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Polyherbal Extracts and its Potential Impact on Dandruff Causative
Agent of Malassezia globosa
S. Sujatha
1
, Pivishni. V
2
, Ann Ameesha. M
2
, Priyadarshini. S
2
and Sudeep Kumar. S
2
1
Assistant Professor, Department of Biotechnology, Malankara Catholic College, Mariagiri-
629153
2
B. Sc students, Department of Biotechnology, Malankara Catholic College Mariagiri-629153,
Kaliyakkavilai, Tamilnadu.
DOI:
https://doi.org/10.51583/IJLTEMAS.2026.150500138
Received: 11 May 2026; Accepted: 16 May 2026; Published: 09 June 2026
ABSTRACT
At present, more than quasi of the worldwide people deal with the major skin problem with dandruff. The
presence of the Malassezia fungus suggestively subsidizes this condition by potentially generating the production
of cytokines in keratinocytes, the cells responsible for synthesizing keratin and activating provocative alleyways.
Antifungal activity of selected Indian medicinal plant extracts against the dandruff causing pathogen. The present
work assigned the four experimental plants named Eclipta alba, Hibiscus rosasinensis, Lawsonia inermis and
Muraya koenigii and its polyherbal mixed composition of these four herbal extracts. The prepared aqueous poly
herbal extracts were added to the wells of Malassezia globossa inoculated plates. From the present antifungal
result was clearly expressed all the four individual plant extract showed minimum to maximum antidandruff
activity among the four M.koeningi possessed maximum antifungal activity than other three extracts. Even
though, a mixed composition of these four herbal extracts (aqueous) contains the maximum potential
antidandruff effect than the individual extracts of E.alba, H. rosasinensis, L. inermis. Hence, the present
experimental four herbal extract was definitely depicted for great potential against the dandruff and skin
pathogenic fungal organism of M. globossa.
Keywords: Herbal Extract, M.globossa, Eclipta alba, Hibiscus rosasinensis, Lawsonia inermis and Muraya
koenigii.
INTRODUCTION
Microorganisms affect the people in different ways. Fungi had been recognized as causative agent of human
disease earlier than bacteria, fungal infection had been described as early (Sanflippo. 2006). Mycotic infections
are encountered unequally and ubiquitously all over the world with varied manifestations (Dulta Asis, 1994).
Although they are members of the normal skin flora, yeasts of the genus Malassezia have been known for many
years to play a role in human skin diseases, including dandruff, seborrheic dermatitis, (Naveen et al., 2012).
Malassezia globosa (Pityrosporum ovale), a lipophilic fungus, affects the hair and cause diseases called dandruff
(Ranganathan et al., 2001) and also called Pityriasis versicolar, Tinea circinata, Seborrheic dermatitis (Tollesson,
1997). Previously Clayton, (1967) proposed the strong view about the dandraff is a condition, which causes
small white flakes of skin that separate and fall from the scalp.
Henna (Lawsonia inermis L., Family- Lythraceae) has been a staple in cosmetic practices over centuries,
renowned for its natural dyeing properties used in body art, hair dyeing, and various cultural rituals. Henna,
historically revered as a cultural emblem, has been extensively utilized in the Arabian Peninsula, Indian
Subcontinent, Southeast Asia, and parts of North Africa (Barani et al., 2018). The dye molecule lawsone,
predominantly concentrated in henna leaves, imparts significant value to skin, hair, and textile dyeing practices,
as well as in Ayurveda, where it is recognized as Mehndi (Sousa et al., 2022). Crude extracts of henna and its
ingredients have been reported to exhibit various biological activities, including antibacterial, antioxidant, anti-
inflammatory, and anticancer properties (Almeida et al., 2012). Pure henna is generally considered safe, with
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minimal reports of allergic reactions despite its widespread. Drawing from previous studies on purity analysis
of pharmaceuticals (Al Nasr et al., 2019) the occurrence of counterfeit plant drugs (Jordão et al., 2015) and the
potential nutraceutical properties of plant extracts [9], this research aims to evaluate the chemical composition
of henna samples. By utilizing organoleptic characteristics, physicochemical properties, preliminary
phytochemical analysis (Rashmi et al., 2017).
