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A review on therapeutic potential and phytochemistry of Tephrosia purpurea

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  • Indian Institute of Wheat and Barley Research
  • Gujarat Ambuja Export Limited

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Tephrosia purpurea is a wild herb belongs to the family fabaceae and commonly known as sharpunkha. It is distributed among India, Australia, China, Sri Lanka up to 400 m to 1300 m altitude. It occurs naturally in the waste places along the road sides and it prefers to grow in dry, gravelly or rocky and sandy soil. It is being used as folk medicine because of its several properties such as anticancer, antipyretic, antidiabetic, antiviral etc. Pharmacologically it is one of the most important herb because of its chemical constituents and various applications.
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Review Article
Bulletin of Pure and Applied Sciences.
Vol.36 B (Botany), No.2. Jul-Dec 2017: P.91-104
Print version ISSN 0970 4612
Online version ISSN 2320 3196
DOI 10.5958/2320-3196.2017.00013.1
A REVIEW ON THERAPEUTIC POTENTIAL AND
PHYTOCHEMISTRY OF TEPHROSIA PURPUREA
Neelesh Babu1*, Ajeet Singh1, Ramveer Singh1, Navneet1
Author’s Affiliation
1Department of Botany and Microbiology,
Gurukul Kangri University, Haridwar -
249404, Uttarakhand, India.
*Corresponding Author:
Neelesh Babu
Department of Botany and Microbiology,
Gurukul Kangri University,
Haridwar -249404
Uttarakhand, India.
Email:
sonkarneil@gmail.com
Received on 21.10.2017,
Accepted on 29.12.2017
INTRODUCTION
The plants are employed in large scale as a medicine to treat several kinds of diseases for the
human welfare from long time. Tephrosia purpurea belongs to family fabaceae and used
traditionally as a folk medicine. According to Ayurveda it is called as “Sarwa wran vishapah”
which means the ability to cure all kinds of wounds (Deshpandey et al., 2003). It is being used
as folk medicine because of its several properties such as anticancer, antipyretic, antidiabetic,
antiviral, anti-inflammatory etc. It is one of the most effective folk medicine for the treatment
of inflammation as well as enlargement of liver and spleen. Due to this property it is also
known as plihari or plihasathru where plihari denotes spleen (Shivrajan and Balachandran
1993). This plant has also been used for the treatment of several gastrointestinal disorders and
has ability to cure disorders related to bowel, kidney, liver and spleen (Zafar et al., 2004;
Rahman et al., 1985). It is widely distributed among India, Australia, China, and Sri Lanka up
to 400 m to 1300 m altitude. It occurs naturally in the waste places along the road sides and it
prefers to grow in dry, gravelly or rocky and sandy soil (Orwa et al., 2009). This plant has a
number of chemical compounds which are medically important. These compounds include
Tephrosia purpurea is a wild herb belongs to the family fabaceae and commonly known
as sharpunkha. It is distributed among India, Australia, China, Sri Lanka up to 400 m
to 1300 m altitude. It occurs naturally in the waste places along the road sides and it
prefers to grow in dry, gravelly or rocky and sandy soil. It is being used as folk
medicine because of its several properties such as anticancer, antipyretic, antidiabetic,
antiviral etc. Pharmacologically it is one of the most important herb because of its
chemical constituents and various applications.
Keywords: Tephrosia purpurea, Phytochemistry, Wound healing, Antimicrobial,
Antioxidant.
Neelesh Babu et. al. / A Review on Therapeutic Potential and Phytochemistry of Tephrosia
Purpurea
~ 92 ~
tephrosin, isotephrosin, rotenone, tannins, purpurin, phytosterols etc. are present in different
parts of plant.
Taxonomy
Kingdom - Plantae
Subkingdom - Tracheobionta
Division - Magnoliophyta
Class - Magnoliopsida
Subclass - Rosidae
Order - Fabales
Family - Fabaceae
Genus - Tephrosia
Species – purpurea
Vernacular names
Sanskrit - Sharpunkha
Hindi - Sarponkh
Rajasthani - Masa
Gujrati - Unhali
Urdu -Satawar
English - Wilde indigo, Fish poison
French - Indigo sauvage
Hawaiian - Auhuhu
Botanical description
T. purpurea is an annual or short lived, spreading or erect herb about 40 cm to 80 cm tall,
rarely exceeding 1.5 m in length. Stem of this plant is slender, erect and decumbent at base.
Leaves are imparipinnate having narrowly triangular stipules with size 1.5 - 09mm x 0.1 - 1.5
mm. Its rachis are up to 14.5 cm in length with petiole of 1 cm. Petiolule are 1 - 3 mm long
having 5 - 25 leaflets which are obovate to narrowly elliptical. The terminal leaflet is of 7 - 28
mm x 2 -11mm in size where as lateral leaflets are having size of 5 - 30 mm x 2 -11 mm which
are acute at base and has rounded to emarginated apex. Venation of leaves is distinct on both
the sides. Its inflorescence is an axillary or leaf opposed pseudo- raceme with length (1.5-) 10-
15(-25) cm long sometimes having basal leaf like bracts. Flowers of this plant are in fascicles
of 4 - 6 with 2-6 mm long pedicle. Length of flower is 4-8.5 mm long having colour purplish
to white. It has campanulate persistent calyx having cup size of 1.4-2.3 mm x 1.5-3.2 mm
which is unequally 4-toothed inside pubescent teeth, standard broadly ovate, 3.5-7.3 mm x 5-
10 mm, clawed; wings 2.5-6 mm x 1.5-3.8 mm, auricled on vexillary side, clawed; keel 2.2- 4.5
mm x 2-3 mm, auricled on vexillary side, clawed; stamens 10, staminal tube 4-6 mm long,
filaments alternately longer and shorter, free part up to 3.5 mm long, vexillary filament free at
base, connate halfway, 5-8 mm long; style up to 4.5 mm long, upper half glabrous, stigma
penicillate at base. T. purpurea having linear, flat pod of size up to 2 - 4.5 cm x 3 -5 mm with
up curved ending which is convex around the seed, flattened between, thickened margins
and dehiscent with twisted valves having 2 -8 seeds. Seeds of T. purpurea are dark brown to
black coloured, rectangular to transversely ellipsoid with size of 2.5mm x 1.8 mm (Orwa et.
al., 2009).
