A COMPREHENSIVE REVIEW: STUDY ON SCIENTIFIC VALIDATION OF AYURVEDIC MARKETED FORMULATIONS
HTML Full TextA COMPREHENSIVE REVIEW: STUDY ON SCIENTIFIC VALIDATION OF AYURVEDIC MARKETED FORMULATIONS
Deepali Kashayap *, Pushpendra Kannojia and Prashant Kumar Sharma
BIU College of Pharmacy, Bareilly International University, Bareilly, Uttar Pradesh, India.
ABSTRACT: One of the earliest traditional medical systems, Ayurveda, has become well-known around the world for its extensive use of herbal formulations and holistic treatment approach. Concerns about quality, safety, effectiveness, repeatability, and standardisation continue to be significant obstacles despite the growing commercialisation of Ayurvedic goods. Therefore, in order to prove the legitimacy of commercialised Ayurvedic medicines in contemporary healthcare systems, scientific validation has become crucial. Pharmacognostic evaluation, phytochemical screening, chromatographic profiling, physicochemical analysis, toxicity assessment, pharmacological investigations, and clinical validation are among the methods now employed in the scientific validation of Ayurvedic formulations that are included in this study. The paper also emphasises quality control methods, contemporary analytical techniques, regulatory frameworks, and difficulties in standardising polyherbal formulations. Integration of traditional Ayurvedic principles with modern scientific methodologies is necessary to ensure safety, efficacy, consistency, and global acceptance of Ayurvedic medicines.
Keywords: Ayurveda, Scientific validation, Standardization, Polyherbal formulations, Quality control, Herbal medicines, Phytochemical analysis, Clinical evaluation
INTRODUCTION: The development of Ayurveda, Unani, Siddha, homoeopathy, and other natural herb-based health sciences originated in India (Ayush). The Ayush pharmaceutical sector has enormous potential and future growth prospects 1. These include Ayurvedic medicines, Unani medicines, Siddha medicines, homoeopathic medicines, herbal nutraceuticals, herbal cosmoceuticals, herbal health drinks, dietary health supplements, medicinal plants and crude drugs, herbal extracts and concentrates, herbal veterinary medicines, health foods, Ayush health care management, Ayurvedic panchakarma centers, and health spas.
In India, the Ayurvedic philosophy emerged and evolved between 2500 and 500 BC 2. The actual definition of Ayurveda is “science of life,” because ancient Indian system of health treatment centred on perspectives of man and his ailment. It has been noted that people in good health are metabolically balanced. Because it provides a comprehensive approach for living a long, healthy life, Ayurveda is often known as the "science of longevity." It provides nutrition and diet regimens to revitalise the body. It provides therapies for a number of common illnesses, including food allergies, for which there are currently few effective treatments.
But it's important to understand that Ayurvedic diet is not a "magic bullet" approach; rather, its success depends on the patient's complete involvement. It is an instructive and user-friendly interactive system. It educates the patient how to take charge of their own destiny. Ayurveda is not a diet plan for people looking for a way out or a justification to continue abusing their bodies or minds. It is a system of long life, independence, and empowerment 3. Ayurvedic formulations, which include churna, kwatha, arishta, avaleha, vati, and ghrita, are often made from medicinal herbs, minerals, and animal products.
Because of their natural nature and perceived safety, Ayurvedic medicines have seen a significant surge in demand worldwide in recent decades 4. Concerns about adulteration, contamination, batch-to-batch variance, a lack of scientific proof, and variable therapeutic results have also been raised by the commercialisation of Ayurvedic medicines. For marketed Ayurvedic goods to be authentic, high-quality, safe, and effective, scientific validation is consequently required 5.
Ayurvedic remedies are gradually being validated and standardised using contemporary scientific methods including chromatography, spectroscopy, metabolomics, pharmacological research, and clinical trials. Standardisation ensures repeatable therapeutic effects while preserving uniformity in raw materials, production processes, and final goods 6.
Need for Scientific Validation of Ayurvedic Formulations: Scientific validation is essential for the following reasons:
- To ensure safety and efficacy of formulations.
- To prevent adulteration and contamination.
- To establish quality standards.
- To achieve reproducibility and batch consistency.
- To gain international acceptance.
- To support evidence-based medicine.
- To comply with regulatory requirements 7, 8.
