ArticlePDF AvailableLiterature Review

Medicinal importance of Papra (Podophyllum hexandrum Royle) in Unani System of Medicine

Authors:
  • Centre for Biodiversity & Taxonomy Deptt. of Botany University of KashmirSrinagarJammu & Kashmir India

Abstract

Podophyllum hexandrum Royle [=Sinopodophyllum hexandrum (Royle) T.S. Ying] is an important, endemic medicinal plant species of Himalaya. It is used in Unani System of Medicine under the name of 'Papra'. The drug was not mentioned in previous literatures, but the first time it introduced in Unani Medicine by a great scholar Hakim Najmul Ghani. He has mentioned its uses and benefits in his classical book Khazainul Advia. In Unani Medicine the plant species has been used to treat various ailments like constipation, fever, jaundice, liver disorders, syphilis, diseases of lymph glands etc. In Kashmir Himalaya it is used to treat various diseases by local medicinemen, but now it is listed in rare drugs. Various pharmacological studies have been done such as antioxidant, antimicrobial, anti-inflammatory, antifungal, radio-protective etc., recently it has also been reported that podophyllotoxin or podophyllin can be used to treat some forms of cancers also.
Review Article
Mohd Afsahul Kalam*, Akhtar H. Malik, Aijaz Hassan Ganie and Tariq Ahmad Butt
Medicinal importance of Papra (Podophyllum
hexandrum Royle) in Unani System of Medicine
https://doi.org/10.1515/jcim-2020-0178
Received May 11, 2020; accepted August 10, 2020;
published online January 29, 2021
Abstract: Podophyllum hexandrum Royle [=Sinopodo-
phyllum hexandrum (Royle) T.S. Ying] is an important,
endemic medicinal plant species of Himalaya. It is used in
Unani System of Medicine under the name of Papra. The
drug was not mentioned in previous literatures, but the rst
time it introduced in Unani Medicine by a great scholar
Hakim Najmul Ghani. He has mentioned its uses and
benets in his classical book Khazainul Advia. In Unani
Medicine the plant species has been used to treat various
ailments like constipation, fever, jaundice, liver disorders,
syphilis, diseases of lymph glands etc. In Kashmir Hima-
laya it is used to treat various diseases by local medicine-
men, but now it is listed in rare drugs. Various
pharmacological studies have been done such as antioxi-
dant, antimicrobial, anti-inammatory, antifungal, radio-
protective etc., recently it has also been reported that
podophyllotoxin or podophyllin can be used to treat some
forms of cancers also.
Keywords: ailments; cancer; medicinal systems;
physicians; Unani.
Introduction
Medicinal plants are the backbone of the traditional system
of medicine. A large population of the world is still depen-
dent on the traditional system of medicine. Unani and
Ayurvedic Systems of medicine is growing at a fast pace,
because of cost effective, high curative properties with less
side effects of its vast range of herbal based medicine.
Numerous wild and cultivated plants are the main source of
medicine in Unani System. Some very valuable medicines of
wild sources are now very difficult to obtain, as they are
endangered because of over-exploitation from their natural
habitats. Podophyllum hexandrum Royle [=Sinopodophyllum
hexandrum (Royle) T.S. Ying] which is known as Himalayan
Mayapple and Paprain Unani medicine belongs to family
Berberidaceae [1, 2]. Podophyllum is derived from the Greek
words podoa foot and phyllosa leaf. It is called so due to
the resemblance of the leaf to ducks foot. It is named as
Mayapple due to the ripening of its fruit in spring season [3].
The leaves are 3, orbicular-reniform, 615 ×3.510 cm,
palmate, blobbed and hence named hexandrum,meaning
six lobes [4]. According to Ghani (2011) [1] among the two
species of Podophyllum:P. hexandrum and P. peltatum,only
the rst one is used in Unani System of Medicine, this species
is commonly found in India that is why it is also called as
Indian Podophyllum.However, P. peltatum is found in North
America, hence called as American podophyllum [1]. One
more species is also found inSikkim named as P. sikkimensis
[5]. P. hexandrum Royle is commonly found in the Himalayan
regions, in few pockets of Indian cold dessert (Ladakh and
Lahaul-Spiti) and some parts of Asian continent [3].
