Miocene decapod crustacean faunas from Cyprus – Part 1. Geographical-stratigraphical setting and Anomura
Article number: 26.3.a38
Copyright Paleontological Society, September 2023
Proceedings of the 8th Symposium on Fossil Decapod Crustaceans
Submission: 15 December 2022. Acceptance: 5 September 2023.
Study of high-diversity Miocene decapod crustacean faunas has resulted in the recognition of several new species from a range of localities across Cyprus. Anomuran taxa collected comprise Paguristes joecollinsi, Dardanus cyprioticus sp. nov., Dardanus plevrotos sp. nov., Galathea weinfurteri, Palmunidopsis muelleri, Petrolisthes haydni, Petrolisthes magnus and Petrolisthes mitseroensis sp. nov. The presence of Petrolisthes magnus in upper Chattian-middle Burdigalian strata documents the oldest stratigraphical occurrence of that species to date. Anomuran taxa recognised in the lower Miocene are also present in upper Miocene reefal facies; the latter illustrate the highest anomuran diversity.
Jonathan J.W. Wallaard. Oertijdmuseum, Bosscheweg 80, 5283 WB Boxtel, the Netherlands. Corresponding author.
René H.B. Fraaije. Oertijdmuseum, Bosscheweg 80, 5283 WB Boxtel, the Netherlands.
Barry W.M. Van Bakel. Oertijdmuseum, Bosscheweg 80, 5283 WB Boxtel, the Netherlands, and Department of Earth Sciences, Faculty of Geosciences, Utrecht University, Budapestlaan 4, 3584 CD Utrecht, the Netherlands.
John W.M. Jagt. Natuurhistorisch Museum Maastricht, de Bosquetplein 6-7, 6211 KJ Maastricht, the Netherlands.
Pál M. Müller. Deceased.
Keywords: Mediterranean Sea; Cenozoic; Paguroidea; Galatheoidea; new species
Final citation: Wallaard, Jonathan J.W., Fraaije, René H.B., Van Bakel, Barry W.M., Jagt, John W.M., and Müller, Pal M. 2023. Miocene decapod crustacean faunas from Cyprus – Part 1. Geographical-stratigraphical setting and Anomura. Palaeontologia Electronica, 26(3):a38.
Copyright: September 2023 Paleontological Society.
This is an open access article distributed under the terms of Attribution-NonCommercial-ShareAlike 4.0 International (CC BY-NC-SA 4.0), which permits users to copy and redistribute the material in any medium or format, provided it is not used for commercial purposes and the original author and source are credited, with indications if any changes are made.
Miocene sedimentary basins on the island of Cyprus came into existence during a period of regional tectonic instability associated with the onset of uplift (Kinnaird, 2008). Reefal strata of Miocene age comprise the Terra Limestone Member (Aquitanian-Burdigalian) and the Koronia Limestone Member (Tortonian-early Messinian) of the Pakhna Formation. The reefs formed by colonisation of faulted blocks along the margins of subbasins (Follows et al., 1996). In Cyprus reefs of Middle Miocene (Langhian) age are absent, which is linked to drowning of earlier reefs, in response to a rapid sea level rise (Robertson et al., 1991). Depositional environments in the area during the Late Miocene were characterised by a progressive shallowing, from approximately 500 m depth to very shallow-water conditions (Krijgsman et al., 2002).
During the Miocene, conditions conducive to reef building prevailed across the Mediterranean, but coral diversity decreased from the Early to Late Miocene (Esteban, 1996). From several of these reefal deposits decapod crustaceans have been recorded in recent decades (e.g., Müller, 1984b, 1993; Georgiades-Dikeoulia and Müller, 1984; Garcia Socias, 1990; Gatt and De Angeli, 2010; De Angeli et al., 2011, Ossó and Hammann-Yelo, 2021). Interestingly, decapod crustacean faunas from such strata exhibit marked taxonomic similarities to those from the Central Paratethys (e.g., Müller, 1984a; Górka, 2002; Radwański et al., 2006; Ossó and Stalennuy, 2011; Collins, 2014; Hyžný and Dulai, 2021) and even those from the Pacific region (e.g., Müller, 1979, 1984a; De Angeli et al., 2011; Ossó and Gagnaison, 2019; Ossó et al., 2022).
Regional Geology and Stratigraphy
Sedimentary basins in the southern part of Cyprus formed during a period (early to Middle Miocene) of palaeogeographical reorganisation that was linked to the onset of the final phase of subduction in the easternmost Mediterranean (Follows et al., 1996). Three depositional centres developed to the south of the Troodos Massif (Figure 1), namely the Polemi, Pissouri and Maroni-Psematismenos basins. In these basins, patch reefs of Early and Late Miocene age are exposed. Reef growth followed early Cenozoic deep-water sedimentation and localised tectonic uplift (Kinnaird, 2008). The Miocene reefs were dominated by the coral genus Porites Link, 1807 and at first were largely domal in structure, but later occurred mainly as sheet-like encrustations (Follows, 1992). Reef growth finally came to halt as a result of the desiccation of the Mediterranean Sea during the Messinian, with the deposition of large evaporites (e.g., Krijgsman et al., 2002; Cannings et al., 2021).
1. Pakhna Formation (late Chattian-early Messinian)
The Pakhna Formation (Figure 2) consists mainly of chalks, with some marls, limestones, gypsum lenses, calcareous sandstones and polymictic conglomerates interspersed (Morse, 1996). The reefal limestones of the Terra and Koronia members constitute prominent horizons, at or near the base and top of this formation (e.g., Follows and Robertson, 1990; Follows et al., 1996). The chalks in this unit have variable thicknesses (60-500 m) and are cream to buff-coloured, their composition, texture and faunal assemblage being indicative of deposition in an open-marine to hemi-pelagic environment (Gass et al., 1994). The alternating relative rise and fall of sea level, caused by regional uplift, during deposition may be responsible for the irregular cyclic sequence of chalk, marl and limestones (Gass et al., 1994).
