Why Antrodia Only Grows on Taiwanese Camphor Trees

Antrodia camphorata

162 terpenoids

A 2021 review in Natural Product Reports counted 162 terpenoids characterised from Antrodia camphorata since 1995 — a chemical library built inside the trunk of a single Taiwanese tree.

Kuang et al., Natural Product Reports, 2021

1 natural host

Cinnamomum kanehirae — fungus and tree are both endemic to Taiwan

93 terpenoids

found in mycelia fed host-tree extract; 21 of them also occur in wild fruiting bodies

2.88 → 5.50 g/L

mycelial growth over 14 days once a host-derived polysaccharide was added

Kuang et al., Natural Product Reports, 2021

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In the wild, Antrodia camphorata grows inside one tree. Not a genus, not a family of chemically similar hosts — one species: Cinnamomum kanehirae, the Taiwan stout camphor tree. Fungus and tree are both endemic to Taiwan, and neither occurs naturally anywhere else.^[1]

That restriction invites an obvious explanation: the tree must be supplying something the fungus cannot make or find elsewhere. Two studies, seventeen years apart, tested that idea directly by taking chemistry out of the tree and putting it into a fermenter. Both found that host-tree material measurably increases what Antrodia produces.

They also found something most popular accounts get wrong. The active host factors are not what you have probably read they are — and the two studies do not even agree with each other on the chemistry. That disagreement is the most interesting part of the story, and it is where this article spends most of its time.

A broader introduction to the mushroom itself is at What Is Antrodia camphorata? Taiwan's National Treasure Mushroom.

The One Tree, and What "Only" Actually Means

Cinnamomum kanehirae is not well known outside Taiwan. It grows in the island's broad-leaved mountain forests, and the old, dense heartwood that wild Antrodia colonises takes a very long time to develop.

Antrodia colonises the heartwood of camphor trees that have died or are in advanced decay, typically the hollow inner walls of standing or fallen trunks. It is a brown rot fungus — it breaks down cellulose while leaving lignin largely intact, producing the crumbly brown residue that gives brown rot its name. Most brown rot fungi are ecological generalists that will colonise many species of dead wood. Antrodia, in the wild, is not.

Chen and colleagues put the shared restriction directly in their 2016 paper: Antrodia cinnamomea and its host Cinnamomum kanehirae are both endemic species unique to Taiwan.^[1] Yue and colleagues, reviewing the pharmacology in 2012, described it as an extremely rare fungus native to the forested regions of Taiwan, traditionally used by Taiwanese aboriginal communities for liver disease and for protection against food and drug intoxication.^[2]

One precision is worth stating early, because the rest of the article depends on it. "Only grows on camphor trees" is a statement about where the fungus is found in nature. It is not a statement about what the fungus is capable of. Antrodia grows perfectly well in liquid fermenters, on agar, and on wood substrates it never encounters in the wild. The interesting question is not whether it can grow elsewhere — it plainly can — but whether it makes the same chemistry when it does.

Host Specificity

Does Antrodia physically require the camphor tree?

The claim

“Antrodia camphorata cannot grow without Cinnamomum kanehirae — the tree supplies something irreplaceable.”

A reasonable inference from the fungus's strict natural distribution, extended past what the growth studies actually show.

What research shows

Overstated

Antrodia grows readily in submerged liquid fermentation, in solid-state culture, and on wood substrates from other Cinnamomum species. Geng et al. (2013) took it further and showed the fungus completing asexual sporulation in a fermenter, forming arthrospores that can seed later fermentation runs.

What changes off the host is the metabolite profile, not viability. Lin et al. (2011) found a richer array of metabolites on the original host wood than on other wood species at matched culture age, and Liu et al. (2007) ranked wild fruiting body above both cultivation formats on an anti-inflammatory endpoint. The host relationship shapes what Antrodia makes; it does not gate whether it lives.

Geng et al., 2013; Lin et al., 2011; Liu et al., 2007

What the Host Chemistry Experiments Actually Found

Here is where the popular account and the literature part company.