Eclipta alba (L.) belongs to Asteraceae family and is an annual herb commonly found as weed along roadside in
India. The plant is called as Bhringraj in Indian medicine.it is used in the treatment of gall bladder problems,
liver cirrhosis, jaundice and hepatitis (Neeti, 2013). Several components such as coumestans, flavonoids,
polyacetylenes, alkaloids, thiophenes and triterpenes have been extracted from this plant (Roy et al., 2008). The
leaves of the plant have since a long time been used as hair rejuvenation in Ayurveda (Wagner et al., 1986). The
plant is commonly used in hair oil all over India for healthy black and long hair (Kapoor, 2001). It has been
reported to show protective effect on experimental liver damage in rats and mice. The plant has been reported
for the treatment of liver cirrhosis and infective hepatitis (Pradhan et al., 2012). In Ayurveda, the root powder is
used for treating hepatitis, enlarged spleen and skin disorders. Mixed with a little oil when applied to the head,
the herb relieves headache (Jordão et al., 2015). The extract of its leaves is mixed with honey and given to
infants, for the expulsion of worms. Eclipta alba is also given to children in case of urinary tract infections
(Khare, 2004). Hibiscus or ‘gudhal’ is the most beneficial ingredient for hair (Gholve et al., 2015). It is used for
the growth of hair, its regrowth, and hair loss. Hibiscus carries amino acids, Vitamin A, C and alpha hydroxyl
acids along with other nutrients that are highly beneficial for hair and scalp (Kumar et al., 2007). They keep
scalp healthy and minimize the chances of dandruff from hair (Diana Pearline et al., 2015). Bhringraj or false
daisy is a medicinal herb that promotes hair growth. It is a popular ayurvedic ingredient used for hair growth. It
helps to empower blood circulation to the scalp by stimulating and triggering hair growth, which has been lost
due to any cause, probably, dandruff, etc. It also prevents scalp problems, caused by dandruffs and irritation, in
order to make sure that hair growth remains unaffected (Uma Agarwal et al., 2009).
MATERIALS AND METHODS
Collection and preparation of Plant Material:
The leaves of E.alba, L.inermis and M.koenigii then flower of H. rosasinensis were collected during the month
of December from the natural habitats of Mulagumoodu, Thengapattinum in Kanyakumari district, Tamil nadu,
India. The plant material was identified and authenticated by Crop Protection Research Centre, St Xaviers
College, Palay, Tirunelveli, India. The leaves were washed with running tap water and finally washed with
distilled water to remove the dirt and dried under shade for two weeks.
Preparation of Leaf Extracts
The leaf was powdered in electric grinder, and 100 gm was extracted in Soxhlet apparatus using methanol and
aqueous for 6 hours. The both extracts were dried under reduced pressure using rotary evaporator to get the crude
and were stored at 4ºC until further uses.
Estimation of Phytochemicals
Preliminary phytochemical screening: Ethanolic extracts (80%) of the polyherbal drug was screened for various
phytoconstituents such as Steroids, Tannin, Saponin, Alkaloid, Flavonoid Glycoside, Anthraquinone, Terpenoid,
Phenols, Phlobatannins Coumarins, and triterpenoids (Ahonsi et al., 2023).