This medicinal plant species is commonly used in Ay-
urveda and Chinese System of Medicine, while the medicinal
importance of its rhizome and resins is very limited to Unani
System. Hakim Najmul Ghani was first to described the
medicinal effect of this plant in Unani Medicine. According
to him, it acts as mushil-i-safra(cholagogue purgative) just
like Mercury and calomel,hence called as vegetable Mercury
or vegetable calomel. It is used for the treatment of various
ailments like, constipation, fever, jaundice, liver disorders,
syphilis, diseases of lymph glands etc. [1] Many scientic
studies regarding its pharmacological action like anti-viral,
*Corresponding author: Mohd Afsahul Kalam, Research Ofcer
Unani, Regional Research Institute of Unani Medicine, Central Council
for Research in Unani Medicine, Ministry of AYUSH, Govt. of India,
Naseembagh Campus, Srinagar, 190006, Jammu and Kashmir, India,
Phone: +91 7051435488, E-mail: afsahnium@gmail.com
Akhtar H. Malik, Centre for Biodiversity and Taxonomy, Department of
Botany, University of Kashmir, Srinagar, Jammu and Kashmir, India,
E-mail: ecoakhtar@gmail.com
Aijaz Hassan Ganie, Department of Botany, Kargil Campus, University
of Kashmir, Srinagar, Jammu and Kashmir, India,
E-mail: aijazku@gmail.com
Tariq Ahmad Butt, Regional Research Institute of Unani Medicine,
Central Council for Research in Unani Medicine, Ministry of AYUSH,
Govt. of India, Naseembagh Campus, Srinagar, Jammu and Kashmir,
India, E-mail: smpusrinagar@gmail.com
J Complement Integr Med 2021; ▪▪▪(▪▪▪): 20200178
anti-bacterial, pesticidal, anti-cancerous, antimitotic activ-
ities etc. have been reported. In this article, an attempt has
been made to review briey the phytochemical composition,
pharmacological activities, its uses in Unani System of
Medicine and ethno-medicinal uses in various Himalayan
regions. This review will pave the way to conduct further
research studies so that unexplored potential of this plant
can be harnessed utmost. In essence, the traditional
knowledge about this prized species reects many genera-
tions of experience and problem solving by the indigenous
communities [6].
Materials and methods
Relevant literature regarding Papra (Podophyllum hexan-
drum) was collected from classic book (Khazainul Advia)of
Unani medicine [1], from the Library of RRIUM, Srinagar
and information also retrieved from published papers on
various database like Web of Science, Google Scholar,
Researchgate, Springer, and PubMed.
Observation
Distribution
Podophyllum hexandrum Royle is believed to be originated
in Himalaya region; it is found in the interior range of
Himalaya at 2,5004,600 m (amsl) from Sikkim to Hazara
descending to 2,000 m (amsl) in Kashmir; distributed in the
west to Afghanistan and S.W. China [7, 8]. It is also found in
Arunachal Pradesh, Punjab, Uttaranchal, and Himachal
Pradesh [7, 9]. Generally, it is found in the vicinity of spe-
cies like Rhododendron, Salix, Viburnum and Juniperus but
it is also located in open alpine meadows [7].
Botanical description
Podophyllum hexandrum Royle [=Sinopodophyllum hexan-
drum (Royle) T.S.Ying; Podophyllum emodi Wall.exHook.f.&
Thomson] is an erect, glabrous, succulent, perennial herb
3560 cm tall with creeping, knotted rhizomes bearing
numerous roots; color yellowish brown to earthy brown;
roots easily broke off, brittle, odor slight but distinct, taste
bitter acrid and starchy; leaves 23 umbrella like, 1020 cm
long, rounded in outline and deeply cut into three ovate
lobes; stem approximately 3090 cm tall; owers white or
pale pink, borne at the ends of stout stem during May to
August. It has six petals and six stamens; fruit is berry which
is oblong,elliptic, 2.55.0 cm in diameter, green when unripe
and red on ripening and containing many seeds embedded
in the red pulp (Figure 1).