Folk uses
As in Ayurveda system it is called as “Sarwa wran vishapah” which reveals that it has the
ability to heal any type of wound (Deshpandey et al., 2003). It is being used as a home remedy
for healing wounds. Several ethno botanical articles revealed this plant as a folk medicine and
is being used for the treatment of cuts and wounds in broad spectrum. It is one of the
effective folk medicine for the treatment of inflammation as well as enlargement of liver and
spleen. Because of this property it is also known as plihari or plihasathru where plihari
denotes spleen (Shivrajan and Balachandran, 1993). This plant has also been used for the
treatment of several gastrointestinal disorders and has ability to cure disorder related to
Bulletin of Pure and Applied Sciences/ Vol.36-B –Botany (No.2)/ July-December 2017
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bowel, kidney liver spleen (Zafar et al., 2004; Rahman et al., 1985). Its dried parts can be used
effectively for the treatment of boils, bleeding piles, bronchitis etc. It also has diuretic
property (Ashokkumar et al., 2012). Its roots decoction is useful in enlargement and damage
of liver. It can be used as mouthwash and very helpful against gingivitis (Bhavamisra, 1949).
Its roots are able to cure several skin disorders, can be used in elephantiasis, flatulence,
asthma, anemia, chronic fever. Moreover, roots and seeds of this herb can be used as
insecticide as well as pesticide. Its roots being used as herbal fish poison by many hunters in
Gunia. Its seeds oil has anthelmintic properties and also used in scabies and leucoderma.
Leaves of this herb can be used in syphilis, gonorrhea, pectoral diseases etc. (Singh et al., 2002)
PHYTOCHEMISTRY
T. purpurea has been studied for its chemical constituents and pharmacological activities.
Phytochemicals isolated from T. purpurea includes flavonoids, estres, neoflavonoids, sterols,
acids etc. (Table 1).
Roots:
Roots of this plant contains several important phytochemicals such as tephrosin, deguelin,
isotephrosin, rotenone, tannins, purpurin sterols, glycosides which has been frequently used
for the treatment of wounds, boils, pimples, liver and spleen diseases, useful for the treatment
of asthma, chronic diarrhoea, helpful in enrichment of blood (Akansha et al., 2014).
Seeds:
Seeds contain tephrosin, deguelin, quercetin which is helpful for the treatment of poisoning
due to bite of rat (Akansha et al., 2014).
Leaves:
Similar to roots and seed leaves are also have several important phytochemicals which are
useful. Leaves contain osyritin, glycosides, rutin, rotenone, tephrosin, pongamol, semiglabrin.
These are useful for the treatment of lungs diseases, piles, syphilis, and gonorrhea. These are
also helpful for improvement of appetite (Akansha et al., 2014).
Whole plant:
As listed above this plant contains the number of phytochemicals which are having several
ethnopharmacological applications. This plant as a whole has lots of applications. It is
anthelmintic, purifies blood, useful for the treatment of heart, liver and spleen diseases,
useful for the treatment of leprosy, bronchitis, ulcers (Akansha et al., 2014).
PHARMACOLOGICAL ACTIVITIES
T. purpurea has several pharmacological activities which are given below:
Antioxidant activity
Due to presence of several biologically active compounds T. purpurea has great antioxidant
activity. Ethanolic extract of this plant showed potential against lipid peroxidative effect as
well as enhanced antioxidant potential in DMBA (7,12-dimethyl benz(a)anthracene) painted
animals (Kavitha et al., 2006). Leaves of T. purpurea has antioxidant potential. Its ethanolic
extract and ethyl acetate extract were studied for CCl4 (Carbon tetrachloride) induced lipid
and superoxide generation among which ethyl acetate has improved antioxidant activity
(Palbad et al., 2014). Roots extract of T. purpurea showed free radical scavenging activity with
oxidative stress and xanthine oxidase activity (Nile et al., 2011). The aqueous extract of whole
plant has potential of free radical scavenging activity in DPPH free radical assay (De Smet,
1998).
Neelesh Babu et. al. / A Review on Therapeutic Potential and Phytochemistry of Tephrosia
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Table 1: Chemical constituents of T. purpurea
S.
No.
Name of the compound and class References
Flavones
1 Tephroglabrin Pelter et al., 1981
2 Tepurindiol Pelter et al., 1981
3 Apolline Khalafalah et al.,2010
4 Terpurin flavones Juma et al., 2011
5 Isoglabratephrin Hegazy et al., 2009
6 Tephropurpurin A Hegazy et al., 2009
Flavans
7 (+)- tephrosin A Chang et al., 2000
8 (+)- tephrosin B Chang et al., 2000
9 7,4'-dihydroxy-3',5'-dimethoxy isoflavone chang et al., 1997
10 O-methyl pongamol Pelter et al., 1981
11 (+)-tephrosone Chang et al., 2000
12 (+)-tephropurpurin chang et al., 1997
Chalcones
13 Purpuritenin Sinha et al., 1982
14 6'-demethoxypraecansone B Rao and Raju., 1984
Other Flavonoids
15 Purpureamethied Sinha et al., 1982
16 quercetin-3-O-rhamnoglucoside Pandey et al., 2015
17 Rotenone Akansha et al., 2014
18 Deguelin Akansha et al., 2014
Sesquiterpenes
19 Linkitriol Khalafalah et al., 2010
Neoflavonoids glycoside
20 serratin 7-O--D-glucopyranosyl-(1→4)-O-
β-D-galoctopyranoside Saxena and Choubey., 1997
Sterol
21 β-sitosterol Chang et al., 1997;
Parmar et al., 1989
22 spinasterol-α Chang et al., 1997;
Parmar et al., 1989
Acid
23 Ursolic acid Chang et al., 1997;
Parmar et al., 1989
Bulletin of Pure and Applied Sciences/ Vol.36-B –Botany (No.2)/ July-December 2017
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Figure1: Some important phytochemicals of Tephrosia purpurea
Purpurin Tephrosin
Rotenone Quercetin
Deguelin β- Sitosterol
Neelesh Babu et. al. / A Review on Therapeutic Potential and Phytochemistry of Tephrosia
Purpurea
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Figure 2: Tephrosia purpurea.
