Species Delimitation in the Ponto-Caucasian Viola Sieheana Complex, Based on Evidence from Allozymes, Morphology, Ploidy Levels, and Crossing Experiments

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Species Delimitation in the Ponto-Caucasian Viola Sieheana Complex, Based on Evidence from Allozymes, Morphology, Ploidy Levels, and Crossing Experiments View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Springer - Publisher Connector Plant Syst Evol (2011) 291:183–196 DOI 10.1007/s00606-010-0377-z ORIGINAL ARTICLE Species delimitation in the Ponto-Caucasian Viola sieheana complex, based on evidence from allozymes, morphology, ploidy levels, and crossing experiments Thomas Marcussen • Liv Borgen Received: 16 March 2010 / Accepted: 4 October 2010 / Published online: 11 November 2010 Ó The Author(s) 2010. This article is published with open access at Springerlink.com Abstract Information from allozymes, ploidy levels, strong allozymic differentiation in four out of seven iso- morphology, cross-compatibility and biogeography sug- zyme systems, suggesting reproductive isolation and gests that the easternmost occurrences of the Ponto- incipient speciation. Within section Viola, V. caspia and Caucasian Viola sieheana should be considered to belong to V. sieheana seem no more closely related to each other than a separate species, V. caspia. Morphological characters to either of the other investigated European species. The delimitating V. sieheana and V. caspia are presented and possibility that V. sieheana is an ancient allopolyploid discussed. The main distribution of V. sieheana s. str. is in involving the Greek narrow endemic V. dirphya (2n = 40) the eastern Balkans, Turkey, Cyprus, and The Lebanon, and is discussed. of V. caspia in the Caspio-Caucasian region westwards to Crimea and north-eastern Turkey. Their distributions in the Keywords Allozymes Á Cross compatibility Á intermediate areas remain unknown. Plants of V. sieheana s. Ploidy levels Á SE Europe–SW Asia Á str. from Cyprus, Greece, and Turkey were all blue-flow- Subsection Rostratae Á Viola caspia ered and had the chromosome number 2n = 12x = 60. Its presence in the Peloponnese (Parnon, Tay¨getos, Menalon) and in the Pindhos mountains, Greece, was confirmed. Introduction Reports of plants with 2n = 8x = 40 from these stations seem to refer to the sterile hybrid V. reichenbachi- The caulescent and usually blue-flowered woodland violets ana 9 sieheana which is locally abundant. V. caspia from form a morphologically and ecologically uniform group Azerbaijan had 2n = 8x = 40 and had either whitish or with taxa represented in temperate deciduous forests blue flowers. In spite of sympatry and almost complete throughout most of the northern hemisphere. The species cross-compatibility, the two corolla colour morphs showed typically produce chasmogamous, insect-pollinated flowers in spring, and later in the season only cleistogamous flowers. They all belong taxonomically in the palaeote- Electronic supplementary material The online version of this traploid (Nordal and Jonsell 1998) section Viola subsection article (doi:10.1007/s00606-010-0377-z) contains supplementary Rostratae (Kupffer) W. Becker (=section Trigonocarpea material, which is available to authorized users. Godr.), which has some 50 species worldwide, but are T. Marcussen (&) presumably not monophyletic within this subsection (cf. University of Oslo, P.O. Box 1045, Blindern, 0316 Oslo, Norway Harvey 1966; van den Hof et al. 2008). Historically, dif- e-mail: [email protected] ferent woodland species have often been united under the T. Marcussen collective species names V. canina L., V. sylvestris Lam. Department of Plant and Environmental Sciences, (= V. canina), and V. sylvatica Fr. ex Hartm. (= V. riviniana University of Gothenburg, Gothenburg, Sweden Rchb.). The confusing taxonomy in this group seems to be due to the modest number of species-delimitating charac- L. Borgen National Centre for Biosystematics, Natural History Museum, ters, coupled with strong phenotypical plasticity and University of Oslo, P.O. Box 1172, Blindern, 0316 Oslo, Norway seasonal variation, cleistogamous inbreeding promoting 123 184 T. Marcussen, L. Borgen differentiation among populations, and the ability of authors (e.g. Coode and Cullen 1965; Schmidt 1992; Val- species to form (mostly sterile) interspecific hybrids. The entine 1962; Yuzepchuk 1949). However, such a wide taxa differ in the details of the chasmogamous flowers delimitation of V. sieheana appears to be problematic in (colour and shape of petals and spur, size of calycine certain respects. appendages), the cauline stipules (size, shape and incision), Firstly, two chromosome numbers, 2n = 40 and and to some extent pubescence and shape of the leaves and 2n = 60, corresponding to the octo- and dodecaploid capsules; in addition, many of the species are allopatric or levels (Marcussen and Nordal 1998; Nordal and Jonsell ecologically separated (Table 1). 