Cultivation and collection
Seeds sown with the pulp in June or July immediately after
collection, the seeds remain dormant for 910 months and
show germination in the following spring after the melting
of snow. The rhizome and roots of the plant are obtained
entirely from wild plants. The underground rhizomes
remain dormant during winter and produce aerial shoot in
April or May after melting of snow. Propagation by rhizome
cutting, 1.02.5 cm in length has also been reported [7]. The
plant prefers moist and shady localities. The owering
period commences in spring and fruiting period during
summer and senescence occurs during October-November
months. Rhizome which bear 35 aerial shoots are
considered suitable for collection. The rhizomes are
collected in spring or autumn, cleaned, dried in sun,
packed and stored in gunny bags; sometimes they are cut
into cylindrical pieces and carefully dried. Rhizomes which
are collected in May contain higher resin content than
those obtained in November. Freshly collected rhizomes
possess more amounts of active compounds which are lost
on prolonged storing [7].
Vernacular names
The plant is known by various names according to different
places and languages. Most commonly it is known as
Podophyllum and Mayapplebut also called Podophillum
and Papra in Unani Tibb; Bakrachimyaka, Bhavanbakra,
Papra, Papri in Hindi; Wunwagun, Banwangan, Bankakdi,
Bankakri in Kashmir; Lagu Petra in Nepali; Laghupatra in
Sanskrit; Bankakra, Gulkakru, Papri in Panjabi; Wenivel in
Gujrati; Padwel, Patvel in Marathi and Rhizoma Podiphylli
indici and P. emodi in Latin [1, 10, 11]. In Ayurveda, it is
known as Aindri, Bantrapushi or Giriparpat [12], and in
Ladakh it is known as Ol-mo-se which means the remedies
for women problems [13]. In some parts of Ladakh it is also
called Drenmookushu.
Uses in Unani System of Medicine
The rhizomes are used in Unani medicine for its mushil-i-
safra(cholagogue purgative), muharrik-i-kabid(hepatic
stimulant), da-i-tap (antipyretic), daf-i-suda-i-ghathayani
(headache occurs due to nausea) and muqi (emetic) prop-
erties etc. It has a long history being used as intestinal
2Kalam et al.: Podophyllum hexandrum as a valuable medicinal herb
purgative and in cases of Qabd muzmin(chronic con-
stipation) and Adati qabd(habitual constipation), and
also for constipation which occurs due to the involvement
of liver diseases [1]. The drug is also useful in Atashak
(syphilis), Khanazir(diseases of lymph glands), chest
pain etc. It is used as a salve for infection and necrotic
wounds [11].
Dosage
The therapeutic dose of roots is 510 grain; podophyllin,
1/4th 1 grain and tincture is used in a dose of 15 minum-1
uid dram [1]. (minum = 0.0616 mL; grain = 64.8 mg; uid
dram = 60 drops).
Adverse effect
If taken above the therapeutic dose, it causes spasmodic
pain, sloughing and excoriation in the stomach [1].
Correctives
Curd mixed with water, honey or sugar-based syrup, luab
behdana(mucilage of Cydonia oblonga Mill. seeds),
aspghol(Plantago ovata Forsk.) or ashjau(barley water)
is used to counter excessive purgation which occurs due to
the side effect of P. hexandrum.Ajwain Khurasani
(Hyoscyamus niger L.) and Qinnab(Cannabis sativa L.)
is added to manage the spasmodic action caused by
P. hexandrum [1].
Ethno-medicinal uses in Kashmir Himalaya
Since ages, through trial and error, local healer in Hima-
layan region have learned and are practicing the medicinal
use of plants growing in their close vicinity for treating
various ailments. Kashmir has its own medicinal system in
place practiced by local medicinemen called Hakims. The
ethno-medicinal uses of Podophyllum hexandrum in
Kashmir are as under:
Figure 1: Podophyllum heaxandrum
(a) Plant; (b) Unripe fruit; (c & d) Ripen fruits
and seeds; (e & f) Flowering stages.