Antimicrobial activity
Screening of antibacterial activity of T. purpurea ethanolic root extract showed considerable
inhibition of three Pseudomonas isolates i.e. P. aeruginosa [NCTC 10662] Pseudomonas strain 1,
Pseudomonas strain 2 and two E. coli strains i.e. E. coli strain 6 and E. coli strain 9 (Rangama et
al., 2009). In another study methanolic extract of roots of T. purpurea inhibit the growth of
gram positive (S. aureus, M. luteus and B. subtilis) as well as gram negative bacteria (P.
aeruginosa and S. typhimurium) (Soni et al., 2006). Antimicrobial activity of ethanolic and
methanolic extract of T. purpurea was tested against several gram positive, gram negative and
fungal species. Both of the extracts gives moderate antimicrobial activity, antimicrobial
activity increases with increase in the concentration of the extract from 25 to 100 mg/ml.
Methanol extract at the concentration of 100 mg/ml showed highest activity followed by
ethanol (Laishram et al., 2013). Alcoholic extract of aerial parts of T. purpurea showed activity
against E. coli, Serratia marcesens and S. epidermidis (Nivedithadevi et al., 2012). Pelter et al.,
(2006) reported that gram positive bacteria are more susceptible to extract in comparison with
gram negative. According to Kumar et al., (2007) this plant has potential antimicrobial
property against the bacteria which induces acne. Singh et al., (2002) reported that T. purpurea
has antimicrobial property due to presence of flavonoids. Chinniah et al., (2009) reported T.
purpurea as anti Helicobacter pylori agent. They found that methanolic extract of T. purpurea
has more potential than aqueous extract of T. purpurea. Among different fractions of
methanolic extract TPME- Fr-H and TPME- Fr-C were found active against metronidazole
resistance as well as sensitive strains.
Wound healing potential
Akkol et al., (2009) reported that T. purpurea has potential of prohealing and able to improve
collagen maturation by cross linking. Its antioxidants help to prevent the damage caused by
free radicals by quenching superoxide radicals. Lodhi et al., (2006) also reported that ethanolic
extract of T. purpurea have effective wound healing capacity because of increased fibroblast
and collagen fibers promoting angiogenesis in wound. Ethanolic extract of this plant
potentially stimulate wound contraction by increasing tensile strength (Akkol et al., 2009).
Antidiabetic properties
Vijayakumar et al., (2014) reported that hydroalcoholic extract of T. purpurea leaf powder
significantly decrease the level of glucose in hyperglycemic animals. The aqueous extract of
leaves of this plant is capable of controlling diabetes mellitus similar to that of glibenclamide
in streptozotocin induced diabetic rats. Similarly oral dose of ethanolic seeds extract of this
Bulletin of Pure and Applied Sciences/ Vol.36-B –Botany (No.2)/ July-December 2017
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plant significantly showed antihyperglycemic as well as antilipid peroxidative effects (Gupta
et al., 2008). Seed extract of T. purpurea resulted in increasing hexokinase and decreasing
glucose – 6 – phosphatase activity in diabetic rats (Amor et al., 2008).
Anticarcinogenic activity
Leaf extracts of T. purpurea in different solvents have good cytotoxic activity against MCF-7
human breast cancer cell line because of its flavonoids and phenolic compounds (Gulecha
and Shivakumar 2011). Gnanarajan and Prakash, (2014) reported that methanolic extract of
this plant showed great potential against n,n-diethylnitrosamine induced hepatocellular
carcinoma in swiss albino. Kavita and Manoharan, (2012) found that ethanolic root extract of
T. purpurea has potent chemopreventive efficacy and anti lipid peroxidative effect in DBMA
induced oral carcinogens. According to Muralidhar et al., (2014) aqueous and ethanolic
extracts of roots of this plant showed potential anticancer activit against Ehrlich ascites
carcinoma cells in swiss albino mice. Ethanolic extract of T. purpurea able to reduce TBARS
(Thiobarbituric acid reactive substances) level and also enhances the antioxidants status in the
circulation of 1, 2 - dimethylbenz -(a)- anthracenes painted hamsters (Duraipandiyan and
Ignacimuthu, 2007).
Antiinflammatory activity
Ethanolic extract of whole plant (roots as well as aerial parts) gives dose related inhibition of
both acute as well as chronic phase inflammation (Khatri et al., 2009). Oral administration of
ethanolic extract of T. purpurea shows significant anti inflammatory effect in subcutaneous
inflammation (Smita et al., 2010). Anbarsi and Vidya, (2015) reported that anti inflammatory
activity of T. purpurea seeds extract is due to presence of several bioactive compounds such as
flavonoids and triterpenoids. Ethanolic root extract of T. purpurea at dose of 200 and 400
mg/kg have significant effect in the management of inflammation and pain. It reduces the
carrageenan induced paw edema volume in rats (Batini et al., 2012). Gangwar and Ghosh
(2016) reported that administration of 40 mg/ kg methanolic extract of T. purpurea stem
showed effective inhibition in edema volume in carrageenan induced model because of high
concentration of compound which inhibits prostaglandin synthesis.
