Mushroom

Terminology and Etymology

The terms mushroom and toadstool have been used for centuries without formal consensus or absolute demarcation, with forms such as mushrom, mushrum, muscheron, mousheroms, mussheron, and musserouns recorded in England during the fifteenth and sixteenth centuries.^[1] The word mushroom likely traces back through Anglo-Norman to the Old French mousseron, derived in connection with moss (mousse).^[2] Deeper linguistic reconstructions link this word to the Indo-European root *meu, associating it with Latin muscus (moss), mucus (slime), and mucor (mold), as well as Greek mykēs (fungus).^[3] These roots may reflect ancestral observations of the gelatinous mucus layer protecting certain caps and stems against desiccation, or ancient mycophobic associations with nasal secretions.^[3] In popular folklore, the Latin terms fungus and fongus were humorously explained as contractions of funus (funeral) and ago (to produce), reflecting fatal intoxications.^[4][5] Linguistically, fungus, the Spanish hongo, and Italian fungo stem from a Mediterranean root (*sfong- or *fung-) linked to the Greek spongos and English sponge, describing a porous consistency.^[6][7]

The English term toadstool emerged in fourteenth-century England as a designation for a seat for toads, carrying the connotation of an inedible or toxic fungus.^[8][9] Two competing origins exist for this comparison: an analogy with venomous toads, or a phono-semantic association with the German Todesstuhl (death stool).^{[10][11][12][13]} Ethnomycologist Robert Gordon Wasson proposed that the toad association arose because both toads and hallucinogenic fungi were historically employed in pagan rituals.^[10][11][14] In modern dialects, regional nuances persist: in the United States, toadstool is restricted strictly to poisonous varieties, whereas in British English it can denote any mushroom, with mushrooms specifically signifying the edible forms.^[10][12]

In Slavic languages, the primary designation derives from Common Slavic *gribъ, whose origins are debated.^[15][16] Proposed etymologies connect it to the iterative verb *gribati (to dig), from *grebti (to rake), signifying an organism that bursts through the soil.^[15][16] Alternate hypotheses derive it from *glei- (slime), though critics regard this as phonetically implausible, or link it to *gъrbъ (hump).^{[15][16][17][18]} In various Russian and Ukrainian dialects, mushrooms, particularly bracket fungi and polypores, are called guby or huby, cognate with Lithuanian gumbas (knob or gall) and Proto-Germanic *swampaz (sponge), from which the German Schwamm originates.^{[19][20][21][22]} The German word Pilz traces through Old High German buliz and forms like bülez back to the Latin boletus, which in ancient Rome referred specifically to Caesar's mushroom rather than modern boletes.^[23][24]

In Romance tongues, the French champignon originates from thirteenth-century Old French champignuel (from late Latin campinolius), denoting produce of the countryside or that which grows in open fields (campus).^{[25][26][27][28][29]} This word was later borrowed into Spanish as champiñón and Russian as shampin'on to describe the field or button mushroom.^[28][29] In Catalan, the fruit body is termed bolet, while in parts of the Balearic Islands and Valencia specific vernacular terms like esclata-sangs apply to Lactarius sanguifluus, and esclatabufes, pebrada, or pixacans denote inedible Suillus or Russula species.^[30][31] In South American Andean nations (Bolivia, Chile, Ecuador, Peru), mushrooms are commonly termed callampas from the Quechua kallampa.^[32] In Japan, the word kinoko historically decomposes into ki-no-ko (child of the tree).^[33] Japanese mushrooms were historically known as kusabira or take, written with the kanji characters 茸, 菌, or 蕈, and regional vernaculars include motashi (derived from gift or souvenir) and koke in Ishikawa Prefecture.^{[34][35][36][37]}

Evolutionary History and Fossil Record

Fungi diverged from flagellated aquatic ancestors whose morphology resembled modern chytridiomycetes, with the evolutionary loss of flagella occurring either as a single evolutionary transition or across multiple separate events.^[38][39] Molecular clock studies indicate an origin during the late Neoproterozoic era, approximately 760 to 1,060 million years ago, or within the late Proterozoic between 900 and 570 million years ago.^[40][41][42] Filamentous microfossils exhibiting anastomosis found in Paleoproterozoic rocks suggest potential fungal affinities dating back roughly 2.4 billion years, although a non-biological geological origin cannot yet be entirely ruled out.^[43][44][45]

Macroscopic fruiting bodies are widely considered to have originated following the fusion of two compatible monocaryotic mycelia into a dicaryotic mycelium capable of sporocarp formation.^[46][47] While fungal lineages are confirmed in the fossil record from the Silurian period around 450 million years ago, early terrestrialization was mediated by symbiotic mycorrhizal fungi belonging to the Glomeromycota that assisted primitive land plants.^[48][49] During the Silurian and Devonian periods, fungi attained giant proportions: Prototaxites, which formed trunk-like structures up to 6 meters tall, has been identified through carbon isotope analysis (ratios of carbon-13 to carbon-12) as a terrestrial fungus dominating landscapes that lacked large vascular plants.^[50] By the Pennsylvanian subperiod of the Carboniferous (320 to 286 million years ago), fossils demonstrate that all primary modern fungal lineages had diversified.^[51] The earliest definitive fossils of fleshy mushroom sporocarps date to the Devonian period.^[46][47]

Taxonomy and Systematics

Historically, mushrooms were classified within the plant kingdom as cryptogams or lower plants lacking flowers and seeds, a taxonomy established by ancient Greeks such as Theophrastus and maintained by Carl Linnaeus in Species Plantarum (1753).^[52][53][54] Systematic fungal classification commenced in the nineteenth century through Christiaan Hendrik Persoon's Synopsis Methodica Fungorum (1801) and Elias Magnus Fries's three-volume Systema Mycologicum (1821 to 1832), earning Fries the title of the Linnaeus of Mycology.^[53][55] Other foundational taxonomists included Lewis David von Schweinitz in North America and Miles Joseph Berkeley in Britain.^[55] In 1969, Robert H. Whittaker formally segregated fungi into an independent kingdom, Fungi, within his five-kingdom system, recognizing their heterotrophic absorptive nutrition and non-photosynthetic eukaryotic nature.^[56][57]

