araneae: Sparassidae) in Eurasia. Journal of Natural History 46: 2439–2496. Google Scholar
- M. Moradmand , A.L. Schönhofer & P. Jäger 2014. Molecular phylogeny of the huntsman spider family Sparassidae with focus on the genus Eusparassus and notes on the RTA-clade and ‘Laterigradae’. Molecular Phylogenetics and Evolution 74: 48–65. Google Scholar
- D.D. Silva 2005. Revision of the spider genus Chrosioderma Simon (Araneae: Sparassidae). Proceedings of the California Academy of Sciences 56: 337–377. Google Scholar
- E. Simon 1897a. Etudes arachnologiques. 27e Mémoire. XLII. Descriptions d'espèces nouvelles de l' ordre des Araneae. Annales de la Société Entomologique de France 65: 465–510. Google Scholar
- E. Simon 1897b. Histoire naturelle des araignées. T. 2, fasc. 1. Paris: Encyclopédique Roret. Google Scholar