Kalam et al.: Podophyllum hexandrum as a valuable medicinal herb 3
A. The crushed leaves and roots are applied to cure skin
diseases [14].
B. The fruit is claimed as a laxative and stops bilious
vomiting; it is eaten raw for chest congestion and
gastric problems [14, 15]; ripe fruit juice is taken in
stomach ulcers and dyspepsia [16].
C. Powder obtained from the dried root is administered
orally along with water to counter tumors [16]; a paste
made with root powder mixed with oil is used as a
remedy to skin diseases such as rashes and eczema
[16].
D. Resin is used in veterinary medicine as cathartic for
dogs [15].
E. Pericarp of mature red fruit is used to treat eye wounds
of cattle [17].
Ethno-medicinal uses in other regions of Himalaya
The rhizomes and resin of Podophyllum hexandrum are
used for its alterative, laxative, purgative and antineo-
plastic properties. Externally it is applied for removal of
condyloma, anogenital warts, veneral warts, verrucae and
similar conditions [18]. It is also useful against various
diseases like wilms tumours, genital tumors, molluscum
contagiosum, psoriasis vulgaris, non-Hodgkin lymphoma
and other lymphomas, cancer of brain, lung, bladder,
leukemia [19, 20]. In Ladakh and Tibetan System of Medi-
cine the rhizome is used against various gynecological
problems [13].
Bio-active compounds
The resin obtained from Podophyllum speciesiscalled
podophylloresin (a neurotoxin) which can be processed to
extract podophyllotoxin or podophyllin11.Therhizomesand
roots also contain antitumor lignans such as podophyllo-
toxin, 4-dimethyl podophyllotoxin and podophyllotoxin 4-O-
glucoside [21, 22]. Wani et al.,[23] reported that it contain
glycosides, avonoids, saponins, D-glycoside,terpenes and
proteins also. The highest percentage of resin is obtained in
the May-June during the owering stage [24]. Commonly it is
known for its valuable drug podophyllotoxin, which is used
as starting compound for the synthesis of anticancer drug
etoposide, etopophose and teniposide [25]. Indian podo-
phyllum has more than double amount of podophyllotoxin,
however; the active principal alpha and beta peltatins iso-
lated from P. peltatum, whichare absent in P. hexandrum [26].
Hexanedioic acid, Oleic acid, and Octadecanoic acid are the
other constituents of the rhizome [27]; Tannin was noticed in
the root of this plant by Wallis [28]. Chawla et al. [29], reported
that polyphenols and lignans were rich in P. hexandrum
rhizome. The lignin compounds of Podophyllin from
P. hexandrum are podophyllotoxin, podophyllotoxingluco-
side, picropodophyllin, 1-O glucopyranosyl-picropodophyllin,
4-glucoside, dihydropodophyllotoxin, 4-demethylpodo-
phyllotoxin glucoside, dihydropodophyllotoxin, podophyllol,
podophyllic acidand 4-dimethyl deoxypodophyllotoxin
glucoside [7]. In addition to these compounds, podophyllic
acid, podophylloquercin, starch, picropodophyllin, calcium
oxalate, kaempferol, astragalin, wax, mineral salts and an
essential oil also present which is responsible for its odor [7, 12].
Pharmacological studies
Antitumor activity
In the past few years podophyllin resin and its active
constituent podophyllin, have received significant atten-
tion for their tumor necrotizing properties. Scientific evi-
dence for antitumor activity of podophyllotoxin was first
reported by Kaplan in 1942 [30] and also for its signicant
anti-tumor effect at sub-toxic, well-tolerated, sequential
doses of aqueous extracts [31].