Modern molecular phylogenetics has demonstrated that the kingdom Fungi belongs to the clade Opisthokonta within the supergroup Obazoa, making fungi more closely related to animals than to plants.^{[58][59][60][61][62]} Fungi differ from plants in lacking plastids and chlorophyll, having cell walls composed primarily of chitin and glucans rather than cellulose, and storing energy in the form of glycogen rather than starch.^{[63][64][65][66]} True fungi belong to the monophyletic subkingdom Eumycota, whereas organisms historically called fungi, such as oomycetes (water molds) and myxomycetes (slime molds), are polyphyletic lineages related to brown algae and amoebozoans respectively.^[56][67]

Under the 2024 Outline of Fungi classification system, the kingdom Fungi comprises several basal subkingdoms and phyla alongside the natural subkingdom Dikarya.^[68][69][70] Basal groups include Rozellomyceta (Rozellomycota, including Microsporidia and cryptomycetes), Aphelidiomyceta (Aphelidiomycota), Chytridiomyceta (Monoblepharomycota, Neocallimastigomycota, Chytridiomycota), Blastocladiomyceta (Blastocladiomycota, Sanchytriomycota), Basidiobolomyceta, Olpidiomyceta, Zoopagomyceta (Zoopagomycota, Entomophthoromycota, Kickxellomycota), and the paraphyletic Mucoromyceta (Calcarisporiellomycota, Mortierellomycota, Mucoromycota, and the mycorrhizal Glomeromycota).^{[69][71][72][73]} The subkingdom Dikarya contains two phyla that produce macroscopic fruiting bodies: Ascomycota (subphyla Taphrinomycotina, Saccharomycotina, and Pezizomycotina) and Basidiomycota (subphyla Pucciniomycotina, Ustilaginomycotina, and Agaricomycotina), along with the root parasite lineage Entorrhizomycota.^[58][69][73]

The type genus of typical gilled mushrooms is Agaricus, with the field mushroom Agaricus campestris serving as the type species.^[74] However, macromycetes occur across numerous distinct orders within the Agaricomycetes.^[74] Gilled forms appear not only in the Agaricales but also in the Russulales (Russula, Lactarius, Lactifluus, Lentinellus), Polyporales (Lentinus, Panus), Gloeophyllales (Neolentinus), and Hymenochaetales (Rickenella).^[74] Other sporocarp-producing lineages include Cantharellales (chanterelles), Gomphales, Boletales (boletes), Phallales (stinkhorns), Geastrales (earthstars), and Auriculariales (jelly ears).^[74][75] In the Ascomycota, the Discomycetes, which include cup, sponge, brain and some club-like fungi, develop an exposed layer of asci, as on the inner surfaces of cup fungi or within the pits of morels.^[76][77][78]

Morphology and Anatomy

The visible mushroom constitutes a sporophore or basidiocarp, which develops from an underground or intra-substrate mycelium composed of branching filamentous hyphae.^[79][80] A mushroom originates from a tiny primordial nodule, or pinhead, measuring less than 2 millimeters in diameter, which expands into an egg-shaped button.^[81][82][83] In many species, this button is enclosed by an outer membranous tissue called the universal veil.^[81][82] As the stem (stipe) elongates and the cap (pileus) expands, the universal veil ruptures, leaving remnants that may form a cup-like volva at the base of the stem or superficial scales and warts on the pileus surface, as observed in the genus Amanita.^[81][82] A secondary inner membrane, the partial veil, frequently shields the developing spore-bearing gills beneath the cap.^[81][82] Upon cap expansion, this membrane tears, forming an annulus or ring around the stem, or hanging as cortina filaments resembling cobwebs, characteristic of Cortinarius.^[81][82]

. The stipe can be central, eccentric, lateral (as in Pleurotus), or entirely absent in sessile bracket fungi.^[82] The attachment of the hymenophore to the stipe is a critical taxonomic diagnostic: gills may be free (not reaching the stipe, as in Agaricus, Lepiota, and Pluteus), adnate (attached squarely), adnexed (curving upward to meet the stem), sinuate or notched, or decurrent (running downward along the stipe, as in Pleurotus and Omphalotus).^[84][85]

The fertile hymenium covers the hymenophore, which can assume the form of radial blades (lamellae or gills), vertical tubes ending in open pores (as in boletes and polypores), or downward-projecting spines and teeth (as in Hydnum).^[75][76] In basidiomycetes, the hymenium consists of club-shaped cells called basidia, each typically bearing four sterigmata from which haploid basidiospores are discharged.^[76][86] Interspersed among the basidia are sterile cellular structures called cystidia, categorized by their location as pleurocystidia (on gill faces) or cheilocystidia (on gill edges), whose shapes, presence, and sizes assist species identification.^[76][87] In ascomycetes, spores develop inside microscopic sac-like structures called asci, which typically enclose eight ascospores and are interspersed with sterile paraphyses.^[76][86]

Fruiting bodies are morphologically categorized based on the exposure and location of the hymenium. In open (gymnocarpic) fruiting bodies, the hymenium is exposed to the atmosphere throughout development or prior to maturity, releasing spores continuously.^[88][89] In closed (angiocarpic or cleistocarpic) fruiting bodies, the fertile tissue, known as the gleba, remains enclosed within a multi-layered protective peridium, as seen in puffballs (Lycoperdon), earthstars (Geastrum), and false truffles.^[90] Secotioid fruiting bodies represent an intermediate morphological state between agaricoid and gasteroid forms, characterized by an unopening cap, a reduced internal stem (columella), and a convoluted gleba where spores are no longer forcibly ejected.^[89]