The version you will find repeated across supplement pages and health blogs runs roughly like this: in 2006, Hsu and colleagues identified camphane-type monoterpenes and phenolic compounds in camphor heartwood that trigger antcin production in Antrodia. It is a clean story. It is also not what the paper reports.

The 2006 host-factor experiment

Hsu et al. (2006) · International Journal of Food Microbiology

Population

Antrodia camphorata in submerged culture

Intervention

Fractionation of Cinnamomum camphora material to locate the hyphal growth-promoting factor, followed by size-exclusion and high-performance anion-exchange chromatography of the active fraction

Comparator

Untreated control cultures

Finding

The growth-promoting factor was located in the polysaccharide fraction of C. camphora, active between 80 and 320 mg/L. It raised mycelial growth from 2.88 g/L in controls to 5.50 g/L over a 14-day culture. The polysaccharide's molecular weights were 728.2, 187.5, 28.7, 7.5 and 1.9 kDa, with galactosamine, mannose and glucose as the major monosaccharides. Prolonged incubation with the water-soluble extract increased the relative amounts of two lanostane-type compounds — dehydrosulphurenic acid and 15α-acetyl-dehydrosulphurenic acid — both of which occur in wild fruiting bodies.

positive Two corrections to the popular retelling. The active factor is a polysaccharide — a sugar polymer — not a monoterpene or a phenolic. And the compounds that rose are lanostane-type, not the ergostane-type antcins this study is routinely credited with explaining. The study also used C. camphora, the common camphor tree, not C. kanehirae, the native host.

Hsu et al., International Journal of Food Microbiology, 2006

Both corrections matter. A polysaccharide and a monoterpene are entirely different classes of molecule, and they would act on the fungus through entirely different routes. And antcins are the compounds that have driven three decades of Antrodia pharmacology — attributing their induction to a study that did not measure them is not a small slip.

What Hsu genuinely showed is arguably more useful than the myth. Host material pushed the mycelium toward producing compounds that normally appear in the fruiting body — dehydrosulphurenic acid and its 15α-acetyl derivative both accumulated in the mycelial extracts after prolonged incubation with the water-soluble host fraction.^[4] That is the fungus shifting developmental register in response to its host, which is a real and specific finding.

The monoterpene half of the popular story is not invented from nothing. It is real — it just comes from a different study, seventeen years later, on the tree that actually matters.

The 2023 native-host experiment

Luo et al. (2023) · Journal of Agricultural and Food Chemistry

Population

Antrodia camphorata in submerged fermentation

Intervention

Methanol extract of Cinnamomum kanehirae trunk (MECK) at 2 g/L, analysed by untargeted metabolomics; linalool and α-pinene then tested individually against mevalonate-pathway gene expression by RT-qPCR

Comparator

Untreated submerged fermentation

Finding

MECK drove triterpenoid production to 115.6 mg/L and increased both the category and abundance of secondary metabolites in the mycelia. Ninety-three terpenoids were identified in treated mycelia — 8 newly formed and 49 upregulated — of which 21 were the same terpenoids found in fruiting bodies. Forty-two of the 93 mapped to KEGG pathways, mainly monoterpenoid and diterpenoid synthesis. The extract itself contained 27 monoterpenes and 16 sesquiterpenes; the two most abundant, linalool and α-pinene, each raised terpenoid production and altered mRNA expression of nine key mevalonate-pathway genes.

positive This is the study that earns the monoterpene claim, on the correct host species, with a named biosynthetic pathway. Its limit is the format: an extract in a fermenter over a defined run, not a fungus inside a living trunk over years.

Luo et al., Journal of Agricultural and Food Chemistry, 2023

Two Host Factors, Two Chemistries

The Tree Does Not Send One Signal — It Sends At Least Two

Popular accounts compress this into a single discovery: camphor heartwood terpenes switch on antcin production. The literature is messier and more interesting. Two studies, seventeen years apart, on two different tree species, found two chemically unrelated host factors — a polysaccharide and a pair of monoterpenes — that both push the fungus toward making more terpenoids.