1A. Terra Limestone Member (Aquitanian-Burdigalian). This unit crops out both in the southwest (Morse, 1996) and the southeast of Cyprus (Greensmith, 1994; Follows et al., 1996). In the latter area (Cap Greco), the Terra Limestone Member is developed as a coral framestone, consisting of diverse species of occasionally very large corals (Follows et al. 1996). This diverse fauna and the presence of corals, often metre sized, suggest that deposition occurred under shallow-marine conditions with normal salinity (Follows and Robertson, 1990). Stratigraphically, this member is situated at or near the base of the Pakhna Formation. Follows and Robertson (1990) summarised earlier studies and dated this unit as Aquitanian to Burdigalian (calcareous nannofossil zones NN1-NN4), at least in south-east Cyprus. According to Robertson et al. (1991: 337, figure 3) the Terra Limestone Member ranges in age from the Chattian (Late Oligocene) to the middle Burdigalian (Early Miocene). Cannings et al. (2021) dated this member as Aquitanian-Burdigalian. In a road cutting at Prodromi-Drousaei and at a small quarry about 50 m to the west of that spot, a coral limestone that is like the one at Cap Greco is exposed, but coral colonies are considerably smaller (decimetre sized) and possibly represent remnants of a coral carpet or patch reef.
In the outcrop near the village of Kamares, about 100 m north-east of the tennis court, decapod crustaceans were collected from redeposited reefal detritus in between down-slope bioclastic turbidites. Fragments of coral patch reefs are interstratified by beds of gravity-deposited shallow-water carbonates; these are interpreted as storm-dominated mid-ramp deposits.
1B. Koronia Limestone Member (late Serravallian-early Messinian). This unit is seen as discontinuous outcrops along all margins of the Troodos Massif. Along the northern margin, poritid corals predominate, with less abundant benthic foraminifera than in the Terra Limestone Member in south-east Cyprus, indicating that deposition occurred in a more turbulent and shallow-marine setting (Follows and Robertson, 1990). Stratigraphically, this member constitutes the uppermost unit of the Pakhna Formation; it has been reported to overstep the Pakhna Formation chalks (Morse, 1996). Follows and Robertson (1990) summarised earlier data and inferred a Tortonian to early Messinian age for this member along the northern margin of the Troodos Massif. Morse (1996) dated the Koronia Member in south-west Cyprus as Tortonian on the basis of calcareous nannoplankton, while, on the basis of strontium isotopes, Cannings et al. (2021) favoured a late Serravallian to early Messinian date for the Koronia Member. At Maroni and Tochni (Figure 1), small patch reefs are preceded and surrounded by reefal debris, usually within a conglomeratic facies with pebbles of pelagic chalk and of crystalline, ophiolite-derived (Troodos) provenance. The decapod crustaceans are accompanied by remains of bivalves, coralline algae, bryozoans, echinoids, benthic foraminifera, serpulids, sponges and corals. There are far fewer corals than in the reefal limestones of the Terra Member, whereas decapod crustacean diversity is much higher in this unit. Voids within the reefal sediments are often filled with celestine and at Tochni, large-sized oysters are usually completely selenitised.
2. Kalavasos Formation (Messinian)
Outcrops of this unit comprise mostly evaporites and are located within synclinal structures, south-west of the Troodos Massif, for instance in the Polemi, Pissouri, Mesaoria and Psematismenos basins (Orszag-Sperber et at., 1989; Robertson et al., 1995). Krasheninnikov and Kaleda (1994) noted an evaporitic sequence of the Kalavasos Formation with three distinct members near the village of Pissouri, which is typical of other localities in Cyprus and the Mediterranean region as a whole. These members comprised a lower unit of marls and diatomites, with intercalated limestone beds, a middle unit of fine-grained, bedded to coarse crystalline gypsums, with a polygenetic breccia at the base and a gypsiferous breccia within the member, and an upper unit comprising intercalated conglomerates/breccias, limestone and marls, in lens-shaped layers of variable thickness. The Kalavasos Formation usually conformably overlies the Pakhna Formation and is associated with the salinity crisis in the Mediterranean region during the Messinian (e.g., Follows and Robertson, 1990). A prominent change in palaeoenvironmental conditions occurred, as has been demonstrated on the basis of a change from open-marine, deeper-water taxa to more restricted, shallower-water taxa amongst microfossils (Kouwenhoven et al., 2006).
Earlier Work and Localities
Heller (1863) was the first to record extant decapod crustaceans from Cyprus, listing six marine and one freshwater species. More than a century later, Lewinsohn and Holthuis (1986) increased the number of known extant Cypriotic taxa considerably, by recording 39 macrurans, 15 anomurans and 60 brachyurans. Until recently (Fraaije, 2014a; Wallaard et al., 2020), there were no records of fossil decapod crustaceans from Cyprus. During fieldwork in western and southern Cyprus, from 1995 onwards, several localities with decapod-rich Miocene reefal limestones have been discovered and studied.
Six localities were visited at irregular intervals between 1995 and 2021 (Figure 1). In 1995, one of us (PMM, deceased) discovered the rich localities of Cap Greco on the east coast and Prodromi, south-west of Polis, in the western part of Cyprus (Figure 1; localities 1 and 5). The other localities, Kamares (village), Maroni,Tochni and Mitsero (Figure 1; localities 2-4 and 6), were first recognised by the second author (RF), during fieldtrips from 1995 onwards.
