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Ramaria
Ramaria lorithamnus
Ramaria lorithamnus
Scientific classification Edit this classification
Kingdom: Fungi
Division: Basidiomycota
Class: Agaricomycetes
Order: Gomphales
Family: Gomphaceae
Genus: Ramaria
Fr. ex Bonord. (1851)
Type species
Ramaria botrytis
(Pers.: Fr.) Ricken (1918)

The genus Ramaria comprises approximately 200 species of coral fungi.[1] Several, such as Ramaria flava, are edible and picked in Europe, though they are easily confused with several mildly poisonous species capable of causing nausea, vomiting, and diarrhea; these include R. formosa and R. pallida. Three Ramaria species have been demonstrated to contain a very unusual organoarsenic compound homoarsenocholine.[2]

Etymology

[edit]

The genus name is derived from Latin rāmus meaning branch.[3]

Description

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Basidiocarps may range in color from bright yellow, red, pink, or orange, to purple, white, and shades of tan. Color changes after bruising occur in some species.

The spores of Ramaria species are yellow-brown to rusty-brown in mass deposit and range from smooth to warted to echinulate or striate. Spore size may vary considerably, and ornamentation, when present, is cyanophilous.

Classification

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Hjomsköld was the first to introduce the name Ramaria in 1790.[4] Persoon later described R. botrytis, and placed it in the genus Clavaria.[5] Fries sanctioned the name Clavaria in 1821 and treated Ramaria as a section of Clavaria. In 1933, Donk elevated the name Ramaria to its current generic status by recognizing Bonorden's use of the name Ramaria.[5][6] Currently, Ramaria is placed in the Gomphaceae,[7] although some older sources still classify it in the Ramariaceae. Ramaria has been further subdivided into four subgenera based on differences in spore ornamentation, substrate habitat, clamps, and basidiocarp appearance.[5]

Phylogenetic analyses has shown that Ramaria is not monophyletic, and that the characteristic coralloid shape has likely evolved several times from different ancestors.[8]

Species

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References

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Ramaria

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from Grokipedia
Ramaria is a of club and fungi in the Gomphaceae within the order Gomphales of the , characterized by its coralloid basidiomata that feature intricate, repeatedly branched structures often displaying vivid colors ranging from white and yellow to pinkish-orange and purple. These fruiting bodies typically measure 2–30 cm in height and width, with dichotomous or polychotomous branching up to 3–5 ranks, and are supported by a stipe that may be single, fasciculate, or compound, sometimes tapering into mycelial strands. The encompasses approximately 200–300 described worldwide, many of which exhibit a monomitic hyphal system with simple-septate generative hyphae, and produce ornamented, spores that are typically yellow-brown and cyanophilous. Ecologically, species of Ramaria are predominantly ectomycorrhizal, forming symbiotic associations with the roots of trees such as (Pinus, Picea) and hardwoods (Quercus, Betula), though some are saprobic, lignicolous, or humicolous decomposers in forest soils. They are widely distributed across the , particularly in temperate and boreal forests at elevations often exceeding 1,000 meters, with notable diversity in regions like (e.g., 45 species in ), China (over 60 species reported), and . While many Ramaria species are terricolous and fruit in late summer to autumn under leaf litter or duff, some are considered of special conservation concern due to habitat loss in coniferous ecosystems. Notable aspects include the edibility of certain species, such as R. botrytis and R. flava, which are prized for culinary use, contrasted by poisonous ones like R. flavo-brunnescens and R. rufescens that can cause gastrointestinal distress. Additionally, Ramaria fungi produce bioactive compounds, including and sesquiterpenes, with demonstrated , antitumor, and properties in pharmacological studies. Taxonomic often relies on morphological traits like ornamentation, clamp connections, and reactions, supplemented by molecular data from mitochondrial genomes, which reveal intron-rich structures and phylogenetic insights within .

Etymology and Taxonomy

Etymology

The genus name derives from the Latin word , meaning "branch," a reference to the repeatedly branched, coral-like structure of its fruiting bodies. This name was introduced by Danish botanist Theodor Holmskjold in within his mycological work Beata ruris otia fungis Danicis impensa. The etymology has no significant variations or equivalents in other languages.

