Journal of Pharmaceutical Science and Application Volume 2, Issue 2, Page 66-76, December 2020 E-ISSN : 2301-7708

A NARRATIVE REVIEW OF ZINGIBERACEAE FAMILY AS ANTIBACTERIAL AGENT FOR TRADITIONAL MEDICATION BASED ON BALINESE LOCAL WISDOM

Ni Made Ayu Irayanti1, A.A Gede Rai Yadnya-Putra1*

1Departement of Pharmacy, Faculty of Math and Science, Udayana University, Bali, Indonesia

Corresponding author email: [email protected]

ABSTRACT

Background: One of the native plants from Indonesia that have been widely used for traditional medication as an antibacterial comes from the Zingiberaceae family. Based on Usada Bali, the Zingiberaceae family used to treat digestive, respiratory, and skin diseases. Objective: This literature review aimed to discuss antibacterial activity from the Zingiberaceae family and see its validity as a traditional use as antibacterial based on Balinese local wisdom medication method (Usada) with its scientific evidence. Methods: The method of this literature review is the study of literature from several scientific publications in national and international journals about the antibacterial activity of the Zingiberaceae family. Results: Several studies showed that the Zingiberaceae family has an antibacterial activity with various inhibitions depended on the type of bacteria. Conclusion: The Zingiberaceae family mentioned in Usada Bali has been scientifically proved to have antibacterial activity, so it shows the validity as a traditional use as antibacterial based on Usada with its scientific evidence.

Keywords: Zingiberaceae, antibacterial, Usada

INTRODUCTION

Indonesian society is synonymous with local wisdom. Local wisdom is the result of certain societies based on their experiences that are not necessarily experienced by other societies. It may be called a cultural characteristic[1]. There is a lot of local knowledge about health such as medicines inherited by society from ancestors which recorded on the manuscript. Some tribes in Indonesia still maintain their traditional medication knowledge until this present. Balinese is one of those tribes which has a traditional medication method called Usada, the manuscript of traditional Balinese treatment that contains various methods of medication and ceremony in self-purification and written on papyrus with the Balinese language and script[2].


Various types of plants used as medicine in Usada. One of them comes from the Zingiberaceae family. The Zingiberaceae family is known as ginger plants with characteristics such as has rhizome, pseudo-stems, and single leaves. The characteristics of each genus and species of this family are its inflorescence that has a distinctive shape and colour. The rhizome of this family is used for medication because it contains aromatic compounds as a characteristic of each species in its use for local societies. Aromatic compounds are usually the result of secondary metabolites such as essential oils which contains a lot of benefits, for example as an antibacterial[3].

Antibacterial compounds are able to kill or inhibit bacterial growth or


Table 1. Traditional medication from Curcuma longa, Curcuma xanthorrhiza, and Alpinia galanga based on Usada Bali

Plant Species        Usada

Function             How to Use        References

Usada Tenung Tanyalara

Asthma

Cough                  Oral                [5]

Stomachache

Usada Upas

Stomachache              Topical

Fever                     Oral                  [6]

Cough

Curcuma longa     Usada Rare

Diarrhea                   Oral                  [7]

Stomachache

Usada Taru Premana

Cough                Topical

Diarrhea                   Oral                  [8]

Skin disease               Topical

Usada Tiwas Punggung

Stomachache               Topical               [6]

Curcuma      Usada Tenung

xanthorrhiza        Tanyalara

Fever                  Topical

Stomachache                Oral                 [ ]

Usada Rare

Fever                   Topical                [7]

Skin disease

Usada Netra

Alpinia galanga    Usada Tenung

Tanyalara

Fever                     Oral                  [7]

Skin disease

Stomachache               Topical               [5]

Usada Upas

Stomachache                Oral                 [6]

Table 2. Traditional medication from Zingiber cassumunar, Kaempferia galanga, Zingiber officinale, and Boesenbergia pandurata based on Usada Bali

Plant Species

Usada

Function

How to Use

References

Usada Netra

Stomachache

Topical

[7]

Zingiber cassumunar

Usada Rare

Skin disease

Topical

[7]

Usada Upas

Stomachache

Topical

[6]

Usada Tenung

Asthma

Oral

[5]

Tanyalara

Fever

Nausea

Kaempferia galanga

Usada Netra

Vomiting Stomachache

Oral

[7]

Cough

Usada Upas

Stomachache Cough

Oral

[6]