Cinnamomum camphora

Hsu and colleagues, 2006 · the common camphor tree — a relative of the native host, not the native host itself

Active host factor

A polysaccharide

The growth-promoting activity tracked to the polysaccharide fraction, active between 80 and 320 mg/L. Size-exclusion and anion-exchange analysis put its molecular weights at 728.2, 187.5, 28.7, 7.5 and 1.9 kDa, with galactosamine, mannose and glucose as the major monosaccharides.

What it did

Mycelial growth rose from 2.88 g/L to 5.50 g/L over a 14-day culture. Prolonged incubation with the water-soluble extract raised two lanostane-type compounds — dehydrosulphurenic acid and 15α-acetyl-dehydrosulphurenic acid — both of which occur in wild fruiting bodies.[4]

Reach: Identifies a sugar-based host factor from a related tree. It did not test Cinnamomum kanehirae, and it did not measure antcins.

Cinnamomum kanehirae

Luo and colleagues, 2023 · the native host — the tree Antrodia actually colonises in the wild

Active host factor

Monoterpenes

A methanol extract of C. kanehirae trunk (MECK) contained 27 monoterpenes and 16 sesquiterpenes. The two most abundant, linalool and α-pinene, were isolated and tested individually.

What it did

MECK at 2 g/L drove triterpenoid production to 115.6 mg/L. Linalool and α-pinene each raised terpenoid output and shifted the mRNA expression of nine key mevalonate-pathway genes, measured by RT-qPCR.[5]

Reach: Demonstrates a terpene-based host factor from the true host, with a named pathway. It is submerged fermentation with an extract — not a fungus growing inside a standing tree.

The 93 terpenoids found in host-extract-treated mycelia

Antrodia camphorata grown in submerged culture with 2 g/L of C. kanehirae trunk extract. Twenty-one of the 93 are the same terpenoids found in wild fruiting bodies — which is the closest anyone has come to reproducing the wild chemical profile without the tree.[5]

Upregulated

49 of 93

Already present, but produced in greater abundance once host extract was supplied

Newly formed

8 of 93

Not detected at all until the host extract was added

Unchanged

36 of 93

Detected in treated mycelia without a reported increase

Neither study shows that the host tree is chemically irreplaceable. Both show the opposite in a narrow sense — the active factors were extracted, moved into a fermenter, and still worked. What no one has yet reproduced is the full wild profile, and that gap is where the price premium lives.

Polysaccharide fraction and growth figures from ref [4]; extract composition, terpenoid counts and pathway genes from ref [5]

Read together, the two studies say something more careful than "the tree switches on antcin production." They say that camphor-tree material contains more than one class of compound capable of raising Antrodia's terpenoid output, that these work through at least two different routes, and that the effect survives extraction — the active chemistry can be moved into a tank and still function.

That last point cuts against the romantic reading of the host relationship. If the tree's contribution were truly irreplaceable, extracting it and adding it to a fermenter would not work. It does work. What has not been achieved is reproducing the whole profile.

Same Fungus, Different Wood

The most direct test of whether host identity changes the product came from Lin and colleagues in 2011, in the Journal of Agricultural and Food Chemistry.

Lin's team built an index of 13 representative metabolites from ethanol extracts of Antrodia fruiting body, intended as a quality-evaluation system. Most of the index compounds — particularly the ergostane-type triterpenoids and polyacetylenes — carry anti-inflammatory activity. They then compared profiles across culture ages and across wood substrates.^[6]

Two findings came out of it. First, the amounts of typical ergostane-type triterpenoids increased with culture age — time on the substrate matters independently of which substrate it is. Second, at matched culture age, Antrodia grown on the original host wood produced a richer array of metabolites than Antrodia cultured on other wood species.^[6]

That phrasing deserves care, because it is frequently upgraded in retelling. "A richer array of metabolites" is a statement about chemical diversity — how many different compounds show up. It is not the same as "the highest antcin concentration of any substrate tested," which is a statement about the quantity of one compound class. Lin's paper supports the first. The second is a stronger claim than the study makes.

