|Year : 2016 | Volume
| Issue : 3 | Page : 230-237
Physicochemical characterization of Shadguna Balijarita Makaradhwaja: A preliminary study
Sanjay Bhausaheb Khedekar1, Prashanta Bedarkar2, Pradeepkumar Prajapati3
1 Department of Rasashastra and Bhaishajya Kalpana, Shree Satashrungi Ayurveda Mahavidyalaya and Hospital, Nashik, Maharashtra, India
2 Department of Rasashastra and Bhaishjya Kalpana, IPGT and RA, Gujarat Ayurveda University, Jamnagar, Gujarat, India
3 Department of Rasashastra and Bhaishajya Kalpana, All India Instiute of Ayurveda, New Delhi, India
|Date of Web Publication||30-Jan-2018|
Dr. Sanjay Bhausaheb Khedekar
Arya Ayurved, 2, Suvidhinath Sosc, Opp Main Fire Brigade, Shingada Talao, Gadkari Chowk, Nashik - 422 001, Maharashtra
Source of Support: None, Conflict of Interest: None
| Abstract|| |
Background: Makaradhwaja, a herbomineral preparation, is a popular aphrodisiac and rejuvenator in traditional medicine. It is prepared from purified gold, mercury, and sulphur in different proportions by the application of gradually increasing heat in modified electrical muffle furnace (Valuka Yantra). To find out major and minor trace elements and structural composition of Makaradhwaja, its chemical characterization is needed. Aim: This study aims to develop preliminary physicochemical profile of Shadguna Balijarita Makaradhwaja (SBM). Materials and Methods: Physicochemical characterization of Shadguna Balijarita Makaradhwaja was carried out by adopting various techniques, viz. X-ray diffraction, inductively coupled plasma optical emission spectrometry (ICP-OES), and Fourier transform infrared spectroscopy to determine structure and contents. Results and Conclusion: Shadguna Balijarita Makaradhwaja contains 12131 ppm of gold in inductively coupled plasma optical emission spectrometry study. FTIR study revealed few organic compounds. Structurally, it is a mercuric sulfide having an empirical formula HgS.
Keywords: Cinnabar gold, Kupipakwa Rasayana, Makaradhwaja, mercuric sulfide
|How to cite this article:|
Khedekar SB, Bedarkar P, Prajapati P. Physicochemical characterization of Shadguna Balijarita Makaradhwaja: A preliminary study. AYU 2016;37:230-7
|How to cite this URL:|
Khedekar SB, Bedarkar P, Prajapati P. Physicochemical characterization of Shadguna Balijarita Makaradhwaja: A preliminary study. AYU [serial online] 2016 [cited 2020 Aug 13];37:230-7. Available from: http://www.ayujournal.org/text.asp?2016/37/3/230/224172
| Introduction|| |
Rasashastra, a branch of Ayurveda pharmaceutics, mainly deals with mercurial, herbomineral and herbometallic medicinal preparations. Due to its therapeutic efficacy, quicker action, and minimum dosage, it is the most popular branch in the Indigenous system of medicine. Mercurial preparations are the basic ideology of this stream. Different forms of mercurial preparations were mentioned in the classical texts of Rasashastra; Kupipakwa Rasayana is one of them. These Kupipakwa Rasayana differs due to its proportion of mercury and sulphur. The concept of Balijarana (heat treatment to purified mercury in the presence of purified sulphur) is one of the prime concepts. In the contexts of Balijarana, Shadguna Balijarana is mentioned to be more potent than Samaguna and Dwiguna. However, among all Kupipakwa Rasayanas due to gold content, Makaradhwaja is therapeutically more potent and popular. Classical texts of Ayurveda mentioned Makaradhwaja as a drug of choice in many disorders such as Sandhivata (arthritis), Kushtha (skin disorders), Madhumeha (diabetes), Daurbalya (fatigue) and used as major Vajikarana (aphrodisiac) and Rasayana (rejuvenator) agent. Few scholars reported its therapeutic and experimental studies.,,,,, As it contains metal-like gold and heavy metal-like mercury, its structural and chemical analysis is needed, which will help in the pharmacological and therapeutic assessment of the compound. Here, in the present study, Shadguna Balijarita Makaradhwaja was prepared and its physicochemical characterization was carried out by using sophisticated techniques such as X-ray diffraction (XRD), Fourier transform infrared spectroscopy (FTIR) and Inductively coupled plasma optical emission spectrometry (ICPOES).