This part of our study of decapod crustacean assemblages collected from the Pakhna Formation (Terra and Koronia limestone members) is devoted to the Anomura. All specimens are housed in the Oertijdmuseum at Boxtel (MAB), numbers with ‘.’ followed by another number indicate the presence of more than one specimen on the same piece of matrix.
Locality 1. Prodromi, Prodromi-Drouseia road cutting (Polis Graben); exposed is the Terra Limestone Member. Anomurans collected: Galathea weinfurteri (MAB13488).
Locality 2. Village of Kamares, road cutting near tennis court (Polemi Basin); exposed is the Terra Limestone Member. Anomurans collected: Galathea weinfurteri (MAB10336).
Locality 3. Tochni (Tochni hill, Maroni-Psematismenos Basin); exposed is the Koronia Member. Material was collected about 100 m north-west of the local quarry of Tochni. Anomurans collected: Galathea weinfurteri (MAB6669.1, 10868-10870.1, 10871.1, 10872, 10873, 11851, 13498.2) and Petrolisthes haydni (MAB11856-11858).
Locality 4. Maroni (Maroni-Psematismenos Basin); exposed is the Koronia Member. Material was recovered from an outcrop along an unhardened road a few hundred metres north-west of the village of Maroni. Around celestite mounds of bioclastic limestones rich in molluscs and serpulids, a diverse fauna of decapod crustaceans was collected during a field trip in 1999. Anomurans collected: Galathea weinfurteri (MAB9439, 9440, 9511.2, 9530.2, 9530.3, 11852, 11853) and Palmunidopsis muelleri (MAB839, 13686).
Locality 5. Cap Greco; exposed is the Terra Limestone Member. Anomurans collected: Galathea weinfurteri (MAB9687.2, 10335) and Petrolisthes magnus (MAB10343)
Locality 6. Mitsero; exposed is the Koronia Member. Material was collected to the west of Kreatos Hill, about one kilometre to the north-north-west of the village of Mitsero, in coral-reef talus of Koronia Member. Anomurans collected: Paguristes joecollinsi (MAB10456), Dardanus cyprioticus sp. nov. (MAB13511, 13512), Dardanus plevrotos sp. nov. (MAB13510), Galathea weinfurteri (MAB10864-10866, 10867.2, 10897.3, 10931.2, 10932, 13501, 13503-13507, 13508.3, 13509.2), Petrolisthes magnus (MAB879, 10905.1, 10906, 10908, 10909.1, 10913, 10914, 10915.1, 10934.2, 13530.3, 13530.4, 13532-13534.1, 13535.1, 13536.1, 13537.1, 13538-13540.1, 13541, 13542.1, 13543-13548, 13549.2, 13550.1, 13551-13554, 13587.1, 13823.1), Petrolisthes haydni (MAB10907, 10910-10912, 10916-10930.1, 10931.1, 10934.1, 11854, 11855, 11865.1, 13508.1, 13534.2, 13563, 13564.2, 13565.1, 13566-13568.1, 13569-13571.1, 13572-13574.2, 13575-13586.1, 13587.2, 13822.2, 13993.3, 13994, 13995) and Petrolisthes mitseroensis sp. nov. (MAB13531, MAB13996).
Order Decapoda Latreille, 1802
Infraorder Anomura MacLeay, 1838
Superfamily Paguroidea Latreille, 1802
Family Annuntidiogenidae Fraaije, 2014b
Genus Paguristes Dana, 1851
Paguristes joecollinsi Wallaard, Fraaije, Jagt, Klompmaker and Van Bakel, 2020
2020 Paguristes joecollinsi Wallaard et al., page 38, figure 3.
Material. A single carapace (holotype), part and counterpart (MAB10456).
Description. Elongated, triangular carapace covered with grooves. The orbital area is broad, rimmed and shallow. The postrostral ridges are indented by a central gastric furrow, which extends posteriorly into a faint central line. Spinose and globose massetic region, posteriorly covered with spinose ridges. The carapace is decorated with a V-shaped cervical groove and large irregular pores.
Remarks. This small carapace, described in detail by Wallaard et al. (2020), constitutes the first, and sole, record of a paguroid shield from the Miocene of Cyprus.
Family Diogenidae Ortmann, 1892
Genus Dardanus Paul’son, 1875
Dardanus cyprioticus sp. nov.
Figure 4A, B
Locality and stratigraphy. Mitsero; Koronia Member (Pakhna Formation, late Serravallian-early Messinian).
Etymology. The species is named after the island of Cyprus.
Description. Only the lateral surface of the right chela is visible in the matrix. Part of the proximal medial palm is missing. The lower edge of the chela is convex, rounded and covered with striae. The edges of the striae are steep on both sides. The striae on the proximal side are almost the same length and every second ridge is stronger. The striae become shorter near the fixed finger. The upper half of the fixed finger is covered with tubercles, which extend onto the beginning of the palm and cover the upper half of the palm. The moveable finger is completely covered with tubercles.
Remarks. Dardanus cyprioticus sp. nov. closely resembles D. hungaricus (Lőrenthey in Lőrenthey and Beurlen, 1929), but differs in the length of the striae, every other stria being deeper, and in the position of the tubercles on the upper half of the fixed finger.
Dardanus plevrotos sp. nov.
Figure 5A, B
Material. A single, partial right chela (MAB13510) (holotype).
Etymology. Greek plevrotós (πλευρωτός), meaning ribbed, in allusion to the large grooves on the outer surface.
Description. Inner and outer surfaces are covered with large striae; upper edge is keeled and slightly convex, the lower edge rounded and straight. The striae are perpendicular to the longitudinal axis and are gently sinusoid. The medial striae have a steep edge at the proximal side, and a smooth edge on the distal side of edge groove. This is present, but less pronounced at the lateral side of the chela. The fixed finger is broken off.