Antileishmanial activity
N - butanol extract of T. purpurea showed antileishmanial activity against Leishmania donovani
infection in hamster at the rate of 50 mg/kg for 5 days through oral route results were further
confirmed in Indian Langoor monkeys (Presbytis entellus) (Sharma et al., 2003). Byadgi, (2011)
reported that among fractions of n-Hexane and n-butanol, n-butanol showed 80.72%
inhibition at 50 mg/ kg p.o. X 5 dose as compared to sodium stibogluconate which gives 95%
to 99% inhibition.
Immunomodulatory activity
The flavonoid fraction from aerial parts of T. purpurea (FFTP) was studied by Damre et al.,
(2003) for its effect on humoral and cellular functions and on macrophage phagocytosis in
mice at the rate of 10 - 40 mg/kg. It potentially inhibited sheep red blood cells (SRBC) -
induced delayed type hypersensitivity reaction when given by oral route. It also decreased
erythrocytes specific haemagglutinin antibody titre in sheep. Although, it failed to show any
change in macrophage phagocytic activity. Vinay et al., (2010) reported that methanolic
extract of aerial parts of T. purpurea showed significant immunomodulatory effect which was
evaluated by carbon clearance and WBC count method in the group of animals.
Neelesh Babu et. al. / A Review on Therapeutic Potential and Phytochemistry of Tephrosia
Purpurea
~ 98 ~
Antiulcer activity
Deshpandey et al., (2003) studied the effect of extract of T. purpurea on different types of
ulcers. They found significant results in all the tests which were performed by them. Aqueous
extract of T. purpurea significantly affects ethanol induced gastric ulcers at the dose of 1- 20
mg/kg. Whereas 10 and 20mg/kg give appropriate result on 0.6 M HCl induced gastric
ulcers. On indomethacin induced gastric ulcer they required only 5-20 mg/kg. Similarly on
cysteamine – induced duodenal ulcer 5- 20mg/kg is sufficient. For the pylorus ligands rats 5-
10 mg/kg dose is beneficial for the significant reduction in gastric ulcer and total acid output
as compared to control group.
Spasmolytic activity
Soni et al., (2004) performed the experiment for spasmolytic activity from leaves on isolated
tracheal tissue of guinea pig. The effect of alcoholic and water extract of T. purpurea was dose
dependent and the action was prolonged with increase in dose. Similarly, Janbaz et al., (2013)
also tested spasmolytic effect of crude methanolic extract of whole plant of T. purpurea on
isolated jejunum of rabbit for possible presence of spasmogenic and/or spasmolytic activity.
The extract exhibited inhibitory effect on spontaneous contractions of isolated rabbit’s
jejunum preparations and was dose dependent.
Diuretic activity
Ashokkumar et al., (2012) studied the diuretic effect of T. purpurea on male albino rats
weighing 150 – 180 g and divided them into five different groups. Group I was served as
control and was fed with normal saline. On other hand group II and III received osmotic
diuretic urea (1 g/kg b.w.), high – ceiling diuretic and furosemide. Whereas group IV and V
received the different concentration of METP (methanol extract of T. purpurea) (200 mg/kg
and 400 mg / kg b.w.). All the test animals were placed at room temperature 25̊ ± 0.5̊ C
without food and water for 24 hours. After 24 hours urine sample was collected and analyzed
by flame photometer. They found that T. purpurea significantly increased the flow rate of
urine, electrolyte excretion and maintains the pH as compared to control and similar drugs.
SEASONAL VARIATION
Pandey et al., (2015) found that T. purpurea showed huge variation in the phytochemicals of
the plant material collected in different seasons due to seasonal impact. They reported that
total phenolic content as well as total flavonoid content of the plant were high in 95%
ethanolic extract of the material collected in August contrary lowest in 50% hydroethanolic
extract of plant material collected in December. They also found that most abundant
flavonoid glycoside was quercetin-3-O-rhamnoglucoside in all the seasons. T. purpurea
collected in summer (April), rainy (August) and winter (December) seasons were quite
similar; however they showed marked differences in the quantitative content of the 3 major
glycoside flavonoid quercetin-3-Orhamnoglucoside, biochanin A-7-Orhamnoglucoside and
kaempferol-3-O-rhamnoglucoside. Total concentration of all three flavonoid glycosides were
maximum in the 95% ethanolic extract of rainy (August) sample, followed by the 95%
ethanolic extract of summer (April) sample and least in 50% hydro-alcoholic extract of winter
(December).
Bulletin of Pure and Applied Sciences/ Vol.36-B –Botany (No.2)/ July-December 2017
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Table 2: Summarized pharamacological activity of T. purpurea.