The practical implication still holds, and it is the commercially important one: substrate choice changes the chemical output, so growing Antrodia on a substitute wood yields a genuinely different product rather than simply a cheaper one.

Wild Versus Cultivated: What the Comparison Can and Cannot Isolate

Liu and colleagues published a complementary result in 2007 in the Journal of Ethnopharmacology, comparing wild fruiting body against both liquid-state fermentation and solid-state culture. They treated EOC13.31 microglia — the brain's resident immune cells — with LPS and interferon-γ, then measured iNOS expression.^[7]

Methanol extracts were the most potent inhibitors, and the potency ranking was unambiguous: wild fruiting body > solid-state culture > liquid-state fermentation. Mechanistically, the fruiting-body extracts inhibited phosphorylation of ERK, JNK and STAT-1, and blocked NF-κB activation.^[7]

That ordering is the single most-cited piece of evidence for wild Antrodia's superiority, so it is worth being precise about what it can carry. Liu's design compares three products, not three host substrates. Wild fruiting body differs from cultured mycelium in growth duration, developmental stage, stress exposure and compound maturation time, all at once. The comparison establishes that wild material performed best on this endpoint. It does not isolate the camphor tree as the reason.

Solid-state culture landing in the middle is a genuinely informative detail: it sits between the two extremes in both format and result, which is at least consistent with growth conditions mattering on a gradient rather than as a switch.

Cultivation Without the Host Tree

Once wild Antrodia's price reached extreme levels, commercial pressure to develop alternatives was substantial. The fundamental obstacle is arithmetic: you cannot grow Cinnamomum kanehirae fast enough to supply demand, because the heartwood Antrodia colonises takes a very long time to form.

The primary commercial route is liquid-state submerged fermentation — growing mycelium in nutrient tanks rather than on solid wood. Geng and colleagues documented in a 2013 paper in Applied Microbiology and Biotechnology that Antrodia camphorata strain ATCC 200183 forms arthrospores at the end of liquid fermentation, and mapped the conditions that maximise them: soluble starch and yeast extract as carbon and nitrogen sources, a C/N ratio of 40:1, MgSO₄ at 0.5 g/L, KH₂PO₄ at 3.0 g/L, initial pH 5.0, and an inoculum of 1.5 × 10⁵ spores/mL.^[8]

Geng's stated application is narrower than it is usually reported. The arthroconidia are useful as inocula for subsequent fermentation processes — a way to standardise how each production run is seeded. That is a real contribution to industrial reliability, but it is not the same as demonstrating that fermentation reproduces wild chemistry.

Solid-state cultivation on wood blocks produces a result closer to wild fruiting body than submerged fermentation does, consistent with Liu's ranking. Some cultivators use camphor wood specifically to approximate the natural environment. But camphor wood from C. kanehirae is itself a restricted resource, which creates a circular supply problem — the cultivation method that best approximates wild material depends on the same scarce input that made wild material scarce.

Cultivated Antrodia mycelium sells for a small fraction of what wild fruiting body has historically commanded, which is what makes cultivated product commercially viable at all. Reported figures for wild material vary widely across sources and are not drawn from peer-reviewed price surveys, so treat any specific per-kilogram number you encounter with caution. What cultivation has not yet done is reproduce the full bioactive profile of wild camphor-tree-grown fruiting body. That gap is directly relevant to any specific Antrodia product's wild vs. cultivated tradeoffs.

For the history of Niu-Chang-Chih pricing and the traditional context behind why wild commands such premiums, see Niu-Chang-Chih: The Rarest and Most Expensive Medicinal Mushroom.

Is Wild Camphor-Tree Antrodia Actually Better For People?