Remarks. Dardanus plevrotos sp. nov. closely resembles Ciliopagurus substriatiformis (Lőrenthey in Lőrenthey and Beurlen, 1929) with the major differences found in the sinusoid shape of the striae in the latter, while the former has a rounded lower edge and the striae continue onto the distal side.
Superfamily Galatheoidea Samouelle, 1819
Family Galatheidae Samouelle, 1819
Genus Galathea Fabricius, 1793
Galathea weinfurteri Bachmayer, 1950
1928 Galathea sp. Glaessner, page 164, 206, plate 3, figure 1
1950 Galathea weinfurteri Bachmayer - Bachmayer, page 135, plate 1, figure 2-4.
1953 Galathea weinfurteri Bachmayer - Bachmayer, page 242, 243 plate 5, figures 3, 4, 6.
1984a Galathea weinfurteri Bachmayer - Müller, page 60, plate 21, figures 4, 5, plate 22, figures 1-5.
1996 Galathea weinfurteri Bachmayer - Müller, page 8.
2002 Galathea weinfurteri Bachmayer - Górka, page 528.
2002 Galathea cfr. G. weinfurteri Bachmayer - De Angeli and Garassino, page 10, figure 7.
2006 Galathea weinfurteri Bachmayer - Radwański et al., page 96-97, plate 2, figure 1.
2010 Galathea weinfurteri Bachmayer - Gatt and De Angeli, page 1326, plate 2, figure 4.
2010 Galathea sp. - Gatt and De Angeli, page 1326, text-figure 3, plate 2, figure 3.
2011 Galathea weinfurteri Bachmayer - Ossó and Stalennuy, figures 3.7, 3.13.
2014 Galathea weinfurteri Bachmayer - Collins, page 33, plate 1, figures 3, 4.
2014 Galathea weinfurteri Bachmayer - Hyžný et al., page 243-244, figures 1, 7A, plates 1-2.
2018 Galathea weinfurteri Bachmayer - Górka, page 515, text-figure 3.1.
2021 Galathea weinfurteri Bachmayer - Hyžný and Dulai, page 126, 128, figure 44.1-14
Material. 15 carapaces (MAB6669.1, 10868-10870.1, 10871.1, 10872, 10873, 11851, 13498.2) from Tochni; 12 carapaces (MAB9439, 9440, 9511.2, 9530.2, 9530.3, 11852, 11853) from Maroni; 1 carapace (MAB10336) from Kamares; 2 carapaces (MAB9687.2, 10335) from Cap Greco; 38 carapaces (MAB10864-10866, 10867.2, 10897.3, 10931.2, 10932, 13501, 13503-13507, 13508.3, 13509.2) from Mitsero, 1 carapace (MAB13488) from Podromi.
Locality and stratigraphy. Kamares, Podromi and Cap Greco; Terra Limestone Member (Pakhna Formation, Aquitanian-Burdigalian); Tochni, Maroni and Mitsero; Koronia Limestone Member (Pakhna Formation, late Serravallian-early Messinian).
Remarks. This common and widely distributed species has been recorded to date from Miocene levels in the Paratethys: Austria, Hungary, Poland and Ukraine - see Müller (1984a, b, 1993, 1996), Radwański et al., (2006) and Ossó and Stalennuy (2011), as well as from the Oligocene of northern Italy (De Angeli et al., 2010), the Middle Miocene from France (Ossó et al., 2022) and the Upper Miocene of Malta (Gatt and De Angeli, 2010).
Family Munidopsidae Ortmann, 1898
Genus Palmunidopsis Fraaije, 2014a
Palmunidopsis muelleri Fraaije, 2014a
Material. A carapace with pereiopod fragments (MAB13686, holotype, old collection number MAB k. 3284), and two incomplete carapaces and fragments of pereiopods (MAB839, paratype, old collection number MAB k. 3285) from Maroni.
Locality and stratigraphy. Maroni; Koronia Member (Pakhna Formation, late Serravallian-early Messinian).
Remarks. The occurrence of this shallow-marine munidopsid in the Upper Miocene of Cyprus just prior to the desiccation of the Mediterranean Sea, suggests that this species was probably able to adapt and migrate from deep to very shallow-marine environments within a geologically short time span (Fraaije, 2014a).
Family Porcellanidae Haworth, 1825
Genus Petrolisthes Stimpson, 1858
Petrolisthes haydni Müller, 1984a
1984a Petrolisthes haydni - Müller, Page 61, Plate 26, figures 1-5.
1996 Petrolisthes haydni Müller - Müller, page 8.
1998 Petrolisthes haydni Müller - Müller, page 16.
2006 Petrolisthes cf. haydni Müller - Radwański et al., page 96.
2012 Petrolisthes haydni Müller - Górka et al., page 171.
2014 Petrolisthes haydni Müller - Collins, page 34, plate 1 figures 5-8.
2014 Pagurus retznensis - Collins, page 35, plate 2, figures 3-5 (junior synonym).
2018 Petrolisthes haydni Müller - Górka, page 516, text-figure 3.4.
2021 Petrolisthes haydni Müller - Hyžný and Dulai, page 131, figure 45.8-10.
Material. Three carapaces (MAB11856-11858) from Tochni; 80 carapaces (MAB10907, 10910-10912, 10916-10930.1, 10931.1, 10934.1, 11854, 11855, 11865.1, 13508.1, 13534.2, 13563, 13564.2, 13565.1, 13566-13568.1, 13569-13571.1, 13572-13574.2, 13575-13586.1, 13587.2, 13822.2, 13993.3 13994, 13995) from Mitsero.
Locality and stratigraphy. Tochni and Mitsero, Koronia Member (Pakhna Formation, late Serravallian-early Messinian).
