Multi-residue Method II for Veterinary Drugs by HPLC (Animal and Fishery Products)

Similar documents
Multi-residue Method I for Veterinary Drugs by HPLC (Animal and Fishery Products)

Multi-residue Screening of Veterinary Drugs (I) and (II) in Meat According to the Japan Positive List Using Cartridge-based SPE and LC-MS/MS

Ultra-Fast Analysis of Contaminant Residue from Propolis by LC/MS/MS Using SPE

One Analysis, One Column, Less than 9 Minutes for Over 60 Multiclass Antibiotics

Screening 36 Veterinary Drugs in Animal Origin Food by LC/MS/MS Combined with Modified QuEChERS Method

Determination of Benzimidazole Residues in Animal Tissue by Ultra High Performance Liquid Chromatography Tandem Mass Spectrometry

Analysis of Veterinary Drugs in Meat with the Agilent 6495 Triple Quadrupole LC/MS

AMOXICILLIN AND CLAVULANIC ACID TABLETS Draft proposal for The International Pharmacopoeia (February 2018)

Quantification of Chloramphenicol in Chicken Using Xevo TQD with RADAR Technology

ANTIBIOTICS RESIDUES IN HONEY: VALIDATION PROCEDURE HONEY ANALYTICAL METHODS VALIDATION

Veterinary Drug Detection in Pork and Milk

Rapid LC-MS/MS Method for the Analysis of Fipronil and Amitraz Insecticides and Associated Metabolites in Egg and Other Poultry Products

AOAC SMPR Intended Use: Routine Surveillance for GMP Compliance

Antibiotic Spectral Library Version 1.1 for LibraryView Software

Should you have any questions, please contact Edith Chang, Ph.D., Senior Scientific Liaison ( or

Multi-residue Determination of Polar Veterinary Drugs in Livestock and Fishery Products by Liquid Chromatography/ Tandem Mass Spectrometry

C 22 H 28 FNa 2 O 8 Pıı516.4

Analysis of Multiclass Veterinary Drugs in Baby Food by Ultra Fast Chromatography with High Performance Triple Quadrupole Mass Spectrometry

MOXIFLOXACIN HYDROCHLORIDE (MOXIFLOXACINI HYDROCHLORIDUM) Draft proposal for The International Pharmacopoeia. (January 2018)

Journal of Applied Pharmaceutical Research ISSN No

Determination, Confirmation and Quantitation of Multi-Class Antibiotic Residues in Milk by UHPLC MS/MS

DEVELOPMENT AND VALIDATION OF RP-HPLC METHOD FOR THE SIMULTANEOUS ESTIMATION OF ALISKIREN AND AMLODIPINE IN TABLET DOSAGE FORM

[ APPLICATION NOTE ] Analysis of Ketamine and Xylazine in Rat Tissues Using the ACQUITY UPLC with 2D Technology APPLICATION BENEFITS INTRODUCTION

Extraction and Cleanup Protocols for LC-MS/MS Multiresidue Determination of Veterinary Drugs in Tissue and Milk Samples

Isocratic Reverse Phase High Performance Liquid Chromatographic Estimation of Ramipril and Amlodipine in Pharmaceutical Dosage Form

HPLC method for simultaneous determination of Albendazole metabolites in plasma

Detection of residues of quinolones in milk

Sensitive and selective analysis of fipronil residues in eggs using Thermo Scientific GC-MS/MS triple quadrupole technology

Schedule of Accreditation issued by United Kingdom Accreditation Service 2 Pine Trees, Chertsey Lane, Staines-upon-Thames, TW18 3HR, UK

Compliance. Should you have any questions, please contact Praveen Pabba, Ph.D., ( or

Quantitative and confirmatory analysis of veterinary drug residues in food of animal origin by UPLC- MS/MS after QuEChERS clean-up

Development and Validation of Amlodipine Impurities in Amlodipine Tablets Using Design Space Computer Modeling

