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Abstract

The medicinal plant Caesalpinia bonducella L. is a member of the Caesalpiniaceae family. This prickly shrub is found all across the world, but it is particularly common in tropical areas of India, including Kerala, Sri Lanka and the Andaman and Nicobar Islands. A plant is the mother of all medicines. The plant C. bonducella is found throughout India and grows well in warm tropical regions. Deep roots, a woody-hard stem, and compound, glossy, oval-shaped leaves that alternate on either side of the branch characterize this evergreen. Research on medicinal plants is becoming more popular worldwide as a result of the conviction that "green medicine" is less expensive and safer than manufactured drugs. There have been reports of characteristics that include antihelmintic, antiestrogenic, antimalarial, antispasmodic, Ca++ antagonistic, antiproliferative, antipsoriatic, antitumor, anxiolytic, larvicidal, immunomodulatory, antiamyloidogenic, antihyperlipidemic, antipyretic, analgesic, diuretic, antidiabetic, anti-inflammatory, antioxidant, antimicrobial, and antifilarial properties. Trace metal levels were found to be similar to those seen in regularly ingested legume seeds. The oil's high linoleic acid content indicated that it may be used to make paints, varnishes, cosmetics, liquid soaps, soaps, and other items, including biodiesel. We looked into how C. bonducella seed oil affected both acute and long-term ammation. Triterpenoids, alkaloids, flavonoids, glycosides, saponins, and tannins have all been found in Caesalpinia bonducella seeds according to phytochemical study. In terms of Caesalpinia bonduc (L.) pharmacognostic characteristics, chemical ingredients, a synopsis of its many pharmacological effects, and traditional uses, this review aims to cover the body of existing material.

Keywords

Caesalpinia Bonducella: Pharmacological Investigations, Chemical Constituents, Physicochemical Characteristics, Seeds.

Introduction

"Fever nut" is another name for the Caesalpinia bonducella L. plant (fig. 1), which is a member of the Caesalpiniaceae family. The enormous prickly shrub C. bonducella is native to South Ceylon, India, and Burma in particular at the ocean's edge and as much as 2,500 feet in hilly areas.  It is known that the shell, seed, and twigs of C. bonducella contain alkaloids. (1) In addition to the amazing glycoside bonducin, which is the active chemical, seeds are also known to contain terpenoids and saponins. (2) A mixture of unsaturated acids, stearic, palmitic, oleic, linoceric, linolenic, starch, fatty oil, sucrose, and phytosterols are all known to be present in the shell. The substance of proteins and amino acids varies. (3) Using the extraction procedure, a phytochemical study of C. bonducella leaves that had been powdered was conducted. Additionally, the plant is claimed to possess antioxidant, immunomodulatory, anti-cataract, anti-tumor, anti-ulcer, anti-microbial, anti-atifilaria, and anticonvulsive qualities. The ancient Indian traditional medical system known as Ayurveda mentions the plant Caesalpinia bonducella L. The species' name, "Bonducella," originates with the Arabic term "Bonduce," meaning "little ball" and describing the seed's globular form. In Ayurveda, the medication is known as "kuberakshi," which translates to "eyes of Kuba," the Hindu deity of riches, is explained by the seeds' grey color and eyeball-like appearance. (5

  1. Common personas:

Type of Plant: Evergreen-leafed shrub

Tap origins and profound roots
Elliptical Ovate, Bipinnately Compound, Hard Wooded Stem Type: Alternate Leaf Arrangement Leafy green in color Surface: lustrous
Sort of Seed: Dicot

Odor: Unique Flavor: Bitter

Elevation of Plant: Moderate (10–20 m)
Plant Feature 15 m at most
The plant utility includes decorative, beach, hillside, forest, and prickly plants.
Habit of Growth: Shrub Vine Season: Commercial, Industrial, Medicinal, Flower and     Garden (6)

Taxonomic Position:

Phylum: Magnoliophyta

Kingdom: Plantae

Magnoliopsida division

Angiospermae is the class
Placement: Fabales
Family: Caesalpiniaceae/Fabaceae
The species belongs to the genus Caesalpinia Bonducella.
VERNACULAR/REGIONAL NAME Singh and Raghav state that this plant has been referred to by the following regional and colloquial names.
Name in Hindi: Sagar Gota, Kantkarej, and Kantikaranja. In English, the name is: Nicker seed,  Sanskrit names for these items include Prakirnah, Tirini, Valli, Varini, Vitapakaranja, Name in Urdu: Akitmakit Name in Persian: Khayahe-i-iblas
Name in Bengali: Nata
Name in Marathi: Gajaga
Names in Kannada: Kirigejjuga, Gajjiga, and Gajikekayi
Names in Malayalam: Kajanchikkur, Kazhanji, Kalanci, Ban-karetti, and Kaka-moullou
Name in French: Bois
Name in Telugu: Gaccakayai Multiage
Name in Tamil: Kazharchikkaai, Kalachakra, Kalichikai, Kazarci, Avil, Kalarciver, Kalarcik Koluntu, Kalarcipparuppu

  1. Ayurvedic description:

Among the guna traits are Lokhu (bright) and Ruksha (dry)and Taste: tikta (also known as tikshna, or sharp). (sour), kashaya (alkaline) Veerya (power): Heat (Ushna) Tridosha is calmed by Dosha.
Vipak: Katu (7)

  1. Macroscopic Characteristics:

The Seeds:

The hard-coated, greenish or gray seeds have a slight compression on one side as a result of the nearby seeds being squeezed tightly. There are vertical cracks on the round, black seeds. The testa, which has three layers and is between 1 and 1.25 millimeters thick, is found to be separated from the kernels of dried seeds.  It displays the hilum and micropyle closed to each other. Hilum is usually encircled by a dark area and has a pale residue to funicle. Micropyle is located close to the edge among a shadowy area. Its seed coat is a fairly light shade of blue, ranging from grayish to dull green. (8)

  1. Microscopic Characteristics:

The Seeds:

Columnar, vertical luminal cells were arranged in many layers in the seeds of the C. bonducella plant.when viewed under a microscope. Whereas parenchyma cells are dark, have thick bone walls, and contain starch grains, columnar palisade cells are powdery. (9)

  1. Traditional and Modern Uses:

Styptic, purgative, and anthelmintic, the seed is said to reduce inflammation and be helpful in treating leprosy, colic, malaria, hydrocele, and skin conditions. An external treatment for hydrocele and orchitis is created in Madras (Chennai) using powdered seeds and castor oil. (10) When it comes to treating hydrocele, the seeds are thought to be antiblennorrhagic, anthelmintic, ferifuge, tonic, and particular. Convulsions and paralysis are treated using the oil extracted from the seeds. It is thought that the ground seeds are vesicant in Guinea. (11) It was discovered that the powdered seeds had weak antiperiodic effects when given to malaria patients in an equal mixture with pepper powder. They did no good in malignant malaria. When a snake bite occurs, the seeds are ingested after being ground in water. Snake venom cannot be countered by the seeds Powdered seeds and long peppers combined with honey provide a positive expectorant effect. Burned arecanut and alum-soaked seeds make a wonderful dentifrice for gum boils, spongy gums, etc. Roasted seeds are utilized as an anti-diabetic in the West Indies

  1. Habitat and Habitat:

It is a perennial plant, C. bonducella that grows within vines. that can thrive both in open and shaded environments. usually found in the Himalayas up to 1,000 meters above sea level, and on the Indian plains on waste lands or along the ocean. Additionally, outhern, eastern, and western India's deltaic areas are home to it. found in the warmest parts of India, Sri Lanka, and Burma, particularly along the coast.

  1. Standardization Parameters:

The following are the standardization parameters for C. bonducella: solubility in alcohol, the amount of extractive value in water, ethanol, Taste, color, odor, LOD, total ash value, sulphated ash, water insoluble, acid insoluble, ethyl acetate extractive value, hexane extractive value, and foreign matter (see table 1). (13)

Sr. No.