Based on overall habit, macromycete sporocarps exhibit several distinct architectural forms: pileate or agaricoid (capped with central stem and gills), boletoid (capped with pores), pleurotoid (bracket-like with lateral or absent stem), resupinate (flat crusts adhering entirely to the substrate), effuso-reflexed (partially crust-like with bent-back shelf-like margins), clavarioid (club-shaped or coralline, as in Ramaria and Clavulinopsis), cyphelloid (cup- or disc-shaped), and gasteroid (spherical or enclosed).^[88][89] In addition, fruiting bodies are classified by location as epigeous (developing above the ground), semi-hypogeous, or hypogeous (maturing entirely underground, as in true truffles of the genus Tuber).^[78][88][91]

Growth and Development

A standard basidiomycete life cycle begins with the germination of a haploid basidiospore, which generates a monokaryotic or primary mycelium with single haploid nuclei per cell.^[92][93] When two compatible primary hyphae of opposite mating types (+ and -) meet, they undergo plasmogamy to produce a fertile dikaryotic or secondary mycelium (n+n).^[92] This secondary mycelium grows actively through organic substrates by secreting hydrolytic extracellular enzymes, establishing extensive underground colonies.^[92][94] Under favorable environmental conditions of moisture, temperature, and nutrition, the mycelium forms primordia.^[94] Inside the basidia of the mature sporocarp, karyogamy fuses the two haploid nuclei into a diploid nucleus, which undergoes meiosis to yield four haploid basidiospores.^[95] Some species exhibit secondary homothallism, in which basidiospores germinate directly into fertile dikaryotic hyphae without an external mating partner.^[96]

Many fungal species alternate between sexual reproductive stages (teleomorphs) and asexual reproductive stages (anamorphs), which together constitute the holomorph.^[97][98] For example, the oyster mushroom relative Pleurotus cystidiosus produces an asexual conidial anamorph classified in the genus Antromycopsis at the base of its stipe.^[99] In other species, such as Asterophora lycoperdoides, teleomorphic and anamorphic sporulation take place simultaneously on a single fruiting body.^[97] Thick-walled asexual resting spores, known as chlamydospores, as well as dense vegetative resting masses called sclerotia, represent anamorphic adaptations enabling fungi to endure adverse environmental conditions.^[98]

The rapid emergence of mushrooms, inspiring expressions like 'mushrooming' or 'popping up like a mushroom', is due to the hydration and inflation of preformed cells.^{[100][101][102]} Primordia take days or weeks to assemble beneath the soil; once fully structured, they rapidly absorb water through their mycelial network, expanding pre-existing cells like hydraulic balloons within hours.^{[100][102][103][104]} Parasola plicatilis, for instance, balloons to full size overnight in damp turf and collapses into deliquescence by late afternoon.^{[105][106][107][108]} Conversely, other species grow exceptionally slowly through incremental hyphal addition; the Sicilian Pleurotus nebrodensis grows slowly, and this, combined with human collection, has left it critically endangered.^[109] While sporocarps are ephemeral, underlying mycelial networks can endure for millennia: a subterranean colony of Armillaria solidipes in the Malheur National Forest of Oregon spans 2,200 acres (8.9 square kilometers), is estimated to be at least 2,400 years old, and forms dark, cord-like rhizomorphs that bridge separated tree roots.^{[110][111][112][113][114]}

Sporocarps discharge basidiospores through a specialized physical mechanism known as the Buller's drop.^[115][116] Basidiospores rest on the tips of sterigmata; when atmospheric moisture condenses, a tiny spherical water drop forms at the hilar appendix (apiculus) while a thin water film forms across the spore adaxial face.^[116] The rapid coalescence of the drop onto the spore face shifts the center of gravity instantly, using the surface tension of water to generate high acceleration that fires the spore outward across the dead air space between gills, allowing it to fall clear of the cap and enter dispersing air currents.^{[115][116][117]} Ascomycetes utilize internal hydrostatic turgor pressure within the asci to shoot ascospores forcibly into the atmosphere.^[116]

Ecology and Habitats

Mushrooms occupy three primary ecological niches based on their mode of nutrient acquisition: saprotrophic, mycorrhizal mutualist, and parasitic.^{[65][66][118]} Saprotrophic fungi act as the primary decomposers in terrestrial ecosystems, secreting enzymes from hyphal tips to degrade complex lignocellulose from dead plant tissue, leaf litter, and woody debris.^{[118][119][120]} They are broadly categorized into white-rot fungi, which produce enzymes that degrade both cellulose and lignin to leave bleached fibrous wood, and brown-rot fungi, which break down cellulose and hemicellulose while leaving behind modified brown, cubical lignin blocks.^[120] Specialized saprotrophs include post-decay fungi (ammonia fungi) that colonize sites enriched by animal carcasses, urine, or subterranean insect nests.^[121]

Mycorrhizal mushrooms form symbiotic mutualisms with living plant root systems.^[118][119] In ectomycorrhizal associations, typical of the families Amanitaceae, Boletaceae, Russulaceae, and Cortinariaceae, fungal hyphae enclose root tips in a mantle and form an intercellular Hartig net without penetrating plant cell membranes.^[122] The fungus absorbs photosynthetic carbohydrates from the host tree while supplying it with water, nitrogen, and phosphorus mobilized from the soil, alongside systemic protection against pathogens and drought.^[118][119] Ectomycorrhizal fungi exhibit strict host preferences for specific plant families, notably Pinaceae, Fagaceae, and Betulaceae.^{[119][122][123]}

Parasitic mushrooms extract nutrients directly from living organisms, often culminating in host death.^{[124][125][126]} Lignivorous wood-decay fungi, such as Armillaria and Heterobasidion, infect living trees through wound sites caused by broken branches or animal damage, causing heart rot and systemic decline.^[126][127] Entomopathogenic fungi, including Cordyceps and Ophiocordyceps (the traditional caterpillar fungi), infect insect larvae or adults, colonizing the insect body before producing a fruiting stroma that emerges from the exoskeleton.^[125][128] Mycoparasitic fungi parasitize other mushrooms: Asterophora lycoperdoides grows directly on decaying Russula nigricans, Hypomyces lactifluorum deforms host Russula or Lactarius into bright red 'lobster mushrooms', and Hypocrea species (Trichoderma) attack the vegetative hyphae of cultivated shiitake on wood logs.^[125][129] In addition, carnivorous fungi such as Arthrobotrys dactyloides capture and consume soil nematodes using specialized constricting hyphal rings.^[130][131]

