Pharmacological Significance Research Articles

A Mini-Review on the Synthesis of Substituted Isatins: From Early Approaches to Recent Advances with a Specific Focus on Sulfamoyl and Amino Derivatives

Abstract: As a member of heterocyclic compounds, indole possesses a diverse set of biological activities. Studies on the structure-activity relationship of 2-indolinones have shown that they are important bioactive compounds in the field of pharmaceutical chemistry. Isatin and structures bearing isatin scaffold are derivatives of indole, which have shown to be of biological and pharmacological significance. This review focuses on different ways of obtaining compounds containing isatin structure, considering both earlier and recent methods of synthesis. The syntheses given herein were grouped into three categories, syntheses using anilines as their starting substance, synthetic methods based on the oxidation of indoles, and finally, due to the extensive research going on 5-substituted isatins and their possible pharmacological efficacy, pathways for synthesizing 5-amino and 5-sulfamoylisatins were gathered to underline the importance of 2-indolinone and isatin derivatives as prospective therapeutic compounds in current and future drug discovery studies.

Unlocking the Potential of In Vitro Photoautotrophy for Eryngium foetidum: Biomass, Morphophysiology, and Acclimatization

Eryngium foetidum L., a biennial herb with diverse applications in food and traditional medicine, holds economic and pharmacological significance. Given its growing commercial interest, implementing biotechnological approaches like plant tissue culture is vital for sustainable propagation and metabolite production. In this study, we investigated the in vitro photoautotrophic potential of Eryngium foetidum, examining growth, chlorophyll a fluorescence, photosynthetic pigments, and anatomical features under sucrose concentrations (0 and 30 g L−1) and gas exchange rate (14 and 25 μL L−1 s−1 CO2). Acclimatization and survival rates of plants after ex vitro transfer were also assessed. Eryngium foetidum exhibited robust growth in both photoautotrophic and photomixotrophic conditions, with natural ventilation significantly enhancing plant development. Chlorophyll a fluorescence and photosynthetic performance were influenced by sucrose and gas exchange, highlighting the importance of these factors in plant micropropagation. Moreover, the species demonstrated remarkable plasticity during acclimatization, with high survival rates and rapid inflorescence development. The research provides valuable insights into optimizing in vitro cultivation conditions for Eryngium foetidum, emphasizing the potential for large-scale clonal propagation and exploring secondary metabolites. The observed phenotypic plasticity underscores the adaptability of the species to diverse environments. These biotechnological strategies open avenues for future studies, including the application of elicitors for enhanced secondary metabolite production.

Cucurbitaceae Glycoside: An In-depth Review on its Source, Structural, and Medicinal Significance

Background: The Cucurbitaceae family has been well-known since ancient times for its use in daily food preparations. Various traditional medicinal systems have also recognized its therapeutic importance. Its significance has also been established by modern techniques. Objective: The current review aims to emphasize the glycosides of the Cucurbitaceae family in terms of their source, structures, extraction media, and bioactivities in various therapeutic areas like anti-inflammatory, anti-bacterial, anti-cancerous, anti-diabetic, and cardiac models. Glycosides of Cucurbitaceae have been studied extensively. However, considering the vastness of the diversity among this family; there are still various avenues in which further research work is needed. Methods: For the present review, we used Elsevier-ScienceDirect, SpringerLink, PubMed, ArticlesPlus, Semantic Scholar, and Google Scholar to conduct a literature search. Results: Cucurbitaceae is enriched with secondary metabolites, mainly glycosides. The occurrence of glycoside with its species, along with plant parts, is crucial and elaborately covered. It also captures the extraction system. The structure of selected glycosides is represented along with respective references. Various studies elaborate on the pharmacological significance of the extracts in diverse therapeutic areas. Conclusion: This review provides extensive aspects about the glycosides of the family Cucurbitaceae and will help in further exploration of extraction, isolation, and bioactivity studies of this important class of compounds from one of the largest families, i.e., Cucurbitaceae. It reiterates the need for further exploration in standardization along with extensive safety and efficacy studies.