Parameter

Phytochemical properties

1

Flavor

Astringent

2

color

pale brown

3

Smell

A distinctive scent

4

A foreign issue (%)

0.979

5

Drying-related loss (%)

8.83

6

Total amount of ash (%)

3.37

7

Ash that is insoluble in acid (%)

0.49

8

Dissolvable in Water (%)

1.69

9

Sulfurous ash (%)

4.37

10

Alcohol solubility (%)

26.8

11

Hexane's extraction value (%)

4.3

12

The extract's worth in chloroform (%)

2.58

13

Ethyl acetate's extraction value (%)

0.92

14

worth of ethanol extraction (%)

2.92

15

The importance of water extraction (%)

6.7

  1. Phytochemicals:

All among the main chemical components are found in the whole Caesalpinia bonducella plant, including phenols, fatty acids, hydrocarbons, amino acids, phytosterols, isoflavones, and steroidal saponin. (14)

 

  1. Caesalpinia bonducella's Anthelmintic Mode of Action:

1. Immobilization and Paralysis of Parasites:

 -Neuromuscular Blockade: According to certain research, extracts from Caesalpinia bonducella may include substances that cause parasitic worms to experience neuromuscular blockadeThis impact paralyzes and immobilizes the worms, facilitating the process of remove them in the body of the host. The Contractile Device: Flavonoids and alkaloids, two bioactive substances found in Caesalpinia bonducella, may disrupt the worms' ability to move and survive inside their host. (15)

2Metabolic Pathway Inhibition:

 Energy Metabolism: It has been demonstrated that specific phytochemicals found in Caesalpinia bonducella disrupt the helminths' energy metabolism. For example, they might prevent important enzymes from producing energy, including oxidative phosphorylation or glycolysis. Compounds in Caesalpinia bonducella have the potential to interfere with parasites' nutritional intake processes, denying them the essential nourishment they require to survive and reproduce (16)

3. Cuticle and internal structure damage:

Physical Disruption: According to certain research, extracts from Caesalpinia bonducella may physically harm helminths' internal structures and cuticle, or outer covering. This Reference: 98-106.102 in Ijppr.Human, 2024, Vol. 30 (7) Rajani P. Bawane et al HumanJournals.com/ijppr harm affects their physiological and structural soundness functioning, in the end resulting toward their ejection or perishment. Balance Osmotic: Caesalpinia bonducella contains substances that might disrupt the parasites' osmotic equilibrium, resulting in cell enlargement or dehydration that could be harmful to their ability to survive. (17)

4. Receptor Binding and Interaction with Surface Receptors:  

Caesalpinia bonducella's bioactive substances may interact with certain ion channels or surface receptors found on parasitic worm membranes. Compounds from Caesalpinia bonducella can interfere with signaling pathways necessary for the worms' survival and reproduction by attaching to these receptors. (18)

5.Bioactive compounds' synergistic effects:

 multi-target effects: The combined effects of a number of Caesalpinia bonducella bioactive compounds are frequently credited with the plant's anthelmintic action. By acting on many molecular targets within the parasites, these substances may increase overall efficacy and lower the risk of resistance development. (19)

  1. Recent Pharmacological Studies:

Numerous pharmacological investigations were inspired by the discovery of a variety of phytochemicals in different plant components. However, there is still a lack of research and documentation on the plant. More thorough scientific research may uncover a wealth of undiscovered phytochemicals that hold great promise for opening up new directions and methods in the field of clinical treatments. 46 Different plant components have been described as having important qualities in a variety of scholarly books( Refer to Table 3).

Table 3: Novel Medicinal Investigations Into Flowers leaves, Seeds, And S.NO. Uses Of Plant Parts (20)

Sr. No.