Antioxidant activity
The various extract of the rhizome, petiole and leaves of
Podophyllum hexndrum have been examined for antioxidant
activity in vitro and in vivo. The ethyl acetate extract of the
rhizome was investigated by using DPPH scavenging assay,
hydroxyl assay, H2O2 assay, superoxide assay, and reducing
power under in vitro conditions. For in vivo study albino rats
were used for antioxidant enzyme activities and glutathione
levels in the liver tissue homogenate. Both the method have
proven the effectiveness of the ethyl acetate extract
compared to known antioxidants BHT and α-tocopherol [32].
Antimicrobial activity
Methanolic and aqueous extract of Podophyllum hexan-
drum (60 mg/mL) were reported to have antimicrobial ef-
fect against the bacteria and fungi in vitro. Both the extract
inhibited Bacillus megaterium MTCC 1684 and Pseudo-
monas aeruginosa MTCC 3541 with zone of inhibition
ranging between 0.9 and 1.4 cm against disc diffusion
method; and inhibited the fungi Aspergillus avus and
Fusarium solani with zone of inhibition ranging between
0.9 and 1.8 cm [33]. In other study it is also reported to have
antibacterial effect against Staphylococcus aureus, Salmo-
nella typhi, Klebseilla pneumonia and Enterococcus faecalis
by Sabzar [34].
4Kalam et al.: Podophyllum hexandrum as a valuable medicinal herb
Antivirus activity
In vitro and In vivo studies showed that podophyllotoxin
and related lignans are active against viruses [35].
Anti-inflammatory effects
The anti-inflammatory potential of aqueous extract of
P. hexandrum rhizome has been evaluated on liposaccharide
(LPS) induced inammation in Balb/c mice [36].
Radio-protective effect
P. hexandrum is a promising candidate plant for develop-
ment of radio protective drugs. According to a study done
by Raj Kumar et al. (2008), the extract of P. hexandrum
administered prior to irradiation, has been shown to pro-
vide approximately 80% whole-body radioprotection in
mice [37].
Antifungal activity
Two aryltetralin lignans (4-O-demethyl-dehydropodophyllo-
toxin and picropodophyllon), isolated from leaves showed
strong antifungal activity against Allescheria boydii, Curvul-
laria lunata, Epidermophyton occosum, Microsporum canis,
Nigrospora oryzae, Pleurotus ostreatus [38].
Conclusions
Podophyllum hexandrum Royle has got importance in
various traditional systems of medicine because of its
extensive therapeutic potential. Realizing its highly value
medicinal importance as reported by various researchers;
the sustainable utilization of the prized plant species is
need of the hour. The documentation of medicinal impor-
tance of such plants is necessary for the discovery of new
drugs. Similarly, lesser-known plant species may also
prove useful in phyto-pharmacological research for the
discovery of new bioactive compounds and their applica-
tion to treat challenging diseases of the world.
Acknowledgments: The authors are thankful to Director
General CCRUM- New Delhi, Assistant Director/In-charge,
RRIUM Srinagar and Head, Department of Botany, Uni-
versity of Kashmir, Srinagar for providing the necessary
facilities.
Research funding: None declared.
Author contributions: All authors have accepted
responsibility for the entire content of this manuscript
and approved its submission.
Competing interests: The authors declare that there is no
conict of interest.
References
1. Ghani HN. Khazainul Advia. New Delhi: Idara Kitabus Shifa; 2011:
464 p.
2. Kaul MK. Medicinal plants of Kashmir and Ladakh. New Delhi:
Indus Publishing Company; 1997:1389 pp.
3. Chaurasia OP, Ballabh B, Tayade A, Kumar R, Kumar GP, Sing SB,
et al. An endangered and anti-cancerous medicinal plantan
overview. Indian J Tradit Knowl 2012;11:23441.