Antioxidant Activity
Ferric Reducing Power Assay
The Ferric Reducing Antioxidant Power (FRAP) assay was used to determine the antioxidant activity of the test
samples. Different concentrations of the sample (0.2, 0.4, 0.6, 0.8, and 1 mL) were prepared, and the volume
was adjusted using distilled water. To each sample, 2.5 mL ofphosphate buffer (pH 6.6, 0.2 M) and 3 mL of
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potassium ferricyanide (1%) were added. The mixture was then incubated in a water bath at 50°C for 20 minutes
to facilitate the reduction reaction. After incubation, 2.5 mL of trichloroacetic acid (TCA, 10%) was added to
each tube to precipitate proteins. The samples were then centrifuged at 1500 rpm for 10 minutes, and the upper
Phase was carefully collected. To the collected phase, 2.5 mL of distilled water and 0.5 mL of ferric chloride
(FeCl3, 0.1%) were added to initiate the color reaction. The absorbance of the resulting solution was measured
at 700 nm using a spectrophotometer. A higher absorbance indicated a stronger antioxidant potential, as the
ferric ions (Fe3+) were reduced to ferrous ions (Fe2+) in the presence of antioxidants. This method assesses the
reducing power of the extracts, providing insight into their potential antioxidant properties. To calculate the
antioxidant activity, compare the absorbance of sample to the absorbance of a known antioxidant standard.
Antifungal assay
Potato Dextrose Agar medium was sterilized and then cooled. The media was poured into petriplates and the
Malassezia culture was spreader onto the Petriplates. Then, 5 mm wells were made. The prepared different
concentrations of aqueous plant extracts were added to the wells M.furfur inoculated plates and placed without
disturbance for the diffusion of the extracts. Control plates without the plant extracts were also maintained. Then,
the plates were incubated at 28°C for 4 days. The extent of inhibition was observed and measured in mm. All
data on the antifungal activity was the average of triplicate analysis.
GC-MS Analysi
GC-MS analysis of the methanol extract mixed combination of experimental sample was performed in a Perkin
Elmer GC Clarus 500 system comprising an AOC-20i auto-sampler and a Gas Chromatograph interfaced to a
Mass Spectrometer (GC-MS) equipped with a Elite-5MS (5% diphenyl/95% dimethyl poly siloxane) fused a
capillary column (30 × 0.25 μm ID × 0.25 μm df). For GC-MS detection, an electron ionization system was
operated in electron impact mode with ionization energy of 70 eV. Helium gas (99.999%) was used as a carrier
gas at a constant flow rate of 1 ml/min, and an injection volume of 2μl was employed (a split ratio of 10:1). The
injector temperature was maintained at 250°C, the ion-source temperature was 200°C, the oven temperature was
programmed from 110°C (isothermal for 2 min), with an increase of 10°C/min to 200°C, then 5 °C/min to 280°C,
ending with a 9 min isothermal at 280°C. Mass spectra were taken at 70 eV; a scan interval of 0.5 s and fragments
from 45 to 450 Da. The solvent delay was 0 to 2 min, and the total GC-MS running time was 36 min. The relative
percentage amount of each component was calculated by comparing its average peak area to the total areas. The
mass-detector used in this analysis was Turbo-Mass Gold-Perkinelmer, and the software was adopted to handle
mass spectra and chromatograms. Identification of compounds: Interpretation on mass spectrum GC-MS was
conducted using the database of National Institute Standard and Technology (NIST) having more than 62,000
patterns. The spectrum of the known component was compared with the spectrum of the known components
stored in the NIST library. The name, molecular weight and structure of the components of the test materials
were ascertained.
Identification of fungal organism by 18srDNA sequence analysis.
The experimental dandruff sample material was taken from the scalp particles on the human head, from this
sample second kind of experimental organisms of dandruff causative agent M.globossa..PCR amplification was
performed in a volume of 50 μl consisting of 5 μl of concentrated lysate or 10 μl of 1:10 and 1:100 dilutions of
the lysate in sterile MilliQ-grade water (Millipore, Boston, Mass.). The remainder of the reaction mixture
contained 1× PCR buffer (50 mM KCl, 10 mM Tris-HCl [pH 9.0], 0.1% Triton X-100, 1.5mM MgCl
2
), 0.4mM
each of the four deoxynucleoside triphosphates (dATP, dCTP, dGTP, and dTTP), 1.0 U of Taq DNA polymerase
(Promega UK Ltd., Southampton, United Kingdom) and 0.2 μM (each) PCR primer. Thirty-five microliters of
DyNAwax was used to separate the primers and lysate from the rest of the reaction mixture to reduce the
incidence of nonspecific PCR products and also improve the yield of the desired DNA fragments. The PCR was
performed in an Omni-Gene thermal cycler (Hybaid, Teddington, United Kingdom). The cycling conditions
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were as follows: (i) an initial denaturation step at 94°C for 5 min; (ii) 35 cycles, with 1 cycle consisting of
denaturation at 94°C for 1 min, annealing at 55°C for 1 min, and extension at 72°C for 1.5 min; and (iii) a final
extension step at 72°C for 10 min.