VALIDATED RP-HPLC METHOD FOR THE SIMULTANEOUS DETERMINATION OF AMLODIPINE BESYLATE AND ATORVASTATIN CALCIUM IN BULK AND PHARMACEUTICAL FORMULATION

Pharma Research Library. 2013, Vol. 1(1):19-29

DETERMINATION OF ACTIVE SUBSTANCES IN MULTICOMPONENT VETERINARY PREPARATIONS OF ANTIPARASITIC ACTION BY HPLC METHOD

Determination of Acaricides in Korean Honey Bull. Korean Chem. Soc. 2008, Vol. 29, No

Validation of bee4sensor for Honey

International Journal of Pharmaceutical Research & Analysis

Amlodipine, Valsartan, and Hydrochlorothiazide Tablets

COMMITTEE FOR VETERINARY MEDICINAL PRODUCTS

Journal of Global Trends in Pharmaceutical Sciences

Analysis of Contaminants in Food

Quality Services International GmbH. Testreport. Czech Honey Prokes Blanka M. Lukes Hajni 1363 CZ Prague Czech Republic

Revolutionary Milk Analysis

Development and validation of a HPLC analytical assay method for amlodipine besylate tablets: A Potent Ca +2 channel blocker

Determination of ofloxacin in bulk drug and pharmaceutical dosage form by high performance liquid chromatography method

Quantification of EPA 1694 Pharmaceuticals and Personal Care Products in Water at the ng/l Level Utilizing Online Sample Preparation with LC-MS/MS

Survey Results for Method Needs

International Journal of Pharmacy and Pharmaceutical Sciences. Research Article

Stability of Tylosin in Honey Impact on Residue Analysis Don Noot, Tom Thompson

Quantification of Several Acidic Drugs in Equine Serum Using LC MS-MS

Screening and Identification Methods for official control of Banned Antibiotics and Growth promoters in Feedingstuffs

Streptomycin Sulfate According to USP

ANTIBIOTICS IN PLASMA

DEVELOPMENT AND VALIDATION OF RP-HPLC METHOD FOR SIMULTANEOUS ESTIMATION OF AMLODIPINE BESYLATE AND IRBESARTAN

Concentration of Enrofloxacin Residue from Tilapia (Oreochromis niloticus) Muscular That Infected by Aeromonas salmonicida

A QUALITATIVE SURVEY OF ANTIBIOTICS IN SEWAGE FROM HOSPITALS AT KOTA (RAJASTHAN)

European Journal of Biomedical and Pharmaceutical ISSN Sciences

A Unique Approach to Managing the Problem of Antibiotic Resistance

Accepted Manuscript. Authors: Meritxell Gros, Sara Rodríguez-Mozaz, Damià Barceló

Oasis PRiME HLB Food Applications Notebook

Asian Journal of Pharmaceutical Research and Development (An International Peer-Reviewed Journal of Pharmaceutical Research and Development)

METHOD DEVELOPMENT AND VALIDATION FOR THE SIMULTANEOUS ESTIMATION OF OFLOXACIN AND ORNIDAZOLE IN TABLET DOSAGE FORM BY RP-HPLC

Occurrence of Antibiotics in Drinking Water

Overview of Antibiotics in China Animal Industry. Rongsheng Qiu on Invitation of PHILEO ROME SEMINAR 2017

Development of Analytical Methods for the Determination of Flunixin and Phenylbutazone Drug Residues in Edible Bovine Tissues

Multilaboratory Trial for Determination of Ceftiofur Residues in Bovine and Swine Kidney and Muscle, and Bovine Milk

European Public MRL assessment report (EPMAR)

Stability of Nafcillin Sodium Solutions in the Accufuser Elastomeric Infusion Device

Fluoroquinolones ELISA KIT

MULTI-CLASS PROCEDURE FOR ANALYSIS OF ANTIBACTERIAL COMPOUNDS IN EGGS BY LIQUID CHROMATOGRAPHY-TANDEM MASS SPECTROMETRY

Multi-residue Determination of Polar Veterinary Drugs in Livestock and Fishery Products by

