Overview

Distribution

Sphagnum L.:
Brazil (South America)
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National Distribution

Canada

Origin: Native

Regularity: Regularly occurring

Currently: Present

Confidence: Confident

United States

Origin: Unknown/Undetermined

Regularity: Regularly occurring

Currently: Unknown/Undetermined

Confidence: Confident

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Ecology

Associations

Associations

In Great Britain and/or Ireland:
Plant / associate
fruitbody of Armillaria ectypa is associated with Sphagnum

Plant / associate
fruitbody of Arrhenia epichysium is associated with Sphagnum

Plant / associate
fruitbody of Arrhenia obscurata is associated with Sphagnum
Other: minor host/prey

Plant / associate
fruitbody of Arrhenia onisca is associated with Sphagnum
Other: major host/prey

Plant / associate
fruitbody of Arrhenia philonotis is associated with Sphagnum

Plant / associate
fruitbody of Arrhenia sphagnicola is associated with gametophyte of Sphagnum

Plant / associate
fruitbody of Arrhenia velutipes is associated with gametophyte of Sphagnum

Plant / epiphyte
sporangium of Badhamia lilacina grows on gametophyte of Sphagnum

Plant / resting place / among
imago of Bagous frit may be found among plants of Sphagnum

Foodplant / saprobe
gregarious apothecium of Byssonectria fusispora is saprobic on burnt peat of Sphagnum
Other: major host/prey

Plant / associate
fruitbody of Collybia dryophila is associated with Sphagnum
Other: minor host/prey

Plant / associate
fruitbody of Entoloma atromarginatum is associated with Sphagnum

Plant / associate
fruitbody of Entoloma cuspidiferum is associated with Sphagnum

Plant / associate
fruitbody of Entoloma elodes is associated with Sphagnum

Plant / associate
fruitbody of Entoloma fuscomarginatum is associated with live Sphagnum

Plant / associate
fruitbody of Entoloma jennyae is associated with Sphagnum

Plant / associate
fruitbody of Entoloma rhombisporum var. rhombisporum is associated with Sphagnum

Plant / associate
fruitbody of Entoloma sphagneti is associated with dying Sphagnum

Plant / associate
fruitbody of Entoloma sphagnorum is associated with Sphagnum

Plant / associate
fruitbody of Entoloma turci is associated with Sphagnum
Other: minor host/prey

Plant / resting place / within
nest of Formica transkaucasica may be found in bogs of Sphagnum
Other: sole host/prey

Plant / associate
fruitbody of Galerina atkinsoniana is associated with Sphagnum

Plant / associate
fruitbody of Galerina paludosa is associated with live Sphagnum
Remarks: season: 5-8

Plant / associate
fruitbody of Galerina septentrionalis is associated with Sphagnum

Plant / associate
fruitbody of Galerina sphagnorum is associated with Sphagnum

Plant / associate
fruitbody of Galerina stordalii is associated with Sphagnum

Plant / associate
fruitbody of Galerina tibiicystis is associated with Sphagnum

Plant / associate
sporocarp of Glomus fuegianum is associated with Sphagnum
Other: major host/prey

Plant / associate
fruitbody of Hebeloma atrobrunneum is associated with Sphagnum
Other: major host/prey

Plant / associate
fruitbody of Hygrocybe coccineocrenata is associated with live Sphagnum

Plant / associate
fruitbody of Hygrocybe turunda is associated with live Sphagnum
Other: minor host/prey

Plant / epiphyte
solitary apothecium of Hymenoscyphus vasaensis grows on leaf of Sphagnum

Plant / associate
fruitbody of Hypholoma elongatum is associated with Sphagnum

Plant / associate
fruitbody of Hypholoma udum is associated with Sphagnum

Plant / associate
fruitbody of Inocybe pallida is associated with Sphagnum

Plant / associate
fruitbody of Lactarius lacunarum is associated with Sphagnum

Plant / associate
fruitbody of Lactarius musteus is associated with Sphagnum

Plant / associate
fruitbody of Lactarius sphagneti is associated with Sphagnum

Plant / associate
fruitbody of Lactarius vietus is associated with Sphagnum

Plant / associate
fruitbody of Leccinum aerugineum is associated with Sphagnum

Plant / associate
fruitbody of Leccinum holopus is associated with Sphagnum

Plant / grows among
sessile apothecium of Leucoscypha erminea grows among gametophyte of Sphagnum
Remarks: season: 6
Other: minor host/prey