Mushroom distribution is dictated by forest structure and soil ecology.^[123] Deciduous broadleaf forests dominated by beech and oak foster diverse ectomycorrhizal taxa alongside rich wood-rotting species such as Grifola frondosa, Pholiota microspora, and the toxic Omphalotus japonicus.^{[132][133][134][135]} Coniferous forests support large boletes and agarics, including Boletus edulis, Suillus, and Tricholoma matsutake in red pine stands, though artificial monoculture plantations (such as Cryptomeria japonica) host almost no mycorrhizal macromycetes, supporting only saprotrophs like Pleurocybella porrigens.^[136][137] Field research spanning fifty years in Great Britain found that the wild mushroom fruiting season has lengthened, with fruiting shifting from once a year to both spring and autumn, a change thought to be caused by global warming.^[138] In the Netherlands, fruiting data comparing the first and second halves of the twentieth century showed that wood-decay fungi changed little while ectomycorrhizal mushrooms such as Cantharellus cibarius declined sharply, a decline presumed to result from acid rain killing ectomycorrhizal fungi in the soil.^[138]

An ancient empirical connection between thunderstorms and mushroom production was recorded by classical authors such as Plutarch in his Moralia.^[139][140] Modern scientific hypotheses attribute lightning-induced mushroom proliferation to electric shock-stimulated enzyme activation, current-induced hyphal injury sparking fructification, or the fixation of atmospheric nitrogen into soil nitrites and nitrates by high-voltage lightning discharges.^{[141][142][143]} Experimental investigations by Takeshi Hiraguri at the Nippon Institute of Technology demonstrated that subjecting Lentinula edodes logs to 115-decibel acoustic shock waves mimicking thunder doubled fruit-body yields and shortened time to harvest.^[144]

Macromycetes emit diverse volatile organic compounds (VOCs) that define their characteristic aromas and ecological interactions.^[145][146] The predominant compound in many edible species, including white button mushrooms, porcini, and chanterelles, is 1-octen-3-ol, an aliphatic unsaturated alcohol.^[145] Ecologists utilize the ratio of 1-octen-3-ol (representing fungal biomass) to geosmin (a bacterial bicyclic alcohol) to evaluate forest soil health and acidity.^[147][148] Strongly acidic mor and moder humus layers in coniferous stands release intense octenol aromas, reflecting slow fungal litter breakdown, whereas rich, neutral mull soils under active earthworm bioturbation emit geosmin earthy scents.^[147][148] Other fungi use stench to facilitate zoochoric spore dispersal: Phallus impudicus and Clathrus ruber produce fetid compounds mimicking carrion or dung to attract blowflies and beetles that ingest and disperse spores, while subterranean truffles produce pungent sulfurous aromas that entice rodents and wild boars to unearth and consume them.^[116]

Identification and Keys

Accurate macroscopic identification requires assessing sporocarp habit, cap geometry, gill attachment, ring and volva presence, flesh texture, exudates, and bruising reactions upon injury.^[149] Spore prints provide an initial taxonomic grouping.^[117] A print is obtained by removing the stipe, placing the cap gill-down on paper or glass overnight under a draft-free cover; the deposited spores reveal macroscopic colors including white, ochre, pink, purple-brown, or black.:.^[117]

Microscopic and microchemical tests are indispensable for resolving ambiguous specimens.^{[115][149][150]} Microscopic analysis inspects spore dimensions, surface ornamentation (amyloid spines, germ pores, or reticulations), basidial morphology, and the arrangement of cystidia.^[76][115] Chemical reagents applied to fresh tissues yield diagnostic color reactions: Melzer's reagent (iodine/potassium iodide) determines amyloid (blue-black), dextrinoid (red-brown), or inamyloid reactions; potassium hydroxide (KOH) solutions produce distinct pigment alterations in Cortinarius and boletes; while iron(II) sulfate (FeSO4), vanillin-sulfuric acid, and ammonia water assist in separating closely related species.^[149][150]

Field foraging necessitates strict precautions against widespread folk misconceptions.^[151][152] Erroneous identification rules include: claims that toxic mushrooms possess bright colors while edible ones are drab, that edible mushrooms peel easily or have stems that split vertically, that mushrooms browsed by insects or slugs are safe for humans, that boiling in salt water or cooking with garlic or eggplants neutralizes fungal poisons, and that silver spoons or coins tarnish black in the presence of poisonous mushrooms.^{[151][152][153]} In reality, fatal Amanita species are often muted white or pale green, insects routinely consume deadly amatoxin-producing species without harm, amatoxins resist thermal degradation and cooking, and silver tarnishing reacts solely with sulfur compounds rather than fungal toxins.^[151][153] In Japan, mushroom poisonings had occurred by 2025 after people used AI to check whether mushrooms were edible; Wakayama City warns that judging for yourself with AI or field guides is dangerous, and a pamphlet on the Health Ministry's website advises using image-search results only for reference and not to identify mushrooms.^{[154][155][156]}

Ethical and legal guidelines govern wild mushroom harvesting across multiple jurisdictions.^{[157][158][159]} Over-harvesting, raking the forest floor, and soil compaction damage underground mycelial networks and disrupt forest biodiversity.^[159][160] Responsible foraging requires gathering only mature sporocarps in well-ventilated rigid wicker baskets rather than plastic bags, which cause rapid bacterial rot.^[160] Harvesters cut stems cleanly with knives or gently ease them out to inspect basal volvas before refilling the extraction hole with surrounding soil and fallen leaves.^{[157][160][161]} In countries such as Italy and France, commercial and recreational harvesting is regulated through mandatory paid permits, seasonal timing windows, and strict daily weight limits per person.^[159] In national and natural parks in Japan and elsewhere, gathering any fungal species is prohibited by law.^[157][158]