The absorption, distribution, metabolism and excretion study of radiolabelled meloxicam in sheep following trans-mucosal delivery

Detection and Identification of Flunixin After Multiple Intravenous and Intramuscular Doses to Horses

Sci Pharm

ABSTRACT. Usharani N, Divya K and Ashrtiha VVS. Original Article

Determination of gentamicin and related impurities in gentamicin sulfate

Development And Validation Of Methods For Estimation Of Pimobendan In Pharmaceutical Dosage Form

A VALIDATED HPLC-ASSAY FOR THE DETERMINATION OF MELOXICAM IN PRESENCE OF ITS DEGRADATION PRODUCTS

Automated Online Multi-Residue LC-MS/MS Method for the Determination of Antibiotics in Chicken Meat

Development and Validation of RP-HPLC Method for Determination of Related Substances of Medetomidine in Bulk Drug

Analysis of antibiotic residues in milk from smallholder farms in Kenya

Simultaneous Determination of Danofloxacin and Difloxacin Residues in Poultry Meat using High Pressure Liquid Chromatography with PDA Detection

JOINT FAO/WHO FOOD STANDARDS PROGRAMME. CODEX COMMITTEE ON RESIDUES OF VETERINARY DRUGS IN FOODS Sixteenth Session

Determination of Total Taurine in Pet Foods by Liquid Chromatography of the Dansyl Derivative: Collaborative Study

COMMITTEE FOR MEDICINAL PRODUCTS FOR VETERINARY USE

Deptt of Pharma Science SGRR ITS Patel Nagar, Dehradun (UK)

Target screening of 105 veterinary drug residues in milk using UHPLC/ESI Q-Orbitrap multiplexing data independent acquisition

A Simple Sample Preparation with HPLC UV Method for Estimation of Amlodipine from Plasma: Application to Bioequivalence Study

Introduction PAPER IN FOREFRONT. Larissa J. M. Jansen 1 & Yvette J. C. Bolck 1 & Janneau Rademaker 1 & Tina Zuidema 1 & Bjorn J. A.

European public MRL assessment report (EPMAR)

11/22/2016. Veterinary Feed Directive. Medicated Feed Parentage. The Veterinarian and Medicated Feed: Roles. (Introduction) Type A medicated article

Chandra Mohan Rao Kota et al INTERNATIONAL JOURNAL OF RESEARCH AND REVIEWS IN PHARMACY AND APPLIED SCIENCES

Original Article. Abstract INTRODUCTION

Supplementary information

Multi-residue Automated Turbulent Flow Online LC-MS/MS Method for the Determination of Antibiotics in Milk

PO. Vasan, Gandhinagar District, Gujarat, India, 3 Dean at Faculty of Pharmacy, Dharmsinh Desai University, Nadiad, Gujarat, India.

PHARMA SCIENCE MONITOR AN INTERNATIONAL JOURNAL OF PHARMACEUTICAL SCIENCES PHARMACOKINETIC INTERACTION OF MOXIFLOXACIN AND

Development and validation of HPLC method for simultaneous estimation of Amlodipine besylate and Enalapril maleate in solid dosage form

Detection and confirmation of veterinary drug residues in commercially available frozen shrimp

Transcription:

Multi-residue Method II for Veterinary Drugs by HPLC (Animal and Fishery Products) 1. Analytes See Table 8. 2. Instruments High performance liquid chromatograph-photodiode array detector (HPLC-DAD) High performance liquid chromatograph-electrochemical detector (HPLC-ECD) Liquid chromatograph-mass spectrometer (LC-MS) 3. Reagents Use the reagents listed in Section 3 of the General Rules, except the following. Acetonitrile: Prepared for high-performance liquid chromatography. Water: Prepared for high-performance liquid chromatography. Methanol: Prepared for high-performance liquid chromatography. Phosphate buffer solution (ph 3.0) Solution 1: Weigh 27.2 g of potassium dihydrogen phosphate, dissolve in water to make 1,000 ml. Solution 2: Weigh 2.31 g of dipotassium hydrogen phosphate, dissolve in water to make 100 ml. Add solution 2 to solution 1, mix, and adjust ph to 3.0. Phosphate buffer solution (ph 5.0) Solution 1: Weigh 27.2 g of potassium dihydrogen phosphate, dissolve in water to make 1,000 ml. Solution 2: Weigh 3.48 g of dipotassium hydrogen phosphate, dissolve in water to make 100 ml. Add solution 2 to solution 1, mix, and adjust ph to 5.0. Reference standards of veterinary drugs: Reference standards of known purities for each veterinary drug. 4. Procedure 1) Extraction i) Muscle, liver, kidney, milk and other edible parts Weigh 5.00 g of sample, add 30 ml of 95% acetonitrile solution, homogenize, centrifuge at 2,500 rpm for 5 minutes, and take the acetonitrile layer. Add 30 ml of 95% acetonitrile solution to the residue, shake vigorously, centrifuge as described above, and combine the obtained acetonitrile layers. ii) Fat

Weigh 5.00 g of sample, add 30 ml each of 95% acetonitrile solution and n-hexane sequentially, homogenize, centrifuge at 2,500 rpm for 5 minutes, and take the acetonitrile layer. Add 30 ml of 95% acetonitrile solution to the residue and n-hexane layer shake vigorously, centrifuge as described above, and combine the obtained acetonitrile layers. 2) Clean up i) Synthetic magnesium silicate column chromatography Place 8 g of synthetic magnesium silicate for column chromatography suspended in acetonitrile in a chromatographic tube of 15 mm in inside diameter and 300 mm in length, and let flow out acetonitrile to the extent that only a small quantity of acetonitrile remains on the top of the column. Add 100 ml of acetonitrile to the cartridge and discard the effluent. Transfer the solution obtained in 1) to the cartridge, elute with 30 ml of acetonitrile, and collect the total eluate. Add 100 ml of n-hexane, shake the separating funnel vigorously for 3 minutes with a shaker, let stand, collect the acetonitrile layer, concentrate at below 40 C and remove the solvent. Dissolve the residue in 4 ml of phosphate buffer solution (ph 5.0) and add 6 ml of water. ii) Octadecylsilanized silica gel column chromatography Add 10 ml of methanol, 10 ml of water and 2 ml of phosphate buffer solution (ph 5.0) to an octadecylsilanized silica gel cartridge (360mg) sequentially, and discard the effluents. Transfer the solution obtained in 1) to the cartridge, add 5 ml of phosphate buffer solution (ph 5.0), and discard the effluent. Elute with 10 ml of 40% methanol solution and 10 ml of 70% acetonitrile solution respectively, and collect the eluate respectively, concentrate at below 40 C and remove the solvent. Dissolve the residue obtained from 40% methanol solution in 2 ml of 5% methanol solution, dissolve the residue obtained from 70% acetonitrile solution in 2 ml of 35% methanol solution and use each solution as the test solution. 5. Calibration curve Prepare standard solutions (methanol) of each veterinary drug, prepare solutions of several concentrations by diluting with 5% methanol solution for the veterinary drug described as A in Fraction C18 of Table 8, and diluting with 35% methanol solution for the veterinary drug described as B in the column of the Table. Inject 200 µl of each standard solution to HPLC, and make calibration curves by peak-height or peak-area method. 6. Quantification Inject 200 µl of the test solution to HPLC, and calculate the concentration of each veterinary drug from the calibration curves made in 5. 7. Confirmation Confirm using LC-MS or LC-MS/MS.

