Potentilla freyniana

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Potentilla freyniana

Not yet clinically reviewed

Family: Rosaceae Genus: Potentilla Species: freyniana

Synonyms: Potentilla ternata, Potentilla fragarioides var. ternata, Potentilla fragarioides subsp. freyniana

Freyn's cinquefoil

Safety at a glance

No rule in our tables for this herb: pregnancy, breastfeeding, incompatible pairs (十八反 / 十九畏), herb–drug, dose ceiling. This is not a safety clearance.

Not graded — No toxicity grade is recorded. Most herbs in the catalogue carry none.

Cautions & contraindications

  • Liver conditions
  • Kidney conditions
5 studies on record

Western Herbalism Properties

Actions:
astringent

Botanical Description

Potentilla freyniana is a low, perennial herb of the rose family native to East Asia, including China, Korea, Japan and the Russian Far East. It grows from a short rhizome and produces both basal leaves and slender, often reddish, creeping or ascending stems that can root at the nodes to form new plantlets. The leaves are palmately or ternately compound, typically with three obovate, coarsely toothed leaflets that are green above and paler, somewhat hairy beneath. In spring the plant bears small, five-petalled yellow flowers, solitary or in loose cymes, each with a ring of stamens around a central cluster of carpels seated on a hairy receptacle. The fruit is an aggregate of small dry achenes. It favours grassy slopes, woodland margins, streambanks and moist disturbed ground at low to moderate elevations, where it can spread to form loose mats.

Native Region: Amur, China North-Central, China South-Central, China Southeast, Japan, Khabarovsk, Korea, Manchuria, Primorye, Taiwan

Active Constituents

Pomolic acid

Ursane-type pentacyclic triterpene acid

Concentration: Quantified by HPLC across sourcing regions and harvest years; the highest reported content was 0.1117 mg/g in Guizhou material harvested in 2019

Isolated from the roots of Potentilla freyniana and one of the few constituents of this herb for which an assay across commercial batches exists. In TNF-alpha-stimulated human rheumatoid-arthritis fibroblast-like synoviocytes it dose-dependently suppressed proliferation and reduced IL-6 and TNF-alpha secretion by blocking NF-kappaB activation. In the isolated-triterpene screen it inhibited rheumatoid-arthritis fibroblast-like synoviocytes with an IC50 of 25.12 micromolar. Note that the same 2026 report's ADMET prediction flagged potential hepatotoxic and reproductive-toxicity liabilities for this compound, which remain computational rather than measured.

Ursolic acid

Ursane-type pentacyclic triterpene acid

Concentration: A major triterpene of the root; no validated percentage assay for the crude drug has been published

Recovered from the roots alongside pomolic acid and shown to inhibit rheumatoid-arthritis fibroblast-like synoviocytes with an IC50 of 24.63 micromolar, the strongest activity in that panel together with pomolic acid. It is a very widely distributed plant triterpene, so its presence is not diagnostic for this species.

Madengaisu A and madengaisu B

A-ring contracted triterpenoids

Concentration: Minor root constituents; described as new compounds in 2022

Two previously undescribed A-ring contracted triterpenoids named after Madeng'ai, the Dong ethnic-medicine name for this root. Madengaisu B showed cytotoxicity against the BGC-823 gastric carcinoma line with an IC50 of 24.76 micromolar. These are the compounds that most clearly distinguish the chemistry of this species from that of other medicinal Potentilla drugs.

Madengaisu C

ent-Kaurane diterpenoid

Concentration: Minor root constituent; described as a new compound in 2022

An undescribed ent-kaurane diterpenoid isolated from the roots together with the madengaisu triterpenoids. It was inactive or only weakly active in the cytotoxicity panel reported with it; it is listed here as a chemical marker rather than as an active principle.

Hyptadienic acid

Triterpene acid

Concentration: Minor root constituent

One of the more cytotoxic triterpenes recovered from the root, inhibiting Hep-G2 hepatocellular carcinoma cells with an IC50 of 25.16 micromolar. This is an in-vitro cell-line result only.

2-alpha,3-beta-Dihydroxyolean-12-en-28-oic acid 28-O-beta-D-glucopyranoside

Oleanane-type triterpenoid saponin

Concentration: Minor root constituent

The most cytotoxic single compound in the 2022 root isolation against Hep-G2 cells, with an IC50 of 17.66 micromolar. Its aglycone relative 2-alpha,3-beta-dihydroxyolean-13(18)-en-28-oic acid inhibited HCT-116 colorectal cells at 13.25 micromolar.

