Elliptochloris bilobata Tschermak-Woess 1980
Authors/Creators
Description
Elliptochloris bilobata
is a widely distributed free-living species. After numerous records of this alga on granite rock outcrops (Mikhailyuk et al. 2003; Mikhailyuk 2008, 2013), where it often dominates (Mikhailyuk et al. 2003; Mikhailyuk 2008) and even forms macroscopic growths (Mikhailyuk 2008). Mikhailyuk (2008) hypothesized a preference for rocky substrates in this genus. However, E. bilobata is much more commonly found in soils of various climates, especially in forests (Hoffmann et al. 2007; Temraleeva et al. 2015; Dirborne & Ramanujam 2017; Glaser et al. 2018). The species is also abundant in the soil of tundra (Andreyeva 2004, 2005; Andreyeva & Chaplygina 2007; Novakovskaya et al. 2012; Novakovskaya & Patova 2013; Patova & Novakovskaya 2018; Novakovskaya et al. 2020), whereas no occurrence in the desert has been recorded. Similarly to other photobiont species (see Diplosphaera chodatii below), E. bilobata shows a broad tolerance to air pollution and thus thrives in the highly polluted centre of Leipzig, Germany (Freystein et al. 2008). Furthermore, this alga is encountered in Antarctica (Garraza et al. 2011; Borchhardt et al. 2017) and has been identified in caves (Vinogradova et al. 2009).
Another symbiotic member of Elliptochloris is E. perforata, which occurs free-living on bark, epilithic on tombstone (Darienko et al. 2016), and in soil (Hoffmann et al. 2007; Samolov et al. 2020). A different species, E. reniformis, is also common in soil (Lukešová 2001; Neustupa & Škaloud 2005; Khaybullina et al. 2010; Temraleeva et al. 2015; Darienko et al. 2016; Novakovskaya et al. 2020). Additionally, the species was reported from rocks (Johansen et al. 2007) and from building facades (Hofbauer & Gärtner 2021).
In addition, E. subsphaerica is a very versatile species confirmed from lichen thalli (Voytsekhovich et al. 2011; Masumoto 2020) as well as from many different types of substrates. It is frequently reported from soil (Zancan et al. 2006; Hoffmann et al. 2007; Takeshita et al. 2010; Schulz et al. 2016; Samolov et al. 2020) even from soil in heavily anthropogenically affected areas (Lukešová 2001; Neustupa & Škaloud 2005) and city centres (Rindi & Guiry 2003; Freystein et al. 2008). Other substrates include tree bark (Freystein et al. 2008; Neustupa & Škaloud 2010; Masumoto 2020), building facades (Hofbauer 2007; Hofbauer & Gärtner 2021) and rocks (Rifón-Lastra & Noguerol-Seoane 2001; Johansen et al. 2007; Mikhailyuk 2013; Mikhailyuk et al. 2018a). Furthermore, E. subsphaerica represents the dominant species in some studies (Mikhailyuk et al. 2003; Mikhailyuk 2008; Novakovskaya et al. 2020). It was also observed in pine litter (Maltsev & Maltseva 2018).
Notes
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Linked records
Additional details
Identifiers
Biodiversity
- Scientific name authorship
- Tschermak-Woess
- Kingdom
- Plantae
- Phylum
- Chlorophyta
- Order
- Prasiolales
- Genus
- Elliptochloris
- Species
- bilobata
- Taxon rank
- species
- Taxonomic concept label
- Elliptochloris bilobata Tschermak-Woess, 1980 sec. Veselá, Malavasi & Škaloud, 2024
References
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- Hoffmann L., Ector L. & Kostikov I. 2007. Algal flora from limed and unlimed forest soils in the Ardenne (Belgium). Systematics and Geography of Plants 77: 15-90.
- Temraleeva A. D., Dronova S. A., Moskalenko S. V., Vagapov I. M. & Ovchinnikov A. Y. 2015. Additions to the algaflora (Chlorophyta) of gray forest soil. Нovoсti Сiсtiмatiki Нizsik Рaсtiнiй 49: 92-109.
- Dirborne C. M. & Ramanujam P. 2017. Diversity and ecology of soil algae in broadleaf sacred grove and pine forest in East Khasi Hills, Meghalaya. Nelumbo 59: 195.
- Glaser K., Baumann K., Leinweber P., Mikhailyuk T. & Karsten U. 2018. Algal richness in BSCs in forests under different management intensity with some implications for P cycling. Biogeosciences 15: 4181-4192.
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- Masumoto H. 2020. Taxonomic studies on lichenized basidiomycetes and their photobionts in Japan: towards the establishment of a model coculture system of lichen symbiosis. Ph. D. thesis, University of Tsukuba. 158 pp.
- Zancan S., Trevisan R. & Paoletti M. G. 2006. Soil algae composition under different agro-ecosystems in North-Eastern Italy. Agriculture, Ecosystems and Environment 112: 1-12.
- Takeshita S., Tokizawa M., Handa S. & Okamoto T. 2010. A report of the photobiont isolated from Multiclavula clara (Berk. and Curt.) R. H. Peterson (Clavariaceae, lichenized Basidiomycetes). Hikobia 15: 493-497.
- Schulz K., Mikhailyuk T., Dressler M., Leinweber P. & Karsten U. 2016. Biological soil crusts from coastal dunes at the Baltic Sea, cyanobacterial and algal biodiversity and related soil properties. Microbial Ecology 71: 178-193.
- Rindi F. & Guiry M. D. 2003. Composition and distribution of subaerial algal assemblages in Galway City, western Ireland. Cryptogamie, Algologie 24: 245-267.
- Neustupa J. & Skaloud P. 2010. Diversity of subaerial algae and cyanobacteria growing on bark and wood in the lowland tropical forests of Singapore. Plant Ecology and Evolution 143: 51-62.
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