Transport and inhibition mechanism for VMAT2-mediated synaptic vesicle loading of monoamines.

Monoamine neurotransmitters such as serotonin and dopamine are loaded by vesicular monoamine transporter 2 (VMAT2) into synaptic vesicles for storage and subsequent release in neurons. Impaired VMAT2 function underlies various neuropsychiatric diseases. VMAT2 inhibitors reserpine and tetrabenazine are used to treat hypertension, movement disorders associated with Huntington's Disease and Tardive Dyskinesia. Despite its physiological and pharmacological significance, the structural basis underlying VMAT2 substrate recognition and its inhibition by various inhibitors remains unknown. Here we present cryo-EM structures of human apo VMAT2 in addition to states bound to serotonin, tetrabenazine, and reserpine. These structures collectively capture three states, namely the lumen-facing, occluded, and cytosol-facing conformations. Notably, tetrabenazine induces a substantial rearrangement of TM2 and TM7, extending beyond the typical rocker-switch movement. These functionally dynamic snapshots, complemented by biochemical analysis, unveil the essential components responsible for ligand recognition, elucidate the proton-driven exchange cycle, and provide a framework to design improved pharmaceutics targeting VMAT2.

Exploring Therapeutic Potential of Nutraceutical Compounds from Propolis on MAPK1 Protein Using Bioinformatics Approaches as Anti-Coronavirus Disease 2019 (COVID-19)

This study explores the potential of propolis, a natural substance, as a gene therapy for treating COVID-19. Despite the advent of COVID-19 vaccines, their side effects pose new health challenges. Utilizing network pharmacology, this research identifies propolis compounds through various databases and assesses their ability to target proteins associated with COVID-19. MAPK1 emerges as a potential therapeutic target, and molecular docking reveals Broussoflavonol F, Glyasperin A, and Sulabiroins as promising compounds with strong binding affinities, i.e.,- 9.0, -9.0, and -8.8 kcal/mol, respectively, exceeding the native ligand (-7.2 kcal/mol). Molecular Dynamics displays stable complex behavior, with backbone RMSD values consistently below 4 Angstroms and RMSF simulations showing minimal fluctuations within ±2 Angstroms error. Moreover, MM-PBSA analysis further supports the strong binding of Broussoflavonol F, Glyasperin A, and Sulabiroins A, with relative binding energies of -122.82±89.65, 131.48±95.39, and -155.97±111,37 kJ/mol, respectively. These results indicate that propolis has potential as an anti-COVID-19 agent, primarily through inhibiting the MAPK1 pathway. However, further research is needed to validate these results and develop practical applications for COVID-19 therapy. This study underscores the significance of network pharmacology and computational models in understanding propolis mechanisms, offering potential directions for future research and treatment strategies against COVID-19.

Synthesis and Pharmacological Significance of Isoxazoline Derivatives: A Mini review

Synthesis and Pharmacological Significance of Isoxazoline Derivatives: A Mini review

Genetic blockade of the activation of 26S proteasomes by PKA is well tolerated by mice at baseline.