Ayurvedic Formulations: Ayurveda formulations are medicinal preparations prepared according to Ayurvedic principles using herbs, minerals, metals, animal products, or combinations of these ingredients. These formulations are designed to restore balance among the three doshas - Vata, Pitta, & Kapha and are used for prevention and treatment of diseases 9.
TABLE 1: AYURVEDIC FORMULATIONS AND THEIR PHARMACEUTICAL PREPARATIONS 11-22
| Formulation | Definition/Preparation Method | Key Features | Examples | Dose |
| Swarasa (Juice) | Fresh juice extracted by crushing green herbs or soaking dry powdered herbs overnight and squeezing through cloth. Putapaka method used for thick leaves/barks by heating wrapped herbal mass before extraction. | Earliest liquid oral formulation; preserves fresh active constituents. | Vasa Putapaka Swarasa, Nimba Putapaka Swarasa, Ginger juice | 24 ml (ordinary), 48 ml (PutapakaSwarasa) |
| Kalka (Paste) | Paste prepared from fresh or dried medicinal herbs by crushing into a cohesive mass. | Retains bioactive constituents without extraction. | Rasona Kalka | 12 g |
| Kwatha (Decoction) | Coarsely powdered drug boiled with water until reduced to one-eighth quantity. | Heat-assisted extraction of active constituents. | Various Kashayas/Decoctions | 50 ml |
| Hima Kalpana (Cold Infusion) | Powdered drugs soaked in cold water for a specified duration and filtered. | Suitable for drugs with cold potency and volatile compounds. | Dhanyaka Hima | 100 ml |
| Phanta Kalpana (Hot Infusion) | Powdered drugs mixed with hot water, steeped, and filtered. | Preserves water-soluble active principles. | Panchakola Phanta | 100 ml |
| Upakalpana (Derived Preparations) | Secondary dosage forms prepared from Panchabidha Kashaya Kalpana to improve efficacy and acceptability. | Enhances stability, palatability, and convenience. | Tablets, syrups, powders, capsules | Depends on dosage form |
| Churna (Powder) | Dried ingredients powdered finely and sieved through cloth (Vastragalana). | Oldest solid dosage form. | TriphalaChurna, SitopaladiChurna, AvipattikaraChurna | As prescribed |
| Vati (Tablet/Pills) | Fine powders triturated with liquids to form dough, then rolled or compressed into tablets. | Stable and compact dosage form. | Chandraprabha Vati, Yogaraja Guggulu, KanchanaraGuggulu | As prescribed |
| Ghrita (Medicated Ghee) | Ghee processed with herbal paste and liquids like decoctions or juices until water evaporates. | Lipid-based formulation enhancing bioavailability. | DhanwantaraGhrita, DadimadyaGhrita | As prescribed |
| Taila (Medicated Oil) | Oils boiled with prescribed herbal decoctions and paste. | Used internally and externally. | Nirgundi Taila, Pinda Taila, Mahamasha Taila | As prescribed |
| Sandhana Kalpana (Fermented Formulations) | Drugs fermented with jaggery/sugar/honey to generate self-produced alcohol. | Long shelf-life and enhanced extraction. | Balarishta, Dashamularishta, Ashokarishta | As prescribed |
| Avaleha (Medicated Jam) | Decoction concentrated with sugar/jaggery into semisolid consistency; additives like honey/ghee included. | Nutritive and rejuvenating semisolid preparation. | Chyawanprash, Agastya Rasayana | As prescribed |
| Satwa (Water Soluble Extract) | Water extraction followed by sedimentation, washing, and drying of starch-rich materials. | Rich in soluble extractive matter. | GuduchiSatwa | As prescribed |
| Bhasma (Calcined Ash) | Purified minerals/metals incinerated repeatedly in closed crucibles. | Fine ash with enhanced therapeutic properties. | Swarna Bhasma, Shukti Bhasma | Very small doses |
| Pisti | Purified minerals triturated with liquids and exposed to moonlight/sunlight repeatedly. | Fine cooling mineral preparation. | Pravala Pisti, Mukta Pisti | As prescribed |
| Arka (Distilled Essence) | Coarsely powdered drugs soaked in water and distilled using Arkayantra. | Distilled aromatic medicinal water. | Ajamodadi Arka, Karpuradya Arka | As prescribed |
| Sarkara (Syrup) | Medicinal liquids mixed with sugar and heated to syrup consistency. | Improved palatability and preservation. | Vanaspa Sharkara, ParushakaSharkara | As prescribed |
| Malahar (Ointment) | Fine powders mixed with liquid or base to form semisolid external preparation. | Used externally on skin/mucous membranes. | Sweta Malahar, JibantyadiMalahar | External application |
Scientific Approaches for Validation:
Pharmacognostic Evaluation: Pharmacognostic studies are the preliminary steps in herbal drug standardization. These methods help in identification and authentication of crude drugs and detection of adulterants.