Statistical Analysis
All experiments were carried out in triplicate and each sample was analyzed in triplicate datas. The results were
expressed as mean ± standard deviation (SD). For each experiment and where applicable, anegative and a
positive control were prepared. Significant differences between mean values were determined by Tukey’s test
after one way analysis of variance (1-way ANOVA).
RESULT
Phytochemical analysis
The pharmacological effects of all these experimental herbal extracts are mainly due to the presence of bioactive
chemical constituents. Alkaloids, flavonoids, Tannin and Saponin were present in all plants but terpenoids are
absent in all the experimental extracts. However, Steroids and Phlobatannin are absent in all the extracts. Though,
anthraquinone and saponins are maximum present on both extracts of L. inermis and E.alba.
Table-1:- Preliminary phytochemical analysis of poly herbal (four plant) extracts (Aqueous)
S.No
Name of the tests
E. alba
L .nermis
H. rosasinensis
M. koenigii
Tannin
-
+
+
+
Steroid
-
-
-
-
Phenol
+
+
++
+
Phlobatannin
-
-
-
-
Flavonoid
+
+
++
+
Saponin
+++
+
+
+
Terpenoid
+
++
+
-
Alkaloid
++
+
-
+
Anthraquinone
-
+++
-
-
Note: (+) mildly positive, (++) moderately Positive, and (+++) highly positive (significantly visible color
change).
Quantitative determination of phytochemicals by GCMS Analysis.
The identification of phytochemical compounds is based on their retention time (RT), molecular formula,
molecular weight (MW), chemical structure and concentration (peak area %). GC-MS chromatogram of leaves
of E. alba one, 4a-dimethly-[20R] (retention time 20.3), 10-Octadecenoic acid, methyl ester (retention time
17.07), 1,2 Benzenedicarboxylic acid, butyl octy ester (retention time 15.93), Dodecanoic acid,10 methyl, methyl
ester (retention time 15.33) (Table-1) and (Figure-1). The GC-MS analysis of the mixed extract revealed several
bioactive compounds with varying relative abundance. The compound Phthalic acid showed the highest relative
abundance (109.25) at a retention time of (50.2 min), indicating it as the dominant constituent in the extract. This
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was closely followed by Heptanoic acid, 2-ethyl- (109.12) at (80.4 min), suggesting another major component
with significant presence. The next identified the major compound named as 5,5-(tetrahydro-1H,3H-furo[3,4-c]
furan-1,4-diyl) bis with a relative abundance of (83.53) at (50.4 min), followed by Myristic acid (72.11) at (60.4
min). Geranyl acetone also showed considerable abundance (68.31) at (20.7 min), indicating moderate presence
in the extract. Furthermore, diisooctyl ester (63.25) at (40.1 min) and Palmitic acid (58.10) at (30.8 min) were
observed as moderately abundant compounds. However, Hexanedioic acid, bis(2-ethylhexyl) ester (41.50) at
(70.5 min) and Alpha-caryophyllene derivative (40.12) at (20.4 min) showed relatively lower but notable
presence. Moreover, Compounds such as Limonene (39.82) at (40.5 min), Squalene (37.12) at (40.3 min),
Phenyl-4-quinolinecarboxamide (36.10) at (70.8 min), Carvol (36.57) at (70.1 min), and 1,3-Benzodioxole
(36.04) at (50.9 min) exhibited moderate to low abundance. The least abundant compounds included
Phenanthrene, 9,10-diethyl-3,6-dimethoxy (24.71) at (90.1 min) and Dimethylamino-4-(2-cyano-2-phenylvinyl)
(15.34) at (30.5 min), indicating minimal contribution to the extract composition (Table-2).