Taxonomic History

The genus Ramaria was initially described by Theodor Holmskjold in 1790 within the clavarioid fungi, encompassing branched, coral-like basidiocarps that he distinguished from simpler club-shaped forms. Holmskjold's work, published in Beata ruris otia fungis Danicis impensa, established Ramaria as a segregate from broader clavarioid groupings, though it was not immediately recognized as a full genus and often subsumed under Clavaria in subsequent classifications. The genus was formalized by Elias Magnus Fries in 1821 and further established by Hermann Bonorden in 1851, with Ramaria botrytis as the type species. Relevant synonyms include Cladaria, Clavariella, and Coralloides. In 1933, Marinus Anton Donk elevated Ramaria to generic status, explicitly separating it from Clavaria based on its complex branching patterns and spores, drawing on earlier concepts by Bonorden (). This revision formalized Ramaria as a distinct entity in mycological , emphasizing its coralloid morphology over the simpler structure of Clavaria. Donk's contributions laid the groundwork for 20th-century refinements, including his later placement of the genus within the Gomphaceae family in 1961. Key advancements occurred in the mid-20th century through the work of Edred John Henry Corner, who in proposed a comprehensive subgeneric dividing Ramaria into four subgenera: Ramaria, Laeticolora, Lentoramaria, and Echinoramaria. These divisions were based on ornamentation, texture, and preferences, with Lentoramaria, for example, characterized by gelatinous consistency and smooth spores. Corner's significantly expanded the genus's scope, incorporating global and influencing subsequent regional floras. Phylogenetic analyses beginning in the early revealed Ramaria to be non-monophyletic, with molecular data from nuclear large subunit and mitochondrial small subunit rDNA sequences indicating polyphyletic origins for its coralloid form. This recognition prompted transfers of certain species to related genera, such as Lentaria and Ramariopsis, to achieve more accurate monophyletic groupings within the clavarioid fungi.

Current Classification

Ramaria is classified within the phylum , class , order Gomphales, and family Gomphaceae. This positioning reflects its club-like, coralloid basidiocarps and ectomycorrhizal associations typical of the order. Although earlier taxonomic schemes, such as those by Corner (1970), erected a separate family Ramariaceae for Ramaria, molecular phylogenetic evidence has firmly placed the genus within Gomphaceae, based on shared sequences and morphological synapomorphies like spore reactions in certain clades. This reassignment, supported by analyses of nuclear large subunit (nucLSU) and mitochondrial small subunit (mtSSU) rDNA, underscores the evolutionary ties to other gomphoid fungi. The encompasses approximately 200 , organized into four —Ramaria, Laeticolora, Lentoramaria, and Echinoramaria—differentiated by ornamentation and branching patterns. Ramaria features spores with fine striations and densely bushy, cauliflower-like branching; Laeticolora has verrucose spores and often brightly colored, spreading branches; Lentoramaria exhibits thick-walled, weakly ornamented spores with more compact, upright branching; and Echinoramaria is characterized by prominently spiny (echinulate) spores alongside irregular, coral-like branching. These traits aid in identification but are supplemented by molecular data for precise delimitation. Phylogenetic analyses of rDNA sequences demonstrate that Ramaria is non-monophyletic, with polyphyletic origins evident from the paraphyly of subgenera Laeticolora and Lentoramaria, where genera like Gomphus and Gautieria nest within Ramaria clades, indicating convergent evolution of coralloid forms. This polyphyly challenges traditional boundaries and highlights the need for ongoing revisions based on expanded genomic sampling.