Plant / grows among
apothecium of Leucoscypha leucotricha grows among gametophyte of Sphagnum
Other: minor host/prey

Plant / resting place / on
Botrydina anamorph of Lichenomphalia umbellifera may be found on plant of Sphagnum
Other: minor host/prey

Foodplant / pathogen
fruitbody of Loreleia postii infects and damages moribund thallus of Sphagnum

Plant / associate
fruitbody of Mycena adonis var. adonis is associated with Sphagnum
Other: minor host/prey

Plant / associate
fruitbody of Mycena capillaripes is associated with Sphagnum
Other: minor host/prey

Plant / associate
fruitbody of Mycena megaspora is associated with Sphagnum
Other: minor host/prey

Plant / resting place / within
nest of Myrmica scabrinodis may be found in bogs of Sphagnum

Plant / associate
fruitbody of Naucoria sphagneti is associated with Sphagnum

Plant / associate
fruitbody of Omphalina fulvopallens is associated with Sphagnum

Plant / grows among
apothecium of Pezoloma ciliifera grows among gametophyte of Sphagnum

Plant / associate
apothecium of Pezoloma iodocyanescens is associated with gametophyte of Sphagnum

Plant / associate
fruitbody of Phaeogalera stagnina is associated with Sphagnum
Other: major host/prey

Plant / resting place / within
puparium of Phaonia jaroschewskii may be found in Sphagnum

Plant / associate
fruitbody of Psathyrella ploddensis is associated with Sphagnum

Plant / associate
fruitbody of Psathyrella sphagnicola is associated with Sphagnum

Plant / grows among
gregarious apothecium of Pseudoplectania sphagnophila grows among gametophyte of Sphagnum

Plant / associate
fruitbody of Russula aquosa is associated with Sphagnum

Plant / associate
fruitbody of Russula claroflava is associated with Sphagnum

Plant / associate
fruitbody of Russula emetica is associated with Sphagnum

Plant / associate
fruitbody of Russula sphagnophila is associated with Sphagnum

Plant / grows among
apothecium of Sarcoleotia turficola grows among gametophyte of Sphagnum

Plant / associate
fruitbody of Sphagnomphalia brevibasidiata is associated with Sphagnum

Plant / associate
fruitbody of Tephrocybe palustris is associated with Sphagnum

Plant / associate
fruitbody of Trechispora byssinella is associated with live plant of Sphagnum

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Evolution and Systematics

Functional Adaptations

Functional adaptation

Internal perforations transport nutrients: sphagnum moss
 

Sphagnum moss translocates nutrients via small perforations that connect the cells in the stem.

     
  "The cation exchange is one explanation for why Sphagnum can grow in extremely poor habitats. Another factor is the ability to conserve nutrients. As the lower parts of the shoots are incorporated into peat, the plant faces the risk of losing essential nutrients and minerals. By tracer techniques (l4C, 32p) it has been shown that Sphagnum can translocate metabolites to the growing capitulum further down. This transport occurs internally and is dependent upon the plant being alive (Rydin and Clymo 1989). This is somewhat surprising, since Sphagnum mosses lack specialized conductive tissue. It is made possible since the cell ends in the stem are connected by small perforations (plasmodesmata) through which the transport occurs. Nitrogen is accumulated in new biomass, and it is likely that it is translocated internally in the same way (Aldous 2002)." (Rydin and Jeglum 2006:67)
  Learn more about this functional adaptation.
  • Rydin, H.; Jeglum, J. K. 2006. The Biology of Peatlands. Oxford University Press. 343 p.
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Molecular Biology and Genetics

Barcode

Statistics of barcoding coverage

Barcode of Life Data Systems (BOLD) Stats
                                                             
Specimen Records:1
Specimens with Sequences:0
Specimens with Barcodes:0
Public Records:0
Species:1
Species With Barcodes:0
  
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Barcode data

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Conservation

Conservation Status

National NatureServe Conservation Status

Canada

Rounded National Status Rank: N5 - Secure

United States

Rounded National Status Rank: NNR - Unranked

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NatureServe Conservation Status

Rounded Global Status Rank: G5 - Secure

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Threats

Comments: Somewhat threatened by land-use conversion, habitat fragmentation, forest management practices, and sedimentation (Southern Appalachian Species Viability Project 2002).