TABLE 2: PHARMACOGNOSTIC EVALUATION TECHNIQUES USED IN SCIENTIFIC VALIDATION OF AYURVEDIC FORMULATIONS 23-27
| Technique | Principle | Procedure/Methodology | Parameters Evaluated | Instruments/Tools Used | Applications in Ayurvedic Formulations |
| Macroscopic Evaluation | Identification based on visible morphological characters. | The crude drug is examined for size, shape, color, texture, odor, fracture, and surface characteristics. Comparative analysis with standard monographs is performed. | Shape, size, color, external markings, texture, fracture pattern, surface appearance. | Magnifying lens, ruler, measuring scale, weighing balance. | Authentication of raw herbal drugs such as roots, bark, leaves, seeds, and fruits used in Ayurvedic formulations. |
| Microscopic Examination | Different plant species possess characteristic cellular arrangements and tissues. | Thin sections of plant material are prepared, stained, mounted on slides, and observed under microscope. | Epidermis, trichomes, stomata, vascular bundles, fibers, calcium oxalate crystals, starch grains. | Compound microscope, microtome, staining reagents, slides, cover slips. | Identification and standardization of powdered and crude herbal materials in Ayurvedic medicines. |
| Organoleptic Analysis | Sensory characteristics differ among herbal materials. | Drugs are evaluated through visual inspection, smell, taste, touch, and sometimes sound. | Color, odor, taste, texture, appearance, feel. | Human sensory organs, reference standards. | Preliminary quality assessment of Ayurvedic powders, churnas, oils, and formulations. |
| Powder Microscopy | Characteristic microscopic fragments remain identifiable even after powdering. | Powdered sample is treated with reagents, mounted on slides, and observed microscopically. | Fibers, vessels, trichomes, starch grains, pollen grains, crystals, cork cells. | Microscope, staining reagents, slides, mounting media. | Authentication and adulteration detection in churna and powdered Ayurvedic formulations. |
| Histological Studies | Internal tissue architecture is unique for different medicinal plants. | Plant tissues are fixed, sectioned, stained, and examined microscopically for tissue organization. | Tissue arrangement, vascular pattern, secretory cells, lignification, cellular organization. | Microtome, microscope, stains, fixatives. | Standardization and anatomical authentication of medicinal plants used in Ayurvedic formulations. |
Physicochemical Evaluation: Physicochemical parameters are important quality indicators for Ayurvedic formulations. These parameters help maintain quality consistency and shelf-life stability.
TABLE 3: PHYSICOCHEMICAL EVALUATION PARAMETERS USED IN SCIENTIFIC VALIDATION OF AYURVEDIC FORMULATIONS 25-30
| Parameter | Principle | Method | Significance | Instruments Used | Applications in Ayurvedic Formulations |
| Moisture Content | Excess moisture promotes microbial growth and degradation. | Sample is dried to constant weight and percentage moisture is calculated. | Indicates stability, shelf life, and storage quality. | Hot air oven, moisture analyzer. | Evaluation of churna, tablets, granules, and herbal raw materials. |
| Ash Value | Organic matter burns away leaving inorganic mineral residue. | Sample is incinerated at high temperature until carbon-free ash is obtained. | Indicates purity and presence of inorganic impurities/adulterants. | Muffle furnace, silica crucible, weighing balance. | Standardization of herbal drugs and polyherbal formulations. |
| Acid-Insoluble Ash | Siliceous matter like sand remains insoluble in acid. | Total ash is boiled with dilute HCl, filtered, incinerated, and weighed. | Measures contamination with sand, silica, and earthy matter. | Muffle furnace, filtration apparatus, crucible. | Quality assessment of crude drugs collected from natural sources. |
| Extractive Values | Different solvents dissolve different phytoconstituents. | Drug is extracted with solvents such as water or alcohol and residue is weighed after evaporation. | Indicates presence of soluble active constituents. | Soxhlet apparatus, evaporating dish, water bath. | Standardization of herbal extracts and Ayurvedic formulations. |