1. Cell and culture studiescurrent

   This is the entire evidence base. Liu et al. (2007) ranked wild fruiting body above solid-state and liquid-state material at inhibiting iNOS in microglia. Lin et al. (2011) found a richer metabolite array on host wood than on substitute woods. Hsu et al. (2006) and Luo et al. (2023) showed host extracts raising growth and terpenoid output in submerged culture. Refs 4, 5, 6, 7.

2. Animal studiesmissing

   No study in this evidence base compares wild-sourced against cultivated Antrodia in a live animal. Animal work on Antrodia exists in quantity, but it tests the mushroom against a disease model — not one growth source against another.

3. Small human trialsmissing

   No human trial has compared wild against cultivated material. Yue et al. (2012) noted that detailed mechanistic studies and clinical trials on this fungus were rare, and that remains broadly true. Ref 2.

4. Large randomised trialmissing

   Nothing at this level. The controlled version of the underlying ecology experiment — growing Antrodia to maturity on matched living trees of different species — is also unlikely ever to be run, since the host takes centuries to develop suitable heartwood and is a protected species.

Host chemistry demonstrably shapes what Antrodia produces — that part is well supported in culture and in substrate comparisons. But the leap from 'different chemistry' to 'better for people' has never been tested in an animal, let alone a person.

Refs 2, 4, 5, 6, 7

The Protection Paradox

Demand for wild Antrodia put severe pressure on the very tree the fungus depends on.

Cinnamomum kanehirae was already a constrained resource before Antrodia research expanded — old-growth camphor had been logged for centuries for its aromatic wood. When the fungus's medicinal reputation grew, illegal logging of protected camphor trees specifically to reach Antrodia-colonised heartwood became a documented enforcement problem in Taiwan's forests. The economics were brutally simple: a tree that took centuries to develop the heartwood Antrodia requires could be felled in an afternoon, and the sale value of wild fruiting body outweighed the legal risk.

Taiwan now lists Cinnamomum kanehirae as a protected conservation species, and the Taiwan Forestry Research Institute runs both conservation and cultivation research programmes for it. The protection creates a practical bind: the best-documented source of the full wild chemical profile is heartwood that is now illegal to harvest.

There is a further wrinkle that complicates the "one pure host" picture. Hsu's team described C. camphora as a host-related species, and the two trees are close enough that host chemistry research has repeatedly used the common camphor tree as a stand-in for the native one.^[4] The boundary between "the host" and "a relative of the host" is a good deal softer than the phrase only grows on one tree suggests.

Yue and colleagues, writing in 2012, described the fungus as extremely rare and noted that despite a broad literature on its activities, detailed mechanistic studies and clinical trials remained scarce.^[2] More than a decade later, that assessment has aged well — the chemistry has advanced considerably further than the clinical evidence.

162 Compounds From One Partnership

The scale of what the Antrodia–camphor tree relationship produces is clearest in Kuang and colleagues' 2021 review in Natural Product Reports.

Kuang's team catalogued every terpenoid characterised from Antrodia camphorata since 1995: 162 in total, spanning triterpenoids, meroterpenoids, sesquiterpenoids, diterpenoids and steroids. The review names the ergostane-type triterpenoids (antcins) and the meroterpenoids (antroquinonols) as the characteristic constituents of the species, and reports activities across anti-cancer, hepatoprotective, anti-inflammatory, anti-diabetic and neuroprotective domains.^[9]

"Characteristic constituents" is the review's own phrasing and it is the right level of confidence. It means these compound classes typify Antrodia. It is a weaker and more defensible claim than "found nowhere else in nature," which is a universal negative that a chemistry review is not positioned to establish.

The connection back to the host is now partly mapped rather than merely inferred. Luo's 2023 work identified 27 monoterpenes and 16 sesquiterpenes in C. kanehirae trunk extract and traced two of them to nine genes in the mevalonate pathway — the biosynthetic route that produces terpenoids.^[5] That is a mechanism with named genes and named compounds, which is a considerable advance on "the tree does something."