4. Qazi PH, Rashid A, Shawl AS. Podophyllum hexandrum-a
versatile medicinal plant. Int J Pharm Pharmaceut Sci 2011;3:
2618.
5. Anonymous. The wealth of India, raw materials. New Delhi: Council
of Scientic & Industrial Research; 2005, vol 8:1705 pp.
6. Malik AH, Khuroo AA, Dar GH, Khan ZS. Ethno medicinal uses of
some plants in the Kashmir Himalaya, India. Indian J Tradit Knowl
2011;10:3626.
7. Ali M. Text book of pharmacognosy, 2nd ed. New Delhi: CBS
Publishers Pvt. Ltd; 2012, vol 250:251 p.
8. Kirtikar KR, Basu BD. Indian medicinal plants, 2nd ed. New Delhi:
Periodical Expert Book Agency; 2012:1078 pp.
9. Chopra RN, Nayar SL, Chopra IC. Glossary of Indian medicinal
plants. New Delhi: Council of Scientic and Industrial Research;
1956.
10. Nadkarni KM. Indian Materia Medica, Revised and Enlarged by
Nadkarni AK. Mumbai: Popular Prakashan; 1954:9945 pp.
11. Kumar R, Bhagat N. Ethan medicinal plant of district Kathua
(Jammu & Kashmir). Int J Med Aromatic Plants 2012;2:60311.
12. Tazeen BI, Amjad SM. Ethnopharmacology, phytochemistry and
cytotoxicity of emerging biotechnological tool: may-apple
(Podophyllum hexandrum L.: Berberidaceae. J Coast Life Med
2015;3:6527.
13. Ballabh B, Chaurasia OP. Traditional medicinal plants of cold
desert Ladakh-used in treatment of cold, cough and fever.
J Ethanopharmacol 2007;112:3419.
14. Jeelani SM, Wani MP, Kumari S, Gupta RC, Siddique MA.
Ethnobotany of some polypetalous plants from the Kashmir
Himalaya. J Med Plants Res 2013;7:271421.
15. Anonymous. Podophyllum hexandrum Royle. Medicinal plants in
folklores of Kashmir Himalayas. New Delhi: Central Council for
Research in Unani Medicine; 2001:178 p.
16. Lone PA, Bhardwaj AK, Shah KW, Tabassum. Ethanobotanical
survey of some threatened medicinal plants of Kashmir Himalaya,
India. J Med Plants Res 2014;8:136273.
17. Dar MS, Khuroo AA, Malik AH, Dar GH. Ethno-veterinary uses of
some plants by Gujjar and Bakerwal community in Hirpora
Wildlife Sanctuary, Kashmir Himalaya. SKUAST J Res 2018;20:
1816.
18. Khare CP. Indian medicinal plantsan illustrated dictionary.
Berlin/Heidelberg: Springer Science Business Media; 2007,
vol 503:504 p.
Kalam et al.: Podophyllum hexandrum as a valuable medicinal herb 5
19. Blasko G, Cordell GA. Economic and medicinal plants research.
London: Academic Press; 1988, vol II:163 p.
20. Beutner KR, Krogh GV. Current status of podophyllotoxin for
treatment of genital warts. Semin Dermatol 1990;9:14852.
21. Tyler VE, Brady LR, Roberts JE. Pharmacology, 9th ed.
Philadelphia: Lea & Febiger; 1988.
22. Broomhead AJ, Dewick PM. Tumor inhibitory aryitralinlignansin
Podophyllum versipelle,Diphylleiacymosa and Diphylleagrayi.
Phytochemistry 1990;29:38317.
23. Wani SA, Ashfaq M, Shah KW, Singh D. Phytochemical screening
of methnolic extracts of Podophyllum hexandrum Royle and
Rheum emodi Wall. J Curr Chem Pharm Sci 2012;2:1258.