Apart from the current result combined polyherbal formulation showed that the maximum peak was observed
for Phthalic acid at retention time (50.2 min), indicating it as the most dominant compound in the extract. The
second most peak was Heptanoic acid, 2-ethyl- at (80.4 min), which also shows nearly equal abundance.
However, optimum level occurrenced compound also been observed Geranyl acetone at (20.7 min) along with
its lowest peak was Dimethylamino-4-(2-cyano-2-phenylvinyl) at (30.5 min), indicating very low concentration
in the extract and minimal contribution to biological activity. Moreover, Phthalic acid (50.2 min), Heptanoic
acid, 2-ethyl- (80.4 min) and 5,5-(tetrahydro-1H,3H-furo[3,4-c] furan-1,4-diyl) bis (50.4 min) are the three peak
compounds. The Geranyl acetone (20.7 min) was the optimum or Moderate Peak and the lowest Peak
Dimethylamino-4-(2-cyano-2-phenylvinyl) (30.5 min) are the pharmaceutical value compound (Fig-1).
Fig: -1 Ellucidation of GCMS Chromatogram from the bioactive components in the experimental sample
of Polyherbal extracts
Table-2:- Bioactive Compounds of Mixed Extract from The Four Experimental Herbal Samples by
GCMS Analysis
S.No
Analytes
Retention Time
Relative
Abundance
1.
Alpha.-caryophyllene Benzene, 1- 2-
45.52 294
20.4
40.12
2.
geranyl acetone
20.7
68.31
3
Dimethylamino-4-(2-Cyano-2-
Phenylethenyl,
30.5
15.34
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4
Palmitic acid
30.8
58.10
5
diisoocytl ester
40.1
63.25
6
Squalene
40.3
37.12
7
limonene
40.5
39.82
8
Phthalic acid
50.2
109.25
9
5.5’- (tetrahydro-1H,3H-furo
{3,4-c)furan-1,4-diyl) bis
50.4
83.53
10
1,3-Benzodioxole
50.9
36.04
11
Myristic acid
60.4
72.11
12
Carvol
70.1
36.57
13
Hexanedioic acid, bis(2-ethylexyl) ester
70.5
41.50
14
Phenyl-4-Quinolinecarboxamide
70.8
36.10
15
Heptanoic acid, 2-ethyl-
80.4
109.12
16
Phenanthrene, 9,10-Diethyl-3,6-
Dimethoxy
90.1
24.71
Fig-2 ;- Microscopic view of experimental dandruff causative agent of M. globosa
Table-3: - Antibacterial activity of four herbal extract against the dandruff causative agent of M. globosa
Name of the sample
Zone of inhibition (mm-cm)
50%
100%
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Triplicates are done in each experiment, ± STD Deviation in statistically insignificant, * stand for significant at
5% level P<0.05.
From the table-3 shows that the antifungal activity of tested four different experimental individual extracts and
mixed polyherbal extracts against the identified dandruff causative agent of Malessezia globossa. Apart from
the present result clearly showed that the maximum antifungal activity has been noticed on the individual extract
of M. koenigii 1,512cm followed by more or less similar activity also noticed on both extract of H. Rosasinensis
and L. inermis, Though, least zone of inhibition was observed on E. alba leaf extract. However, tested samples
mixed extract was definitely denoted to the highest activity 2.348cm against the dandruff agent of M. globossa.