Proteasome activation by the cAMP-dependent protein kinase (PKA) was long suggested and recent studies using both cell cultures and genetically engineered mice have established that direct phosphorylation of RPN6/PSMD11 at Serine14 (pS14-RPN6) mediates the activation of 26S proteasomes by PKA. Genetic mimicry of pS14-RPN6 has been shown to be benign at baseline and capable of protecting against cardiac proteinopathy in mice. Here we report the results from a comprehensive baseline characterization of the Rpn6S14A mice (S14A), the first animal model of genetic blockade of the activation of 26S proteasomes by PKA. Wild type and homozygous S14A littermate mice were subjected to serial M-mode echocardiography at 1 through 7 months of age, to left ventricular (LV) catheterization via the carotid artery for assessment of LV mechanical performance, and to cardiac gravimetric analyses at 26 weeks of age. Mouse mortality and morbidity were monitored daily for up to one year. Males and females were studied in parallel. Mice homozygous for S14A were viable and fertile and did not show discernible developmental abnormalities or increased mortality or morbidity compared with their Rpn6 wild type littermates by at least one year of age, the longest cohort observed thus far. Neither serial echocardiography nor hemodynamic assessments detected a remarkable difference in cardiac morphometry and function between S14A and wild type littermate mice. No cardiac gravimetric difference was observed. The findings of the present study indicate that genetic blockade of the activation of 26S proteasomes by PKA is well tolerated by mice at baseline. Therefore, the S14A mouse provides a desirable genetic tool for further investigating the in vivo pathophysiological and pharmacological significance of pS14-RPN6.

Benzimidazole as a Privileged Scaffold in Drug Design and Discovery.

Benzimidazole is a privileged drug design and discovery scaffold with various pharmacological activities, including antimicrobial, anticancer, antitubercular, anti-inflammatory, antidiabetic, antihypertensive, antimalarial, and many more. This scaffold can be observed in the structure of numerous FDA-approved drugs and employed in medicinal chemistry to develop novel bioactive compounds through rational drug design. Its broad pharmacological significance is due to physicochemical attributes, including H-bond donor-acceptor efficiency, π-π stacking interactions, and hydrophobic interactions; these characteristics enable benzimidazole derivatives to bind with macromolecules efficiently. This article emphasizes mechanisms, SAR, and docking studies to unveil benzimidazole's various active hybrids accountable for diversified activities. It will assist researchers in strategically designing various novel benzimidazole-endowed hybrids to develop clinically active therapeutic candidates.

Irg1/itaconate activates Nrf2/HO-1 pathway and mitigates septic liver injury in mice

Objectives: Immune-responsive gene 1 ( Irg1)-catalyzed production of itaconate is a bioactive metabolite with antibacterial, anti-inflammatory and antioxidant properties. Liver injury is closely related to poor outcomes in septic patients, while prevention of liver injury is essential for the pharmacological control of sepsis. This study investigated the pathological and pharmacological significance of Irg1/itaconate in septic liver injury. Methods: Septic liver injury was induced in mice by injecting lipopolysaccharide (LPS; 15 mg/kg) intraperitoneally. The hepatic mRNA and protein contents of Irg1 were detected. To investigate the pathological meaning of Irg1, septic liver injury was induced in Irg1 knockout mice and their wild-type (WT) littermates, and the degree of liver injury, hepatic inflammation, oxidative stress and the activation of nuclear erythroid 2-related factor 2 (Nrf2)/heme oxygenase 1 (HO-1) were subsequently determined. Finally, to explore the gene’s pharmacological potential, 4-octyl itaconate (4-OI; 50 mg/kg), a derivative of itaconate that could cross cell membranes, was administered intraperitoneally. The mobilization of Nrf2/HO-1 and liver injury were then evaluated. Results: The level of Irg1 expression was dramatically enhanced in mice with septic liver injury. Additionally, Irg1 deletion leaded to higher ALT and AST levels, elevated inflammatory and oxidative-stress indicators and compromised stimulation of the Nrf2/HO-1 pathway. However, administering 4-OI restored the Nrf2/HO-1 pathway which mitigated liver injury and inhibited hepatic inflammation and oxidative stress. Conclusions: The results figured that elevation of Irg1 might be a protective event that control the progress of septic liver injury, while 4-OI might have latent significance for the pharmaceutical intervention of septic liver injury.