S. No.
Pharmacological activity
Part used
References
1
Antiulcer activity
Roots
Deshpande
et al.,
2003
2
Anticarcinigenic activity
Roots
Kavitha
et al.,
2006
3
Antimicrobial
Roots
Kumar
et al.,
2007
4
Antiinflammatory
Roots
Gopalakrishnan
etal.,
2010
5
Antioxidant
Roots, Leaves
,
Seeds
Shah
et al.,
2010;
Patel et al., 2010;
Soni et al., 2006
6
Ameliorates carbon tetra chloride
induced hepatic
injury
Roots
Sangeetha
et al.,
2010
7
CNS depressant and analgesic
activity
Roots
Valli
et al.,
2011
8
Ameliorates benzoyl peroxide
induced cutaneous
Toxicity
Leaves
Saleem
et al.,
1999
9
Alleviates phorbol ester induced
tumour
promotion
Leaves
Saleem
et al.,
2001
10
Spasmolytic activity
Leaves
Soni
et al.,
2004
11
Anti hyperglycemic and anti lipid
peroxidative activity
Leaves
Pavana
et al.,
2007
12
Anti Pyretic
Leaves
Kumar
et al.,
2011
13
Anti hyperlipidemic activity
Leaves
Mustak
et al.,
2012
14
Anthelminticactivity
Leaves
Manjula
et al.,
2013
15
Ameliorates diethylnitrosamie and
pot.bromate
mediated renal oxidative stress
Whole plant
Khan
et al.,
2001
16
Anti leishminal activity
Whole plant
Sharma
et al.,
2003
17
Anti epileptic activity
Whole
plant
Asuntha
et al.,
2010
18
Anti carcinogenic and
anti hypercholesterolemic
Whole plant
Kishore
et al.,
2011
19
Anxiolytic activity
Whole plant
Kumar
et al.,
2011
20
Diuretic activity
Whole plant
Kumar
et al.,
2012
21
Anti diarrheal
Whole plant
Janbaz
et al.,
2013
22
Hepato protective activity
Aerial part
Khatria
et al.,
2009
23
Anti cholestic activity
Aerial part
Mitra
et al.,
1999
24
Inhibition of mast cell degranulation
and haemolysis
Aerial part
Gokhale
et al.,
2000
25
Immunomodulatory
activity
Aerial part
Damre
et al.,
2003
26
Anti asthmatic activity
Aerial part
Lallubhai
et al.,
2011
27
Wound healing activity
Aerial part
Chaudhari
et al.,
2012
28
Antitumor activity
Seeds
Saleem
et al.,
2001
29
Anti hyperglycemic and anti oxidant
activity
Seeds
Pavana
et al.,
2009
30
Antiviral activity
Flowers
Parmar
et al.,
2010
Neelesh Babu et. al. / A Review on Therapeutic Potential and Phytochemistry of Tephrosia
Purpurea
~ 100 ~
BIOGENIC SYNTHESIS OF NANOPARTICLES
Metal nanoparticles are extensively exploited because of their unique physical properties,
chemical reactivity and potential applications in various research areas such as antibacterial,
antiviral, diagnostics, anticancer and targeted drug delivery (Bhumkar et al., 2007; Jain et al.,
2009). Biogenic synthesized nanoparticle in which biological material such as plants, fungi,
bacteria are more frequently used. In this scenario green synthesis of metal nanoparticles by
T. purpurea are also reported. Ajitha et al., (2014) reported that green synthesized silver
nanoparticles by extract of T. purpurea showed potential antimicrobial activity towards
Pseudomonas spp. and Penicillium spp. compared to other test pathogens using standard
Kirby–Bauer disc diffusion assay. In another study gold nanoparticles was synthesized by
using leaf extract of T. purpurea which was rapid synthesis. Within few hrs gold ion makes
contact with the leaf extract of T. purpurea and reduces AUCL4 in to fine gold nanoparticles.
These nanoparticles potentially inhibit the growth of test organisms which were Escherichia
coli, E. faecalis, S. aureus and K. pneumoniae. The gold nanoparticle conjugated with the
Tetracycline antibiotics shows the high zone of inhibition in all the test organisms (Jisha et al.,
2012).
TOXICITY
Hussain et al., (2012) performed acute toxicity test in swiss albino mice at the oral dose of 50,
300, and 2000 mg/kg and their behavioral changes and mortality was observed. For
subcutaneous toxicity they took Wistar rats of either sex which were administrated with two
doses 200 and 400 mg/kg and were observed for 28 days. They found that T. purpurea was
well tolerated up to dose of 2000 mg/kg.
CONCLUSION
Main motto of this paper is to explore and provide information about the importance, recent
advances and its therapeutic potential. As much as possible most of the information is
provided over here. Due to its amazing chemical constituents it has several therapeutic as
well as clinical applications such as antimicrobial, wound healing, antioxidant, anticancer etc.
Biologically synthesized metal nanoparticles also drew attention towards them because of
their cost effectiveness and therapeutic properties. Therefore T. purpurea is the plant of choice
for future as its name given in Ayurveda ‘’Sarwa wran vishapah’’.
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Tephrosia purpurea leaf extract and their inborn antimicrobial activity. Spectrochimica
Acta Part A: Molecular and Biomolecular Spectroscopy, 121, 164-172.
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5. Amor, B. B., Lamy, C., Andre, P., & Allaf, K. (2008). Effect of instant controlled pressure
drop treatments on the oligosaccharides extractability and microstructure of Tephrosia
purpurea seeds. Journal of Chromatography A, 1213(2), 118-124.
6. Anbarasi, A., & Vidhya, R. (2015). Evaluation of In Vitro Anti-Inflammatory Activity of
Tephrosia purpurea (Seed). Asian Journal of Pharmaceutical Research, 5(2), 83-89.
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Supplementary resource (1)

... The reduction method was used to prepare the Ag Nanoparticles suggested by Wen et al. [26]. ...
... The synthesized nanoparticles were purified by centrifugation at 15000rpm for 20 minutes and redispersed in deionized water. It was left for drying and dried powder was used for different analysis [26]. ...
... It was slightly gelly like which was vacuum filtered; the filtrate was dried and washed with distilled water uptil it was neutralized. It was dried in oven on upto 70 o C [26,27]. ...
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The research is focused on screening various bioactive extracts from Tephrosia purpurea plant leaf for the onward synthesis of nanomaterial and formation of Grephene-Ag nanocomposite for their biological applications. The aerial parts of this plant are comprised of primary and secondary metabolites. Its latex contains many important compounds such as Phenolics, Flavonides, and Terpenes, etc. Tephrosia purpurea is used as a traditional medicine to cure different problems of the digestive and respiratory tract. The aerial parts of this plant show immense antifungal and antimicrobial pursuits. Silver nanoparticles were synthesized from methanol extract of aerial parts of the Tephrosia Purpurea. These nanoparticles were reacted with lab synthesized Graphene to form Plant-Silver-Graphene nanocomposites. The characterization of plant extract, extract-mediated Ag-nanoparticles, and graphene-metal nanocomposites was carried out by different techniques like FTIR, UV, EDX & SEM. FTIR & UV spectra peaks were found in the ranges already reported. EDX analysis shows the percentage of the elements matching the reported data. SEM shows similar ranges of nanoparticle sizes as found in the research papers. Moreover, anticancer activities of plant-Ag-graphene nanocomposites were done & comparison was made with parent materials. The results were remarkable as plant-Ag-graphene nanocomposites showed better anticancer activities than the nanoparticles and plant extract.
