Simultaneous determination of guaiphenesin and salbutamol sulphate in pharmaceutical dosage by reverse phase high performance liquid chromatography

Similar documents
Reversed Phase High Presssure Liquid Chromatograhphic Technique for Determination of Sodium Alginate from Oral Suspension

Development of validated RP- HPLC method for estimation of rivaroxaban in pharmaceutical formulation

INTERNATIONAL JOURNAL OF PHARMACEUTICAL RESEARCH AND BIO-SCIENCE

High Performance Thin Layer Chromatographic Method for Estimation of Cefprozil in Tablet Dosage Form

SIMULTANEOUS DETERMINATION OF TELMISARTAN AND HYDROCHLOROTHIAZIDE IN TABLET DOSAGE FORM USING REVERSE PHASE HIGH PERFORMANCE LIQUID CHROMATOGRAPHY

VALIDATION OF HPLC METHOD FOR DETERMINATION OF DOCOSAHEXAENOIC ACID (DHA) IN MULIIVITAMIN CAPSULE DIAH WIDOWATI*, ROS SUMARNY, ESTI MUMPUNI

Step-by-Step Analytical Methods Validation and Protocol in the Quality System Compliance Industry

A NEW METHOD DEVELOPMENT AND VALIDATION FOR ANALYSIS OF RIVAROXABAN IN FORMULATION BY RP HPLC

ANALYTICAL METHODS INTERNATIONAL QUALITY SYSTEMS

International Journal of Pharma and Bio Sciences V1(2)2010

Develop a Quantitative Analytical Method for low (» 1 ppm) levels of Sulfate

Journal of Chemical and Pharmaceutical Research, 2012, 4(7): Research Article

ERDOSTEINE - MONOGRAPH.

HPLC Analysis of Acetaminophen Tablets with Waters Alliance and Agilent Supplies

Simultaneous determination of L-ascorbic acid and D-iso-ascorbic acid (erythorbic acid) in wine by HPLC and UV-detection (Resolution Oeno 11/2008)

LUMEFANTRINE Draft proposal for The International Pharmacopoeia (October 2006)

SUCRALOSE. White to off-white, practically odourless crystalline powder

PVV Satyanaryana et al., IJSID, 2012, 2 (1), International Journal of Science Innovations and Discoveries

UV-VIS SPECTROPHOTOMETRIC METHOD FOR ESTIMATION OF GABAPENTIN AND METHYLCOBALAMIN IN BULK AND TABLET

Journal of Chemical and Pharmaceutical Research

Project 5: Scoville Heat Value of Foods HPLC Analysis of Capsaicinoids

Guidance for Industry

High performance thin layer chromatographic method for estimation of deflazacort in tablet

Research Article. Development and validation of a HPLC analytical assay method for dapoxetine tablets: A medicine for premature ejaculation

GUIDELINES FOR THE VALIDATION OF ANALYTICAL METHODS FOR ACTIVE CONSTITUENT, AGRICULTURAL AND VETERINARY CHEMICAL PRODUCTS.

Transfer of a USP method for prednisolone from normal phase HPLC to SFC using the Agilent 1260 Infinity Hybrid SFC/UHPLC System Saving time and costs

UV Spectrophotometric estimation of Paracetamol and Lornoxicam in Bulk drug and Tablet dosage form using Multiwavelength

Analysis of Various Vitamins in Multivitamin Tablets

Analytical Test Report

Journal of Chemical and Pharmaceutical Research

Application Note. Determination of Nitrite and Nitrate in Fruit Juices by UV Detection. Summary. Introduction. Experimental Sample Preparation

VALIDATION OF ANALYTICAL PROCEDURES: TEXT AND METHODOLOGY Q2(R1)

Tamsulosin Hydrochloride Capsules

ETHYL LAUROYL ARGINATE

A Complete Solution for Method Linearity in HPLC and UHPLC

SIMULTANEOUS DETERMINATION OF NALTREXONE AND 6- -NALTREXOL IN SERUM BY HPLC

Analytical Test Method Validation Report Template

Implementing New USP Chapters for Analytical Method Validation

International Journal of Research and Reviews in Pharmacy and Applied science.