Morphology and Identification

Macroscopic Features

Ramaria species are characterized by clavarioid basidiocarps that exhibit a repeatedly branched, coral-like structure, typically arising from a without a distinct . These fruiting bodies vary in size but commonly reach heights of 2–30 cm and widths of 0.4–26 cm, forming erect clusters that can appear dense or slender depending on the branching density. Coloration in Ramaria is diverse and often vivid, spanning (as seen in R. flava), , red, orange, and brown hues across the stipe, branches, and apices, with some displaying internal tissues that contrast with external surfaces. Certain undergo notable color changes when bruised, such as shifting from yellow to tones. The overall appearance may be subtly influenced by deposit color, contributing to a powdery or rusty tint on aging surfaces. Branching patterns are predominantly dichotomous or polychotomous, with branches diverging into multiple tiers from near the base, culminating in tips that are blunt, pointed, or flared. A basal stipe is often present but can be reduced or absent in some forms, supporting the upright, antler-like growth. The texture of Ramaria fruiting bodies ranges from fleshy and rubbery when fresh to brittle or cartilaginous upon drying, with surfaces that may appear smooth, wrinkled, or fibrillose. Odors vary but frequently include fruity or anise-like scents in several species, aiding in field identification.

Microscopic Features

The spores of Ramaria species are typically ellipsoid to cylindrical in shape, measuring 8–15 μm in length and 3–6 μm in width, and are cyanophilous. They produce yellow-brown to rusty-brown spore prints and exhibit ornamentation that varies from smooth (often amyloid-reacting) to echinulate, verrucose, or striate, aiding in subgeneric classification. Basidia are club-shaped (clavate), generally 30–60 μm long and 6–10 μm wide, bearing four sterigmata, though some may have two to three. Clamp connections are typically present at the basidia bases in most , though absent in certain clampless groups like R. conferta. The hyphal in Ramaria is predominantly monomitic to dimitic, composed of generative hyphae that are thin- to thick-walled, septate, and branched, with or without clamp connections depending on the . Skeletal hyphae may occur in the stipe trama, providing , while cystidia are generally absent in the genus. Gloeoplerous hyphae, characterized by their oil-filled, refractive appearance and cyanophilous nature, are present in certain subgenera such as Lentaria and Laeticolora, serving as a key diagnostic feature for identification under . These hyphae are thin-walled, branching, and abundant in the stipe medulla of affected .

Ecology and Distribution

Habitat Preferences

Ramaria species predominantly occupy ecosystems, where they form ectomycorrhizal associations or act as decomposers on forest floors characterized by high moisture levels and accumulation. These fungi are commonly found in both coniferous and woodlands, favoring shaded, humid environments that support their branching fruiting bodies. They are often found at elevations exceeding 1,000 meters. Substrate preferences vary across the genus, with many species exhibiting lignicolous habits by colonizing decaying or wood, such as buried logs or stumps, while others are terricolous, emerging directly from or leaf/needle litter layers. For instance, certain Ramaria grow preferentially on well-decomposed substrates from trees like (Fagus) or (Pinus), reflecting adaptations to nutrient-rich, humus-laden microsites. Humicolous forms often appear in duff layers beneath mixed canopies, underscoring the genus's versatility in utilizing woody and organic content. Fruiting in Ramaria is seasonally timed to late summer through fall in the , typically triggered by increased that enhances dispersal and mycelial growth in moist substrates. This pattern aligns with peak decomposition activity in temperate forests, where cooler temperatures and rainfall create optimal conditions for development.

Global Distribution

The genus Ramaria exhibits a cosmopolitan distribution, with species documented on all continents except Antarctica. This widespread occurrence reflects the adaptability of these ectomycorrhizal and saprotrophic fungi to various forest ecosystems, though they are notably absent from polar ice caps and extreme arid zones. Highest species diversity is concentrated in temperate regions of North America, Europe, and Asia, where cool, humid conditions favor fruiting body development. Notable diversity includes 45 species in Minnesota and over 60 in China. Regional hotspots include the Pacific Northwest of the United States, with over 80 species recorded in the region, including many in Washington state, the temperate regions of central Europe, and parts of Australasia. In New Zealand, more than 20 indigenous species occur, several of which are endemic to the archipelago's native podocarp and beech forests. Some Ramaria species, such as R. botrytis, show evidence of potential introduction to non-native areas through human-mediated dispersal, including via transported or timber. Overall, the genus demonstrates a strong preference for temperate climates with moderate temperatures and high moisture, resulting in relative rarity within tropical lowlands despite occasional records from subtropical and montane tropical sites.