... It also occurs in wastelands along the roadsides. It prefers to grow in dry, gravelly or rocky and sandy soil (Babu, Singh, & Singh, 2017). A large number of Tephrosia species along with T. purpurea (L.) Pers. ...
... Pods extract has been reported to have analgesic and antiinflammatory potential, while their decoction being usefull in vomiting (Gokhale, Dikshit, Damre, Kulkarni, & Saraf, 2000). Roots are able to cure various skin disorders, elephantiasis, and flatulence (Babu et al., 2017); root juice is used in treating skin eruptions (Palbag et al., 2014), and root powder is used for brushing teeth and curing various dental problems like Gingivitis (Dalwadi et al., 2014). Inhalation of T. purpurea smoke has been documented as an excellent remedy for curing cough and cold. ...
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... purpurea) extracts of chloroform observed the highest inhibitory activity. Chapter -6 The MIC values for 6, 7 rows were < 1 μg whereas 1, 2, 3,4,5,9,10,12,13,14,15,17,18 rows were < 128 μg. The 8 th , 11 th and 16 th were 32 μg, 8 μg and 16 μg respectively for phenol red. ...
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Tomato (Lycopersicum esculentum) is one of the most important vegetables used both in raw salad and cooking belongs to the family of Solanaceae. Tomato is rich in nutrients and contains high water content that leads to spoilage by the action of various microorganisms, especially bacteria and Fungi. Spoilage of Tomatoes refers to adverse changes in the quality of tomatoes by the action of biological and physical factors leading to the changes in taste, smell, and texture of the fruits. Tephrosia purpurea which is a common wasteland weed and grows in poor soils. Tephrosia purpurea is a species of flowering plant in the pea family, Fabaceae, widespread in the Indian sub-continent. Our research is to explore the antimicrobial properties of Tephrosia purpurea Stem, Leaf, Seed and flowers against tomato spoilage bacteria. The polar and non-polar solvent of the plant extracts in the Aqueous, Chloroform and Ethyl acetate were also analyzed for the antibacterial activities against the pathogens Bacillus subtilis, Klebsiella pneumoniae and Pseudomonas aeruginosa by Disc diffusion method and
... Modern pharmacological studies have shown that the plant has wound healing, antileishmanial, anticarcinogenic, antimicrobial, antioxidant, hepatoprotective, antifertility, antispermatogenic, anti-diarrheal, diuretic, and insecticidal properties. Acetylcholinesterase inhibitory action reported from this plant aids its utilization for the development of drugs for Alzheimer's and dementia neurological disorders (Alam, 2004;Kumar et al., 2012;Bathini et al., 2012;Arriaga et al., 2014;Anbarasi and Vidhya, 2015;Arjun et al., 2016;Babu et al., 2017;Rao et al., 2020). Tephrosia purpurea is commonly known as Bano Kuthi. ...
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... The increased number of bacteria with drug resistance creates a global problem for people. This scenario is so crucial that medicines become ineffective and pan-resistant bacteria spread enormously [2][3][4]. As bacterial species that are becoming resistant to different antibiotics increased the health care cost. ...
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AgNPs are employed in several applications, and we used Ipomoea carnea aqueous leaves extract to enhance the metal nanoparticle synthesis process. This study suggested that aqueous extract from I. carnea leaves can reduce silver nitrate (AgNO3) and act as a stabilizing and capping agent. The specific Plasmon resonance (SPR) was found between 390-410 nm in a UV–Vis spectrophotometer. “Field Emission Scanning Electron Microscope (FE-SEM)” and “X-ray diffraction (XRD)” analysis confirm the size between 11.21 nm to 46.90 nm with spherical face-center-cubic (FCC) crystals. Additionally, the antibacterial activity of synthesized AgNPs was also evaluated against four standard bacterial pathogens i.e. Klebsiella pneumoniae (MTCC 432), Staphylococcus aureus (MTCC 1144), Streptococcus pneumoniae (MTCC 655), and Pseudomonas aeruginosa (MTCC 2474) and Brine shrimp lethality assay (BSLA) was used to check the toxicity. Synthesized AgNPs were found significantly effective against all MTCC strains with a 1359.03 ng/mL LC50 value.
... Whole plant is utilized as laxative, dried part has diuretic properties whereas roots and seeds are utilized as vermifuge, insecticidal and skin eruption. For the treatment of vomiting its decoction is utilized and its pods extract effectively utilized during inflammation and pain (Deshpande et al., 2003;Babu et al., 2017). ...
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Medicinal plants have been necessary to conventional and non-customary types of prescriptions dating back to somewhere around 5000 years ago. Researchers progressively depend on current logical techniques and proof-based medication to demonstrate the viability of herbal medicines and spotlight on a better comprehension of the systems of their activity. Notwithstanding, data concerning quantitative human health advantages on natural remedies is yet uncommon, constraining their legitimate valuation. Traditional medicines are regularly utilized for the wound-healing process covering a wide zone of various skin-related infections. This chapter will give information about the wound-healing capability of plants that are useful for the advancement of new wound-healing formulations.
... Whole plant is utilized as laxative, dried part has diuretic properties whereas roots and seeds are utilized as vermifuge, insecticidal and skin eruption. For the treatment of vomiting its decoction is utilized and its pods extract effectively utilized during inflammation and pain (Deshpande et al., 2003;Babu et al., 2017). ...
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A vast majority of the world’s population lacks access to essential medicines and the provision of safe healthcare services. Medicinal plants and herbal medicines can be applied for pharmacognosy, or the discovery of new drugs, or as an aid for plant physiology studies. In recent years, there has been increased interest in the search for new chemical entities and the expression of resistance of many drugs available in the market has led to a shift in paradigm towards medicinal research. Herbal treatments, the most popular form of folk medicine, may become an important way of increasing access to healthcare services. Advanced Pharmacological Uses of Medicinal Plants and Natural Products provides emerging research exploring the theoretical and practical aspects of drug discovery from natural sources that allow for the effective treatment of human health problems without any side effects, toxicity, or drug resistance. Featuring coverage on a broad range of topics such as ethnobotany, therapeutic applications, and bioactive compounds, this book is ideally designed for pharmacologists, scientists, ethnobotanists, botanists, health researchers, professors, industry professionals, and health students in fields that include pharmaceutical drug development and discovery.