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Wikipedia

Sphagnum

Sphagnum is a genus of between 151 and 350 species of mosses commonly called peat moss, due to its prevalence in wet habitats where it contributes to the formation of peat bogs and mires. Sphagnum accumulations can store water, since both living and dead plants can hold large quantities of water inside their cells; some species can hold up to 20 times their dry weight in water. The empty cells help retain water in drier conditions. Hence, as sphagnum moss grows, it can slowly spread into drier conditions, a form larger peatlands, both raised bogs and blanket bogs.[1] These peat accumulations then provide habitat for a wide array of peatland plants, including sedges, ericaceous shrubs, as well as orchids and carnivorous plants.[2] Sphagnum and the peat formed from it do not decay readily because of the phenolic compounds embedded in the moss's cell walls. In additional, bogs, like all wetlands, develop anaerobic soil conditions, which produces slower anaerobic decay rather than aerobic microbial action. Peat moss can also acidify its surroundings by taking up cations such as calcium and magnesium and releasing hydrogen ions. Under the right conditions, peat can accumulate to a depth of many meters. Different species of sphagnum have different tolerance limits for flooding and pH, so any one peatland may have a number of different Sphagnum species.[3]

Individual peat moss plants consist of a main stem, with tightly arranged clusters of branch fascicles usually consisting of two or three spreading branches and two to four hanging branches. The top of the plant, or capitulum, has compact clusters of young branches. Along the stem are scattered leaves of various shape, named stem leaves; the shape varies according to species. The leaves consist of two kinds of cell; small, green, living cells (chlorophyllose cells), and large, clear, structural, dead cells (hyaline cells). The latter have the large water-holding capacity. Plants may hold from 16-26 times as much water as their dry weight.[4]

Contents

Life cycle

Sphagnum, like all other land plants, has an alternation of generations; like other bryophytes, it is the haploid gametophyte generation that is dominant and persistent. Unlike other mosses, the gametophytes have no rhizoids to assist in water uptake.[5]Sphagnum species can be unisexual (male or female, dioecious) or bisexual (male and female gametes produced from the same plant; monoecious); In North America, 80% of Sphagnum species are unisexual.[6] Gametophytes have substantial asexual reproduction by fragmentation, producing much of the living material in Sphagnum peatlands.[7] Swimming sperm fertilize eggs contained in archegonia that remain attached to the female gametophyte. The sporophyte is relatively short-lived, and consists entirely of a shiny black, spherical spore capsule. Sporophytes are raised on stalks to facilitate spore dispersal, but unlike other mosses, Sphagnum stalks are produced by the maternal gametophyte. Tetrahedral haploid spores are produced in the sporophyte by meiosis, which are then dispersed when the capsule ruptures. The spores germinate to produce a minute protonema, which over time, develops the characteristic Sphagnum leaves.

Taxonomy and phylogeny

Peat moss can be distinguished from other moss species by its unique branch clusters. The plant and stem color, the shape of the branch and stem leaves, and the shape of the green cells are all characteristics used to identify peat moss to species. Sphagnum taxonomy has been very contentious since the early 1900s; most species require microscopic dissection to be identified. In the field, most Sphagnum species can be identified to one of four major sections of the genus—classification and descriptions follow Andrus 2007 (Flora North America):

Red Sphagnum Closeup

The reciprocal monophyly of these sections and two other minor ones (Rigida and Squarrosa) has been clarified using molecular phylogenetics.[8] All but two species normally identified as Sphagnum reside in one clade, two other species have recently been separated into new families within the Sphagnaceae reflecting an ancestral relationship with the Tasmanian endemic Ambuchanania and long phylogenetic distance to the rest of Sphagnum.[9] Within main clade of Sphagnum there is relatively short phylogenetic distance, and molecular dating methods suggest nearly all current Sphagnum species are descended from a radiation that occurred just 14 mya.[10]

Geographic distribution

Common Sundew in a Sphagnum moss cushion

Sphagnum mosses occur mainly in the Northern Hemisphere in peat bogs, conifer forests and moist tundra areas. The northernmost populations of peat moss lie in the archipelago of Svalbard, Arctic Norway at 81° N.