8. Measurement conditions Detector: See Table 8. Column: Octadecylsilanized silica gel, 4.6 mm in inside diameter, 250 mm in length and 5 µm in particle diameter Column temperature: 40 C Mobile phase: HPLC-DAD: Linear gradient from acetonitrile/water/phosphate buffer solution (ph 3.0) (1:18:1, v/v/v) to (14:5:1, v/v/v) in 30 min and hold for 10 min. HPLC-ECD: Acetonitrile / 0.085 mol/l potassium dihydrogen phosphate (2:3, v/v) Detecting conditions: See Table 8. 9. Limit of quantification See Table 8. 10. Explanatory note 1) Outline of analytical method The method consists of extraction of veterinary drugs from sample with 95% acetonitrile solution, clean-up with a synthetic magnesium silicate column chromatography, defatting by acetonitrile/hexane partitioning, clean-up with an octadecylsilanized silica gel chromatography, and quantification and confirmation using HPLC-DAD or HPLC-ECD. 2) Notes i) Table 8 list the analytes for which this method is applicable in the order they appear in the Japanese syllabary. Note that the maximum residue limits (MRLs) defined for some agricultural chemicals include not only the parent compounds, but also their metabolites or other transformation products, which are inapplicable to this method. ii) This method does not ensure simultaneous analysis of all of the analytes listed in Table 8. In advance, confirm that degradation or interference does not occur as the result of interaction between the target analytes. iii) Because some veterinary drugs easily cause the air oxidation and the photolysis, all procedures should be performed under shading promptly. iv) If a reference standard is difficult to dissolve in methanol, dissolve it in a small amount of N,N-dimethylformamide and then dilute with methanol. v) For the preparation of synthetic magnesium silicate column chromatography which is described in 2) Clean up in 4. Procedure section, the heating process at 130 C for 12 hours or longer described in Section 3 of the General Rules should not be performed. vi) Concentration and complete removal of the solvent should be performed under a gentle stream of nitrogen. vii) Depending on the sensitivity of the LC-MS or LC-MS/MS, it may be necessary to dilute

the test solution with HPLC mobile phase. viii) Table 8 shows expected fractions in agricultural chemicals for two types of test solutions obtained by octadecylsilanized silica gel column chromatography. Because elution behavior may change depending on the lot and storage conditions of the octadecylsilanized silica gel cartridge, check the validity of the elution behavior using reference standards. ix) Because the limit of quantification differs depending on the instrument used, the concentration rate of the test solution, and the injection volume, it may be necessary to optimize the conditions. 11. Reference Hisaya Terada, et al., Journal of Nagoya City Public Health Research Institute, 35, 101-105, 1989 12. Type C

Table 8. Multi-residue Method II for Veterinary Drugs by HPLC (Animal and Fishery Products) Veterinary drugs Analytes Monitoring wavelength (nm) Monitoring ions (m/z) Fraction C18 Limit of quantification (mg/kg) 2-Acetylamino-5-nitrothiazole 2-Acetylamino-5-nitrothiazole -186 139 B 0.0001 Aklomide Aklomide +201 155 B 0.01 Azaperone Azaperone +328 123 A 0.01 Albendazole 5-(Propylsulphonyl)-1H-benzimi dazole-2-amine 280 +240 133 A 0.01 Ethopabate Ethopabate 280 +238 206 A 0.01 Oxacillin Oxacillin +402 160 A 0.005 Oxibendazole Oxibendazole 300 +250 176 A, B 0.01 Ormetoprim Ormetoprim 280 +175 123 A, B 0.02 Oleandomycin Oleandomycin +688 158 B 0.01 Carazolol Carazolol +299 116 B 0.0005 Carprofen Carprofen +274 228 A, B 0.01 Cloxacillin Cloxacillin +437 160 A 0.005 Closantel Closantel 230 B 0.05 Clopidol Clopidol 280 +192 101 A 0.01 Ketoprofen Ketoprofen +255 105 A 0.005 Melengestrol acetate Melengestrol acetate 300 +397 337 B 0.001 Diclazuril Diclazuril 300-405 334 B 0.01 Dinitolmide Dinitolmide +224 181 A 0.03 Sulfaquinoxaline Sulfaquinoxaline 270 +301 156 A 0.01 Sulfachlorpyridazine Sulfachlorpyridazine 270 +285 156 A 0.01 Sulfadiazine Sulfadiazine 270 +251 92 A 0.01 Sulfadimidine Sulfadimidine 270 +279 92 A 0.01 Sulfadimethoxine Sulfadimethoxine 270 +311 156 A 0.01 Sulfathiazole Sulfathiazole 270 +256 92 A 0.01 Sulfadoxine Sulfadoxine 270 +311 156 A 0.01 Sulfatroxazole Sulfatroxazole +268 92 A 0.01 Sulfanitran Sulfanitran 270 +336 65 A 0.01 Sulfapyridine Sulfapyridine 270 +250 156 A 0.01 Sulfabromomethazine sodium Sulfabromomethazine sodium +357 92 A 0.01 Sulfabenzamide Sulfabenzamide 270 +277 156 A 0.01 Sulfamethoxazole Sulfamethoxazole 270 +254 92 A 0.01 Sulfamethoxypyridazine Sulfamethoxypyridazine 270 +281 92 A 0.01 Sulfamerazine Sulfamerazine 270 +265 92 A 0.01 Sulfamonomethoxine Sulfamonomethoxine 270 +281 92 A 0.01