EUROPEAN COMMISSION DIRECTORATE-GENERAL TAXATION AND CUSTOMS UNION TAX POLICY Excise duties and transport, environment and energy taxes

Research Article. Stress study and estimation of a potent anticoagulant drug rivaroxaban by a validated HPLC method: Technology transfer to UPLC

HIGH PERFORMANCE THIN LAYER CHROMATOGRAPHIC METHOD FOR DETERMINATION OF TADALAFIL IN TABLET DOSAGE FORM

International GMP Requirements for Quality Control Laboratories and Recomendations for Implementation

By T.Sudha, T.Raghupathi

GC METHODS FOR QUANTITATIVE DETERMINATION OF BENZENE IN GASOLINE

ICH Topic Q 2 (R1) Validation of Analytical Procedures: Text and Methodology. Step 5

α-cyclodextrin SYNONYMS α-schardinger dextrin, α-dextrin, cyclohexaamylose, cyclomaltohexaose, α- cycloamylase

Validation and Calibration of Analytical Instruments a D.Gowrisankar, b K.Abbulu, c O.Bala Souri, K.Sujana*

Simultaneous determination of aspartame, benzoic acid, caffeine, and saccharin in sugar-free beverages using HPLC

Minor editorial changes have been made to update the monograph to the current USP style.

Articaine & Epinephrine Injection according to USP method

Quality by Design Approach for the Separation of Naproxcinod and its Related Substances by Fused Core Particle Technology Column

DRAFT MONOGRAPH FOR THE INTERNATIONAL PHARMACOPOEIA PARACETAMOL ORAL SUSPENSION (September 2010)

Drospirenone and Ethinyl Estradiol Tablets. Type of Posting. Revision Bulletin Posting Date. 31 July 2015 Official Date

Analysis of the Vitamin B Complex in Infant Formula Samples by LC-MS/MS

Intelligent use of Relative Response Factors in Gas Chromatography-Flame Ionisation Detection

# LCMS-35 esquire series. Application of LC/APCI Ion Trap Tandem Mass Spectrometry for the Multiresidue Analysis of Pesticides in Water

Scholars Research Library. A validated RP-HPLC method for estimation of Rivastigmine in pharmaceutical formulations

Standard Analytical Methods of Bioactive Metabolitesfrom Lonicera japonica Flower Buds by HPLC-DAD and HPLC-MS/MS

Overview. Purpose. Methods. Results

Spectrophotometric Method for the Determination of Paracetamol

LIQUID CHROMATOGRAPHY HOW MUCH ASPIRIN, ACETAMINOPHEN, AND CAFFEINE ARE IN YOUR PAIN RELIEVER? USING HPLC TO QUANTITATE SUBSTANCES (Revised: )

1.1 This test method covers the qualitative and quantitative determination of the content of benzene and toluene in hydrocarbon wax.

Extraction of Epinephrine, Norepinephrine and Dopamine from Human Plasma Using EVOLUTE EXPRESS WCX Prior to LC-MS/MS Analysis

TANNIC ACID. SYNONYMS Tannins (food grade), gallotannic acid, INS No. 181 DEFINITION DESCRIPTION

ACETALDEHYDE and ISOVALERALDEHYDE (Gas Chromatography)

Dissolved and precipitated oxalate

Journal of Chemical and Pharmaceutical Research, 2012, 4(6): Research Article

Analytical Method Development and Validation of Caffeine in Tablet Dosage Form By Using UV- Spectroscopy

IN VITRO BINDING BIOEQUIVALENCE STUDY SUMMARY TABLES AND SAS TRANSPORT FORMATTED TABLES FOR DATASET SUBMISSION

The Use of Micro Flow LC Coupled to MS/MS in Veterinary Drug Residue Analysis

LC-MS/MS Method for the Determination of Docetaxel in Human Serum for Clinical Research

ORIENTAL JOURNAL OF CHEMISTRY An International Open Free Access, Peer Reviewed Research Journal.