| pH Determination | Hydrogen ion concentration determines pH value. | pH meter or pH paper is used after preparing solution/suspension of sample. | Influences drug stability, solubility, and compatibility. | Digital pH meter, pH paper. | Evaluation of syrups, decoctions, oils, and semisolid formulations. |
| Loss on Drying (LOD) | Reflects loss of moisture and volatile matter. | Sample is heated at specified temperature until constant weight is achieved. | Indicates moisture and volatile component content. | Hot air oven, weighing balance, desiccator. | Standardization of herbal powders, extracts, and formulations. |
| Viscosity | Internal friction between liquid molecules affects flow behavior. | Time required for liquid flow through viscometer is measured. | Determines consistency, pourability, and stability. | Ostwald viscometer, Brookfield viscometer. | Evaluation of syrups, oils, ghrita, and avaleha preparations. |
| Refractive Index | Different substances bend light differently. | Measured using refractometer under controlled temperature. | Indicates purity and concentration of liquids/oils. | Abbe refractometer, digital refractometer. | Standardization of oils, arka, syrups, and liquid formulations. |
Phytochemical Screening: Preliminary phytochemical analysis identifies active constituents such as Alkaloids, Flavonoids, Glycosides, Tannins, Saponins, Terpenoids and Phenolic compounds. Phytochemical studies provide information regarding bioactive constituents responsible for therapeutic activity.
TABLE 4: MAJOR PHYTOCHEMICAL CONSTITUENTS IN AYURVEDIC FORMULATIONS 31-33
| Phytochemical Constituent | Chemical Nature | Common Identification Tests | Pharmacological Activities | Significance in Ayurvedic Formulations |
| Alkaloids | Basic nitrogenous compounds mainly derived from amino acids. | Mayer’s test, Dragendorff’s test, Wagner’s test, Hager’s test. | Analgesic, antimicrobial, antihypertensive, antimalarial, CNS stimulant/depressant activities. | Contribute to potent therapeutic effects in many Ayurvedic medicines. |
| Flavonoids | Hydroxylated phenolic structures with flavone nucleus. | Shinoda test, Alkaline reagent test, Lead acetate test. | Antioxidant, anti-inflammatory, hepatoprotective, cardioprotective activities. | Responsible for antioxidant and immunomodulatory properties of formulations. |
| Glycosides | Sugar-containing secondary metabolites. | Keller-Killiani test, Borntrager’s test, Legal’s test. | Cardiotonic, laxative, anti-inflammatory, antimicrobial activities. | Enhance therapeutic efficacy and bioavailability in formulations. |
| Tannins | Water-soluble polyphenols. | Ferric chloride test, Gelatin test, Lead acetate test. | Astringent, antimicrobial, antioxidant, wound healing activities. | Useful in treating diarrhea, ulcers, wounds, and inflammatory disorders. |
| Saponins | Steroidal or triterpenoid glycosides. | Foam test, Hemolysis test. | Expectorant, anti-inflammatory, immunomodulatory, hypocholesterolemic activities. | Improve absorption and therapeutic activity of herbal formulations. |
| Terpenoids | Hydrocarbon derivatives of terpenes. | Salkowski test, Liebermann–Burchard test. | Antimicrobial, anticancer, anti-inflammatory, antiviral activities. | Contribute aroma, flavor, and medicinal properties to Ayurvedic formulations. |
| Phenolic Compounds | Aromatic secondary metabolites. | Ferric chloride test, Folin-Ciocalteu assay. | Antioxidant, antiaging, anticancer, anti-inflammatory activities. | Protect against oxidative stress and chronic diseases. |
Modern Analytical Techniques Used in Validation: Advanced analytical tools are widely employed for scientific validation and quality control of Ayurvedic formulations.
Chromatographic Techniques: Modern analytical chemistry plays a significant role in characterization and quality assurance of Ayurvedic preparations.
Thin Layer Chromatography (TLC): Used for identification and fingerprint profiling of herbal constituents.
High Performance Thin Layer Chromatography (HPTLC): Provides accurate qualitative and quantitative estimation of phytoconstituents.
High Performance Liquid Chromatography (HPLC): Used for separation, quantification, and standardization of marker compounds.