Remarks. In the original description by Müller (1984a), the holotype was stated to have three teeth on the lateral margin as a diagnostic feature; the species is also much smaller than P. magnus. In comparison with P. magnus, the grooves on the dorsal carapace surface are also deeper. The size difference between P. haydni and P. magnus mentioned by Müller (1984a) is not suitable as a diagnostic feature, although the largest specimens do, in fact, belong to P. magnus. The number of posterolateral teeth in P. haydni is not restricted to three; occasionally four or five teeth are present in a row (as seen in figure 8C-F). This has likely not been noted by Müller (1984a), on account of the incomplete preservation of the holotype. This is possibly just intraspecific variation in which some individuals had more than three posterolateral teeth.
This species has also been recorded from the Middle Miocene (‘Badenian’) of Ukraine (Górka, 2018), Hungary (Müller, 1984a) and Poland (Müller, 1996).
Petrolisthes magnus Müller, 1984a
Figure 9A, B
1984a Petrolisthes magnus Müller, page 60, plate 23, figures 1-4, plate 24, figures 1-4, plate 25, figures, 4-5.
2006 Petrolisthes magnus Müller - Radwański et al., page 96, plate 2, figure 2.
2010 Petrolisthes cf. magnus Müller - Gatt and De Angeli, page 1327, plate 2, figure 5.
2011 Petrolisthes magnus Müller - Ossó and Stalennuy, figure 3.6 (figure 3.4, 3.5 = Petrolisthes sp. A sensu Górka 2018).
2012 Petrolisthes magnus Müller - Górka et al., page 171.
2018 Petrolisthes magnus Müller - Górka, page 516, text-figures 3.5-3.7.
2021 Petrolisthes magnus Müller - Hyžný and Dulai, page 128-129, figure 45.1-7.
Material. A single carapace (MAB10343) from Cap Greco; 37 carapaces (MAB879, 10905.1, 10906, 10908, 10909.1, 10913, 10914, 10915.1, 10934.2, 13530.3, 13530.4, 13532-13534.1, 13535.1, 13536.1, 13537.1, 13538-13540.1, 13541, 13542.1, 13543-13548, 13549.2, 13550.1, 13551-13554, 13587.1, 13823.1) from Mitsero.
Locality and stratigraphy. Cap Greco; Terra Limestone Member (Pakhna Formation, Aquitanian-Burdigalian); Mitsero, Koronia Limestone Member (Pakhna Formation, late Serravallian-early Messinian).
Remarks. The rostrum is rhombic with an elevated orbital ridge. The carapace is decorated with two posterior pointing V-shaped grooves, of which the anterior one is the deepest.
The complete surface is covered with fine transverse striations and the posterior margin is subcircular.
This species has also been recorded from the Middle Miocene (‘Badenian’) of Hungary (Müller, 1984) and Ukraine (Radwański et al., 2006; Ossó and Stalennuy, 2011; Górka, 2018) and possibly from the Messinian of Malta (Gatt and De Angeli, 2010). The presence of this species in the Aquitanian-Burdigalian of Cap Greco makes it the oldest occurrence.
Petrolisthes mitseroensis sp. nov.
Figure 10A, B
Locality and stratigraphy. Mitsero; Koronia Member (Pakhna Formation, late Serravallian-early Messinian).
Etymology. The species is named after Mitsero, the locality where the holotype and paratype were found.
Description. The shape of the carapace of P. mitseroensis sp. nov. is subcircular, of which the anterior part is circular in outline, the posterior is square, with rounded corners. There are no teeth on the keeled anterolateral margins, a short, downturned rostrum, a bilobed frontal with small orbital ridges on the onset of the rostrum. The epibranchial region is faintly bulbous and well defined. The cervical groove is well defined, the branchial groove is less defined and disappears laterally. The gastric region is well defined and shows a deep dent posteriorly of the mesogastric region.
The surface is smooth, with exception of the branchial region near the posterolateral margin, which is striated.
Remarks. This species can be distinguished from its congeners in having a subcircular carapace, striations on the metabranchial region, a short, downturned rostrum, a faintly bulbous epibranchial region and in lacking anterolateral teeth.
The highest anomuran diversity on Cyprus is found in the upper Serravallian-lower Messinian Koronia Member, comprising eight species, five of which are endemic (Paguristes joecollinsi, Palmunidopsis muelleri, Dardanus cyprioticus sp. nov., Dardanus plevrotos sp. nov. and Petrolisthes mitseroensis sp. nov.), compared to only two species in the Aquitanian-Burdigalian Terra Member. Two species have been collected from both members; Galathea weinfurteri and Petrolisthes magnus. This does not come as a surprise as far as the former taxon is concerned because this is a common and widespread species with an extensive stratigraphical range (Oligocene to Messinian) (Müller 1984a, b, 1993, 1996; Radwański et al., 2006; De Angeli et al., 2010; Gatt and De Angeli, 2010; Ossó and Stalennuy, 2011; Hyžný and Dulai, 2021; Ossó et al., 2022). Petrolisthes magnus is known exclusively from the Middle Miocene of Hungary and Ukraine (Müller, 1984; Radwański et al., 2006; Ossó and Stalennuy 2011; Górka, 2018; Hyžný and Dulai, 2021) and possibly from the Messinian of Malta (Gatt and De Angeli, 2010).
We are unaware of any Middle Miocene occurrences in Cyprus of Petrolisthes magnus; however, this species is known from localities further north and thus may have migrated back once reef formation in Cyprus resumed during the late Serravallian. Although more data are needed to gain a better understanding of anomuran migratory patterns in the Mediterranean during the Miocene. The absence of decapod crustacean-bearing Middle Miocene deposits hampers any interpretations of whether or not decapod crustaceans disappeared completely or survived in refugia somewhere in Cyprus.