An overview of some pharmacologically relevant therapeutic plants from Kerala's sacred groves

In Kerala's native culture, sacred groves are referred to as "Kavu" and have long been used as archives for traditional knowledge and biodiversity. Many medicinal plants with strong pharmacological properties can be found in these distinctive habitats, and they have historically provided local populations with medicine. Studying the pharmacological significance of plants from Kerala's sacred groves will help us to gain a better understanding of the value of nature-based therapies in a time when both natural resources and traditional knowledge systems are more crucial than ever. This comprehensive review article seeks to study wide variety of medicinal plants present in Kerala's sacred groves, including Murdannia pauciflora, Osbeckia muralis and Indoneesiella echioides, offering light on their historical use and pharmacological qualities that have been proven.

Gentiopicroside-An Insight into Its Pharmacological Significance and Future Perspectives.

Gentiopicroside (GPS) is a leading component of several plant species from the Gentianaceae botanical family. As a compound with plenty of biological activities and a component of herbal drugs, GPS has an important role in the regulation of physiological processes in humans. The results of recently published scientific studies underline a meaningful role of this molecule as an active factor in metabolic pathways and mechanisms, which may have an influence in the treatment of different diseases, including digestive tract disorders, malignant changes, neurological disorders, microbial infections, bone formation disorders, inflammatory conditions, and others. This review aims to collect previously published reports on the biological properties of GPS as a single compound that were confirmed by in vitro and in vivo studies, and to draw attention to the newly discovered role of this bitter-tasting secoiridoid. Thanks to these properties, the research on this substance could be revisited.

The search for the "node of life": breathing regulation

The article provides a historical overview of developments in the understanding of respiratory rhythm and its control mechanisms over the last two centuries. In the 19th century, a structure in the medulla oblongata was first described as the "node of life". In 1743, Taube discovered the carotid body, and in 1927 the Spaniard de Castro described its morphology and innervation. It was only with the work of father and son Heymans that the physiological and pharmacological significance of the carotid and aortic body was recognized. Today we understand that the generation and control of respiration are mediated by a complex neuronal network in the brainstem. Chemo-, mechano- and proprioreceptos convey information from blood, airways and muscles to the control centre. The respiratory centre integrates the afferent input from the receptors, the autonomic nervous system, the cardiovascular system, and voluntary input from the cerebral cortex to modulate the degree of respiratory activation of motoneurons and respiratory muscles.

Phytochemical Screening and GC-MS Analysis of Methanolic and Aqueous Extracts of Ocimum kilimandscharicum Leaves.

Kenyans have long utilized Ocimum kilimandscharicum, an East African permanent evergreen plant, to treat measles, stomachaches, diarrhea, mosquito bites (anti-insect), congested chest, cough, and colds. Using conventional qualitative and quantitative techniques, this study was done to identify the secondary metabolites in O. kilimandscharicum leaf extracts. The chemical content of the crude extracts from the leaves of O. kilimandscharicum has also been investigated and characterized using gas chromatography-mass spectrometry (GC-MS). By using a 1:20 dilution in methanol, in cold maceration, a fine powder of O. kilimandscharicum was first extracted then filtered and concentrated after 72 h utilizing a rotary evaporator. By using also a 1:20 dilution in water at 80 °C, a fine powder of O. kilimandscharicum was extracted and then filtrated and lyophilized 1 h later. Each extract underwent further gas chromatography-mass spectrometry testing. We found that both extracts contain secondary metabolites such as alkaloids, phenolics, flavonoids, saponins, and tannins. However, the overall amount of phytochemicals in each solvent varied significantly. Total phenolics contents (TPCs) were 5.6 ± 1.20 and 10.8 ± 1.00 mg, total flavonoid contents (TFCs) were 8.2 ± 0.4 and 39.6 ± 2.2 mg, total tannin contents (TTCs) were 0 ± 0.00 and 10.5 ± 0.4 mg, the total alkaloid content (TAC) was 49.2 ± 0.40%, and the total saponin content (TSC) was 38 ± 2.00%. Additionally the gas chromatography-mass spectrometry, revealed a number of high- and low-molecular-weight bioactive molecules at various concentrations for each extract. We also found an inhibitory effect on adhP and chbR gene expression of Staphylococcus aureus and Salmonella choleraesuius, respectively. Hence, these chemicals could potentially have a biological and pharmacological significance. Therefore, the discovery of many physiologically active chemicals in the leaf extracts of O. kilimandscharicum justifies future biological and pharmaceutical research.