Gas Chromatography–Mass Spectrometry (GC-MS): Useful for volatile compound analysis and metabolite identification.
Liquid Chromatography–Mass Spectrometry (LC-MS): Provides detailed molecular profiling and metabolomics data 34-36.
Spectroscopic Techniques: These techniques are useful for structural characterization and detection of heavy metals or contaminants. Common spectroscopic methods include:
- UV-Visible Spectroscopy
- FTIR Spectroscopy
- NMR Spectroscopy
- Atomic Absorption Spectroscopy 36-39.
Toxicological Evaluation: Safety assessment is an important component of scientific validation.
TABLE 5: TOXICOLOGICAL EVALUATION OF AYURVEDIC FORMULATIONS 40-42
| Toxicological Study | Objective | Principle | Method | Parameters Evaluated | Techniques Used | Significance in Ayurvedic Formulations |
| Acute Toxicity Studies | To determine immediate toxic effects and estimate safe dose range (LD50). | Toxicity is assessed based on mortality, behavioral changes, and physiological abnormalities after exposure. | Experimental animals are administered a single high dose and observed for 14 days for toxic symptoms and mortality. | Mortality, behavioral changes, body weight, food intake, neurological symptoms. | Animal studies, OECD guidelines, biochemical and hematological analysis. | Ensures immediate safety and helps establish therapeutic dose levels of Ayurvedic formulations. |
| Subacute Toxicity Studies | To identify toxic effects on organs and physiological functions during repeated exposure. | Repeated administration may produce cumulative toxicity affecting body systems. | Formulation is administered daily to animals for 28 days followed by clinical and laboratory evaluation. | Organ weight, hematology, biochemical parameters, histopathology. | Microscopy, biochemical analyzers, hematologyanalyzers. | Evaluates short-term safety and organ toxicity of Ayurvedic drugs. |
| Chronic Toxicity Studies | To assess long-term safety and detect delayed toxic effects. | Continuous exposure may lead to cumulative organ damage or systemic toxicity. | Animals receive formulation for several months followed by detailed pathological investigations. | Organ damage, carcinogenicity, reproductive toxicity, physiological changes. | Histopathology, imaging techniques, biochemical assays. | Important for formulations intended for prolonged therapeutic use. |
| Heavy Metal Analysis | To ensure levels of metals remain within permissible regulatory limits. | Heavy metals are identified and quantified using analytical instruments. | Samples are digested chemically and analyzed for lead, mercury, arsenic, cadmium, etc. | Heavy metal concentration levels. | Atomic Absorption Spectroscopy (AAS), ICP-MS, ICP-OES. | Ensures safety and regulatory compliance of Ayurvedic formulations, especially herbo-mineral preparations. |
| Microbial Contamination Testing | To evaluate microbiological safety and product hygiene. | Contaminated formulations may harbor harmful microorganisms affecting safety and stability. | Samples are cultured on selective media to determine microbial count and detect pathogens. | Total bacterial count, fungal count, E. coli, Salmonella, Staphylococcus aureus. | Incubators, autoclaves, colony counters, culture media. | Prevents microbial contamination and ensures quality and shelf stability of Ayurvedic products. |
Pharmacological Validation: Pharmacological studies evaluate biological activity using experimental models.