Toxicity and Poisoning

Mushroom poisons encompass diverse toxic biochemical classes that induce pathologies ranging from mild gastrointestinal upset to acute organ failure and death.^[162][163] Clinical poisonings are categorized into several distinct toxicological syndromes based on physiological targets and latent periods: cytotoxic organ necrosis (hepatorenal failure with prolonged latency), autonomic nervous system intoxication (cholinergic and coprine reactions), central nervous system disruption (hallucinogens and GABA antagonists), and acute gastrointestinal irritation.^[162][164]

The most dangerous fungal poisons are the cyclic octapeptides known as amatoxins (including alpha-amanitin and beta-amanitin), found in Amanita phalloides, Amanita virosa, Galerina marginata, and Lepiota brunneoincarnata.^[163] Amatoxins inhibit RNA polymerase II, arresting protein synthesis and causing massive hepatocellular necrosis and acute renal tubular destruction.^[163][165] Amatoxin poisoning is characterized by a deceptive asymptomatic latency lasting 6 to 24 hours, followed by violent cholera-like vomiting, watery diarrhea, and severe abdominal cramping.^[165] The poisoning then progresses to hepatorenal syndrome and can be fatal.^[165] In Greece and other Mediterranean nations, intravenous silibinin (Legalon) is administered in intensive care as an hepatoprotective therapeutic.^[166] In Japan, 2,096 mushroom poisoning incidents were recorded from 1959 to 1988, and of the deaths recorded from 1970 to 1990, 14 were caused by the species known in Japan as tsukiyotake, 5 by koreratake, 4 by tamagotengutake and 3 by dokutsurutake.^[167]

Other major fungal toxins produce distinct toxicological syndromes:^[163][164]

Gyromitrin: An aliphatic hydrazine derivative found in false morels (Gyromitra esculenta) that hydrolyzes in vivo into monomethylhydrazine, a neurotoxin, metabolic inhibitor, and potent carcinogen that induces acute hepatic necrosis and seizures after a 6- to 8-hour latency.^[163] While volatile and partially expellable through boiling, inhalation of the steam during preparation causes acute poisoning.^[163]

Muscarine: A quaternary ammonium alkaloid present in Inocybe and Clitocybe species (as well as trace amounts in Amanita muscaria) that stimulates peripheral muscarinic acetylcholine receptors, producing severe parasympathetic hyperactivation: profound sweating, lacrimation, salivation, miosis, bradycardia, severe diarrhea, and hypotension within 30 minutes to 2 hours; atropine serves as the physiological antidote.^[163]

Coprine and conjugated enones: Coprine from Coprinopsis atramentaria converts in vivo to 1-aminocyclopropanol, while conjugated enones like 8-oxo-9-octadecenoic acid in Ampulloclitocybe clavipes inhibit the hepatic enzyme aldehyde dehydrogenase; consuming alcohol within several days of ingestion results in acute acetaldehyde poisoning marked by intense flushing, palpitations, tachycardia, and vomiting.^[163]

Muscimol and ibotenic acid: Isoxazole derivatives found in Amanita muscaria and Amanita pantherina that act on central nervous system GABA and NMDA receptors, provoking ataxia, delirium, auditory distortion, muscle spasms, and deep comatose sleep within 30 to 120 minutes.^[163][168]

Psilocybin and psilocin: Tryptamine alkaloids from Psilocybe, Panaeolus, and Gymnopilus that act as serotonin 5-HT2A receptor agonists, inducing optical hallucinations, synesthesia, temporal distortion, and altered psychological states.^{[163][169][170]}

Macrocyclic trichothecenes and unique toxins: Podostroma cornu-damae produces satratoxin H and roridins, cytotoxic trichothecenes that cause bone marrow suppression, leukopenia, epidermal peeling, and systemic organ failure upon ingestion or contact.^[163] Russula subnigricans contains 2-cyclopropene carboxylic acid, which induces fatal rhabdomyolysis and widespread muscle tissue breakdown.^[163] Clitocybe acromelalga synthesizes acromelic acids, causing agonizing, persistent erythromelalgia in the extremities lasting weeks.^[163]

First-aid measures for acute poisoning require immediate transportation to an emergency medical facility equipped for gastric lavage and intensive life support.^[171] Patients should preserve uncooked mushroom scraps or meal leftovers for mycological identification.^[171] Clinical interventions encompass oral administration of activated charcoal to adsorb toxins within the gastrointestinal tract, vigorous fluid and electrolyte replenishment to counteract hypovolemia, forced diuresis, and hemoperfusion or liver transplantation in cases of fulminant cytotoxic necrosis.^[171]

Human Uses and Cultivation

Mushrooms have been gathered and cultivated for culinary use across Chinese, Japanese, Korean, Slavic, and Western European culinary traditions.^{[118][172][173]} The global commercial mushroom industry is dominated by the button mushroom (Agaricus bisporus) in its white, cremini, and portobello varieties, alongside Lentinula edodes (shiitake), Pleurotus ostreatus (oyster mushroom), Flammulina velutipes (enoki), Auricularia heimuer (wood ear), and Grifola frondosa (maitake).^[174][175] China is the world's leading producer, generating more than half of the global cultivated output, where annual consumption averages approximately 2.7 kilograms per capita across 1.4 billion people.^{[176][177][178]} Poland is the world's leading exporter, shipping roughly 194,000 tonnes annually.^[179]

Cultivation methods depend on the physiological requirements of the target species.^[175][180] Agaricus bisporus has long been grown on beds of compost, and commercial crops are grown in controlled, sterilized environments.^[174][181] Primary saprotrophs, including shiitake and oyster mushrooms, are cultivated either through outdoor log cultivation on cut hardwood timbers inoculated via drilled dowels, or via indoor bag cultivation utilizing sterilized sawdust, bran, and agricultural residues.^[175] In tropical and subtropical regions, Volvariella volvacea (paddy straw mushroom) is cultivated on layered soaked rice straw beds at 28 to 32 degrees Celsius, yielding fruiting bodies within 15 to 20 days.^[182] Ectomycorrhizal species such as matsutake, porcini, and chanterelles cannot be grown on sterile media and require managed forest plantation ecosystems.^[175]