| Materials and Methods|| |
Preparation of Makaradhwaja
Test drug Makaradhwaja was prepared as per the classical text reference  in the departmental laboratory. Raw Material Swarna (gold) was purchased from local market, and Hingula (cinnabar) and Gandhaka (sulfur) were collected from the Pharmacy of Gujarat Ayurved University, Jamnagar [Table 1]. Gold was subjected to Shodhana and its foils were prepared. Cinnabar was processed to Shodhana (purification), and Parada (mercury) was procured from its sublimation by using Nada Yantra method. Powder of cinnabar was spread over the cotton cloth and wrapped. The wrapped cloth was put inside the earthen pot and ignited, immediately Nada (big earthen vessel) was kept over earthen pot. After 24 h, evaporated mercury was found coated at the inner surface of Nada and Mercury was collected by rubbing the inner surface of Nada. Gandhaka (sulfur) was subjected to Shodhana by melting it and pouring in cow milk and continuously heated in the same milk for 3 h. Processed gold foils, mercury, and sulfur were taken in ratio of 1:8:48 in weight. Amalgamation was done by adding gold foils to purified mercury. Fine lusterless powder of black sulfide of mercury (Kajjali) was prepared by triturating purified sulfur with above-prepared amalgam. Kajjali was levigated with juice of Aloe barbadensis and juice of flowers of Hibiscus rosa sinensis for 3 h consecutively and the levigated Kajjali was dried. The fine powder was filled in seven-layer mud-smeared cotton cloth wrapped glass bottle (KachaKupi) and heated for 12 h [Table 2]. The heat was provided in controlled manner and gradually increasing temperature in modified electrical muffle furnace (Modified Valuka Yantra), i.e., mild heat100°C to 250°C for 2.5 h, Madhyamagni (moderate heat) 250°C to 450°C for 4.5 h, and Tivraagni (strong heat) 450°C to 600°C for 5 h. After the desired characteristic features of product preparation, mouth of glass bottle was sealed; furnace was switched off and subjected for self-cooling. Highest recorded temperature was 600°C. Sublimed product was collected at neck of glass bottle [Figure 1]; it was powdered and used for further analysis [Figure 2]. The prepared Shadguna Balijarita Makaradhwaja was designated as SBM.
|Table 1: Quantity of Ingredients use for preparation of Shadguna Balijarita Makaradhwaja (SBM)|
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Structural and chemical characterization of Makaradhwaja
Physicochemical analysis of prepared SBM was done in pharmaceutical laboratory, XRD, ICPOES, and FTIR of SBM were carried out for determination of structural characterization of SBM.
SBM was found tasteless, odorless, smooth, and bright red colored on physical examination [Table 3].
Characterization by X-ray diffraction
Peaks of mercury sulfide were observed in XRD of SBM. No any extra diffraction peaks were observed. Structure of mercury sulfide was observed as hexagonal crystal and having empirical formula of HgS [Figure 3] and [Table 4].
|Figure 3: X-ray diffraction analysis of Shadguna Balijarita Makaradhwaja|
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|Table 4: Peaks observed in X-ray diffraction analysis of Shadguna Balijarita Makaradhwaja|
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Characterization by inductively coupled plasma optical emission spectrometry
Major and minor trace elements in SBM were analyzed by adopting ICPOES. Elements such as mercury, sulfur, gold, lead, arsenic and cadmium were estimated for characterization of SBM. Major elements such as mercury and sulfur were examined as 757700.0 ppm and 107760.0 ppm, respectively, in SBM. 12131 ppm quantity of gold was found present in SBM along with 7.58 ppm of lead whereas, arsenic and cadmium were not detected [Table 5].
|Table 5: Results of inductively coupled plasma optical emission spectrometry analysis of Shadguna Balijarita Makaradhwaja|
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Characterization by Fourier transform infrared spectroscopy
FTIR spectra of the sample were taken in the region of 400–4000 cm−1. Large number of functional groups were observed. Sharp peaks were obtained at and around 742.34, 1112.67, 1385.65, 1632.95, 2341.25, 2923.84, 2850.48, and 3431.97 in SBM [Table 6], [Table 7], [Table 8] and [Figure 4].
|Table 6: Fourier transform infrared spectroscopy peaks and functional groups detected in sample Shadguna Balijarita Makaradhwaja|
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|Table 7: Fourier transform infrared spectroscopy peaks obtained in Shadguna Balijarita Makaradhwaja|
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|Table 8: Fourier transform infrared spectroscopy peaks of sample Shadguna Balijarita Makaradhwaja obtained in different regions|
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|Figure 4: Fourier transform infrared spectroscopy analysis of Shadguna Balijarita Makaradhwaja|
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| Discussion|| |
Physical analysis showed that SBM is tasteless, odorless, and smooth as prescribed in Bhasma examination. It is having unique bright red color as mentioned for Sindoora in Rasashastra.