From the present result it was clearly expressed all the four individual plant extract showed minimum to
maximum antidandruff activity among the four M.koeningi possessed maximum antifungal activity than other
three extracts. Even though, a mixed composition of these four herbal extracts (aqueous) consists more potential
antidandruff effect than the individual extracts of E.alba, H. rosasinensis, L. inermis and M.koenigii.
Fig-3;- Antioxidant activity of four experimental herbal extract
The antioxidant activity of aqueous and methanol extract of individual four experimental extracts and its mixed
polyherbal composition has been represented in fig-3. From the present result it was clearly revealed that the
highest antioxidant activity represents the following order, foremost maximum antioxidant activity has been
noticed M.koenigi, secondly, polyherbal mixed composition followed by E.alba showed that the thirdmost
activity, furthermore, similar activity observed on both extract of L.inermis and H.rosasinensis. Apart from the
E. alba
0.681±0.01*
0.674±0.001
Lawsonia inermis
0.634±0.02**
0.726±0.02**
H. rosasinensis
0.663±0.01
0.793±0.01
M. koenigii
0.886±0.03
1.512±0.03*
Mixed Extract
1.843±0.01**
2.348±0.01**
Positive control
( Ketoconazole)
2.782
2.782
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present result depicted that when compared with methanol extract of all these samples clearly expressed
maximum significantly potential antioxidant activity noticed on aqueous extract than methanol extract.
SEQUENCE ANALYSIS
Name of the Identified Experimental Organism (S;ID:3 MCC B.SC-DCO-7) of the Dandruff causative
agent is “Malassezia globosa
Fig-4a:-PCR Ethidium Bromide Amplified product view of Malessezia globosa
Fig-4b:-Analyzed sample file in Sequencing Analysis Software of Electropherogram
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Fig-4c:-Graphic view for authentication of Experimental Sample organism
The present study has been identified the major dandruff causative agent of fungal organism such as M. globosa,
the most likely initiating organism by virtue of its high lipase activity, and it was expressed lipase on human
scalp region. Considering the importance of M. globosa in D/SD (and the overall importance of commensal
fungi), hence the have sequenced the M. globosa and M. restricta genomes. Genomic analysis indicates key
adaptations to the skin environment, several of which yield important clues to the role Malassezia plays in human
disease. This work offers the promise of defining new treatments to D/SD that are targeted at changing the level
or activities of Malassezia genes. The experimental fungal organism has been identified through subsequent
sequence analysis techniques like ethidium bromide gel view of pcr product gel view and it has been expressed
the typical 600bp and electropherogram representing conformation of the dandruff agent was M.globossa (Fig 2
and Fig 4a-c).
DISCUSSION
Malassezia yeasts are lipophilic normal microbial flora (Clayton et al., 1967) needing specific lipids, such as
oleic acid, for their growth. Colony formation begins quickly after birth and remarkably increases with the
increase of neonatal age (Ayhan et al., 2007). Skin colonization by Malassezia species is increased from 7% at
the first week to 40% at 3-5 weeks of life (Ayhan et al., 2007). The medicinal plants employed in this study all
include the phytochemicals that make up, and these phytochemicals have a variety of important biological roles,
according to a preliminary phytochemical analysis. According to research, alkaloids have pharmacological
effects such antibacterial, antiarrhythmic, analgesic, and antihyperglycemic properties. Flavonoids were
recognised to have alpha glucosidase activity (Al Nasret al., 2019), antioxidant activity (Amat-ur-Rasool et al.,
2020). Glycosides are well-known for their effects on the contractile forces of cardiac muscle, whereas saponins
are renowned for their antifungal, antibacterial, anti-protozoal, and lipid lowering properties (Arora pooja et al
2023). Ascorbic acid has been found in various. Flavonoids can also reduce the activity of many enzymes,
including those suspected to be involved in the production of free radicals such xanthine oxidase, peroxidase,
and nitric oxide synthases as a result, macromolecules experience less oxidative damage previously agreed by
Almeida, et al., (2012). The zone of inhibition tests of mixed poly herbal extract revealed distinct antifungal
activity against the M. globossa with a larger zone of inhibition (2.348 cm), whereas individual exract of M.
koenigi demonstrated significant antifungal activity with a zone of inhibition of 1.512 cm.