It is of note that anomuran diversity increases towards the end of the Miocene, while coral diversity decreases. This may be a collection artefact, in view of the considerably greater number of decapod crustaceans recovered from the Koronia Member in comparison to the Terra Member, but more research is needed to shed light on this matter.
To date, only eight species of anomurans are known from the Miocene of Cyprus, which reflects the relative paucity of studies on this subject matter. The two anomuran species found in lower Miocene reefs in Cyprus are also present in the upper Miocene; this level yields the greatest anomuran diversity. The demise of reefs during the Middle Miocene triggered the disappearance of all anomuran taxa, but these all returned when reef formation resumed during the Late Miocene. The associated brachyuran assemblages will be described in forthcoming research (Part 2).
We wish to thank the reviewers for their helpful comments on an earlier version of the manuscript and are grateful to the late L. Racz, who invited the second author for a geological field trip to the Island of Aphrodite in 1995, to T. van Boom-Fraaije for her assistance during some of the subsequent field trips and to A. Klompmaker (University of Alabama, Tuscaloosa, Alabama) for his help during fieldwork.
Bachmayer, F. 1950. Neue Dekapoden aus dem österreichischen Tertiär. Annalen des Naturhistorischen Museums in Wien, 57:133–140.
Bachmayer, F. 1953. Die Dekapodenfauna des tortonischen Leithakalkes von Deutsch- Altenburg (Niederösterreich). Mitteilungen der Geologischen Gesellschaft in Wien, 44:237–262.
Cannings, T., Balmer, E.M., Coletti, G., Ickert, R.B., Kroon, D., Raffi, I., and Robertson, A. H. 2021. Microfossil and strontium isotope chronology used to identify the controls of Miocene reefs and related facies in NW Cyprus. Journal of the Geological Society, 178:2.
Collins, J.S.H. 2014. Middle Miocene “Badenian” (Langhian) decapod crustaceans from the Retznei quarry, Styrian Basin, Austria. Bulletin of the Mizunami Fossil Museum, 40: 29–50.
Dana, J.D. 1851. Paguridae. Conspectus Crustaceorum quae in Orbis Terrarum circumnavigatione, Carolo Wilkes e Classe Reipublicae Foederatae duce, lexit et descripsit. Proceedings of the Academy of Natural Sciences of Philadelphia, 5:267–272.
De Angeli, A. and Garassino, A. 2002. Galatheid, chirostylid and porcellanid decapods (Crustacea, Decapoda, Anomura) from the Eocene and Oligocene of Vicenza (N Italy). Memorie della Società italiana di Scienze naturali e del Museo civico di Storia naturale di Milano, 30:3–31.
De Angeli, A., Garassino, A., and Ceccon, L. 2010. New report of the coral-associated decapods from the “Formazione di Castelgomberto” (early Oligocene) (Vicenza, NE Italy). Atti della Società Italiana di Scienze naturali e Museo civico di Storia naturale di Milano, 151:145–177.
De Angeli, A., Garassino, A., and Pasini, G. 2011. New report of the coral-associated decapods from the early Messinian (Late Miocene) of Acquabona, Rosignano Marittimo (Toscana, Italy). Atti della Società Italiana di Scienze naturali e del Museo civico di Storia naturale di Milano, 152:107–122. https://doi.org/10.4081/nhs.2011.107
Esteban, M. 1996. An overview of Miocene reefs from Mediterranean areas: general trends and facies models. In Franseen, E.K., Esteban, M., Ward, W.D., and Rouchy, J.M., (eds.), Models for Carbonate Stratigraphy from Miocene Reef Complexes of Mediterranean Regions, SEPM Concepts Sedimentology and Paleontology, 5, 3-53
Fabricius, J.C. 1793. Entomologiae systematica emendata et aucta, secundum Classes, Ordines, Genera, Species, adjectis Synonimis, Locis, Observationibus, Descriptionibus: 1–519. (C. G. Proft et Storch, Hafniae [=Copenhagen]).
Follows, E.J. 1992. Patterns of reef sedimentation and diagenesis in the Miocene of Cyprus. In Sellwood, B.W. (ed.), Ramps and Reefs. Sedimentary Geology, 79:225–253.
Follows, E.J. and Robertson, A.H.F. 1990. Sedimentology and structural setting of Miocene reefal limestones in Cyprus. In Malpas, I., Moores, E.M., Panayiotou, A., and Xenophontos, C. (eds.), Ophiolites. Oceanic crustal analogues. Proceedings of the 'Troodos 87' Symposium. Cyprus Geological Survey Department: 207–215.
Follows, E.J., Robertson, A.H.F., and Scoffin, E.J. 1996. Tectonic controls on Miocene reefs and related carbonate facies in Cyprus. In Franseen, E.K., Esteban, M., Ward, W.C., and Rouchy, J.M. (eds.), Models for carbonate stratigraphy from Miocene reef complexes of Mediterranean regions, SEPM Concepts in Sedimentology and Paleontology, 5:295–315.
Fraaije, R.H.B. 2014a. A new shallow-marine munidopsid (Anomura, Galatheoidea) from the Upper Miocene in the Maroni-Psematismenos Basin of Cyprus. In Fraaije, R.H.B., Hyžný, M., Jagt, J.W.M., Krobicki, M., and Van Bakel, B.W.M. (eds.), Proceedings of the 5th Symposium on Mesozoic and Cenozoic decapod crustaceans, Krakow [sic], Poland, 2013: a tribute to Pál Mihály Müller. Scripta Geologica, 147:233–239.