ANALYTICAL METHOD DEVELOPMENT FOR DISSOLUTION RELEASE OF FINISHED SOLID ORAL DOSAGE FORMS

All the prepared formulations were subjected for following. evaluation parameters and obtained results were showed in Tables 6.3 &

Validation and Calibration. Definitions and Terminology

Photolytic-Thermal Degradation Study And Method Development Of Rivaroxaban By RP-HPLC

ANALYSIS OF FOOD AND NATURAL PRODUCTS LABORATORY EXERCISE

High sensitivity assays using online SPE-LC-MS/MS -How low can you go? Mohammed Abrar Unilabs York Bioanalytical solutions, York, UK

The Theory of HPLC. Gradient HPLC

CONFIRMATION OF ZOLPIDEM BY LIQUID CHROMATOGRAPHY MASS SPECTROMETRY

A practical and novel standard addition strategy to screen. pharmacodynamic components in traditional Chinese medicine using

Evaluating System Suitability CE, GC, LC and A/D ChemStation Revisions: A.03.0x- A.08.0x

Amino Acid Analyzer L-8900

Vitamin C quantification using reversed-phase ion-pairing HPLC

DEVELOPMENT AND VALIDATION OF A STABILITY INDICATING HPLC METHOD FOR ANALYSIS OF PEFLOXACIN IN BULK DRUG AND TABLET DOSAGE FORM

Method Development of LC-MS/MS Analysis of Aminoglycoside Drugs: Challenges and Solutions

Gas Chromatography. Let s begin with an example problem: SPME head space analysis of pesticides in tea and follow-up analysis by high speed GC.

Method Development for Size-Exclusion Chromatography of Monoclonal Antibodies and Higher Order Aggregates

Application Note. Determination of Amino acids by UHPLC with automated OPA- Derivatization by the Autosampler. Summary. Fig. 1.

KINETIC DETERMINATION OF SELENIUM BY VISIBLE SPECTROSCOPY (VERSION 1.8)

Determination of Caffeine in Beverages HPLC-1

HPLC Column Comparison Screening Study for Reversed Phase Columns

Human serum albumin (HSA) nanoparticles stabilized with. intermolecular disulfide bonds. Supporting Information

Determination of caffeine and vitamin B6 in energy drinks by high-performance liquid chromatography (HPLC)

Fast, Reproducible LC-MS/MS Analysis of Dextromethorphan and Dextrorphan

Technical Report. Automatic Identification and Semi-quantitative Analysis of Psychotropic Drugs in Serum Using GC/MS Forensic Toxicological Database

NITRIC OXIDE and NITROGEN DIOXIDE 6014

Transcription:

Available online www.jocpr.com Journal of Chemical and Pharmaceutical Research, 2015, 7(4):908-912 Research Article ISSN : 0975-7384 CODEN(USA) : JCPRC5 Simultaneous determination of guaiphenesin and salbutamol sulphate in pharmaceutical dosage by reverse phase high performance liquid chromatography Rajan V. Rele Central Research Laboratory, D. G. Ruparel College, Matunga, Mumbai ABSTRACT A simple, rapid and accurate high performance liquid chromatography method is described for simultaneous determination of guaiphenesin and salbutamol sulphate from active pharmaceutical ingredients. The separation of drug was achieved on Zorbax Eclipse C18 (250 x 4.6 mm i.d.) with 5 µ particle size column showed most favorable chromatographic pattern over the other columns. The mobile phase consisted of a mixture of buffer of ph 4.3 and acetonitrile [75:25 % (v/v)]. The detection was carried out at wavelength 225 nm. The mixture of buffer of ph 4.3 and acetonitrile [75:25% (v/v)] was used as a diluent. The method was validated for system suitability, linearity, accuracy, precision, robustness, stability of sample solution. The method has been successfully used to analyze guaiphenesin and salbutamol sulphate from combined dosage form. Keywords: Guaiphenesin, Salbutamol sulphate, Acetonitrile, tri-ethyl amine, ortho phosphoric acid. INTRODUCTION Guaiphenesin is, 3-(2-Methoxyphenoxy)-1,2-propanediol. It shows molecular formula as C 10 H 10 O 4 with molecular weight as 198.2. It is official in BP [1] and IP [2] and USP [3] is used to increase the volume and reduce the viscosity of tenacious sputum and is used as expectorant for productive cough. Salbutamol sulphate is, chemically known as bis [(1RS) 2 [(1, 1 Di-methyl-ethyl) amino] 1 [4 hydroxy 3 (hydroxyl methyl) phenyl] ethanol] sulphate, is beta adrenoceptor agonist used for the relief of broncho spasm in conditions such as asthma and chronic obstructive pulmonary disease. The drug is official in Indian pharmacopoeia [1]. Literature survey reveals a HPLC [4] and spectrophotometric [5] methods for simultaneous determination of guaiphenesin and salbutamol sulphate in combined dosage form. EXPERIMENTAL SECTION Chemical and reagents Reference standard of guaiphenesin and salbutamol sulphate were obtained from reputed firm with certificate of analysis. Tri-ethylamine, acetonitrile and ortho phosphoric acid were used of analytical grade and the HPLC grade water was used from Millipore. Standard and sample solutions were prepared in diluent [mixture of buffer of ph 4.3 and acetonitrile [75:25 %( v/v)]. 908

Instrumentation The HPLC system used was MERCK Hitachi HPLC system equipped with auto sampler (D 7200 separation module) and UV detector (D- 7400). The chromatogram was recorded and peaks quantified by means of PC based EZ Chrom Elite software.a SHIMADZU analytical balance (0.01 mg) was used. Preparation of Standard preparation Standard solution A 2 mg of salbutamol sulphate was weighed accurately and transferred in 10 ml volumetric flask. About 5 ml of diluent [mixture of buffer of ph 4.3 and acetonitrile (75:25 % v/v)] was added and sonicated for 10 minutes. The volume was adjusted up to the mark with diluent to give concentration as 200 µg /ml of salbutamol sulphate respectively. It was stock solution A. A 10 mg of guaiphenesin was weighted accurately and transferred in 10 ml volumetric flask. About 5 ml of diluent [mixture of buffer of ph 4.3 and acetonitrile (75:25 % v/v)] was added and sonicated for 10 minutes, in this solution 1 ml of stock solution A was added and again sonicated for 10 minutes and the volume was adjusted up to the mark with diluent to give concentration as guaiphenesin 1000 µg /ml and 20 µg /ml of salbutamol sulphate respectively. The working standard solution was prepared by diluting 1 ml of 1000 µg /ml guaiphenesin and 20 µg /ml. of salbutamol sulphate solution to 10 ml with diluent to get concentration 100 µg /ml guaiphenesin and 2 µg /ml of salbutamol sulphate respectively. Sample preparation Pharmaceutical formulation equivalent to 100 mg of guaiphenesin and 2 mg of salbutamol sulphate were weighted accurately and transferred in 10 ml volumetric flask to give concentration as 10000 µg /ml guaiphenesin and 200 µg /ml. of salbutamol sulphate respectively. The working standard solution was prepared by diluting 1 ml 10000 µg /ml guaiphenesin and 200 µg /ml of salbutamol sulphate solution to 100 ml with diluent to get concentration 100 µg /ml guaiphenesin and 2 µg /ml. of salbutamol sulphate respectively. Chromatographic condition Chromatographic separation was performed at ambient temperature on a reverse phase Zorbax Eclipse C18 (250 x 4.6 mm i.d.) with 5 µ particle size column. The mobile phase was a mixture of buffer of ph 4.3 and acetonitrile (75:25 % v/v). The buffer was mixtures of 0.1 % (v/v) tri-ethyl amine adjusted the ph 4.3 with ortho-phosphoric acid. The flow rate of the mobile phase was adjusted to 1 ml /min. The detection was carried out at wavelength 225 nm. (Fig.1) The injection volume of the standard and sample solution was set at 1.0 µl. Figure 1: Overlay UV spectra of guaiphenesin and salbutamol sulphate 0.8000 0.6000 Abs. 0.4000 0.2000 0.0000 210.0 240.0 260.0 280.0 300.0 nm. Method validation System suitability System performances of developed HPLC method were determined by injecting standard solutions. Parameter such as theoretical plates (N), symmetry, area and resolution were determined. The results are shown in table 1 which indicates good performance of the system. 909