Plant part

Uses

References

1

The seeds

Reduces inflammation

21

2

The seeds

The antibacterial

22

3

every component

Immunomodulators

23

4

The seeds

Both antidiabetic and hypoglycemic

24

5

Blooms

Pain reliever

25

6

The leaves

Stress caused by antioxidants

26

7

The seeds

Drugs that treat depression

27

8

The seeds

Antipyretic medication

28

9

The seeds

A remedy for asthma

29

10

The leaves

Protective of the liver

30

11

Young foliage and branches

Anti tumor

31

12

The leaves

Against the feedant

32

13

The seeds

Avoiding diabetes

33

14

The seeds

Antimicrobial and cytotoxic properties

34

15

The leaves

Protective of the kidneys

35

16

The seeds

Low level diabetes

36

17

The seeds

Low level diabetes

36

18

The seeds

Infertility

37

19

The leaves

Pro-apoptotic and antiproliferative

38

20

The leaves

Parasiticides

39

21

The seeds

Antiulcer medication

40

22

The seeds

Antimycobacterial Action

41

23

The seeds

Prevention of cataract

42

24

The leaves

Antidiarrhea

43

25

The seeds

Inhibition of filaria

44

26

The leaves

Contractile action of muscles

45

27

The leaves

Contractile action of muscles

45

28

The seeds

Antiestrogenic action

46

29

The seeds

Diuretic inhibitor

47

30

The leaves

In opposition to tumors

48

31

The seeds

A sedative

49

32

The seeds

anticonvulsant

5

  1. Anti-inflammatory activity:

The granuloma pouch and formalin arthritis procedures were used to investigate the anti-inflammatory activity in rats. The extract was found to be effective at a dose of 250 mg/kg in the granuloma pouch model, and it compared favourably to phenylbutazone. The seeds showed 50% inhibitory activity against carrageenan-induced oedema in the rat hind paw when given orally at 1000 mg/kg 24 hours and 1 hour prior to carrageenan injection (IP). The activity was comparable to that of phenylbutazone at a dose of 100 mg/kg (66.67% inhibition) (21).

2)Antimicrobial activity:

Sagar K. and colleagues revealed the antibacterial activities of α-(2-hydroxy-2-methylpropyl)-ω-(2 hydroxy-3-methylbut-2-en-1-yl) polymethylene from Caesalpinia bonducella (L.). Flem The antibacterial properties of bondenolide and seed extracts from Caesalpinia bonduc (L.) Roxb were reported by Simin K. etal.
The antibacterial properties of Caesalpinia bonduc (Lin.) Roxb seeds were reported by both in vivo and in vitro, Arif T. et al. (22)

3)Antidiabetic activity:

The antidiabetic properties of Caesalpinia bonducella seed extract were evaluated in hyperglycemia produced by alloxan. The extract's antihyperglycemic effect might result from inhibiting the absorption of glucose. The drug may have antidiabetic and antihyperlipidemic properties. Strong hypoglycemic effects were demonstrated by both the ethanolic and aqueous extracts in a model of chronic type 2 diabetes. Insulin production from isolated islets may be increased by both fractions. (33) Kalauni SK et al. have studied the structure-activity relationship and antimalarial characteristics of diterpenes of the cassane and norcassane classes from Caesalpinia crista. Linn T Z, et al. discovered that the diterpenes of the cassane and norcassane classes from Indonesia's Caesalpinia crista have antimalarial efficacy against Plasmodium falciparum growth. In addition to the known cassane diterpenes, three new cassane furanoditerpenoids (1-3) were discovered using Caesalpinia bonduc seed kernels. Excellent antimalarial efficacy was demonstrated by compounds 1-3 against the multidrug-resistant Plasmodium falciparum K1 strain. (51).

4)Antibacterial, Antifungal, Antispasmodic activity:

Caesalpinia bonducella possesses antibacterial, antifungal, antispasmodic, and Ca++ antagonist qualities, according to Khan HU et al. Saeed MA and Sabir AW discovered that Caesalpinia bonducella seeds had antibacterial activity.