Usada Netra

Stomachache

Topical

[7]

Usada Rare

Fever

Skin disease

Topical

[7]

Zingiber officinale

Usada Tenung

Fever

Oral

[5]

Tanyalara

Cough

Usada Tiwas Punggung

Stomachache

Oral

[6]

Boesenbergia

Usada Tenung

Asthma

Oral

[5]

pandurata

Tanyalara

Cough

Table 3. Antibacterial activity from Curcuma longa and Curcuma xanthorrhiza

Chemical

Plant Species

Compounds

Inhibition

Bacterial Species       Zone          ypes o      References

Action

(mm)

Alkaloids, tannins, Curcuma longa     flavonoids,

curcumin, and essential oils

Escherichia coli      5.64±0.25       Moderate         [9]

Shigella dysentriae        10.30           Strong           [10]

Salmonella thypi         12.10           Strong           [11]

Escherichia coli           7           Moderate         [12]

Bacillus cereus       16.30±0.90        Strong           [13]

Shigella dysentriae         10          Moderate         [14]

Staphylococcus

12             Strong           [15]

aureus

Staphylococcus         28±1        Very Strong       [16]

aureus

Bacillus subtilis            13             Strong            [17]

Escherichia coli          27         Very Strong        [18]

Staphylococcus

20            Strong          [19]

aureus

Bacillus cereus           12             Strong           [20]

Alkaloids, flavonoids,

Curcuma        saponins,

xanthorrhiza     curcumin, and

essential oils (Xanthorrhizol)

Escherichia coli      3.94±0.01         Weak           [9]

Salmonella thypi         15.50           Strong           [11]

Bacillus cereus       9.64±0.45       Moderate         [21]

Staphylococcus           8           Moderate         [22]

aureus

Escherichia coli      9.40±0.35       Moderate         [23]

Klebsiella         9.68±0.58       Moderate         [24]

pneumoniae

Streptococcus

4           Weak         [25]

mutans

Table 4. Antibacterial activity from Alpinia galanga, Zingiber cassumunar, and Kaempferia galanga

Chemical

Plant Species

Compounds

Inhibition Zone     Types of

Bacterial Species                                      References

(mm)         Action

Alkaloids,

flavonoids,

Alpinia galanga

saponins, and essential oils

Escherichia coli           7            Moderate         [26]

Bacillus subtilis         16±4.60           Strong           [27]

Staphylococcus       27.21±0.21      Very Strong        [28]

aureus

Escherichia coli          10.34            Strong           [29]

Bacillus cereus       11.80±2.80       Moderate         [13]

Bacillus cereus          10.30            Strong           [30]

Staphylococcus       16.67±1.15         Strong          [31]

aureus

Staphylococcus       22.33±0.58      Very Strong        [32]

aureus

Bacillus cereus            13              Strong           [20]

Alkaloids,

flavonoids,

Zingiber

saponins, cassumunar

tannins, and

essential oils

Escherichia coli          7.50          Moderate         [33]

Staphylococcus       11.33±0.57         Strong          [34]

aureus

Bacillus cereus          12.76            Strong           [35]

Salmonella thypi           8            Moderate         [36]

Staphylococcus       16.68±2.78         Strong          [37]

aureus

Escherichia coli          6.93           Moderate         [38]

Flavonoids, phenols (ethyl p-methoxy

Kaempferia      cinnamate),

galanga          tannins,

saponins, and essential oils

Escherichia coli          18.33            Strong           [39]

Bacillus subtilis          8.66           Moderate         [40]

Staphylococcus

12              Strong           [41]

aureus

Porphyromonas      18.87±1.99        Strong          [42]

gingivalis

Escherichia coli       9.80±1.60        Moderate         [43]

Staphylococcus

11              Strong           [44]

aureus

Bacillus cereus        10±0.41         Moderate         [45]

Staphylococcus

11              Strong           [31]

aureus

metabolism. Based on its mechanism of action, it is divided into bacteriostatic and bactericidal. Bacteriostatic antibacterial is an antibacterial that in which able to inhibit bacterial growth and bactericidal is an antibacterial that able to kill bacteria[4]. According to Usada, plants from the Zingiberaceae family can be used to treat digestive, respiratory, and skin diseases which are generally caused by a bacterial infection. Therefore, the author wants to do a literature review about an antibacterial activity from the Zingiberaceae family and see its validity as a traditional use as antibacterial based on Balinese local wisdom medication method (Usada) with its scientific evidence.