Table 1: System suitability parameters evaluated on standard solution of guaiphenesin and salbutamol sulphate Name Retention Time Area Area % USP Plate Count Symmetry Resolution Salbutamol sulphate 2.423 121262 1.64 1723 1.5317 - Guaiphenesin 5.373 7256859 98.36 4845 1.3182 10.87 Specificity Specificity is the ability of the method to resolve the active ingredients. Hence blank, standard guaiphenesin and salbutamol sulphate were injected to prove specificity. The typical chromatogram of the standard and sample assayed are given in figure 2 and 3 respectively. Figure 2: Typical chromatogram of guaiphenesin and salbutamol sulphate (standard) Figure 3: Typical chromatogram of guaiphenesin and salbutamol sulphate (sample) Linearity Under the experimental conditions described above, linear calibration curve were obtained throughout the concentration range studied. Regression analysis was done on the peak area (y) v/s concentration (x). The regression analysis data obtained is tabulated in table no. 2. Table 2: Statistical evaluation of the data subjected to regression analysis Parameters Salbutamol sulphate Guaiphenesin Correlation Coefficient (r) 0.9980 0.9999 % Intercept (y) 5114 75195 Slope (m) 5299 74078 Accuracy The accuracy method was determined by applying proposed method to synthetic mixture containing known amount of drug corresponding to 80 %, 100 % and 120 %. The accuracy was then calculated as the percentage of analyte recovered by the assay. The results of the recovery analysis are enclosed under table no.3, 4. 910

Table 3: Statistical evaluation of the data subjected to accuracy of salbutamol sulphate level test wt in mg area quantity added in µg /ml quantity recovered in µg /ml % recovery mean recovery 80% 100% 120% 1 1.62 97984 17.44 17.39 99.69 2 1.65 97155 17.44 17.24 98.84 99.25 3 1.68 97532 17.44 17.30 99.23 1 2.09 123130 21.8 21.85 100.21 2 2.15 122099 21.8 21.66 99.38 99.97 3 2.12 123270 21.8 21.87 100.33 1 2.44 141140 26.16 25.04 95.73 2 2.46 144326 26.16 25.61 97.89 97.47 3 2.43 145666 26.16 25.85 98.80 Mean recover of all level 98.90 Table 4: Statistical evaluation of the data subjected to accuracy of guaiphenesin level test wt in mg area quantity added in quantity recovered in µg /ml µg /ml % recovery mean recovery 1 8.18 5753022 81.52 81.66 100.17 80% 2 8.05 5768118 81.52 81.87 100.43 100.47 3 8.12 5789419 81.52 82.17 100.80 1 10.16 7265671 101.9 103.13 101.20 100% 2 10.08 7255844 101.9 102.99 101.07 100.87 3 10.05 7202522 101.9 102.23 100.32 1 12.11 8715177 122.28 123.70 101.16 120% 2 12.07 8719112 122.28 123.76 101.21 101.13 3 12.03 8701722 122.28 123.51 101.01 Mean recover of all level 100.82 Precision The method precision was established by carrying out the analysis of salbutamol sulphate and guaiphenesin and. The assay was carried out of the drug using analytical method in five replicates. The value of relative standard deviation lies well with the limits. The results of the same are tabulated in the table no.5, 6. Table 5: Statistical evaluation of the data subjected to method precision of salbutamol sulphate wt of test Area % assay 2.15 121262 100.07 2.14 121617 100.83 2.24 127609 101.08 2.22 126450 101.06 2.21 124931 100.30 2.22 125764 100.51 Mean Assay 100.64 SD 0.415 RSD 0.413 Table 6: Statistical evaluation of the data subjected to method precision of guaiphenesin wt of test Area % assay 10.05 7256859 100.78 10.06 7256526 100.68 10.11 7271727 100.39 10.12 7280708 100.41 10.07 7105510 98.48 10.00 7106523 99.19 Mean Assay 99.99 SD 0.933 RSD 0.933 Robustness The robustness of the method was determined to check the reliability of an analysis with respect to deliberate variations in method parameters. 911