TABLE 6: MAJOR PHARMACOLOGICAL ACTIVITIES STUDIED IN AYURVEDIC FORMULATIONS 40, 43-46
| Pharmacological Activity | Mechanism of Action | Common Experimental Models/Methods | Important Parameters Evaluated | Therapeutic Significance |
| Anti-inflammatory Activity | Inhibition of inflammatory mediators like prostaglandins, cytokines, and histamine. | Carrageenan-induced paw edema, cotton pellet granuloma, membrane stabilization assay. | Reduction in edema, inflammatory markers, cytokine levels. | Useful in arthritis, inflammatory disorders, pain, and autoimmune conditions. |
| Antidiabetic Activity | Enhancement of insulin secretion, increased glucose uptake, inhibition of carbohydrate digestion enzymes. | Streptozotocin-induced diabetes, alloxan-induced diabetes, glucose tolerance test. | Blood glucose level, insulin level, glycated hemoglobin (HbA1c). | Management of diabetes mellitus and metabolic disorders. |
| Antioxidant Activity | Scavenging reactive oxygen species (ROS) and enhancing antioxidant enzymes. | DPPH assay, FRAP assay, nitric oxide scavenging assay. | Free radical scavenging capacity, lipid peroxidation, antioxidant enzyme levels. | Protects against aging, chronic diseases, and cellular damage. |
| Hepatoprotective Activity | Stabilization of hepatocyte membranes and enhancement of liver detoxification enzymes. | Carbon tetrachloride-induced hepatotoxicity, paracetamol-induced liver injury. | Serum SGOT, SGPT, bilirubin, liver histopathology. | Prevention and treatment of liver disorders and hepatotoxicity. |
| Anticancer Activity | Induction of apoptosis, inhibition of angiogenesis and tumor cell proliferation. | Cell line studies, animal tumor models, MTT assay. | Tumor size, cell viability, apoptosis markers. | Potential supportive therapy in cancer management. |
| Antimicrobial Activity | Disruption of microbial cell wall, inhibition of microbial enzymes and protein synthesis. | Agar well diffusion method, MIC determination, disc diffusion assay. | Zone of inhibition, minimum inhibitory concentration (MIC). | Treatment and prevention of infectious diseases. |
| Neuroprotective Activity | Antioxidant activity, neurotransmitter modulation, anti-inflammatory effects in nervous tissue. | Behavioral models, memory tests, neurotoxicity models. | Cognitive function, neurotransmitter levels, neuronal survival. | Useful in neurodegenerative disorders, memory enhancement, and mental health. |
Recent studies have demonstrated significant therapeutic potential of several Ayurvedic formulations using in-vitro and in-vivo experimental models.
Clinical Validation: Clinical trials are considered the gold standard for evaluating efficacy and safety in humans.
Clinical Validation Includes 47-50:
Randomized Controlled Trials (RCTs): Randomized controlled trials are considered the gold standard for evaluating the efficacy and safety of Ayurvedic formulations. In this method, participants are randomly assigned into different groups, such as treatment and control groups, to minimize bias and ensure reliable results. The treatment group receives the Ayurvedic formulation under investigation, while the control group may receive a placebo, standard treatment, or no treatment. Randomization and blinding techniques improve the scientific validity of the study. RCTs help determine therapeutic effectiveness, dosage accuracy, adverse effects, and clinical outcomes under controlled conditions.
Observational Studies: Observational studies involve monitoring patients receiving Ayurvedic treatments without manipulating the intervention or assigning participants randomly. Researchers collect clinical data regarding disease progression, treatment outcomes, safety, and patient responses in real-world settings. These studies may be prospective or retrospective and are useful for understanding long-term effectiveness, patient compliance, and patterns of use in large populations. Observational studies are particularly important in Ayurveda because they help evaluate traditional practices and individualized therapies under routine clinical conditions.
Comparative Clinical Studies: Comparative clinical studies are designed to compare the effectiveness and safety of Ayurvedic formulations with other treatments, such as allopathic medicines, placebo therapies, or different Ayurvedic preparations. These studies help identify the relative therapeutic benefits, side effects, cost-effectiveness, and patient acceptability of different treatment modalities. Comparative studies provide valuable evidence regarding whether Ayurvedic formulations offer equivalent or superior clinical outcomes compared to conventional therapies for specific diseases or conditions.
Pharmacovigilance Studies: Pharmacovigilance studies focus on the detection, assessment, monitoring, and prevention of adverse effects associated with Ayurvedic formulations. These studies collect information related to side effects, drug interactions, toxicity, allergic reactions, and medication errors during clinical use.
Pharmacovigilance is essential for ensuring the long-term safety of Ayurvedic medicines, especially herbo-mineral formulations and polyherbal preparations. Continuous monitoring helps regulatory authorities and healthcare professionals identify potential risks, improve patient safety, and establish evidence-based guidelines for the safe use of Ayurvedic products. Clinical evidence strengthens acceptance of Ayurvedic formulations in mainstream healthcare systems. However, limitations such as small sample sizes, inadequate blinding, poor study design, and lack of multicentric trials still affect the quality of evidence.