In XRD study, peaks only due to mercury sulfide with an empirical formula of HgS and hexagonal crystal structure were observed. Previous studies support this observation.,,,, The presence of trace elements was not reflected in XRD pattern. It might be possible that trace elements were not present on the surface of crystal. XRD analysis of SBM showed its average particle size 34.96 nm which is of nanosize. This observation suggests that not only the Bhasma preparation procedures of Ayurvedic pharmaceutics are responsible for creating nanoparticles but also Kupipakwa Rasa preparation is responsible for the creation of such nano size medicines. SBM is found majorly in sulfide form which is considered as safe form of mercury; however, there are few peaks in XRD which represent minor oxide forms too. Whether they are solely or bound to herbal phytoconstituents or sulfide forms is not known and hence, it is difficult to interpret active role of oxide phase. SBM contains significant proportion of HgS which is dimorphic with two crystal forms. Red cinnabar (α-HgS, Trigonal) is the form in which mercury is most commonly found in nature. Black, metacinnabar (β-HgS), is less common in nature and adopts the zinc blende crystal structure. Under atmospheric pressure, mercuric oxide has two crystalline forms: one is called montroydite (HgO) (orthorhombic) and the second is analogous to the sulfide mineral cinnabar (hexagonal); Hg-O chains characterize both. Both these forms are detected in XRD of SBM. At pressures above 10 GPa (pressure at which octaoxygen forms at room temperature), both structures convert to a tetragonal form which is also detected in XRD. The pressure above 10 GPa is near to room temperature, i.e. allowing proper cooling during Kupipakwa procedure which, forms tetragonal structure. This observation can be considered as parameter to know whether Kupipakwa formulations were collected after complete cooling or not. Orthorhombic and hexagonal structures are found majorly in SBM which is suggestive of mercury sulfate (HgSO4 or HgO4S).
There was no perfect matching peak in JCPDS and NBS database related to SBM; hence, the correlations were done based on the nearest peak with average 0.1–0.4° 2th difference. The presence of nanoparticle size and the proportion of orthorhombic and hexagonal crystal size can be further applied for comparative estimation of Samaguna, Dwiguna, Triguna and Shadguna Balijarita Makaradhwaja.
In the present study, gold was observed 12131 ppm (1.2%) in sublimed product of SBM. It is the highest quantity of gold observed in finished product of all types of Makaradhwaja, reported till date. In previous studies of SBM prepared by Astasamskarita Parada by adopting different operating procedures observed 663.14 ppm, 421.86 ppm, and 5.99 ppm  gold content in sublimed product, which is too less than the present value. The observed difference may be due to variable in raw material, heating pattern, and procedure. In another study, 268 ppm  and 300.16 ppm  gold were observed in the sublimed product in Triguna Balijarita Makaradhwaja (TBM) in ICPOES study. For TBM, purified mercury and sulfur are taken in ratio 1:3 while in Shadguna Balijarita Makaradhwaja, it is 1:6. Rasashastra claims that, therapeutic efficacy of Shadguna Balijarana is more than Triguna Balijarana.
About 75.77% mercury and 10.78% sulfur were observed in SBM. XRD study revealed that SBM contains mercury sulfide (HgS). Previous researcher reported 81.50% and 10.96% quantity of mercury and sulfur respectively, in finished product of TBM. Comparing both studies, quantity of mercury was found less in the present study. It might possibly be due to excess amount of sulfur used in the procedure which may evaporate mercury during sublimation. Possible change in combining ratio indicates toward the process of Balijarana and heating process. It might get more capability to retain sulfur along with other trace elements reported in ICPOES study. While arsenic and cadmium were not detected in SBM. The lead was detected in negligible amount, but the reason behind the presence of lead in the finished product is unknown.
FTIR study revealed that, SBM contains organic compounds and the study was also supported by previous work. Identification of functional group is one of the important analytical measures to understand the chemical nature and possible chemical composition of a sample. FTIR is a well-known tool for detection of presence of functional groups or organic legends. Therefore, prepared sample SBM was analyzed using FTIR analysis which was done using FTIR spectra in the region of 450–3700 cm−1.