The typical variations are given below: Variation in the flow rate by + 0.2 ml /min Variation in mobile phase composition by + 2 % Variation in wavelength ± 5 nm The results of the analysis of the samples under the conditions of the above variation indicated the nature of robustness of the method. Method application Twenty tablets were weighed accurately and average weight of each tablet was determined. A powder equivalent to, 100 mg guaiphenesin and 2 mg of salbutamol sulphate were weighted accurately and transferred in 10 ml volumetric flask to give concentration as 10000 µg /ml guaiphenesin and 200 µg /ml. of salbutamol sulphate respectively. The working standard solution was prepared by diluting 1 ml of 10000 µg /ml guaiphenesin and 200 µg /ml. of salbutamol sulphate solution to 100 ml with diluent to get concentration 100 µg /ml guaiphenesin and 2 µg /ml. of salbutamol sulphate respectively. From this solution 1.0 µl was injected specific conditions. The analyte peak was identified by comparison with that of respective standard. The (%) assay results were expressed in table no. 5, 6. It indicates the amount of salbutamol sulphate and guaiphenesin in the product meets the requirement. RESULTS AND CONCLUSION The reproducibility, repeatability and accuracy of the proposed method were found to be satisfactory which is evidenced by low values of standard deviation and percent relative standard deviation. The accuracy and reproducibility of the proposed method was confirmed by recovery experiments, performed by adding known amount of the drug to the pre-analyzed active pharmaceutical ingredient and reanalyzing the mixture by proposed method. Thus the proposed RP-HPLC method is used for estimation of salbutamol sulphate and guaiphenesin from active pharmaceutical ingredient. It is more precise, accurate, linear, robust, simple and rapid method. Hence the proposed RP-HPLC method is strongly recommended for the quality control of the raw material, active pharmaceutical ingredient and pharmaceutical formulation. Acknowledgment Authors express sincere thanks to the principal, Dr. Tushar M. Desai, of D.G. Ruparel College, Mumbai for encouragement and providing laboratory facilities. REFERENCES [1] British Pharmacopoeia, Her Majesty s Stationary Office, London, 2010, Volume I, II, and III. [2]Indian Pharmacopoeia, Controller of Publication, Delhi, 2010 volume I, II, III.2224. [3] The United States Pharmacopeia. United States Pharmacopeia convention Inc, Rockville, USP 29 NF 24, Vol no.30 (4), 2008. [4] Sanjay G. Walode; Shruti D. Deshpande; Avinash V. Deshpande, Der Pharmacia Sinica2013, 4(2),61-67. [5] Amruta A. Bankar; Sonu R. Lokhande; Sawant R. L.; Ankita R. Bhagat., Der Pharma Chemica, 2013, 5(3),92-97 912