Raw brown button mushrooms are composed of approximately 92% water, 4% carbohydrates, 2.5% protein, and less than 1% fat, providing 22 kilocalories per 100 grams.^[183] They contain dietary fiber, trace minerals such as selenium (37% Daily Value) and copper (25% to 56% DV), along with B vitamins including riboflavin, niacin, and pantothenic acid.^[183] Most edible mushrooms, including shiitake and enoki, contain heat-labile proteolytic enzymes and small amounts of agaritine (a hydrazine derivative); consuming them raw or undercooked can provoke mucosal irritation and hemolytic gastrointestinal distress, requiring thorough cooking to denature these compounds.^{[184][185][186][187]} Certain edible species contain enzymes that degrade thiamine (vitamin B1), necessitating heating.^[188] Exposure of harvested or living mushrooms to ultraviolet (UV) light converts natural ergosterol within fungal membranes into ergocalciferol (vitamin D2), providing a non-animal dietary source of vitamin D.^{[189][190][191][192]}

Certain macromycetes have long-standing applications in traditional medicine.^{[193][194][195]} In East Asia, wood-decay species such as Ganoderma lingzhi (reishi), Wolfiporia cocos (poria), and Inonotus obliquus (chaga) are utilized as traditional decoctions.^[194][195] In contemporary clinical pharmacology, several fungal polysaccharides, including polysaccharide-K (krestin) from Trametes versicolor, lentinan from Lentinula edodes, and schizophyllan from Schizophyllum commune, have received regulatory registration in Japan and other countries as adjuvant immunotherapies for cancer, activating T cells and macrophage cascades.^{[196][197][198][199]} However, rigorous clinical evidence confirming independent therapeutic efficacy in humans remains limited, and regulatory bodies such as the United States Food and Drug Administration classify fungal extracts as dietary supplements rather than approved pharmaceuticals.^[193][200]

Mushrooms serve diverse industrial and biotechnological purposes beyond food.^{[194][201][202]} The woody fruit bodies of Fomes fomentarius and Piptoporus betulinus have been prepared since prehistory as amadou, a spongy combustible material utilized as tinder for ignition, wound dressings, and fly-fishing moisture absorbers.^[202][203] Natural chromophores from fungi yield eco-friendly textile dyes capable of producing wide color spectra on wool and silk.^[201][204] Mycelial bio-composites, formed by inoculating agricultural waste with fungal mycelium in molds, are manufactured as biodegradable alternatives to synthetic polystyrene packaging, acoustic insulation, and myco-leather textiles.^{[205][206][207][208][209]} In environmental engineering, mycofiltration and mycoremediation employ fungal enzymes to degrade persistent organic pollutants, break down dioxins, neutralize petroleum hydrocarbons, and filter microbial contaminants from runoff.^{[79][194][210]}

Culture and Folklore

Human interaction with mushrooms dates to prehistoric times.^[203][211] Archaeological discoveries at Monte Verde in Chile demonstrate the gathering of wild edible mushrooms around 13,000 BP.^[211] The 1991 discovery of the glacier mummy Ötzi, dating to approximately 3200 BCE, revealed that he carried Piptoporus betulinus (birch polypore), probably for medicinal use, alongside Fomes fomentarius for starting fires.^[203] In North Africa, rock paintings left by the ancient inhabitants of Tassili in the Sahara, dating between 9000 and 7000 BCE, are said to express reverence for hallucinogenic mushrooms.^[212] In classical Mediterranean antiquity, mushrooms were studied by Hippocrates, Nicander, Dioscorides, and Pliny the Elder, who debated criteria for distinguishing edible Caesar's mushroom from deadly varieties.^{[52][213][214][215][216]} According to Pliny, Emperor Claudius was poisoned by his fourth wife, who is said to have replaced his favored dish of Amanita caesarea with a lethal amanita.^{[216][217][218]}

Anthropological scholarship divides human cultures into mycophilic (mushroom-loving) and mycophobic (mushroom-fearing) traditions, concepts established by ethnomycologists Valentina Pavlovna Wasson and Robert Gordon Wasson in their 1957 work Mushrooms, Russia and History.^[219] Among the Slavs, many folk signs, magical practices and taboos concern the gathering and eating of mushrooms, and Catalan cuisine, which traditionally uses many edible species, is one of the most mushroom-eating.^{[220][221][222]} In contrast, historical Celtic, Breton, and Germanic traditions exhibited marked mycophobia, viewing mushrooms with suspicion as 'toad's bread' (boued-touseg in Breton), associating them with witches and venomous serpents.^[223][224] In East Asia, fungi like Ganoderma are celebrated as Taoist symbols of immortality and longevity, depicted in classical Chinese art as carried by divine stags.^{[225][226][227]} In Jainism, consuming mushrooms is strictly prohibited under the foundational ethical principle of ahimsa (non-violence); classical Jain texts classify mushrooms as ananthkay (bodies harboring infinite microscopic souls) and continuous breeding grounds for microorganisms (nigoda).^[228][229]

In Slavic folk belief, mushrooms have an uncertain nature between animals and plants, and legends about their origin are linked to Christian and pre-Christian beliefs. Legends among Southern and Western Slavs, Ukrainians and Belarusians say mushrooms grew from grains or pieces of bread that the Apostle Peter ate in secret from Christ and spat out, while Polish legends say the apostles Peter and Paul planted and blessed the mushrooms. Foraging customs were tied to the church calendar: in Poland, gathering began on the feast of Saints Peter and Paul (29 June), in Slovenia on Saint Primož's Day (9 June), and in Russia it ended on the feast of Saint Titus (25 August/7 September), marked by the saying 'Saint Titus grows the last mushroom'. Local taboos barred pregnant women from gathering some mushrooms or from baking or eating baked mushrooms, forbade praying or crossing oneself while gathering lest the mushrooms hide underground (Lublin region), and held that a mushroom looked at or touched and then left would stop growing and become wormy.