... Whole plant is utilized as laxative, dried part has diuretic properties whereas roots and seeds are utilized as vermifuge, insecticidal and skin eruption. For the treatment of vomiting its decoction is utilized and its pods extract effectively utilized during inflammation and pain (Deshpande et al., 2003;Babu et al., 2017). ...
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Medicinal plants have been necessary to conventional and non-customary types of prescriptions dating back to somewhere around 5000 years ago. Researchers progressively depend on current logical techniques and proof-based medication to demonstrate the viability of herbal medicines and spotlight on a better comprehension of the systems of their activity. Notwithstanding, data concerning quantitative human health advantages on natural remedies is yet uncommon, constraining their legitimate valuation. Traditional medicines are regularly utilized for the wound-healing process covering a wide zone of various skin-related infections. This chapter will give information about the wound-healing capability of plants that are useful for the advancement of new wound-healing formulations.
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Tephrosia purpurea, which is also termed as sharpunkha in Ayurveda, is a wild herb of family Fabaceae. Geographically it is found at an altitude between 400 m to 1300 m in countries like India, Sri Lanka, China and Australia. Natural habitat of Tephrosia purpurea is in dry, sandy or rocky soil. It is seen growing along the roadside and places where waste are dump. Phytochemical investigations on Tephrosia purpurea shows the presence of constituents such as carbohydrates, protein, amino acid, tannins, saponins, terpenes, flavanones, rotenoids, chalcones, isoflavones, glycosides, alkaloids, flavanols, and sterols. It has also shown the presence of lupeol, lanceolatins A and B semiglabrin, rutin, sitosterol and pongamole. Flavonoids such as (+)-tephrosin A and B, (+)-tephrosone, isoflavone, 7, 4' dihydroxy-3', 5'-dimethoxyflavone and a chalcone, (+)-tephropurpurin were present in the whole plant and that was isolated from it. Different parts of the whole plant has shown variety of pharmacological actions ranging from anti-inflammatory to antitumor along with activities such as antiulcer , hepatoprotective, antioxidant, antimicrobial and antiallergic. Moreover it has also shown insect repellent activity. This review has summarized the literature related to phytochemical and pharmacological study of Tephrosia purpurea (L.) Pers. till August 2012. Tephrosia purpurea is regarded as folk medicine due to several therapeutic properties like anti-daibetic, anticancer, antipyretic. It also has pharmacological importance due to the potent chemical constituent.
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Propionibacterium acnes and Staphylococcus epidermidis have been recognized as pus-forming bacteria triggering an inflammation in acne. The present study was conducted to evaluate antimicrobial activities of Indian medicinal plants against these etiologic agents of acne vulgaris. Ethanolic extracts of Hemidesmus indicus (roots), Eclipta alba (fruits), Coscinium fenestratum (stems), Curcubito pepo (seeds), Tephrosia purpurea (roots), Mentha piperita (leaves), Pongamia pinnata (seeds), Symplocos racemosa (barks), Euphorbia hirta (roots), Tinospora cordyfolia (roots), Thespesia populnea (roots), and Jasminum officinale (flowers) were tested for antimicrobial activities by disc diffusion and broth dilution methods. The results from the disc diffusion method showed that 07 medicinal plants could inhibit the growth of Propionibacterium acnes. Among those Hemidesmus indicus, Coscinium fenestratum, Tephrosia purpurea, Euphorbia hirta, Symplocos racemosa, Curcubito pepo and Eclipta alba had strong inhibitory effects. Based on a broth dilution method, the Coscinium fenestratum extract had the greatest antimicrobial effect. The MIC values were the same (0.049 mg/ml) for both bacterial species and the MBC values were 0.049 and 0.165 mg/ml against Propionibacterium acnes and Staphylococcus epidermidis, respectively. In bioautography assay, the Coscinium fenestratum extract produced strong inhibition zones against Propionibacterium acnes. Phytochemical screening of Coscinium fenestratum revealed the presence of alkaloid which could be responsible for activity. Taken together, our data indicated that Coscinium fenestratum had a strong inhibitory effect on Propionibacterium acnes and Staphylococcus epidermidis. .
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Nanobiotechnology has emerged as integration between biotechnology and nanotechnology for developing bioactive, biosynthetic and ecofriendly technology for synthesis of nanomaterials. Development of eco-friendly process for the synthesis of nanoparticles is one of the main steps in the area of nanotechnology research. The synthesis, characterization, and application of biologically synthesized nanomaterial have become an important branch of nanotechnology. Hence, there is significant current interest in preparing nano-materials of small size. This manuscript describes ways of synthesising gold nanoparticles by using leaf extract Tephrosia Purpurea. The synthesis of gold nanoparticles was rapid and within few hrs gold ion makes contact with the leaf extract of Tephrosia Purpurea was reduce AUCL4 in to fine gold nanoparticles. The appearance of reddish colloidal dispersion indicates the synthesis of Gold Nano particles. UV Spectral analysis indicated that the reduction of tetra auric chloride (AUCL4) occurred in a short reaction period and showed a peak at 540 nm due to the surface Plasmon resonance of gold nanoparticles. The gold Nano particles are characterized by FTIR, SEM. The antibacterial activities of the studied nanoparticles were tested for biological applications. The antibacterial activity of gold nanoparticle is studied with the bacteria Escherichia coli, Enterobacter faecalis, Staphylococcus aureus and Klebsiella pneumoniae. The gold nanoparticles conjugated with the Tetracycline antibiotics shows the high zone of inhibition in both the organisms. This result confirms the prepared gold nanoparticles can be used as a good antibacterial agent. The synthesized gold nanoparticle can be used in various fields as an antibacterial agent.