Flavonoid fraction (43 flavonoids identified, 40 of them not previously reported from the species)

Flavonoids

Concentration: Profiled qualitatively by UHPLC-Q-Exactive Orbitrap mass spectrometry; no quantitative assay published

The 2021 Orbitrap survey established the flavonoid fraction as the numerically dominant class in this herb and mapped it onto PI3K-Akt, MAPK and TNF signalling in a network-pharmacology model. The work is analytical and computational: no flavonoid from this species has been isolated and tested individually.

Tangeretin

Polymethoxylated flavone

Concentration: Identified in the aqueous extract of the dried rhizome by UPLC-Q/TOF-MS among 36 constituents; not quantified

Selected by virtual screening from the aqueous rhizome extract as the constituent with the best predicted binding to inflammatory targets, then confirmed to suppress inflammatory cytokines and MAPK/NF-kappaB/NLRP3 signalling from 5 micromolar in vivo and in vitro. Readers should note that tangeretin is far better known as a Citrus peel polymethoxyflavone, so its reported occurrence in a Rosaceae rhizome rests on a single mass-spectrometric identification and has not been confirmed by isolation.

Ellagic acid

Ellagitannin-derived phenolic

Concentration: Identified in the n-butanol fraction by UHPLC-MS/MS; not quantified

One of the constituents of the n-butanol fraction with the strongest predicted affinity for the CDK1 and EZH2 targets in the hepatocellular-carcinoma network model, alongside luteolin, berberrubine, procyanidin B1 and adenosine. Ellagic acid and procyanidins are characteristic of Rosaceae roots generally and account for much of the astringency on which the traditional haemostatic use rests.

⚠ Drug Interactions

Fan Bai Cao (Potentilla discolor) and Wei Ling Cai (Potentilla chinensis)

Moderate Evidence: Established

The recorded folk aliases of this drug include san ye fan bai cao and san ye fan bai cai, both of which are constructed from the name of a different official drug, Fan Bai Cao (Radix Potentillae Discoloris, Potentilla discolor). A further alias, lang ya wei ling cai, points at Wei Ling Cai (Potentilla chinensis). All three are Rosaceae roots of similar appearance sold in the same regional markets, and the naming overlap is the mechanism of substitution. The three drugs are not equivalent: Potentilla freyniana is a Dong and Sichuan folk drug whose distinctive chemistry is the madengaisu triterpenoids, while Fan Bai Cao and Wei Ling Cai are heat-clearing drugs in mainstream Chinese practice with their own indications.

Clinical note: Do not accept san ye fan bai cao or lang ya wei ling cai on a label as confirmation of species. Specify Potentilla freyniana by binomial when ordering, and confirm the root rather than the aerial part.

Hepatotoxic and nephrotoxic drugs (for example paracetamol, methotrexate, isoniazid, aminoglycosides)

Theoretical Evidence: Theoretical

The only published toxicology on this herb is a single-dose oral acute toxicity study of the ethanolic rhizome extract in rats, which found an LD50 of 8510 mg/kg. Deaths at 8000 and 16000 mg/kg were attributed to lung injury, and histopathology showed vascular congestion and dilation in lung, liver and kidney. Serum SGPT, SGOT, urea, creatinine and triglycerides differed significantly from control. These are supra-therapeutic single doses in rats and do not demonstrate injury at human dosing, but there is no repeat-dose toxicity study, no human safety data and no pharmacokinetic study, so additive organ stress cannot be ruled out.

Clinical note: Avoid combining with drugs that carry their own hepatic or renal burden in patients already being monitored for liver or kidney function, and do not use for prolonged courses without such monitoring. There is no established human dose ceiling for this herb.

Colchicine and non-steroidal anti-inflammatory drugs

Theoretical Evidence: Theoretical

The aqueous rhizome extract suppresses the MAPK/NF-kappaB/NLRP3 axis in mouse models of monosodium-urate gouty arthritis, the same inflammasome pathway that colchicine targets, and the effect was retained in NLRP3-knockout animals only in part. Any additivity is inferred from shared mechanism in rodents; no combination study with colchicine or an NSAID has been performed in any species.