Fairy rings (heksenkrink, ronds de sorcières, or kinrin) are circular formations of mushrooms generated as subterranean mycelia expand radially outward from a central point, consuming soil nutrients in the center and fruiting along the active peripheral margin.^{[93][230][231]} Folk mythology attributed these rings to the dancing feet of fairies, elves, or witches, with Scots tradition referring to the inner barren space as elf-doors.^[93][231] In Western art and literature, mushrooms evoke surreal, subterranean, or sinister imagery: medieval Christian artists rarely depicted mushrooms, which were considered evil, except to evoke their demonic symbolism, but a red-stemmed bolete and a fly agaric appear at the centre of Hieronymus Bosch's The Garden of Earthly Delights, where, as in Lewis Carroll's Alice's Adventures in Wonderland, the mushroom may instead evoke the hallucinogenic, perception-altering effects of some mushrooms.^[232][233] In modern heraldry, mushrooms symbolize fertility and vigor, while in contemporary design, mycelial structures inspire architectural concepts and sustainable biomaterials.^[234]

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122. 吹春俊光「きのこの分布拡大と地球環境」、長沢栄史 監修『日本の毒きのこ』 2009, pp. 250–251 (長沢栄史 監修、Gakken 編『日本の毒きのこ』学習研究社〈増補改訂フィールドベスト図鑑 13〉、2009年9月28日。ISBN 978-4-05-404263-6。)
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125. 牛島秀爾 2021, p. 8. (牛島秀爾『道端から奥山まで採って食べて楽しむ菌活 きのこ図鑑』つり人社、2021年11月1日。ISBN 978-4-86447-382-8。)
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132. 吹春俊光 2010, p. 162. (吹春俊光『おいしいきのこ 毒きのこ』大作晃一（写真）、主婦の友社、2010年9月30日。ISBN 978-4-07-273560-2。)
133. 大作晃一 2005, p. 69. (大作晃一『山菜&きのこ採り入門 : 見分け方とおいしく食べるコツを解説』山と渓谷社〈Outdoor Books 5〉、2005年9月20日。ISBN 4-635-00755-3。)
134. 牛島秀爾 2021, p. 18. (牛島秀爾『道端から奥山まで採って食べて楽しむ菌活 きのこ図鑑』つり人社、2021年11月1日。ISBN 978-4-86447-382-8。)
135. 大作晃一 2005, p. 70. (大作晃一『山菜&きのこ採り入門 : 見分け方とおいしく食べるコツを解説』山と渓谷社〈Outdoor Books 5〉、2005年9月20日。ISBN 4-635-00755-3。)
136. 大作晃一 2005, p. 71. (大作晃一『山菜&きのこ採り入門 : 見分け方とおいしく食べるコツを解説』山と渓谷社〈Outdoor Books 5〉、2005年9月20日。ISBN 4-635-00755-3。)
137. 牛島秀爾 2021, p. 20. (牛島秀爾『道端から奥山まで採って食べて楽しむ菌活 きのこ図鑑』つり人社、2021年11月1日。ISBN 978-4-86447-382-8。)
138. 吹春俊光「きのこの分布拡大と地球環境」、長沢栄史 監修『日本の毒きのこ』 2009, p. 255 (長沢栄史 監修、Gakken 編『日本の毒きのこ』学習研究社〈増補改訂フィールドベスト図鑑 13〉、2009年9月28日。ISBN 978-4-05-404263-6。)
139. プルタルコス、柳沼重剛「食卓歓談集」、岩波書店、2001年12月14日、ISBN 9784003366431。
140. Ο Θεόφραστος (Ιστορία των Φυτών 1.6.5) συσχετίζει το keraunion με το όνομα ενός συγκεκριμένου μανιταριού. Στη Θράκη "το keraunion ονομαζόταν oiton: αυτή η λέξη είναι μια διαλεκτική παραλλαγή του hydnon και το μανιτάρι πιθανώς το ίδιο." Ο Πλούταρχος (Moralia 8.4.2) ρώτησε για τη λαϊκή πεποίθηση ότι η βροντή προκαλούσε την ανάπτυξη του hydnon, χωρίς να βρει σίγουρη απάντηση. Ο Αθήναιος, παραθέτοντας τον Θεόφραστο, γράφει ότι τα μανιτάρια "αναπτύσσονται όταν έρχονται οι φθινοπωρινές βροχές με σοβαρές καταιγίδες. όσο περισσότερη βροντή υπάρχει, τόσο περισσότερο αναπτύσσονται, η υπόθεση είναι ότι αυτό είναι η πιο σημαντική αιτία" (2.62). Στην Ορφική παράδοση οι Τιτάνες "αντιτάχθηκαν στην εξέλιξη του Διονύσου στον αφομοιωμένο γιο του Δία και γευμάτισαν αταβιστικά τη σάρκα του, μαγειρεμένη σε διαστροφή της μαγειρικής τέχνης. Επειδή τεμάχισαν, μαγείρεψαν και έφαγαν το βρέφος Διόνυσο, οι ίδιοι οι Τιτάνες τιμωρήθηκαν με ένα θανατηφόρο κεραυνό. Στη συνέχεια, ο Δίας ανέστησε τόσο τον Διόνυσο όσο και τους Τιτάνες, τους τελευταίους ως τη σημερινή φυλή των ανθρώπων. Η ανθρωπότητα, με άλλα λόγια, προκύπτει ως μια φυλή τιμωρημένων μανιταροφάγων. Μεταξύ των Ελλήνων τα μανιτάρια ονομάζονταν προφανώς "τροφή των θεών" (broma theon), ενώ ο νεοπλατωνικός φιλόσοφος Πορφύριος (περ. 233-309 μ.Χ.) τα αποκαλούσε "τροφοί των θεών" (theotrophos). Pharmakon: Plato, Drug Culture and Identity in Ancient Athens by Michael A. Rinella.