Fraaije, R.H.B. 2014b. Diverse Late Jurassic anomuran assemblages from the Swabian Alb and evolutionary history of paguroids based on carapace morphology. Neues Jahrbuch für Geologie und Paläontologie, Abhandlungen, 273:121–145.
Garcia Socias, L. 1990. Daira speciosa Reuss, 1871 (Crustacea, Decapoda, Xanthidae) en el Miocene de la Isla de Mallorca (Baleares). Bolletí de la Societat d’Historia natural de les Balears, 33:81–85.
Gass, I.G., MacLeod, C.J., Murton, B.J., Panayiotou, A., Simonian, K.O., and Xenophontos, C. 1994. The geology of the southern Troodos Transform Fault Zone. Geological Survey Department Cyprus, Ministry of Agriculture, Natural Resources and Environment, Memoir 9:1–218.
Gatt, M. and De Angeli, A. 2010. A new coral-associated decapod assemblage from the Upper Miocene (Messinian) Upper Coralline Limestone of Malta (Central Mediterranean). Palaeontology, 53:1315–1348.
Georgiades-Dikeoulia, E. and Müller, P. 1984. Palaeocology of a Messinian dolomite from Iraklion Greece with the description of a new crab species. Annales Géologiques des Pays Helléniques, 32:237–244.
Glaessner, M. 1928. Die Dekapoden Fauna des Österreichischen Jungertiärs. Jahrbuch der Geologischen Bundesanstalt, 78:198–200.
Górka, M. 2002. The Lower Badenian (Middle Miocene) coral patch reef at Grobie (southern slopes of the Holy Cross Mountains, Central Poland), its origin, development and demise. Acta Geologica Polonica, 52:521–534.
Górka, M. 2018. Badenian (Middle Miocene) decapod crustaceans from western Ukraine, with remarks on eco-taphonomy, palaeoecology and biogeography. Acta Geologica Polonica, 68:511–535.
Greensmith, T. 1994. Southern Cyprus. Geologists’ Association Guide, 50:1–146.
Haworth, A.H. 1825. A new binary arrangement of the macrurous Crustacea. Philosophical Magazine and Journal, 65:183–184.
Heller, C. 1863. Die Crustaceen des südlichen Europa. Crustacea Podophthalmia. Mit einer Uebersicht über die horizontale Verbreitung sämmtlicher europäischer Arten, Wilhelm Braumüller, Wien. 336 pp.
Hyžný, M. and Dulai, A. 2021. Badenian decapods of Hungary. GeoLitera Publishing House, Institute of Geosciences, University of Szeged, Szeged, 300 pp.
Hyžný, M., Gašparič, R., Robins, C.M., and Schlögl, J. 2014. Miocene squat lobsters (Decapoda, Anomura, Galatheoidea) of the Central Paratethys-a review, with description of a new species of Munidopsis. Scripta geologica, 147:241–267.
Kinnaird, T.C. 2008. Tectonic and sedimentary response to oblique and incipient continental-continental collision in the easternmost Mediterranean (Cyprus). Unpublished PhD thesis, University of Edinburgh: 384 pp.
Kouwenhoven, T.J., Morigi, C., Negri, A., Giunta, S., Krijgsman, W., and Rouchy, J.M. 2006. Palaeoenvironmental evolution of the eastern Mediterranean during the Messinian: constraints from integrated microfossil data of the Pissouri Basin (Cyprus). Marine Micropaleontology, 60:17–44.
Krasheninnikov, V.A. and Kaleda, K.G. 1994. Stratigraphy and lithology of Upper Cretaceous and Cenozoic deposits of the Key Perapedhi section (Neoautochthon of southern Cyprus). In Krasheninnikov, V.A. and Hall, J.K. (eds.), Geological structure of the northeastern Mediterranean. Historical Productions-Hall Ltd., Jerusalem, Israel: 195–218.
Krijgsman, W., Blanc-Valleron, M.M., Flecker, R., Hilgen, F.J., Kouwenhoven, T.J., Merle, D., Orszag-Sperber, F., and Rouchy, J.M. 2002. The onset of the Messinian salinity crisis in the eastern Mediterranean (Pissouri Basin, Cyprus). Earth and Planetary Science Letters, 194:299–310.
Latreille, P.A. 1802. Histoire naturelle, générale et particulière, des Crustacés et des Insectes. Ouvrage faisant suite aux oeuvres de Leclerc de Buffon, et partie du Cours complet d’Histoire naturelle rédigé par C.S. Sonnini, membre de plusieurs Sociétés savantes, 3: xii + 467 pp. Dufart, Paris.
Lewinsohn, C. and Holthuis, L.B. 1986. The Crustacea Decapoda of Cyprus. Zoologische Verhandelingen Leiden, 230:1–64.
Link, D.H.F. 1807-1808. Beschreibung der Naturalien-Sammlung der Universität zu Rostock. Adlers Erben. 1 Abt. [Part 1], pp. 1–50; 2 Abt. [Part 2], pp. 51–100; 3 Abt. [Part 3], pp. 101-1-65; Abt. 4 [Part 4],pp. 1–30; Abt. 5 [Part 5], pp. 1–38 ; Abt. 6 [Part 6], pp. 1–38.
Lőrenthey, E. and Beurlen, K. 1929. Die fossilen Decapoden der Länder der Ungarischen Krone. Geologica Hungarica, Palaeontologica, 3:1–421.
MacLeay, W.S. 1838. On the brachyurous decapods Crustacea brought from the Cape by Dr. Smith. In: Smith, A., Illustrations of the Annulosa of South Africa, consisting chiefly of figures and descriptions of the objects of natural history collected during an expedition into the interior of South Africa, in the years 1834, 1835, and 1836; fitted out by “The Cape of Good Hope Association for Exploring Central Africa...”: 53–71, 2 pls. Smith, Elder and Co., London.