METHODS

The articles used in this literature review were obtained through the internet with the keyword are “Aktivitas antibakteri tanaman Zingiberaceae” and “Antimicrobial activity of Zingiberaceae”. After screening articles, 29 international articles and 23 national articles were obtained.


RESULTS

The Zingiberaceae family mentioned in Usada Bali such as Curcuma longa, Alpinia galanga, Zingiber cassumunar, Curcuma xanthorrhiza, Kaempferia galanga, Zingiber officinale, and Boesenbergia pandurata were used for traditional medication as antibacterial. The types of Usada, usage, and how to use are shown in Tables 1 and 2.

Based on several studies, the Zingiberaceae family mentioned in Usada Bali has an antibacterial activity which can be seen in tables 3, 4, and 5. One method that may be used to determine antibacterial activity is the diffusion method by measuring the inhibition zone due to categorizing the strength of the antibacterial activity of the compound.

DISCUSSION

Diffusion method was used to determine the antibacterial activity, which consists of a cylinder, well, and paper disc methods.


The cylinder method is a method that place a several-cylinder glass or stainless steel on the bacteria inoculated media. Each cylinder place to stand on the media and filled with the tested solution then incubated. Furthermore, bacterial growth will observe by measuring the inhibition zone around the cylinder. The well method is to make wells on the bacteria inoculated media. It adjusted with the number and position of wells due to the research objective. Each of well is filled by the tested solution then incubated. Right after, the bacterial growth will observe by measuring the inhibition zone around the well. The paper disc method is to soak a paper disc in the tested solution and placed on the

bacteria inoculated media. Furthermore, bacterial growth will observe by measuring the inhibition zone around the paper disc[61].

The strength of antibacterial activity from a compound can be seen from a diameter of the inhibition formed zone. Bigger diameter shows the stronger antibacterial activity. The category of antibacterial activity based on the diameter of the inhibitory zone consist of four types of action[62].

Based on tables 3, 4, and 5, the results of studies from the Zingiberaceae family can be categorized according to the level of its antibacterial activity. Curcuma longa has antibacterial activity with moderate, strong, and very strong responses.

Tabel 5. Antibacterial activity from Zingiber officinale and Boesenbergia pandurata

Chemical

Plant Species

Compounds

Inhibition

Bacterial Species       Zone          ypes o      References

Action

(mm)

Flavonoids,

Zingiber          phenols,

officinale       saponins, and

essential oils.

Escherichia coli           18             Strong           [46]

Staphylococcus

6           Moderate         [47]

aureus

Bacillus subtilis       13.60±0.27         Strong            [48]

Escherichia coli       12.50±1.20        Strong           [13]

Salmonella thypi          20            Strong          [18]

Staphylococcus

16             Strong           [20]

aureus

Escherichia coli         10.56           Strong           [49]

Salmonella

8           Moderate         [50]

thypimurium

Bacillus subtilis       6.05±0.05       Moderate         [51]

Streptococcus

6           Moderate         [25]

mutans

Staphylococcus       10.30±0.07        Strong          [52]

aureus

Bacillus cereus       10.33±0.76      Moderate         [53]

Aggregatibacter

actinomycetem-         11.10          Strong          [54]

comitans

Essential oils Boesenbergia

(1,8-cineol, pandurata

geraniol)

Bacillus cereus           14             Strong           [20]

Streptococcus          6.70         Moderate         [55]

mutans

Streptococcus       10.46±0.29        Strong          [56]

mutans

Streptococcus          1.85           Weak           [57]

mutans

Pseudomonas

13.85            Strong            [58]

aeruginosa

Staphylococcus         13.60          Strong          [59]

aureus

Streptococcus            7           Moderate         [60]

pyogenes

Curcuma xanthorrhiza has antibacterial activity with weak, moderate, and strong responses. Alpinia galanga has antibacterial activity with moderate, strong, and very strong responses.

Table 6. Category of antibacterial activity[62]

Type of Action

Inhibition Zone (mm)

Weak

<5

Moderate

5 – 10

Strong

10 – 20

Very Strong

>20

Zingiber cassumunar has antibacterial activity with moderate and strong responses. Kaempferia galanga has

antibacterial activity with moderate and strong responses. Zingiber officinale has antibacterial activity with moderate and strong responses. Boesenbergia pandurata has antibacterial activity with weak, moderate, and strong responses. The difference in antibacterial activity caused by the type of bacteria that was inhibited which can be seen in table 7.