Therapeutic potential and pharmacological significance of extracellular vesicles derived from traditional medicinal plants.

Medicinal plants are the primary sources for the discovery of novel medicines and the basis of ethnopharmacological research. While existing studies mainly focus on the chemical compounds, there is little research about the functions of other contents in medicinal plants. Extracellular vesicles (EVs) are functionally active, nanoscale, membrane-bound vesicles secreted by almost all eukaryotic cells. Intriguingly, plant-derived extracellular vesicles (PDEVs) also have been implicated to play an important role in therapeutic application. PDEVs were reported to have physical and chemical properties similar to mammalian EVs, which are rich in lipids, proteins, nucleic acids, and pharmacologically active compounds. Besides these properties, PDEVs also exhibit unique advantages, especially intrinsic bioactivity, high stability, and easy absorption. PDEVs were found to be transferred into recipient cells and significantly affect their biological process involved in many diseases, such as inflammation and tumors. PDEVs also could offer unique morphological and compositional characteristics as natural nanocarriers by innately shuttling bioactive lipids, RNA, proteins, and other pharmacologically active substances. In addition, PDEVs could effectively encapsulate hydrophobic and hydrophilic chemicals, remain stable, and cross stringent biological barriers. Thus, this study focuses on the pharmacological action and mechanisms of PDEVs in therapeutic applications. We also systemically deal with facets of PDEVs, ranging from their isolation to composition, biological functions, and biotherapeutic roles. Efforts are also made to elucidate recent advances in re-engineering PDEVs applied as stable, effective, and non-immunogenic therapeutic applications to meet the ever-stringent demands. Considering its unique advantages, these studies not only provide relevant scientific evidence on therapeutic applications but could also replenish and inherit precious cultural heritage.

Friedelin: Structure, Biosynthesis, Extraction, and Its Potential Health Impact

Pharmaceutical companies are investigating more source matrices for natural bioactive chemicals. Friedelin (friedelan-3-one) is a pentacyclic triterpene isolated from various plant species from different families as well as mosses and lichen. The fundamental compounds of these friedelane triterpenoids are abundantly found in cork tissues and leaf materials of diverse plant genera such as Celastraceae, Asteraceae, Fabaceae, and Myrtaceae. They possess many pharmacological effects, including anti-inflammatory, antioxidant, anticancer, and antimicrobial activities. Friedelin also has an anti-insect effect and the ability to alter the soil microbial ecology, making it vital to agriculture. Ultrasound, microwave, supercritical fluid, ionic liquid, and acid hydrolysis extract friedelin with reduced environmental impact. Recently, the high demand for friedelin has led to the development of CRISPR/Cas9 technology and gene overexpression plasmids to produce friedelin using genetically engineered yeast. Friedelin with low cytotoxicity to normal cells can be the best phytochemical for the drug of choice. The review summarizes the structural interpretation, biosynthesis, physicochemical properties, quantification, and various forms of pharmacological significance.

From 2011 to 2022: The development of pyrazole derivatives through the α,β‐unsaturated carbonyl compounds

AbstractThe synthesis of pyrazole derivative using α,β‐unsaturated carbonyl compounds has attracted increasing attention of the synthetic organic chemist community. Interestingly, the simplicity of the synthetic method, high reactivity, and ease of incorporating diversity into the desired prototype have contributed a lot toward the exploration of α,β‐unsaturated carbonyl compounds by various research groups. Due to the tremendous pharmacological significance of pyrazole derivatives, their synthesis has been one of the leading research frontiers in recent years. As prime examples, sildenafil, zometapin, Celebrex, and rimonabant have been successfully commercialized in the market to treat various life‐challenging diseases. Considering the great profile of α,β‐unsaturated carbonyl compound in the synthesis of biologically active pyrazole derivatives, this review incorporates contemporary literature (2011–2022) on the synthesis of pyrazole and its derivatives using α,β‐unsaturated carbonyl compound as a starting precursor.