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The aim of the present study is to evaluate the antipyretic activity on methanolic plant extract of Tephrosia pupurea using yeast induced pyrexia method in albino rats. Tephrosia purpurea linn (Family: Fabaceae) is a copiously branched herbaceous perennial plant distributed throughout the tropics and commonly known as Sarponkha in India. The results of the statistical analysis showed that methanolic extract of Tephrosia purpurea had significant (p<0.05) dose dependent antipyretic properties at 250 and 500mg/kg on pyrexia induced by yeast on albino wistar rats. Hence present investigation reveals the antipyretic activity of the methanolic plant extract of Tephrosia purpurea.
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Introduction : Tephrosia purpurea is a polymorphic, much branched, herbaceous perennial herb found throughout the Indian subcontinent, 5 and according to ayurvedic literature this plant also given the name of “Sarwa wranvishapaka” , belonging to the family fabaceae 6 . Flowering and fruiting of plant is mostly observed in months between July-December in Indian condition. Tephrosia purpurea has been established for its phytochemical screening and revealed to contain long chain saturated ketones, glycosides, rotenoids, tephrosin, pongaglabol, semiglabrin, chalcones, sterols, flavanols and flavones. 8,11 Traditionally plant is being used as tonic, laxative, and diuretic 1 . It is also useful in treating cough & tightness of the chest, biliary febrile attacks, obstructions of the liver, spleen and kidneys. This plant is specifically recommended as a blood purifier and anthalmintic for children 7 . Roots are given in dyspepsia and chronic diarrhoea. In ayurveda system of medicine, the whole plant has been used to cure tumours, ulcers, leprosy, allergic and inflammatory conditions such as rheumatism, asthma, bronchitis. Its aerial parts and roots are used in bronchial asthma, hepatic ailments, cutaneous toxicities, pain and inflammation 8 .
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Objective: Tephrosia purpurea (Linn·) Pers. is widely used in traditional medicine to treat liver disorders, febrile attacks, enlargement and obstruction of liver, spleen, and kidney. In the present study, investigations were carried out to determine the seasonal impact on the content of flavonoid glycosides and on antioxidant activities so as to identify the optimal time of harvesting. Methods: The plant materials were collected in different seasons during 2013-2014. Air-dried, powdered plant materials were extracted with 95% ethanol and ethanol: water (1:1) by ultrasound-assisted extraction process. Their chemical composition in terms of total polyphenol and flavonoid contents (TPCs and TFCs) was determined using modified colorimetric Folin-Ciocalteu method and aluminum chloride colorimetric assay respectively. To determine the in vitro antioxidant activity, diphenyl-picryl hydrazyl (DPPH) radical-scavenging assay and total antioxidant capacity by phosphomolybdate antioxidant assay were carried out. High-performance liquid chromatography (HPLC)/photo-diode array (PDA) analysis was used to quantify the flavonoid glycosides in the samples collected in different seasons. Correlation studies were also carried out between antioxidant activities and TPCs. Results: The highest TPC and TFC were found to be in the 95% ethanolic extract of the August sample and the lowest in the 50% hydro-alcoholic extract of the plant sample collected in winter season. It was observed that in both the assays used to determine the antioxidant activity, the 95% ethanolic extracts in all the seasons showed a higher activity than their respective 50% hydro-alcoholic extracts with an increase in activity as we go from cold to hot to rainy seasons. Based on correlation analysis, DPPH radical-scavenging activities as well as the spectrophotometrically measured phosphomolybdenum complex were also strongly correlated with TPC of the extracts. The most abundant flavonoid glycoside was quercetin-3-O-rhamnoglucoside in all the seasons. The content of all flavonoids was observed highest in the 95% ethanolic extract of the plant collected in August (TP-3). The 50% hydro-alcoholic extract of the plant collected in December (TP-6) showed the lowest amount of flavonoids and antioxidant activity. Conclusion: The findings of this study confirmed that the metabolism and production of flavonoids in T. purpurea are vigorously affected by seasonal factors. Significant differences were observed in the TPC, TFC and flavonoid glycoside composition in the 95% ethanolic as well as 50% hydro-alcoholic extracts of T· purpurea collected in different seasons. Since the 95% ethanolic extract of the August sample (TP-3), which also happens to be its flowering season, exhibited the highest TPC, TFC and antioxidant activities in both DPPH and phosphomolybdate assays as well as contained the highest content of all flavonoids, it could be recommended as the optimal season of harvesting T· purpurea with respect to its pharmaceutically important constituents, i.e., flavonoids.
Article
Methanol extract of leaves of Plumeria acuminata Ait. (MEPA) and roots of Tephrosia purpurea (Linn.) Pers. (METP) were investigated for their in vitro antimicrobial properties by agar disc diffusion method. The crude methanolic extracts MEPA and METP inhibited the growth of both Gram positive bacteria (Bacillus subtilis, Staphylococcus aureus pers.and Micrococcus luteus) and Gram negative bacteria (Escherichia coli, Pseudomsonas aeruginosa and Salmonella typhimurium). The Gram positive bacteria tested appeared to be more susceptible to the extracts than the Gram negative bacteria. Both the extracts at the concentration ranging between 250 μg/ml and 1000 μg/ml showed inhibitory activity against all tested bacteria except MEPA which did not show activity against S. typhimurium at 250 μg/ml concentration. At 100 μg/ml concentration. MEPA was found neutral against M. luteus, E. coli, P. aeruginosa and S. typhimurium while METP was neutral against E. coli and P. aeruginosa at same concentration. The extracts also showed significant antifungal activity against Aspergillus niger and Candida albicans. All tested microorganisms showed dose dependent susceptibility towards the methanol extracts. The antibacterial and antifungal activity of the extracts and standard drugs were statistically significant. Based on the current findings, it can be concluded that both the plants possess potent antimicrobial activity.