Regulatory Framework for Ayurvedic Formulations: In India, Ayurvedic drugs are regulated under 51-53:
Drugs and Cosmetics Act, 1940: The main law controlling the production, sale, distribution, and quality assurance of Ayurvedic, Siddha, and Unani medicines in India is the Drugs and Cosmetics Act, 1940. The Act creates legal requirements to guarantee traditional medical items' purity, safety, and effectiveness. This Act contains specific regulations that govern Ayurvedic formulation production procedures, storage conditions, labelling standards, and licensing requirements. Additionally, it gives regulatory bodies the ability to keep an eye on counterfeit goods, misbranding, and adulteration. The Act provides the legislative framework for controlling the Ayurvedic pharmaceutical sector and safeguarding public health.
Ministry of AYUSH Guidelines: The Government of India's Ministry of AYUSH is in charge of promoting, regulating, teaching, and researching traditional medical systems, such as Ayurveda.
The ministry publishes thorough recommendations on pharmacovigilance, clinical research, quality control, raw material procurement, manufacturing standards, and Ayurvedic formulation standardisation. These rules support the preservation of consistency and scientific validity in Ayurvedic industry and practices. In order to promote evidence-based Ayurveda and the acceptability of traditional medical systems across the world, the Ministry also funds research projects, digitalisation, and international cooperation.
Ayurvedic Pharmacopoeia of India (API): An official document that offers uniform quality standards for Ayurvedic medications and formulations is the Ayurvedic Pharmacopoeia of India (API). It contains comprehensive monographs on the identification, strength, purity, analytical techniques, physicochemical characteristics, and quality standards of Ayurvedic medicinal herbs and formulations.
For producers, researchers, regulatory bodies, and quality control labs, the API is a reliable resource. The API guarantees the uniformity, authenticity, and safety of Ayurvedic raw materials and completed goods by setting criteria that have been scientifically established.
Good Manufacturing Practices (GMP): Ayurvedic medicines are routinely made and monitored in accordance with predetermined quality standards thanks to a set of rules and quality assurance methods known as Good Manufacturing Practices (GMP). Aspects of manufacturing like as infrastructure, equipment, cleanliness, paperwork, personnel training, quality control testing, packaging, labelling, and storage are all covered by GMP laws.
Contamination, batch-to-batch fluctuation, and manufacturing mistakes are reduced when GMP is used. In order to guarantee the safety, effectiveness, and dependability of Ayurvedic medications, certified Ayurvedic pharmaceutical firms must adhere to GMP. WHO guidelines also emphasize assessment of identity, purity, safety, and efficacy of herbal medicines.
Challenges in Scientific Validation: Despite advancements, several challenges remain:
Complexity of Polyherbal Formulations: Multiple ingredients produce synergistic effects that are difficult to standardize.
Variability in Raw Materials: Geographical conditions, harvesting methods, and seasonal variations affect phytochemical composition.
Lack of Standard Marker Compounds: Identification of suitable biomarkers for standardization remains difficult.
Adulteration and Substitution: Intentional or accidental adulteration compromises quality and safety.
Limited Clinical Evidence: Many marketed formulations lack robust clinical trials.
Regulatory Limitations: Uniform global regulatory standards for Ayurvedic medicines are still evolving 54-56.
CONCLUSION: For Ayurvedic commercial formulations to be safe, effective, high-quality, and widely accepted, they must undergo scientific validation. Modern analytical and pharmacological methods are required to build evidence-based legitimacy, yet traditional Ayurvedic knowledge offers a solid therapeutic basis. Ayurvedic goods may be made more consistent and reliable by thorough standardisation that includes pharmacognostic evaluation, phytochemical screening, chromatographic profiling, toxicological investigations, and clinical validation. The future growth of Ayurveda as an evidence-based healthcare system will depend heavily on the integration of ancient concepts with contemporary scientific approaches.
ACKNOWLEDGEMENT: Nil
CONFLICTS OF INTEREST: Nil
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How to cite this article:
Kashayap D, Kannojia P and Sharma PK: A comprehensive review: study on scientific validation of ayurvedic marketed formulations. Int J Pharm Sci & Res 2026; 17(10): 2905-14. doi: 10.13040/IJPSR.0975-8232.17(10).2905-14.
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Article Information
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2905-2914
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English
IJPSR
Deepali Kashayap *, Pushpendra Kannojia and Prashant Kumar Sharma
BIU College of Pharmacy, Bareilly International University, Bareilly, Uttar Pradesh, India.
kmdeepalikashyap2202@gmail.com
24 April 2026
29 May 2026
20 June 2026
10.13040/IJPSR.0975-8232.17(10).2905-14
01 October 2026