In the Southern Hemisphere, the largest peat areas are in southern Chile and Argentina, part of the vast Magellanic Moorland (ca. 44,000 square km).[11] Peat areas are also found in New Zealand and Tasmania. In the southern hemisphere, however, peat landscapes may contain many moss species other than Sphagnum. Sphagnum species are also reported from "dripping rocks" in mountainous, subtropical Brazil.[12]

Spore dispersal

As with many other mosses, Sphagnum disperses its spores through the wind. Since the tops of spore capsules are only about 1 cm above ground, and the wind is weak that low. As the spherical spore capsule dries, the operculum is forced off, followed by a cloud of spores. The exact mechanism has traditionally attributed to a "pop gun" method using air compressed in the capsule, reaching a maximum velocity of 3.6 meters per second,[13] but alternative mechanisms have been recently proposed.[14] High speed photography has shown that vortex rings are created during the discharge, which enable the spores to reach a height of 10 to 20 cm, further than would be expected by ballistics alone. The acceleration of the spores is about 36,000G.[15][16] Spores are extremely important in establishment of new populations in disturbed habitats and on islands.[17]

Uses

Peat moss soil amendment, made of decayed, compacted Sphagnum moss

Decayed, compacted Sphagnum moss has the name of peat or peat moss. This is used as a soil conditioner which increases the soil's capacity to hold water and nutrients by increasing capillary forces and cation exchange capacity (CEC). This is often necessary when dealing with very sandy soil, or plants that need an increased moisture content to flourish. A distinction is sometimes made between sphagnum moss, the live moss growing on top of a peat bog on one hand, and sphagnum peat moss (North American usage) or sphagnum peat (British usage) on the other, the latter being the decaying matter underneath.[18]

Dried Sphagnum moss is also used in northern Arctic regions as an insulating material.

Anaerobic acidic Sphagnum bogs have low rates of decay, and hence preserve plant fragments and pollen to allow reconstruction of past environments[19]. They even preserve human bodies for millennia; examples of these preserved specimens are Tollund Man, Haraldskær Woman, Clonycavan Man and Lindow Man. Such Sphagnum bogs can also preserve human hair and clothing, one of the most noteworthy examples being Egtved Girl, Denmark. Because of the acidity of peat, however, bones are dissolved rather than preserved. These bogs have also been used to preserve food. [20] Containers of butter or lard have been found that are up to 2000 years old.[21]

Sphagnum moss has also been used for centuries as a dressing for wounds[22]. Since it is absorptive and extremely acidic, it inhibits growth of bacteria and fungi, so it is used for shipping seeds and live plants. However, see Health Dangers below.

Peat moss is used to dispose of the clarified liquid output (effluent) from septic tanks in areas that lack the proper conditions for ordinary disposal means. It is also used as an environmentally-friendly alternative to chlorine in swimming pool sanitation.[23] The moss inhibits the growth of microbes and reduces the need for chlorine in swimming pools.[24]

In New Zealand, both the species S. cristatum and S. subnitens are harvested by hand and exported worldwide for use as hanging basket liners, as a growing medium for young orchids, and mixed in with other potting mixes to enhance their moisture retaining value.

Peat moss is also a critical element for growing mushrooms. The fungalmycelium grows in compost with a layer of peat moss on top, through which the mushrooms come out, a process called casing.

Conservation

Mer Bleue Conservation Area, a large protected Sphagnum bog near Ottawa, Ontario, Canada.