141. Takaki, Koichi, et al. (2009). “Improvement of edible mushroom yield by electric stimulations”. Journal of Plasma and Fusion Research Series 8: 556-559. https://www.jspf.or.jp/JPFRS/PDF/Vol8/jpfrs2009_08-0556.pdf.
142. The Lightning and the Truffle
143. Lazo CRM; Kalaw SP; De Leon AM (2015). “Ethnomycological Survey of Macrofungi Utilized by Gaddang Communities in Nueva Vizcaya, Philippines”. Current Research in Environmental & Applied Mycology 5 (3): 260. http://www.creamjournal.org/PDFs/Cream_5_3_8.pdf.
144. テレビ東京 (2020年1月30日). “落雷でシイタケの収穫2倍に 日本工大が言い伝え検証”. NIKKEI STYLE. 日本経済新聞社・日経BP社. 2020年11月4日時点のオリジナルよりアーカイブ。2022年6月24日閲覧。
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146. Guide des odeurs de champignons, mycodb.fr
147. (en) Rousk J., Baath E., Brookes P. C., Lauber C. L., Lozupone C., Caporaso J. G., et al., « Soil bacterial and fungal communities across a pH gradient in an arable soil », ISME J., 4, 2010, p. 1340–1351
148. Nicolas Chiron & Didier Michelot, « Odeurs des champignons : chimie et rôle dans les interactions biotiques – une revue », Cryptogamie, Mycologie, vol. 26, no 4,‎ 2005, p. 299-364 (lire en ligne)
149. Ammirati et al., pp. 40–41.
150. 安藤洋子「きのこの呈色反応」、長沢栄史 監修『日本の毒きのこ』 2009, p. 227 (長沢栄史 監修、Gakken 編『日本の毒きのこ』学習研究社〈増補改訂フィールドベスト図鑑 13〉、2009年9月28日。ISBN 978-4-05-404263-6。)
151. 牛島秀爾 2021, p. 14. (牛島秀爾『道端から奥山まで採って食べて楽しむ菌活 きのこ図鑑』つり人社、2021年11月1日。ISBN 978-4-86447-382-8。)
152. 白水貴 監修 2014, p. 60. (白水貴 監修、ネイチャー&サイエンス 編『毒きのこ : 世にもかわいい危険な生きもの』新井文彦 写真、幻冬舎、2014年9月20日。ISBN 978-4-344-02640-7。)
153. 大作晃一 2005, p. 95. (大作晃一『山菜&きのこ採り入門 : 見分け方とおいしく食べるコツを解説』山と渓谷社〈Outdoor Books 5〉、2005年9月20日。ISBN 4-635-00755-3。)
154. 毎日放送, MBS. “採取したキノコを撮影してAI判定 AIは"食べられる"と回答も... 実際は「毒キノコ」 和歌山市の70代男性が嘔吐の症状で一時入院 「AIや図鑑で自己判断するのは危険」市が注意呼びかけ | 編集部セレクト | よんチャンTV”. MBS 毎日放送. 2025年11月21日閲覧。
155. “AI判定は「シイタケ」食べたら毒キノコ 国「検索は参考程度に…」：朝日新聞”. 朝日新聞 (2025年11月14日). 2025年11月21日閲覧。
156. “毒キノコによる食中毒に注意しましょう”. www.mhlw.go.jp. 2025年11月21日閲覧。
157. 小宮田勝司・上田俊穂「きのこ狩りの注意とマナー」、長沢栄史 監修『日本の毒きのこ』 2009, pp. 204–205 (長沢栄史 監修、Gakken 編『日本の毒きのこ』学習研究社〈増補改訂フィールドベスト図鑑 13〉、2009年9月28日。ISBN 978-4-05-404263-6。)
158. 吹春俊光 2010, p. 165. (吹春俊光『おいしいきのこ 毒きのこ』大作晃一（写真）、主婦の友社、2010年9月30日。ISBN 978-4-07-273560-2。)
159. Eric Boa, Champignons comestibles sauvages : vue d'ensemble sur leurs utilisations et leur importance pour les populations, Food & Agriculture Org., 2006, p. 30-36.
160. 牛島秀爾 2021, p. 12. (牛島秀爾『道端から奥山まで採って食べて楽しむ菌活 きのこ図鑑』つり人社、2021年11月1日。ISBN 978-4-86447-382-8。)
161. 大作晃一 2005, p. 73. (大作晃一『山菜&きのこ採り入門 : 見分け方とおいしく食べるコツを解説』山と渓谷社〈Outdoor Books 5〉、2005年9月20日。ISBN 4-635-00755-3。)
162. 武者盛宏「幻覚性キノコ ヒカゲシビレタケ (psilocybe argentepes) 中毒について-プシロシビン中毒時の自覚体験を中心に-」『精神経誌』第90巻、1988年、313-333頁、NAID 50002636566。 (要購読契約)
163. 白濱晴久・紺野勝弘・橋本貴美子「主な毒性分の化学構造と作用」、長沢栄史 監修『日本の毒きのこ』 2009, pp. 270–276 (長沢栄史 監修、Gakken 編『日本の毒きのこ』学習研究社〈増補改訂フィールドベスト図鑑 13〉、2009年9月28日。ISBN 978-4-05-404263-6。)
164. 毒蘑菇. 中国科普博览. [2016-09-04]. （原始内容存档于2016-09-14）.
165. B Zane Horowitz, Asim Tarabar, et al. (2015年12月29日). “Mushroom Toxicity Clinical Presentation”. 2018年1月20日閲覧。
166. «Αρχειοθετημένο αντίγραφο». www.madausarabia.com. Αρχειοθετήθηκε από το πρωτότυπο στις 25 Απριλίου 2018. Ανακτήθηκε στις 13 Φεβρουαρίου 2019.
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