Ecological Interactions

Ramaria species exhibit a mix of saprotrophic and ectomycorrhizal lifestyles, with many functioning as key decomposers of woody substrates, breaking down complex polymers such as and in dead trees and logs, thereby facilitating the recycling of in forest ecosystems. This role is evident in lignicolous species like and Ramaria concolor, which produce white rhizomorphs that penetrate decaying or wood, contributing to its gradual breakdown. Many Ramaria species form ectomycorrhizal associations with trees, particularly conifers such as Douglas-fir (Pseudotsuga menziesii) and western hemlock (), as well as hardwoods like (Quercus spp.) and (Fagus spp.). These symbiotic relationships enhance uptake for host , particularly and , while the fungi receive carbohydrates from the trees, supporting broader cycling in forest soils. Isotopic analyses indicate that while some Ramaria exhibit signatures intermediate between saprotrophic and mycorrhizal fungi, several species, including R. acrisiccescens and R. cyaneigranosa, clearly form ectomycorrhizae, often producing dense mycelial mats that integrate mycorrhizal with decomposing . Interactions with play a crucial role in Ramaria , particularly through dispersal and consumption. The externally borne s of Ramaria fruiting bodies are primarily wind-dispersed but are also ingested and spread by mycophagous such as slugs and , which consume portions of the coral-like structures and excrete viable s, potentially transporting them to suitable substrates. Small mammals, including and squirrels, may similarly consume Ramaria, aiding long-distance dispersal while relying on the fungi as a source. Through their dual saprotrophic and mycorrhizal functions, Ramaria species significantly contribute to forest nutrient recycling by mobilizing locked nutrients from organic matter and facilitating their transfer to plants, thereby maintaining ecosystem productivity. As ectomycorrhizal associates, they are particularly sensitive to environmental stressors; elevated pollution from atmospheric deposition can suppress their growth and fruiting, while change-induced shifts in and moisture disrupt symbiotic networks, potentially reducing their abundance in affected s.

Edibility, Toxicity, and Uses

Edible Species

Several species within the genus Ramaria are considered safe for culinary consumption, provided they are properly identified and prepared. Notable examples include Ramaria botrytis, commonly known as the cauliflower fungus, which features a mild flavor reminiscent of its namesake vegetable and is often cooked by sautéing or frying to enhance its texture. Similarly, Ramaria flava, or yellow coral fungus, offers a sweet, nutty taste when young and is valued for its firm consistency after cooking. These species are ethnically recognized as edible across various cultures, with R. botrytis prized for its substantial size and palatability in mycological communities. Preparation is essential to ensure edibility, as raw or undercooked Ramaria specimens may contain mild compounds or bitterness that dissipates with heat. Both R. botrytis and R. flava require thorough cooking, typically for 10-15 minutes followed by or , to neutralize potential irritants and improve digestibility; young, unbranched specimens are preferred for their tenderness and reduced bitterness. Nutritionally, these fungi are noteworthy for their high protein content, ranging from 15.8% to 21.65% on a dry weight basis, and levels up to 1.33%, contributing to their value as a low-fat (0.22-1.26%) source of essential and unsaturated fatty acids like . Harvesting guidelines emphasize sustainable practices to preserve fungal populations and ecosystems. Foragers should target clean, undisturbed woodland areas under hardwoods or , collecting only young, firm specimens in moderation to avoid overharvesting; a taste test on a small piece can confirm absence of bitterness, a key indicator of suitability. Accurate identification is critical to distinguish species from look-alikes, such as , which lacks the characteristic color or branch structure—R. botrytis produces yellowish spores and features pinkish tips on densely packed branches, while R. flava displays uniform yellow coloration without green reactions to iron salts. In cultural contexts, Ramaria species like R. botrytis and R. flava are traditionally foraged in , particularly in and where they appear in regional cuisines, and in across temperate forests, often featured in amateur events and wild food gatherings. Commercial availability remains limited due to their seasonal and foraging challenges, positioning them primarily as a wild-harvested rather than a market staple.