Several of the world's largest wetlands are sphagnum dominated bogs, including the West Siberian Lowland, the Hudson Bay Lowland and the Mackenzie River Valley. These areas provide habitat for common species, and for rare species. They also store large amounts of carbon, which helps reduce global warming.[25]

Large-scale peat harvesting is not sustainable as it takes thousands of years to form the peat that can be harvested in just a week. Coir has been touted as a sustainable alternative to peat moss in growing media.[26] Another peat moss alternative is manufactured in California from sustainably harvested redwood fiber and sold under the brand name LignaPeat.[27]

Europe

Europe has a long history of the exploitation of peatlands. The Netherlands, for example, once had large areas of peatland, both fen and bog. Between 100 AD and the present, they were drained and converted to agricultural land.[28] The English broadlands have small lakes that originated as peat mines.[29] More than 90% of the bogs in England have been damaged or destroyed.[30][31] A handful of bogs have been preserved through government buyouts of peat-mining interests.[32] Over longer time scales, however, some parts of England, Ireland and Scotland have seen expansion of bogs, particularly blanket bogs, in response to deforestation and abandonment of agricultural land.[33]

New Zealand

New Zealand has, like the rest of the world, lost large areas of peatland -- latest estimates for wetland loss in New Zealand are 90 percent over 150 years.[34] In some cases, better care is taken during the harvesting of Sphagnum to ensure that there is enough moss remaining to allow regrowth. This is commonly done using a 3 year cycle.[citation needed]This "farming" is based on a sustainable management program approved by New Zealand's Department of Conservation. This plan ensures the regeneration of the moss, while protecting the wildlife and the environment. Most harvesting in New Zealand swamps is done only using pitchforks without the use of heavy machinery. During transportation, helicopters are commonly employed to transfer the newly harvested moss from the swamp to the nearest road.

Health dangers

Sphagnum moss can potentially harbour the chronic fungal disease sporotrichosis. Sporothrix schenckii spores enter the skin via abrasions, scratches, and small puncture wounds as a result of unprotected contact exposure to Sphagnum moss.[citation needed]