Network Pharmacology, Molecular Docking, and Molecular Dynamics Simulation to Elucidate the Molecular Targets and Potential Mechanism of Phoenix dactylifera (Ajwa Dates) against Candidiasis.

Candidiasis, caused by opportunistic fungal pathogens of the Candida genus, poses a significant threat to immunocompromised individuals. Natural compounds derived from medicinal plants have gained attention as potential sources of anti-fungal agents. Ajwa dates (Phoenix dactylifera L.) have been recognized for their diverse phytochemical composition and therapeutic potential. In this study, we employed a multi-faceted approach to explore the anti-candidiasis potential of Ajwa dates' phytochemicals. Utilizing network pharmacology, we constructed an interaction network to elucidate the intricate relationships between Ajwa dates phytoconstituents and the Candida-associated molecular targets of humans. Our analysis revealed key nodes in the network (STAT3, IL-2, PTPRC, STAT1, CASP1, ALB, TP53, TLR4, TNF and PPARG), suggesting the potential modulation of several crucial processes (the regulation of the response to a cytokine stimulus, regulation of the inflammatory response, positive regulation of cytokine production, cellular response to external stimulus, etc.) and fungal pathways (Th17 cell differentiation, the Toll-like receptor signaling pathway, the C-type lectin receptor signaling pathway and necroptosis). To validate these findings, molecular docking studies were conducted, revealing the binding affinities of the phytochemicals towards selected Candida protein targets of humans (ALB-rutin (-9.7 kJ/mol), STAT1-rutin (-9.2 kJ/mol), STAT3-isoquercetin (-8.7 kJ/mol), IL2-β-carotene (-8.5 kJ/mol), CASP1-β-carotene (-8.2 kJ/mol), TP53-isoquercetin (-8.8 kJ/mol), PPARG-luteolin (-8.3 kJ/mol), TNF-βcarotene (-7.7 kJ/mol), TLR4-rutin (-7.4 kJ/mol) and PTPRC-rutin (-7.0 kJ/mol)). Furthermore, molecular dynamics simulations of rutin-ALB and rutin-STAT1 complex were performed to gain insights into the stability and dynamics of the identified ligand-target complexes over time. Overall, the results not only contribute to the understanding of the molecular interactions underlying the anti-fungal potential of specific phytochemicals of Ajwa dates in humans but also provide a rational basis for the development of novel therapeutic strategies against candidiasis in humans. This study underscores the significance of network pharmacology, molecular docking and dynamics simulations in accelerating the discovery of natural products as effective anti-fungal agents. However, further experimental validation of the identified compounds is warranted to translate these findings into practical therapeutic applications.

Evaluation of Antioxidant and Anti-diabetic Activity of Stem Bark of <i>Ziziphus jujuba</i> (L.) Gaertn