Toxic Species and Compounds

Several species within the genus Ramaria are known to be toxic to humans, primarily causing gastrointestinal disturbances upon ingestion. Ramaria formosa and R. pallida are among the most frequently reported poisonous species, leading to symptoms such as , , and . These effects are generally mild but can be distressing, necessitating medical evaluation if symptoms persist. A distinctive feature of certain Ramaria species is the presence of homoarsenocholine, a novel organoarsenic compound bioaccumulated from arsenic-contaminated soil substrates. This compound has been identified in three species: R. subbotrytis, R. aff. largentii, and R. cf. pallida, where it constitutes a minor fraction (less than 5%) of the total extracted , with concentrations of total arsenic ranging from 1.7 to 61 mg kg⁻¹ dry mass. As an organoarsenic species, homoarsenocholine shares structural similarities with other arsenic compounds that can exhibit , including potential carcinogenicity at high exposure levels due to arsenic's known genotoxic properties. Ingestion risks are heightened by the variability in toxin content influenced by environmental factors, such as soil arsenic levels, though no fatalities have been directly attributed to Ramaria consumption in humans. Recent has focused on arsenic and in Ramaria fruiting bodies, highlighting the role of these fungi as potential indicators of environmental arsenic . For instance, a 2018 study utilized coupled with to detect and characterize homoarsenocholine for the first time in .

Culinary and Other Uses

Certain species within the genus Ramaria have demonstrated potential anti-inflammatory properties through bioactive compounds, such as ramarin A and B isolated from Ramaria formosa, which inhibit human neutrophil elastase and may aid in mitigating skin aging processes. These findings stem primarily from in vitro and preliminary studies, with limited clinical evidence available to support broader therapeutic applications. Cultivation of Ramaria species presents significant challenges due to their predominantly mycorrhizal nature, requiring symbiotic associations with for fruiting body development, which complicates indoor or controlled production. Experimental approaches, including the use of specialized containers and media to synthesize mycorrhizae, have been reported, though commercial scalability remains elusive. Pigments extracted from colorful Ramaria species, such as those yielding yellows and greens, have been utilized in production for textiles, particularly when fresh specimens are processed with mordants like or iron sulfate. These applications leverage the vivid hues of species like Ramaria araiospora, though results can be variable and require careful handling to preserve color intensity. Ramaria fungi are valued for their ornamental qualities, often featured in mycology exhibits, botanical art, and displays owing to their intricate, coral-like branching structures and vibrant colors. Such uses highlight their aesthetic appeal in educational settings and fungi festivals, promoting public interest in fungal diversity without direct consumption. Conservation efforts for Ramaria include regulations in protected areas, such as national forests , to mitigate overharvesting risks that could impact populations of sensitive taxa. These measures, outlined in regional sensitive lists, emphasize sustainable collection practices to preserve ecological roles and .

Diversity and Notable Species

Species Diversity

The genus Ramaria includes approximately 300 described worldwide, with estimates up to 336 as reported in a 2020 review accounting for regional variations, synonyms, and newly identified cryptic taxa through . Ongoing discoveries are facilitated by DNA-based approaches, which have revealed new and resolved ambiguities in traditional morphology-based classifications. Species diversity is greatest in temperate regions, particularly in forested ecosystems of the , where the majority of described species are found and environmental conditions support a wide array of ectomycorrhizal and saprobic forms. Within the genus, subgeneric divisions highlight uneven distribution, for example subgenus Ramaria, which features striate-spored, terricolous taxa. Taxonomic challenges persist due to high morphological similarity among species, resulting in numerous misidentifications and undescribed forms; , particularly using the ITS region, has become crucial for accurate delineation and detection of faulty identifications. Few Ramaria species are formally endangered, but habitat loss from and threatens populations reliant on old-growth forests, as seen in taxa like R. maculatipes and R. rufescens.