24. Archana G, Lakshmi NM. Production of podophyllotoxin from
Podophyllum hexandrum: a potential natural product for
clinically useful anticancer drugs. Cytotechnology 2000;34:
1726.
25. Farkya S, Bisaria VS, Srivastava AK. Biotechnological aspects of
the production of the anticancer drug podophyllotoxin. Appl
Microbiol Biotechnol 2004;65:50419.
26. Allevi P, Anastarin M, Claffrede P, Begati E, Macdonald P. Sterio
selective glucosidation of Podophyllum lignans-a new simple
synthesis of etoposide. J Org Chem 1993;58:41758.
27. Li W, Li MF, Yang DL, Xu R, Zhang YR. Production podophyllotoxin
by root culture of Podophyllum hexandrum Royle. Electron J Biol
2009;5:349.
28. Wallis TE. Text book of pharmacognosy, 5th ed. New Delhi: CBS
Publishing; 2005.
29. Chawla R, Arora R, Kumar R, Sharma A, Prasad J, Singh S, et al.
Antioxidant activity of fractionated extracts of rhizomes of
high-altitude Podophyllumhexandrum: role in radiation
protection. Mol Cell Biochem 2005;273:193208.
30. Ayres DC, Loike JD. Lignans. New York: Cambridge University
Press Cambridge, Sydney; 1990.
31. Stahelin HF, Von-Wartburg A. From the chemical and biological
route from podophyllotoxin glucoside to etoposide, ninth Cain
memorial award lecture. Canc Res 1991;51:515.
32. Ganie SA, Haq E, Hamid A, Qurishi Y, Mahmood Z, Zargar AB, et al.
Carbon tetrachloride induced kidney and lung tissue damages
and antioxidant activities of the aqueous rhizome extract of
Podophyllum hexandrum. BMC Compl Alternative Med 2011;11:
110.
33. Ahmad T, Salam MD. Antimicrobial activity of methanolic and
aqueous extracts of Rheum emodi and Podophyllum hexandrum.
Int J Pharmaceut Sci Rev Res 2015;30:1825.
34. Sabzar DA. Antibacterial activity of rhizome extracts from,
Podophyllum hexandrum Royle. JKKI 2017;1.
35. Charlton JL. Antiviral activity of lignans. J Nat Prod 1998;61:
144751.
36. Prakash H. Anti-inammatory effects of Podophyllum hexandrum
(RP-1) against lipopolysaccharides induced inammation in mice.
J Pharm Pharmaceut Sci 2005;8:10714.
37. Kumar R, Singh PK, Arora R, Raman C. Rakesh Kumar sharma
radioprotective activities of podophyllum hexandrum: current
knowledge of the molecular mechanisms. Trees for Life J 2008;
4:1.
38. Rahman A, Ashraf M, Chaudhuri MI, Rehman H, Kazmi MH.
Antifungal aryltetralin lignans from leaves of Podophyllum
hexandrum. Phytochemistry 1995;40:42731.