Diabetes Mellitus (DM), a significant metabolic disorder that increases mortality and morbidity, affects people all over the world. Recently, many individuals are exploring CAM treatment that may have fewer side effects due to the prominent side effects of allopathic medications. Ziziphus jujuba (L.) Gaertn. (Rhamnaceae) stem bark has been a vital part of the conventional system of medicine for the management of diabetes, inflammation, wounds, fever, asthma and liver disorders. In spite of its pharmacological significance, Ziziphus jujuba stem bark lacks scientific evidence of its antidiabetic and antioxidant potential. Hence, an attempt has been made to evaluate the anti-diabetic effect of the stem bark of Ziziphus jujuba using alpha-amylase inhibition assay. In this research work, we further investigated the antioxidant activity of the Ziziphus jujuba using DPPH and Nitric oxide radical scavenging assay. The Chloroform (CEZJ), ethyl acetate (EAZJ) and Ethanol (EEZJ) extracts of Ziziphus jujuba stem bark were used in the study. In the DPPH radical scavenging assay, EEZJ had an IC50 value of 117.1 µg/ml, however, the value for the nitric oxide scavenging assay was 64.65 µg/ml. The Ziziphus jujuba was additionally examined for its in-vitro antidiabetic potential using an alpha-amylase inhibition assay, and it was discovered to possess a considerable percentage of alpha-amylase inhibition. The IC50 of EEZJ was found to be 34.68 µg/ml. These results imply that the Ziziphus jujuba possesses considerable antioxidant and anti-diabetic properties. To thoroughly establish the anti-diabetic potential of Ziziphus jujuba, additional in vitro experiments utilizing cell lines and other enzymes may be conducted.

Catalytic, dearomative 2,3-difluorination of indoles

Indolines, characterized by their diverse biological activities and structural significance, have garnered considerable attention in the realms of natural product synthesis and drug discovery. Concurrently, the incorporation of fluorine atoms into organic molecules has emerged as a powerful strategy to enhance their pharmacological properties. Herein, we report a robust and diastereoselective approach for the synthesis of 2,3-difluorinated indolines through the iodine(I/III)-catalyzed dearomatization of readily available indoles. The protocol operates under mild conditions, displaying excellent functional group tolerance and remarkable diastereoselectivity. By employing this developed protocol, vicinal-difluorinated analogues of indole-containing drugs can be efficiently accessed. Theoretical calculations have shed light on the underlying reaction mechanism, proposing the formation of a β-fluorine-substituted carbocation intermediate. It is postulated that the observed high diastereoselectivity can be attributed to the dipole-dipole interactions facilitated by the C–F bond. Crystallographic analysis has revealed the profound impact of fluorine atom introduction on the conformational preferences of the indoline core. Given the unique structural characteristics and pharmacological significance of 2,3-difluorinated indolines, we anticipate their widespread application in medicinal chemistry and drug discovery endeavors.

Bioactive Compund Profile of Muntingia Calabura Leaf Extract with Different Polarity Solvent

The pursuit of bioactive compounds from natural sources for potential pharmaceutical and therapeutic applications remains a prominent focus of scientific investigation. Among the myriad of botanical treasures, M. calabura, colloquially known as the Jamaican cherry or strawberry tree, stands as an intriguing candidate, owing to its extensive historical utilization in folk medicine across diverse cultures. This study aimed to comprehensively characterize the bioactive compound profile of M. calabura leaves by employing a spectrum of solvents with varying polarities for extraction. The choice of solvent during extraction plays a pivotal role in determining both the types and quantities of compounds obtained from plant material. Our methodology encompassed cutting-edge analytical techniques, notably gas chromatography-mass spectrometry (GC-MS), to unravel the intricate chemical composition of the extracts derived from M. calabura leaves. Moreover, we scrutinized the potential influence of solvent polarity on extraction efficiency and subsequent bioactivity of the isolated compounds. Our findings underscore the profound impact of solvent selection on the repertoire of bioactive compounds extracted from M. calabura leaves. Polar solvents exhibited a proclivity for extracting compounds of higher polarity, while non-polar solvents favored the extraction of less polar constituents. The identification of prominent bioactive compounds within these extracts encompassed delta-tocopherol, 7-(γ,γ-dimethylallyloxy)flavanone, Wogonin, Neophytadiene, Octadecanoic acid, and Hexatriacontane, each with its own distinctive pharmacological significance. This study thus illuminates the critical role of solvent polarity in optimizing extraction processes and maximizing the therapeutic potential of M. calabura. The insights gleaned from this investigation not only contribute to our understanding of natural product chemistry but also hold the promise of inspiring the development of novel pharmaceutical agents and therapeutic interventions with wide-ranging applications.