Key Examples

Ramaria botrytis, designated as the of the genus Ramaria, produces robust fruiting bodies up to 20 cm tall with dense, clustered branches that are white to pale yellow at the base, transitioning to pinkish tips, evoking a cauliflower-like appearance; it grows mycorrhizally with hardwoods and on the ground. This is widely distributed across and , fruiting in summer and fall (and occasionally winter or spring in warmer regions). It is considered , though consumption requires careful identification to avoid confusion with toxic look-alikes. Ramaria flava features bright yellow, unbranched to sparingly branched fruiting bodies up to 10 cm tall, emerging from in temperate forests, particularly associated with in nutrient-poor boreal environments. It has a widespread distribution, occurring in Europe, parts of , and , often in mixed woodlands. This species is regarded as edible and is foraged in some regions for culinary use. In contrast, exhibits strictly upright, parallel branching with whitish to pale yellow branches up to 15 cm high, typically arising from buried dead wood in forests worldwide. Its cosmopolitan distribution spans , , and , where it decomposes lignicolous substrates. The species is non-edible due to its tough texture and often bitter or acrid taste, rendering it unsuitable for consumption. Ramaria formosa is characterized by white to pale yellowish branches with vivid scarlet-red tips, forming fruiting bodies 5-15 cm tall that grow mycorrhizally with hardwoods in temperate forests. Primarily distributed in , , and parts of , it causes gastrointestinal distress including , , and upon ingestion due to mild . Ramaria sanguinea, known as the bleeding or reddening coral, produces coralloid fruiting bodies 8-13 cm tall with profusely branched, pastel yellow to light yellow branches that turn reddish brown when bruised; it has a white, solid context and a mild taste with a faintly aromatic odor. This species grows solitarily or scattered in mixed forests, associated with trees such as Quercus spp., Rhododendron spp., and Abies pindrow, typically at high elevations. It is distributed in Europe (e.g., Spain, Italy) and Asia, including the Garhwal Himalaya in India. R. sanguinea is considered edible and choice, often prepared by boiling and frying, consistent with edibility notes for select Ramaria species in the genus overview. Among more recently described species, Ramaria araiospora stands out for its striking red to magenta branches fading to pale pink, with subcylindrical spores (8-13 × 3-4.5 μm) finely ornamented by cyanophilic warts, distinguishing it microscopically within the genus. First documented in 1974, it is endemic to the of , growing in coniferous forests.