Clinical note: There is no evidence of harm from the combination and no evidence of benefit. Do not present the herb as a colchicine-sparing agent to patients; no human data exist.

Dosage Calculator

⚖ Dosage Calculator

A weight-based mathematical estimate for Potentilla freyniana. Not a prescription.

Evidence Tier

5 studies on record

Recorded studies by study design, strongest design at the top. This is a study-design tier only, not a GRADE rating: it does not weigh risk of bias, consistency or precision.

Verified: design read from PubMed for a DOI that resolves to the cited paper Unverified: taken from the study's recorded description

Clinical Studies

Acute toxicity study of ethanol extract of Potentilla freyniana Bornm rhizome in rats

Tingting Tian, Yang Chen, Qin He, Yangmiao Jiao, Lingqun Chen, Maomao Shu, Mujeeb ur Rehman, Zaiqi Zhang, Liang Cao (2025) Journal of Ethnopharmacology animal Verified: In vitro / animal

The single most safety-relevant study on this herb. Single oral doses of the ethanolic rhizome extract from 1000 to 16000 mg/kg were given to rats and observed for seven days. The LD50 was 8510 mg/kg; animals at 16000 mg/kg died within six hours with respiratory distress, and death was attributed to lung injury. Histopathology showed vascular congestion and dilation in lung, liver and kidney at the top dose, with significant changes in SGPT, SGOT, urea, creatinine and triglycerides. Even the lowest doses altered food and water intake. This is an acute single-dose study in rats; no repeat-dose or human toxicology exists.

Potentilla freyniana bornm. and its active component tangeretin ameliorate gouty arthritis by inhibiting the MAPK/NF-κb/NLRP3 signaling pathway

Kaiqun Liu, Cong Liu, Chen Wu, Shuhui Lei, Zilu Bao, Chenyang Yu, Min Zou, Xuesong Zhang, Huan Zhang, Huihui Zhang, Liangkai Wei, Rui You, Liqun Wei, Zhou Lan, Dan Liu, Lvyi Chen (2026) Journal of Ethnopharmacology animal Verified: In vitro / animal

The aqueous extract of the dried rhizome reduced monosodium-urate-induced gouty arthritis in mice dose-dependently, with the largest effect at 560 mg/kg, and lowered IL-1 beta, TNF-alpha and IL-18 in a matched air-pouch model. Transcriptomics and network pharmacology pointed to the MAPK/NF-kappaB/NLRP3 axis, and the effect was tested further in NLRP3-knockout mice. Thirty-six constituents were identified in the extract, from which tangeretin was picked by molecular docking and confirmed active from 5 micromolar. Mouse study only; the herb has never been tested in gout patients.

Study of the Antimicrobial Activity of the Chinese Dong Ethnic Minority Medicine, Madeng’ai

Zhenrong Tang, Yannan Zhao, Zaiqi Zhang, Huan Yue, Dan Wang, Shengchun Liu, Hua Tang (2022) Evidence-Based Complementary and Alternative Medicine animal

Tests the traditional anti-infective and wound-healing use directly. Madeng'ai powder solution completely inhibited Escherichia coli above 2 mg/mL, and at 4 mg/mL inhibited Enterococcus faecalis, Pseudomonas aeruginosa, Klebsiella pneumoniae and Acinetobacter baumannii. In a mouse excisional wound model inoculated with bacteria it suppressed MRSA and Pseudomonas aeruginosa and accelerated closure. The minimum inhibitory concentrations are in the milligram-per-millilitre range, which is weak by antibiotic standards and consistent with topical rather than systemic use.

Pomolic Acid from the Dong Botanical Drug Madeng’ai Suppresses TNF-α-Induced Inflammatory Response in RA-HFLS by Inhibiting NF-κB Signaling Pathway Activation

Sisi Huang, Wei Cai, Yan Wang, Xiaoliang Xing, Zaiqi Zhang (2026) Molecules in vitro

Pomolic acid content of the drug was measured by HPLC across regions and harvest years, peaking at 0.1117 mg/g in 2019 Guizhou material. In TNF-alpha-stimulated human rheumatoid-arthritis fibroblast-like synoviocytes it dose-dependently reduced proliferation and IL-6 and TNF-alpha secretion, and downregulated IL-6, TNF-alpha and IL-1 beta transcription through NF-kappaB. Docking placed it at IKK-beta, p65 and I-kappa-B-alpha. Cell-culture work with computational support; the authors' own ADMET prediction flagged possible hepatotoxicity and reproductive toxicity.