6Kalam et al.: Podophyllum hexandrum as a valuable medicinal herb
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Introduction: Cervical cancer (CC) ranks as the fourth most prevalent malignant tumor among women worldwide, and is the fourth leading cause of cancer-related mortality. GuiErBai (GEB), a compound preparation developed by our research team, is derived from the ancient Chinese medicine of the Miao nationality and is comprised of podophyllotoxin (PTOX), imperatorin, isoimperatorin, and A. dahurica alkaloids. These individual components have demonstrated notable efficacy in tumor treatment. However, the specific anti-tumor effect of the compound Chinese medicine GEB in the context of CC has yet to be validated. Methods: HeLa and SiHa cell lines were utilized for in vitro experiments and treated with 5 mg/mL and 10 mg/mL GEB concentrations, respectively. The cell cycle changes after GEB treatment were assessed using flow cytometry. Transmission electron microscopy was employed to observe autophagic bodies and apoptotic bodies, while MDC staining evaluated the occurrence of autophagy. CCK-8 was used to observe the effect of GEB on cell proliferation, and Transwell assays assessed cell migration and invasion. Western blotting detected cell cycle and apoptosis-related protein expression, along with the expression level of autophagy-related protein LC3I/II. Changes in ROS and mitochondrial membrane potential in cervical cancer cells following GEB treatment were determined using ROS detection and mitochondrial membrane potential detection kits. For the in vivo experiment, a nude mouse model of cervical cancer transplantation based on HeLa cells was established. Experimental animals were divided into negative control, positive control, high-dose GEB (10 mg/mL), and low-dose GEB (5 mg/mL) groups. Results: In HeLa and SiHa cell lines, the G0/G1 phase of tumor cells significantly decreased (p < 0.001), while the G2/M phase increased notably (p < 0.001) following various GEB treatments. Electron microscopy showed GEB promoted apoptotic body and autophagosome formation in both cell lines. Compared to untreated HeLa and SiHa cells, GEB-treated cells exhibited significantly reduced caspase3 protein expression, and substantially increased autophagy-related protein LC3I/II expression. GEB treatment significantly reduced migration and invasion capabilities in both cell lines (p < 0.001), while ROS content and mitochondrial membrane potential were significantly elevated (p < 0.001). GEB effectively inhibited cervical cancer cell proliferation, with the optimal concentration being 10 mg/mL. A successful nude mouse model of cervical cancer transplantation was established using HeLa cells. Post-GEB treatment, the tumor volume and weight in nude mice significantly decreased (p < 0.001), with diminished expression of CD34, VEGF, and caspase3 proteins in tumor tissues. Discussion: GEB exhibits a robust antitumor effect against cervical cancer, both in vitro and in vivo, in a concentration-dependent manner, by regulating autophagy and apoptosis of tumor cells.
... Many plant-based drugs are used in Western evidence-based medicine, often named allopathic medicine. Examples of valuable allopathic plant drugs are quinine isolated from the Cinchona bark used to treat malaria [9], morphine isolated from the latex of Papaver somniferum L. (opium poppy) used to relieve severe pain [10], artemisinin obtained from leaves of Artemisia annua (Asteraceae) used as an antimalarial drug [11], podophyllotoxin isolated from roots, and rhizomes of Podophyllum species applied for the removal of condyloma (genital warts) [12]. ...
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The present study documents the ethno-veterinary uses of plant species by the 'Gujjar' and 'Bakerwal' communities in the Hirpora Wildlife Sanctuary, Kashmir Himalaya. These tribal communities reside inside the Sanctuary during the summer season for livestock grazing. A total of 100 informants selected from representative age groups were interviewed to gather the data on ethno-veterinary uses. In total, 29 species belonging to 25 genera and 21 families have been documented with ethno-veterinary uses. These species include 23 herbs, 3 shrubs, 2 climbers and a single sub-shrub species. These plant species were used for 10 different types of livestock diseases, with majority (i.e.11 species) for alleviating digestive disorders. Different plant parts were used in ethno-veterinary practices, with majority as the aerial part. The documentation of valuable ethno-veterinary information, as carried out during the present study, can be useful for the bio-prospecting of potential plant species and subsequent commercial utilization with equitable benefit sharing among these tribal communities.
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Lignans are widely occurring plant compounds and are closely related to lignin, which forms the woody component of trees and other plants. The lignans are characterized by their dimeric composition from cinnamic acids, and they are attracting increasing attention as a result of their pharmacological properties. The volume surveys the chemical, biological and clinical properties of lignans as well as providing information on their isolation, purification, identification and chemical synthesis. The volume also explores fully the potential use of these compounds as antiviral and antitumour agents, and thus provides a wide-ranging survey of their pharmacology and chemistry. The text is fully documented and referenced and provides the only up-to-date compilation on this subject. The volume is suitable for research scientists in the fields of organic chemistry, biochemistry, oncology, pharmacology, toxicology and botany.
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