Cefazolin Cefazolin +455 323 A 0.01 Cefapirin Cefapirin +424 152 A 0.01 Cefoperazone Cefoperazone +646 143 A 0.01 Cefuroxime Cefuroxime +447 386 A 0.01 Zeranol Zeranol * -321 277 A, B 0.0005 Thiabendazole Thiabendazole 320 +202 175 A, B 0.01 5-Hydroxylthiabendazole 320 +218 191 A 0.01 Tiamulin Tiamulin +494 192 B 0.05 Thiamphenicol Thiamphenicol 230-345 185 A 0.01 Trimethoprim Trimethoprim 280 +291 230 A 0.02 Tolfenamic acid Tolfenamic acid +262 209 B 0.001 Trenbolone acetate α- Trenbolone (liver) 350 +271 115 B 0.002 β- Trenbolone (muscle) 350 +271 115 B 0.002 Nicarbazin N,N'-Bis(4-nitrophenyl) urea 300-301 137 B 0.02 Nafcillin Nafcillin +415 199 A 0.01 Nifrustyrenate Nifrustyrenate -258 184 A 0.01 Novobiocin Novobiocin 300 +613 189 B 0.01 Norgestomet Norgestomet +373 313 B 0.0001 Bithionol Bithionol -355 161 B 0.002 Pyrimethamine Pyrimethamine +249 177 B 0.02 Famphur Famphur +326 93 A 0.02 Phenoxymethylpenicillin Phenoxymethylpenicillin +351 160 A 0.002 Praziquantel Praziquantel +313 203 B 0.01 Flubendazole Flubendazole 300 +314 282 B 0.002 Brotizolam Brotizolam +395 314 B 0.0005 Florfenicol Florfenicol -358 185 A 0.01 Benzylpenicillin Benzylpenicillin +335 91 A 0.005(muscle, fat, organ) 0.001 (milk) Mebendazole Mebendazole +296 264 B 0.0001 Meloxicam Meloxicam +352 115 A, B 0.0001 Lasalocid Lasalocid +592 337 B 0.005 Lincomycin Lincomycin +407 126 A, B 0.05 Levamisole Levamisole 230 +205 178 A 0.002 Warfarin Warfarin +309 163 A, B 0.001 The compounds are listed in the order of the Japanese syllabary. The monitoring wavelengths represent the wavelength measured by a high performance liquid chromatograph equipped with an ultraviolet spectrophotometric detector or a photodiode array detector. Ions are monitored with an ESI positive mode (+) and an ESI negative mode (-) in

LC-MS/MS measurement. The level of Zeranol should be determined using HPLC-ECD (Eg 850 mv, E1 500 mv, and E2 750 mv). In the Fraction C18 column, A represents a 40% methanol-water fraction and B represents a 70% acetonitrile fraction.