1998), have been reported in specimens attributed to In Europe and adjacent temperate North Africa and V. sieheana. The number 2n = 60 has been reported from West Asia, the woodland violets comprise about six spe- northern Turkey, Greece and Cyprus (Harvey in Valentine cies. Three of these, V. reichenbachiana Jord. ex Boreau, 1962; Livaniou-Tiniakou 1991; Tiniakou 1991a). The V. riviniana Rchb. and V. sieheana W. Becker, have wide number 2n = 40, on the other hand, is disjunctive, with distributions and intertwined nomenclatural histories. The reports from one Georgian (as n = 20) (Clausen 1927) remaining three species are all narrow endemics from and four Greek populations (van Loon and Oudemans southern Europe, V. dirphya A. Tiniakou and V. oligyrtia 1982; Tiniakou 1991a). These reports for V. sieheana are A. Tiniakou from Greece, and V. laricicola Marcussen in contrast with the uniformity in chromosome numbers from the Alps. The fact that these endemic taxa have been found in all other known species of the section, disre- discovered in recent times (Marcussen 2003b; Tiniakou garding the occurrence of B-chromosomes (Marcussen 1991b, 1995) is in itself an indication of the difficult tax- et al. 2010). onomy of this group. These species represent three ploidy Secondly, V. sieheana appears as a morphologically levels: V. laricicola and V. reichenbachiana are tetraploids rather variable species, particularly in stipule shape and (2n = 20), V. dirphya, V. oligyrtia and V. riviniana are fimbriation and in leaf blade index. The most spectacular octoploids (2n = 40), and counts on V. sieheana suggest it character that seems to form an interesting geographical is octoploid (2n = 40) or dodecaploid (2n = 60). pattern in this species complex is corolla colour. Plants V. sieheana as hitherto circumscribed is the south-east- with whitish corollas (i.e. ‘‘V. neglecta’’ and V. caspia) ernmost of the European blue-flowered woodland species have been reported solely from Crimea, the Caucasus, and (see map in Fig. 1). It has been attributed a mainly Ponto- from the south Caspian coast (Becker 1924; Freyn 1902; Caucasian distribution, reaching in the west and north the Meikle 1977; Mouterde 1970; Raus 1986; Ruprecht 1869; Balkans from eastern Greece to Romania and Moldova, in Schmidt 1992). On the other hand, plants from Greece, the south the mountains of The Lebanon and Cyprus, and in Cyprus, Turkey and the Middle East, i.e. V. sieheana in the the east the Caucasus and the temperate forests of northern strict sense (Nikitin 1998), are reported to have invariably Iran (Becker 1902, 1924; Yuzepchuk 1949; Coode and lavender blue flowers (M. Dinc¸, personal communication; Cullen 1965; Valentine et al. 1968; Mouterde 1970; Meikle Meikle 1977; Mouterde 1970; Raus 1986). Obscuring the 1977; Raus 1986; Schmidt 1992). The distribution of picture are numerous reports from the Balkans of ‘transi- V. sieheana overlaps with that of V. riviniana only in the tional’ forms between V. sieheana and V. riviniana (Becker Balkans, in a belt from Greece to Moldova, while it is 1922, 1924; Raus 1986; Tiniakou 1991a). Tiniakou (1991a) nested almost completely within the range of the more found Greek plants with the same chromosome number as widely distributed V. reichenbachiana. V. sieheana was V. riviniana,2n = 40, that according to her showed originally described (Becker 1902) based on a number of ‘intermediate morphological characters between V. siehe- syntypes from the Crimea, Moldova (Bessarabia) and ana and V. riviniana’. Whether these plants represent Turkey (Cilicia, Anatolia, Bithynia), from which a lecto- hybrids or novel species is not clear. type (Turkey: Cilicia: Mersina [=present-day I˙c¸el]. This study aimed to resolve these apparent ambiguities W. Siehe s.n. LE!) was later selected (Nikitin 1998). The within the V. sieheana complex. Specifically addressed Crimean plants had already been described under the ille- questions were: gitimate name V. neglecta M. Bieb., non F.W. Schmidt 1. Can we confirm the occurrence of two cytotypes (Marschall von Bieberstein 1808). Later, Becker (1924) (2n = 40 and 2n = 60) in V. sieheana? also included in V. sieheana (as V. riviniana ssp. neglecta) 2. If the answer to question 1 is ‘yes’, are the cytotypes plants from the Caspian region (Azerbaijan: Lenkoran and associated with geographic distribution or with differ- Iran: Gorga¯n). These Caspian plants had previously been ences in morphology (i.e. corolla colour and leaf described as V. sylvatica var. caspia Rupr. (Ruprecht 1869) shape)? and were later raised to the species level, V. caspia (Rupr.) 3. Are the cytotypes reproductively isolated from each Freyn (1902). The wide delimitation of V. sieheana (sensu other and from other related taxa? Becker 1924) has subsequently been adopted by most later 123 Species delimitation in the Ponto-Caucasian Viola sieheana complex 185 4. Does the
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