References

  1. https://pmc.ncbi.nlm.nih.gov/articles/PMC9469536/
  2. https://pmc.ncbi.nlm.nih.gov/articles/PMC11899210/
  3. https://conservancy.umn.edu/bitstreams/2dc41284-ae72-44ff-b1f1-0082f49a7c7e/download
  4. https://en.wiktionary.org/wiki/Ramaria
  5. https://fungalpedia.org/glossary/ramaria/
  6. https://repository.naturalis.nl/pub/534993
  7. https://www.schweizerbart.de/publications/detail/isbn/9783768254335/Nova_Hedwigia_Beiheft_33_3_7682_5433_X
  8. https://www.researchgate.net/publication/255719422_Ramaria_of_the_Pacific_Northwest
  9. https://www.tandfonline.com/doi/abs/10.1080/00275514.2001.12063180
  10. https://www.researchgate.net/publication/271694133_Molecular_Phylogenetics_of_Ramaria_and_Related_Genera_Evidence_from_Nuclear_Large_Subunit_and_Mitochondrial_Small_Subunit_rDNA_Sequences
  11. https://www.first-nature.com/fungi/ramaria-stricta.php
  12. https://pubmed.ncbi.nlm.nih.gov/20943133/
  13. https://www.fs.usda.gov/pnw/pubs/pnw_gtr572.pdf
  14. https://zombiemyco.com/pages/yellow-coral-fungus-ramaria-flava
  15. https://repository.naturalis.nl/pub/531845
  16. https://www.researchgate.net/profile/Lorelei_Norvell/publication/255719422_Ramaria_of_the_Pacific_Northwest/links/57ccbccf08ae59825185dd13/Ramaria-of-the-Pacific-Northwest.pdf
  17. https://www.studiesinfungi.org/pdf/SIF_6_1_39.pdf
  18. https://www.ijirset.com/upload/2016/march/267_SYSTEMATIC.pdf
  19. https://keycouncil.svims.club/council/Ramar2.htm
  20. https://mycokeys.pensoft.net/article/1202/
  21. https://www.zobodat.at/pdf/Sydowia_35_0176-0205.pdf
  22. https://practicalselfreliance.com/coral-mushrooms/
  23. https://biotanz.landcareresearch.co.nz/scientific-names/1cb1cadc-36b9-11d5-9548-00d0592d548c
  24. https://www.mushroomexpert.com/fungionwood/club%20and%20coral/species%20pages/Ramaria%20spp.htm
  25. https://www.researchgate.net/publication/8900409_Morphological_and_molecular_characterization_of_selected_Ramaria_mycorrhizae
  26. https://www.mushroom.world/show?n=Ramaria-lutea
  27. https://nph.onlinelibrary.wiley.com/doi/full/10.1046/j.1469-8137.2001.00134.x
  28. https://pmc.ncbi.nlm.nih.gov/articles/PMC8855016/
  29. https://esajournals.onlinelibrary.wiley.com/doi/10.1002/ecy.4039
  30. https://www.bu.edu/articles/2018/4-things-to-know-about-fungi-climate-warriors/
  31. https://www.spun.earth/articles/threats-to-mycorrhizal-fungi
  32. https://www.pnas.org/doi/10.1073/pnas.2221619120
  33. https://www.mykoweb.com/CAF/species/Ramaria_botrytis.html
  34. https://pubmed.ncbi.nlm.nih.gov/23684998/
  35. https://biointerfaceresearch.com/wp-content/uploads/2020/11/20695837113.1079010800.pdf
  36. https://foragerchef.com/ramaria-botrytis/
  37. https://www.sciencedirect.com/science/article/abs/pii/S0278691513002950
  38. https://pmc.ncbi.nlm.nih.gov/articles/PMC5396197/
  39. https://www.mushroom-appreciation.com/cauliflower-coral-mushroom.html
  40. https://www.mushroomexpert.com/ramaria_botrytis.html
  41. https://www.maxapress.com/article/id/61cacc3cce60b9088c77041f
  42. https://www.sciencedirect.com/science/article/abs/pii/S0278691517300522
  43. https://pmc.ncbi.nlm.nih.gov/articles/PMC6118324/
  44. https://doi.org/10.5943/sif/6/1/39
  45. https://patents.google.com/patent/CN1354252A/en
  46. https://www.mushroomcoloratlas.com/mushroom/ramaria/
  47. https://frolickinginfiber.home.blog/2020/06/21/colorful-coral-mushrooms/
  48. https://zombiemyco.com/pages/cauliflower-coral-ramaria-botrytis
  49. https://cascademyco.org/2023/12/ramaria-mushrooms/
  50. https://research.fs.usda.gov/treesearch/download/5106.pdf
  51. https://pmc.ncbi.nlm.nih.gov/articles/PMC7437900/
  52. https://redlist.info/iucn/species_view/322266/
  53. https://www.researchgate.net/publication/335890125_Brandrud_T-E_Shiryaev_A_2019_Ramaria_rufescens_The_IUCN_Red_List_of_Threatened_Species_2019_eT148203182A148203240
  54. https://www.researchgate.net/figure/Cauliflower-coral-Mushroom-Ramaria-botrytis_fig2_261647615
  55. https://www.first-nature.com/fungi/ramaria-flava.php
  56. https://www.researchgate.net/publication/324483405_Ectomycorrhizal_Ramaria_species_in_nutrient-poor_Fennoscandian_conifer_forests_including_a_note_on_the_Ramaria_botrytis_complex
  57. https://www.mushroomexpert.com/ramaria_stricta.html
  58. https://www.mykoweb.com/CAF/species/Ramaria_stricta.html
  59. https://www.mushroomexpert.com/ramaria_formosa.html
  60. https://zombiemyco.com/pages/the-beautiful-coral-fungus-ramaria-formosa
  61. https://www.creamjournal.org/pdf/CREAM_7_3_8-1.pdf
  62. https://www.mushroomexpert.com/ramaria_araiospora.html
  63. https://www.mykoweb.com/CAF/PDF/Ramaria_araiospora.pdf
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