Stretching vibrations of C-H at 1385.65, 2850.28, and 2923.84 cm−1 represent Alkyl group; however, C-H bond at the wavelength 742.34 cm−1 is assigned to aromatic monosubstituted benzene. Medium to strong peak obtained at 1632.95 and 3431.97 cm−1 are due to C-C and N-H stretching vibrations which are assigned to dienes with benzene ring and primary amines, respectively. Low concentration of alcohols and phenols has been detected by O-H bond vibration in the range of 3610–3670 cm−1 (2725–2770 nm). The multiple and slightly overlapped peaks obtained in the range 1020–1220 cm−1 and 2165–2110 cm−1 are representative of aliphatic amines and possible nitro compounds. Aromatic nitro compounds are also found at a peak (1513.13 cm−1). Two peaks obtained in triple bond region are due to C-C stretching vibrations of C=C and can be considered as indicators of disubstituted Alkynes; however, this prediction needs furthermore evaluation as obtained peak is very weak. A weak to medium peak obtained at 1539.66 cm−1 is due to C=O and it represents carboxylic acids/derivatives, especially carboxylates (salts).
SBM samples showed the presence of large number of functional groups which were represented by 14 peaks. Among these peaks, 4 peaks were obtained in hydrogen stretching region (3700–2700 cm−1). Absorption peaks in this region of 3700–3100 cm−1 are ordinary due to various O-H and N-H stretching vibrations, with the former tending to appear at higher wave numbers. Aliphatic C-H vibrations fall in between the region 3000 and 2850 cm−1. Most aliphatic compound has sufficient number of C-H bond to make this prominent peak. Two peaks were obtained in triple bond region (2700–1950 cm−1). There are few compounds which are responsible to create triple bond which is not a common phenomenon. Hence, obtained peak in this region has a significant value which can be taken as parameter for specific drug prepared by adopting specific procedure.
Only one peak was obtained in double-bond region (1950–1550 cm−1). The carbonyl stretching vibration is characterized by absorption through this region. Ketones, aldehydes, acids, amides, and carbonates have absorption peaks at around 1700 cm−1. Esters, chlorides and acid aldehydes tend to absorb at slightly higher wavelengths; that is 1770–1725 cm−1. Conjugation tends to lower the absorption peaks by about 20 cm−1. It is impossible to determine the type of carbonyl that is present solely based on absorption in this region; however, examination of additional spectral region may provide evidence needed for clear-cut identification.
There are five peaks obtained in fingerprint region (1500–700 cm−1). A small difference in the structure and constitution of a molecule result in significant changes in the distribution peaks in this region of the spectrum. Most single bonds give rise to absorption bands at these frequencies. The C-O-C stretching vibration in ethers and esters are found at about 1200 cm−1 and the C-Cl stretching vibration at 700–800 cm−1. Several inorganic groups such as sulfate, phosphate, nitrate, and carbonate also absorb at wave numbers below 1200 cm−1.
All observed peaks indicate the presence of organic compounds in samples of SBM. These may be new chemical entities formed due to unique method of drug processing. It can be interpreted that these organic functional groups were probably impregnated from the herbs used in processing. The organic nature of the drug represents its difference from artificial mercurial compounds as well as mercurial minerals.
These peaks indicate the presence of organic compounds in the drugs. For the purification of raw materials and levigation purpose, herbals were used in the procedure. It may be reason behind observed organic compounds in finished product. It proves definite role of purification (Shodhana) and levigation (Bhavana) in the preparation of Rasashastra medicines.
| Conclusion|| |
Shadguna Balijarita Makaradhwaja is a tasteless, bright orange red-colored substance. Chemical characterization by ICPOES study shows that Shadguna Balijarita Makaradhwaja contains 12131 ppm of gold as major element along with mercury and sulfur. Structurally, it is mercury sulfide, which contains few organic compounds.
We would like to thanks Ex- Director, Prof. MS Baghel, IPGT and RA, Gujarat Ayurved University, Jamnagar, Asso. Prof. Dr. Galib, Department of RS and BK, All India Institute of Ayurveda, New Delhi and Asst Prof Dr. Dhiraj Rajput for constant support and technical inputs to carry out this work.
Financial support and sponsorship
This study was financially supported by IPGT and RA, Gujarat Ayurved University, Jamnagar.
Conflicts of interest
There are no conflicts of interest.
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[Figure 1], [Figure 2], [Figure 3], [Figure 4]
[Table 1], [Table 2], [Table 3], [Table 4], [Table 5], [Table 6], [Table 7], [Table 8]