5)Antidiarrhoeal activity:

In mice, the fruits were shown to have strong antidiarrheal properties. (43)

6)Antioxidant activity:

Nikhil Kumar and colleagues have demonstrated the antioxidant activity of Caesalpinia bonducella seed chloroform extract. Mandal S. et al. assess the methanolic extract of Caesalpinia crista leaf's antioxidant and reactive oxygen species scavenging capabilities. Phenolic and flavonoid components may be responsible for the 70% methanol extract of C. crista leaves' antioxidant and ROS-scavenger properties. Caesalpinia bonducella seeds' ethanolic extract has been shown to exhibit antioxidant activity and a total phenolic content by Shukla S. et al. According to the study's findings, C. bonducella shows a great deal of promise for application as a natural antioxidant. (27)

7)Immunomodulatory activity:

The effects of an aqueous extract of bonduc nut (Caesalpinia bonducella) seeds on immunomodulation in vivo are investigated by Shukla S. et al. The in vivo immunomodulatory effects of an aqueous extract of Caesalpinia bonducella Fleming seeds were assessed in this study. In Indian traditional medicine, C. bonducella is a common herb. This study looked at how the humoral and cell-mediated immune system components in rats were impacted by the aqueous extract from C. bonducella seeds. In comparison to the control, the mean hemagglutinating antibody (HA) titer rose by 93.03 +/- 4 and the delayed type hypersensitivity (DTH) changed by 0.56 +/- 0.058 mm following the administration of 400 mg/kg body weight of C. bonducella seed extract. According to the study's findings, C. bonducella extract shows promise as an immunostimulatory medication. Shukla S. et al. looked at the ethanolic extract of Caesalpinia bonducella seeds' immunomodulatory properties. Caesalpinia bonducella may have immunomodulatory qualities and be utilized therapeutically to prevent autoimmune illnesses, according to the study's findings. (23)

CONCLUSION:

C. bonducella is a large, evergreen shrub with stiff, woody stems and deep roots. This plant has ovate, complex elliptical leaves that alternate on either side of the branches and have a glossy surface. Several active metabolites found in various areas of C. bonducella have been reaffirmed in the study as having the ability to treat a variety of illnesses. Due to the presence of distinct bioactive metabolites, it has also been noted that different plant sections exhibit varying pharmacological activity. To fully explore all of the opportunities and potential that the rich plant has to offer, however, further scientific study and documentation are needed.In summary, the current study's findings demonstrated that Caesalpinia bonducella's crude ethanolic and aqueous extracts contain quinines, phenolic compounds, proteins, carbohydrates, alkaloids, flavonoids, tannins, and saponins. The proportions of terpenoids, phenolics, lipids and waxes, Q. Alkaloids, and N-oxides were found to be satisfactory. This review compiles the data from recent pharmacological research studies. The plant's seeds, bark, and roots exhibited antibacterial, antihyperlipidemic, antispasmodic, antioxidant, and immunomodulatory properties. C. bonducella's flowers have analgesic properties. C. bonducella offers antimalarial properties in its seed kernels and anticancer, antiulcer, and antifilarial properties in its leaves. Even if the plant's wealth of powerful phytochemicals makes it medicinally rich, more research can still be done. This wild plant has a wealth of biomarker compounds with potential medical applications and a variety of pharmacological actions. However, there is still need for study into creating formulations for various illnesses and conditions, which could raise the plant's future industrial value.

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Reference

  1. Shelar UB. Phytochemical And Pharmacological Study of Caesalpinia Decapetala Leaves. MK Infoedutech Private Limited: India. 2022:1-71.
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Photo
Rohini Jadhav
Corresponding author

Womens College of Pharmacy, Peth Vadgaon, Kolhapur.

Photo
Sujata Karande
Co-author

Womens College of Pharmacy, Peth Vadgaon, Kolhapur.

Photo
Rajnandini Kamble
Co-author

Womens College of Pharmacy, Peth Vadgaon, Kolhapur.

Photo
Dr. D. R. Jadage
Co-author

Womens College of Pharmacy, Peth Vadgaon, Kolhapur.

Rohini Jadhav*, Sujata Karande, Rajnandini Kamble, Dr. D. R. Jadage, Phytochemical and Pharmacological Insights into Caesalpinia Bonducella: A Comprehensive Review, Int. J. of Pharm. Sci., 2025, Vol 3, Issue 5, 1069-1079 https://doi.org/10.5281/zenodo.15354236

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