Therapeutic effects of the n-butanol extract of Potentilla freyniana Bornm. in hepatocellular carcinoma cells

Yan Wang, Zaiqi Zhang, Liang Cao, Sisi Huang, Xi Huang, Ziyang Zhang, Yanbin Zhang, Xiang Li (2026) Journal of Ethnopharmacology in vitro

The n-butanol fraction inhibited HepG2 proliferation in CCK-8 assays and downregulated CDK1, EZH2 and MAPK-pathway proteins, with ellagic acid, luteolin, berberrubine, procyanidin B1 and adenosine docking best to the six screened targets. A companion toxicity check found no significant damage to mouse heart, liver or kidney. This is a cell-line and network-pharmacology study; it does not support use of the herb in liver cancer patients.

Historical Texts

Sichuan Zhong Cao Yao (Chinese Herbal Medicines of Sichuan)

People's Republic of China, 1970s provincial folk-medicine compilation
Usual source of first record for the drug name Di Feng Zi, under which this root is dispensed. The properties given there are slightly warm and astringent, with actions of dispersing static blood and resolving scrofula, and use for traumatic injury. Note that this is a twentieth-century provincial survey, not a classical materia medica: Potentilla freyniana has no entry in the Han-to-Qing canon, and any claim of classical pedigree for it should be treated as borrowed from Fan Bai Cao or Wei Ling Cai.

Quan Guo Zhong Cao Yao Hui Bian (National Compendium of Chinese Herbal Medicine)

People's Republic of China, first edition 1975
Records the drug as the root and whole plant of Potentilla freyniana Bornm. and its variety sinica Migo, and transmits the alias set that later caused confusion with other Potentilla drugs, including san ye fan bai cao, shan feng zi, san zhua jin, di zhi zhu and du jiao san.

Zhong Hua Ben Cao (Chinese Materia Medica)

People's Republic of China, 1999
The fullest modern entry. Gives the drug part as root and whole plant, the nature as sweet and warm, and the actions as clearing heat and resolving toxin, astringing sores and stopping bleeding, and dispersing stasis to stop pain, with indications spanning dysentery and enteritis, sores and abscesses, burns, haemorrhage including flooding and post-partum bleeding, snakebite, and gastric, dental and lumbar pain. It also records lang ya wei ling cai among the aliases, which is the source of the confusion with Wei Ling Cai.

Dong ethnic medicine, oral tradition of the Dong communities of Guizhou, Hunan and Guangxi

Undated oral transmission, first documented in the modern pharmacological literature from 2022
The rhizome is the Dong drug Madeng'ai, used for dysentery, malaria, bacterial infection and traumatic bleeding. Every modern pharmacological paper on this species is framed as a validation of that Dong usage rather than of a Han Chinese classical indication, and the three new compounds isolated from the root in 2022 were named madengaisu A to C after it.

References

  1. Jia Wu, Zai-Qi Zhang, Xu-Dong Zhou, Qing-Ying Yao, Zhu-Liang Chen, Ling-Ling Chu, Huang-He Yu, Yu-Pei Yang, Bin Li, Wei Wang. New Terpenoids from Potentilla freyniana Bornm. and Their Cytotoxic Activities . Molecules (2022) [DOI]
  2. Wei Cai, Kailin Li, Shihan Qin, Pei Xiong, Jie Peng, Silin Shi, Zaiqi Zhang. Rapid Identification and Systematic Mechanism of Flavonoids from Potentilla freyniana Bornm. Based on UHPLC-Q-Exactive Orbitrap Mass Spectrometry and Network Pharmacology . International Journal of Analytical Chemistry (2021) [DOI]
  3. Ziyang Zhang, Tianyi Zhu, Liang Cao, Yan Wang, Xiao-Liang Xing, Zaiqi Zhang. Protective effects of the ethyl acetate fraction from Madeng'ai on lipopolysaccharide-induced acute lung injury in mice: Insights from integrated multi-omics analysis . Journal of Ethnopharmacology (2026) [DOI]

This information is for educational purposes only and is not intended to replace professional medical advice. Always consult a qualified healthcare provider before using any herbal remedy, especially if you are pregnant, nursing, or taking medications.

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