It also sets an honest boundary. Twenty-one of the 93 terpenoids in host-extract-treated mycelia matched those found in fruiting bodies.^[5] That is real overlap and real progress. It is also not the whole profile, which is precisely why wild material still commands what it commands.

This distinguishes Antrodia from most medicinal mushrooms in degree rather than in kind. Reishi and lion's mane are both cultivated at scale on a range of substrates and produce their characteristic compounds across many of them. Antrodia's distinctive compound classes appear to be more sensitive to what it is growing on — and the tree it evolved alongside remains the reference standard nobody has fully matched.

For a deeper examination of those compounds, including antcin mechanisms and antroquinonol structure, see Antrodia Bioactive Compounds: Antcins, Triterpenoids, and Polysaccharides and Antcin Compounds and Anti-Cancer Mechanisms.

The Bottom Line

Antrodia camphorata is found in the wild inside one tree species, Cinnamomum kanehirae, and fungus and host are both endemic to Taiwan. Two studies have tested whether host chemistry explains that restriction, and they found different answers: Hsu et al. (2006) traced the growth-promoting activity of C. camphora to its polysaccharide fraction, raising mycelial growth from 2.88 to 5.50 g/L and increasing two lanostane-type compounds; Luo et al. (2023) found that linalool and α-pinene from the native host's trunk extract raise terpenoid output through the mevalonate pathway, yielding 93 terpenoids of which 21 also occur in fruiting bodies. Substrate work by Lin et al. (2011) shows the original host wood produces a richer array of metabolites than substitutes, and Liu et al. (2007) ranks wild fruiting body above both cultivation formats on an anti-inflammatory endpoint — though that comparison confounds host species with age and developmental stage. What none of this establishes is that the tree is chemically irreplaceable; the active factors have been extracted and made to work in a fermenter. What remains unreproduced is the complete wild profile, and no trial has ever compared wild against cultivated Antrodia on a clinical outcome in people.

Frequently Asked Questions

Why does Antrodia only grow on camphor trees?

In the wild it is only found in Cinnamomum kanehirae, and both the fungus and the tree are endemic to Taiwan. Host chemistry is part of the explanation: Hsu et al. (2006) found that the polysaccharide fraction of Cinnamomum camphora raised Antrodia's mycelial growth from 2.88 to 5.50 g/L over 14 days, and Luo et al. (2023) found that linalool and α-pinene from C. kanehirae trunk extract raised terpenoid output by acting on the mevalonate pathway. Note that these are host-derived compounds tested in culture — they explain why the host is favourable, not why the fungus is absent from every other tree, which no study has directly tested.

Did a 2006 study find that camphor monoterpenes trigger antcin production?

No, and this is the most common error about this fungus. Hsu et al. (2006) located the growth-promoting factor in the polysaccharide fraction of Cinnamomum camphora, with galactosamine, mannose and glucose as its major sugars — not monoterpenes or phenolics. The compounds that increased were lanostane-type triterpenoids (dehydrosulphurenic acid and 15α-acetyl-dehydrosulphurenic acid), not the ergostane-type antcins. The monoterpene finding is real but belongs to Luo et al. (2023), on a different tree species, seventeen years later.

What is Cinnamomum kanehirae?

Cinnamomum kanehirae, the Taiwan stout camphor tree, is a large aromatic tree of Taiwan's broad-leaved mountain forests and the only documented natural host for wild Antrodia camphorata fruiting bodies. It is closely related to Cinnamomum camphora, the common camphor tree — close enough that Hsu et al. (2006) used C. camphora as a host-related stand-in when investigating what the host contributes. Taiwan lists C. kanehirae as a protected conservation species.

Is the camphor tree endangered?

Taiwan lists Cinnamomum kanehirae as a protected conservation species. The tree grows slowly, and the aged heartwood Antrodia colonises takes a very long time to form, while historical demand for both its aromatic wood and its Antrodia-colonised trunks made illegal logging a serious enforcement problem. The Taiwan Forestry Research Institute maintains conservation and cultivation research programmes for the species.