Species

Footnotes

  1. ^ Gorham, E. (1957). The development of peatlands. Quarterly Review of Biology, 32, 145–66.
  2. ^ Keddy, P.A. (2010). Wetland Ecology: Principles and Conservation (2nd edition). Cambridge University Press, Cambridge, UK. 497 p.
  3. ^ Vitt, D. H. and Slack, N. G. (1984). Niche diversification of Sphagnum relative to environmental factors in northern Minnesota peatlands. Canadian Journal of Botany, 62, 1409–30.
  4. ^ Bold, H.C. 1967. Morphology of Plants. second ed. Harper and Row, New York. p. 225-229.
  5. ^ Bold, H.C. 1967. Morphology of Plants. second ed. Harper and Row, New York. p. 225-229.
  6. ^ Andrus, Richard. Sphagnum. Flora of North America. 2007
  7. ^ Rydin, Hakan and Jeglum, John K. 2006. Biology of Peatlands. Oxford University Press, Oxford.
  8. ^ Shaw, A.J.; Cox, C.; Boles, S.B. (2003). "Polarity of peatmoss (Sphagnum) evolution: who says bryophytes have no roots?". American Journal of Botany 90 (12): 1777–1787. doi:10.3732/ajb.90.12.1777. http://www.amjbot.org/cgi/content/full/90/12/1777. 
  9. ^ Shaw, A.J. et al. [1] Newly resolved relationships in an early land plant lineage: Bryophyta class Sphagnopsida (peat mosses) American Journal of Botany 97: 1511-1531 (2010)
  10. ^ Shaw, A.J. et al. Peatmoss (Sphagnum) diversification associated with Miocene Northern Hemisphere climatic cooling? Molecular Phylogenetics and Evolution Volume 55, Issue 3, June 2010, Pages 1139-1145.
  11. ^ Arroyo, M.T.K., P. Mihoc, P. Pliscoff and M. Arroyo-Kalin. (2005). The Magellanic moorland. P. 424-445 in L.H. Fraser and P.A. Keddy (eds.). The World’s Largest Wetlands: Ecology and Conservation. Cambridge University Press, Cambridge, UK.
  12. ^ Crum, H. (1991). Two new species of Sphagnum from Brazil. The Bryologist 94: 301-303.
  13. ^ Sebastian Sundberg (2010). "Size matters for violent discharge height and settling speed of Sphagnum spores: important attributes for dispersal potential". Annals of Botany 105 (2): 291–300. doi:10.1093/aob/mcp288. PMC 2814761. PMID 20123930. //www.pubmedcentral.nih.gov/articlerender.fcgi?tool=pmcentrez&artid=2814761. 
  14. ^ Jeff Duckett; Pressel, Silvia; P’ng, Ken M. Y.; Renzaglia, Karen S. (2009). "Exploding a myth: the capsule dehiscence mechanism and the function of pseudostomata in Sphagnum". New Phytologist 183 (4): 1053–63. doi:10.1111/j.1469-8137.2009.02905.x. PMID 19552695. 
  15. ^ Johan L. van Leeuwen (July 23, 2010). "Launched at 36,000g". Science 329 (5990): 395–6. doi:10.1126/science.1193047. PMID 20651138. 
  16. ^ Dwight L. Whitaker and Joan Edwards (July 23, 2010). "Sphagnum Moss Disperses Spores with Vortex Rings". Science 329 (5990): 406. doi:10.1126/science.1190179. PMID 20651145. 
  17. ^ Sundberg, S (2005). "Larger capsules enhance short-range spore dispersal in Sphagnum, but what happens further away?". Oikos 108 (1): 115–124. doi:10.1111/j.0030-1299.2005.12916.x. 
  18. ^ Hood, Gerry (January, 1995). "Don't Confuse Sphagnum Moss with Peat Moss". African Violet Magazine, p. 34
  19. ^ Keddy, P.A. 2010. Wetland Ecology: Principles and Conservation (2nd edition). Cambridge University Press, Cambridge, UK. 497 p.
  20. ^ Madrigal, Alexis. Bogosphere: The Strangest Things Pulled Out of Peat Bogs. Wired Magazine. 21 Aug. 2009
  21. ^ Bog Butter Test. New Scientist. 20 March 2004.
  22. ^ Bold, H.C. 1967. Morphology of Plants. second ed. Harper and Row, New York. p. 226.
  23. ^ Moss Proving An Alternative To Chlorine In Pools. WCCO. 15 Aug. 2008.
  24. ^ Hill, Catey. Time to fire the pool boy? Moss helps pools stay clean. Daily News. 29 Oct. 2009.
  25. ^ Fraser, L.H. and P.A. Keddy (eds.). 2005. The World’s Largest Wetlands: Ecology and Conservation. Cambridge University Press, Cambridge, UK. 488 p.
  26. ^ Richards, Davi. Coir is sustainable alternative to peat moss in the garden. Oregon State University Extension Service.
  27. ^ "LignaPeat". http://www.lignapeat.com/. 
  28. ^ Keddy, P.A. 2010. Wetland Ecology: Principles and Conservation (2nd edition). Cambridge University Press, Cambridge, UK. 497 p. Figure 14.2
  29. ^ Moss, B. (1984). Medieval man-made lakes: progeny and casualties of English social history, patients of twentieth century ecology. Transactions of the Royal Society of South Africa, 45, 115–28.
  30. ^ Insight into threatened peat bogs. BBC News.
  31. ^ The RSPB: Policy
  32. ^ Jeffery, Simon. Bogs to be preserved for peat's sake. The Guardian. 27 Feb. 2002.
  33. ^ Keddy, P.A. 2010. Wetland Ecology: Principles and Conservation (2nd edition). Cambridge University Press, Cambridge, UK. 497 p. Figure 11.8.
  34. ^ Peters, M. and Clarkson, B. 2010. Wetland Restoration: A Handbook for New Zealand Freshwater Systems. Manaaki Whenua Press, Lincoln, N.Z. ISBN: 978-0-478-34707-4 (online)

References

Eddy, A. (1988). A Handbook of Malesian Mosses. Volume 1. Sphagnales to Dicranales. UK: British Museum (Natural History). pp. 202 pp. ISBN 0-565-01038-7. 

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