Morse, T.J. 1996. Biostratigraphical constraints (calcareous nannofossils) on the Late Cretaceous to Late Miocene evolution of S.W. Cyprus. Durham University, E-theses.
Müller, P. 1979. The Indo-West-Pacific character of the Badenian decapod crustaceans of the Paratethys. Annales géologiques des Pays helléniques, Tome hors-série, 2:25–34.
Müller, P. 1984a. Decapod Crustacea of the Badenian. Geologica Hungarica, Series Palaeontologica, 42:1–317.
Müller, P. 1984b. Messinian and older decapods from the Mediterranean with description of two new species. Annales géologiques des Pays helléniques, 32 [International Colloquium on Mediterranean Neogene marine megafaunal palaeoenvironments and biostratigraphy]:25–34.
Müller, P. 1993. Neogene decapod crustaceans from Catalonia. Scripta Musei Geologici Seminarii Barcinonensis, 225: 1–39.
Müller, P. 1996. Miocene decapod Crustacea from southern Poland. Prace Muzeum Ziemi, 43:3-14.
Müller, P. 1998. Crustacea decapoda. In Flügel, H.W. (ed.), Catalogus Fossilium Austriae. Verlag der Österreichischien Akademie der Wissenschaften, 7(2b), 5–46.
Orszag-Sperber, F., Rouchy, I.M., and Elion, P. 1989. The sedimentary expression of regional tectonic events during the Miocene-Pliocene transition in southern Cyprus basins. Geological Magazine, 129:291–299.
Ortmann, A. 1892. Die Dekapoden-Krebse des Strassburger Museums, IV. Die Abtheilungen Galatheidea und Paguridea. Zoologische Jahrbücher (Systematik, Geographie und Biologie der Tiere), 6:241–326, pls 11, 12.
Ortmann, A.E. 1898. Crustacea, Malacostraca. In Gerstäcker, A. and Ortmann, A.E. (eds.), Die Klassen und Ordnungen der Arthropoden wissenschaftlich dargestellt in Wort und Bild. H.G. Bronn’s Die Klassen und Ordnungen der Thier-Reichs wissenschaftlich dargestellt in Wort und Bild,. C.F. Winter’sche Verlagshandlung, Leipzig. 5(2): 1057–1168
Ossó, A. and Stalennuy, O. 2011. Description of the first fossil species of Bathynectes (Brachyura, Polybiidae) in the Badenian (Middle Miocene) of the Medobory Hills (Ukraine, Central Paratethys), with remarks on its habitat ecology. Treballs del Museu de Geologia de Barcelona, 18:37–46.
Ossó, À. and Gagnaison C. 2019. An appraisal of the Middle-Late Miocene fossil decapod crustaceans of the ‘Faluns’ (Anjou-Touraine, France). Geodiversitas, 41:367–383.
Ossó, À. and Hammann-Yelo, C. 2021. The Messinian decapod assemblage of Sierra de Hurchillo (Alicante, Spain) and the unexpected presence of Aethra (Decapoda: Brachyura: Aethridae). Bulletin of the Mizunami Fossil Museum, 48:107–117.
Ossó, À., Gagnaison, C., and Gain, O. 2022. A re-appraisal of the Middle-Late Miocene fossil decapod crustaceans of the ‘Faluns’ (Anjou-Touraine, France). Geodiversitas 44:207–228.
Paul’son, O. 1875. Studies on the Crustacea of the Red Sea with notes regarding other seas. Part 1. Podophthalmata and Edriophthalmata (Cumacea): 1–164, 21 pls. S.V. Kul’zhenko, Kiev. [Translation published for The National Science foundation,Washington, D.C. and Smithsonian Institution, U.S.A., by the Israel Program for Scientific Translations, 1961.]
Radwański, A., Górka, M., and Wysocka, A. 2006. Middle Miocene coralgal facies at Maksymivka near Ternopil (Ukraine): a preliminary account. Acta Geologica Polonica, 56:89–103.
Robertson, A.H.F., Eaton, S., Follows, E.J., and McCallum, J.E. 1991. The role of local tectonics versus global sea-level change in the Neogene evolution of the Cyprus active margin. Special Publications of the International Association of Sedimentologists, 12: 331–369.
Robertson, A.H.F., Eaton, S., Follows, E.J., and Payne, A.S. 1995. Depositional processes and basin analysis of Messinian evaporites in Cyprus. Terra Nova, 7:233–253.
Samouelle, G. 1819. The Entomologist’s useful compendium; or an introduction to the knowledge of British insects, comprising the best means of obtaining and preserving them, and a description of the apparatus generally used; together with the genera of Linné, and the modern method of arranging the classes Crustacea, Myriapoda, Spiders, Mites and Insects, from their aﬃnities and structure, according to the views of Dr. Leach. Also an explanation of the terms used in entomology; a calendar of the times of appearance and usual situations of near 3,000 species of British insects; with instructions for collecting and ﬁtting objects for the microscope. Thomas Boys, London:1–496.
Stimpson, W. 1858. Prodromus descriptionis animalium evertebratorum, quae in expedition ad Oceanum Pacificum septentrionalem, a Republica Federata missa, Cadwaladaro Ringgold et Johanne Rodgers ducibus, observavit et descripsit W. Stimpson. Pars VII. Crustacea Anomura. Proceedings of the Academy of Natural Sciences of Philadelphia, 10:225–252 [63-90].
Wallaard, J.J.W., Fraaije, R.H.B., Jagt, J.W.M., Klompmaker, A.A., and Van Bakel, B.W.M. 2020. The first record of a paguroid shield (Anomura, Annuntidiogenidae) from the Miocene of Cyprus. Geologija, 63:37–43. https://doi.org/10.5474/geologija.2020.010