Crude herbal drugs have been included in traditional medicine and household remedies for a long time. There
are measgre studies on the effect of plant extracts on these fungi (Ronald et al., 2001). In an attempt to determine
the benefits of various herbal extracts, effect of different plant extracts against Malassezia globosa associated
with dandruff were evaluated. Mainly all the four experimental extracts possessed typical bioactive or phyto or
secondary metabolites are well good pharmacologically active compounds especially antidandruff property.
Previously, several researchers agreed the current result of the selected herbal plant extracts of E.alba, H.
rosasinensis, L. inermis and M.koenigii (Arora et al., 2011; Almeida et al., 2012; Yu et al ., 2017). Antidandruff
activities of three different branded antidandruff shampoos were also studied and their zone of inhibitions noted.
These results were considered as standard reference and compared the results of the extracts with that of the
shampoos (Gholve et al., 2015). On comparison one can say that the plant extracts showed considerable activity
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against dandruff causing organism Malassezia furfur and can be used to treat dandruff which cause no side
effects (Lee, Jeong-Hyun and Jae-Sug Lee, 2010). Bhringraj prevents scalp issues as irritation due to dandruff,
so that hair growth remains unhindered (Ronald et al., 2001). It acts as an antioxidant to cleanse the scalp due to
sebum deposition, opens blocked pores, kills bacteria and promotes hair growth (Piepard et al., 1997; Lee et al.,
2012). It conditions hair and also removes dandruff. It has antimicrobial and antifungal properties that can help
reduce dandruff, which can help psoriasis or other skin irritations on the scalp. It is also said to improve
circulation to the scalp (Singla et al., 2011).
Hibiscus or ‘gudhal’ is the most beneficial ingredient for hair (Gholve et al., 2015). It is used for the growth of
hair, its regrowth, and hair loss. Hibiscus carries amino acids, Vitamin A, C and alpha hydroxyl acids along with
other nutrients that are highly beneficial for hair and scalp. They keep scalp healthy and minimize the chances
of dandruff from hair (Diana et al., 2015). Hibiscus carries amino acids, Vitamin A, C and alpha hydroxyl acids
that are extremely nice for scalp and healthy scalp is a must for the removal of dandruff from hair. Hibiscus has
astringent properties, which help reduce the oil gland secretions and excessive oil secretion of the scalp opined
the similar view by Almeida et al. (2012). This property of the flower helps cool and soothe scalp providing
relief from itchy scalp and dandruff (Rashmi et al., 2017).
CONCLUSION
Plant extracts showed good activity against dandruff causing organism Malassezia globosa. From the research it
was concluded that four herbal plant extracts have antifungal activity and could be safely used for treating
dandruff causative fungal organism of Malassezia globossa. It was a lipophilic yeast that are part of the normal
human cutaneous commensal flora; they are isolated from sebaceous gland-rich areas of the skin, particularly on
the chest, back, and head. They are also associated with several cutaneous diseases, including atopic dermatitis,
folliculitis, pityriasis versicolor, and seborrheic dermatitis. The current research focused the poly herbal
experimental aqueous extract of Eclipta alba, Hibiscus rosasinensis, Lawsonia inermis and Muraya koenigii has
significant antibacterial and antifungal properties, construction it better, harmless, and additional actual in
reducing and treating dandruff. Moreover, the demonstrated phytochemical compounds, antioxidant and anti-
fungal properties of these extracts may enhance their efficacy against dandruff. The future scope of herbal
anti-dandruff hair gel is promising because of the rising demand for natural solutions and research-backed
formulas by consumers. This can be capitalized to drive greater market success and sustainable use of resources.
Further studies can be made on the active molecules of plant extracts responsible for antidandruff activity.
Recurrence of dandruff up on usage of these plant extracts can also be explored.
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