The result of literature studies from several research journals showed that the type of bacteria that was inhibited by compounds in the Zingiberaceae family are bacteria that cause digestive, respiratory, and skin infections so that shows the validity between traditional use from the Zingiberaceae family as an antibacterial 70

DOI : https://doi.org/10.24843/JPSA.2020.v02.i02.p04

based on Balinese local wisdom medication method (Usada) with its scientific evidence.

Table 7. The type of bacteria that was inhibited by Zingiber

Bacterial Species

Types of Diseases

Gram-Positive Bacteria

a. b. c.

d.

e.

Bacillus cereus Bacillus subtilis Staphylococcus aureus Streptococcus mutans Streptococcus pyogenes

Diarrhea

Diarrhea Diarrhea

Dental decay

Throat   and

infections

skin

Gram-Negative Bacteria

  • a.

  • b.

c.

d.

e.

f.

g.

h.

Aggregatibacter actinomycetem comitans Escherichia coli Shigella dysentriae Salmonella thypi Salmonella thypimurium Klebsiella pneumoniae Porphyromonas gingivalis Pseudomonas

Periodontal diseases

Diarrhea

Diarrhea Salmonellosis Salmonellosis

Respiratory     tract

infection

Periodontal diseases

Skin infection

aeruginosa

Gram-positive bacteria and gramnegative bacteria have different cell wall structures that affect their sensitivity to antibacterial. The difference is in the content of peptidoglycan and lipids from gram-positive and gram-negative bacteria. Gram-positive bacteria contain approximately 70% of peptidoglycan from the dry mass of cell wall which causes the cell wall thick and stiff and gram-negative bacteria contain approximately 10% of peptidoglycan from the dry mass of cell wall which causes the cell wall thinner. Moreover, gram-negative bacteria have porin proteins and high lipid levels. Porin proteins act as a pathway for the entry of active substances into bacterial cells. Active substances in the bacterial cell can damage the enzyme activity in the cell and causing cell damage. Meanwhile, high lipid levels in the bacterial cells potentially increase the

permeability of active substances into cells[23].

The antibacterial activity of the Zingiberaceae family is caused by its secondary metabolites, such as alkaloids, flavonoids, polyphenols, saponins, tannins, and essential oils[23]. Each of compound has different inhibition mechanism. In general, the mechanism of antibacterial action compound is based on the bacterial structure and composition, such as an enzyme, nucleic acid, cytoplasmic membrane, and cell wall. If one of the structures and composition damage, it will be the beginning of the changes that cause cell death.

Essential oils act as antibacterial because they contain hydroxyl and carbonyl functional groups which are derivatives of phenol. Phenol derivatives will interact with bacterial cell walls, then absorbed and penetrated bacterial cells. This will cause the precipitation and denaturation of proteins that can lyse the bacterial cell membrane[10]. Xanthorrhizol is an active compound from Curcuma xanthorrhiza essential oils that can affect cell wall morphology by attacking cell membrane, nucleic acid, and bacterial metabolism[23]. Curcumin is an active compound from Curcuma longa rhizome which is polyphenols compound. Curcumin acts as an antibacterial by inhibiting the proliferation of bacterial cells[10]. Alkaloids and flavonoids act as antibacterial by denaturing protein and then damage the bacterial cell wall. Saponins act as antibacterial by disturbing permeability of bacterial cell wall[54]. Meanwhile, tannins act as antibacterial by damaging the bacterial cell membrane[23].

CONCLUSION

Based on the result of several studies shows the Zingiberaceae family mentioned in Usada Bali to treat digestive, respiratory, and skin diseases have been scientifically proved to have antibacterial activity with various inhibitions from weak to very

strong depended on the type of bacteria. So, it shows the validity as a traditional use as antibacterial based on Balinese local wisdom medication method (Usada) with its scientific evidence.

CONFLICT OF INTEREST

No conflict of interest in this paper. This paper was written independently without being affiliated by another party.

ACKNOWLEDGMENT

We would like to thank the lecturers and staff in the Department of Pharmacy, Faculty of Math and Science, Udayana University, for the support in the implementation of this review.

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DOI : https://doi.org/10.24843/JPSA.2020.v02.i02.p04