Can Antrodia be grown on other trees?

Yes. Antrodia grows on other wood substrates, in solid-state culture and in liquid fermentation — Geng et al. (2013) even documented it forming arthrospores in a fermenter. What changes is the chemistry, not the viability. Lin et al. (2011) found that at matched culture age, fruiting bodies grown on the original host wood produced a richer array of metabolites than those grown on other wood species, and Liu et al. (2007) found wild fruiting body more potent than both cultivation formats at inhibiting iNOS in microglia.

Is wild Antrodia better than cultivated?

On the evidence available, wild material has an advantage in chemical richness and on one laboratory endpoint. Liu et al. (2007) ranked anti-inflammatory potency as wild fruiting body > solid-state culture > liquid-state fermentation in microglia. But that comparison confounds host species with growth duration, developmental stage and stress exposure, so it cannot isolate the tree as the cause. No study has compared wild against cultivated Antrodia on a clinical outcome in humans. Anyone citing wild superiority as an established health benefit is going beyond the evidence.

Why is Antrodia camphorata so rare?

Several constraints compound. In the wild it colonises the inner heartwood of a single protected tree species; that heartwood takes a very long time to reach a suitable state; the fungus grows slowly on its host; and harvesting it historically meant felling the tree. Cultivation relieves the supply problem but produces material with a measurably different metabolite profile, which is why wild fruiting body has retained an extreme price premium.

Sources & References

1. 1RTHM-00422·Chen, Wei-Lun et al. (2016). “Phenologic variation of major triterpenoids in regular and white Antrodia cinnamomea..” Botanical studies.Study breakdown →PubMed →↩
2. 2RTHM-00274·Yue, Patrick Ying-Kit et al. (2012). “Review of biological and pharmacological activities of the endemic Taiwanese bitter medicinal mushroom, Antrodia camphorata (M. Zang et C. H. Su) Sh. H. Wu et al. (higher Basidiomycetes)..” International journal of medicinal mushrooms.Study breakdown →PubMed →↩
3. 3RTHM-00591·Wang, Caicheng et al. (2019). “Diversity of potentially exploitable pharmacological activities of the highly prized edible medicinal fungus Antrodia camphorata..” Applied microbiology and biotechnology.Study breakdown →PubMed →↩
4. 4RTHM-00099·Hsu, Feng-Lin et al. (2006). “Promotion of hyphal growth and underlying chemical changes in Antrodia camphorata by host factors from Cinnamomum camphora..” International journal of food microbiology.Study breakdown →PubMed →↩
5. 5RTHM-00842·Luo, Zhi-Shan et al. (2023). “Characterization of Cinnamomum kanehirae Extract-Stimulated Triterpenoids Synthesis in Submerged Fermentation of Antrodia camphorata via Untargeted Metabolomics..” Journal of agricultural and food chemistry.Study breakdown →PubMed →↩
6. 6RTHM-00225·Lin, Ting-Yu et al. (2011). “Metabolite profiles for Antrodia cinnamomea fruiting bodies harvested at different culture ages and from different wood substrates..” Journal of agricultural and food chemistry.Study breakdown →PubMed →↩
7. 7RTHM-00119·Liu, Der-Zen et al. (2007). “Comparative anti-inflammatory characterization of wild fruiting body, liquid-state fermentation, and solid-state culture of Taiwanofungus camphoratus in microglia and the mechanism of its action..” Journal of ethnopharmacology.Study breakdown →PubMed →↩
8. 8RTHM-00285·Geng, Yan et al. (2013). “Antrodia camphorata ATCC 200183 sporulates asexually in submerged culture..” Applied microbiology and biotechnology.Study breakdown →PubMed →↩
9. 9RTHM-00695·Kuang, Yi et al. (2021). “Terpenoids from the medicinal mushroom Antrodia camphorata: chemistry and medicinal potential..” Natural product reports.Study breakdown →PubMed →↩